MUTATIONS IN THE DIABETES SUSCEPTIBILITY GENES HEPATOCYTE NUCLEAR FACTOR (HNF) 1 ALPHA ( alpha ), HNF-1 beta AND HNF-4 alpha

Abstract: The present invention relates generally to the fields diabetes. More particularly, it concerns the identification of genes responsible for NIDDM for use in diagnostics and therapeutics. The present invention demonstrates that the MODY3 locus is, in fact, the HNF-1 alpha gene, MODY4 locus is the HN-F1 beta and the MODY1 locus is the HNF-4 alpha gene. The invention further relates to the discovery that analysis of mutations in the HNF-1 alpha , HNF-1 beta and HNF-4 alpha genes can be diagnostic for diabetes. The invention also contemplates methods of treating diabetes in view of the fact that HNF-1 alpha , HNF-1 beta and HNF-4 alpha mutations can cause diabetes.

Description: DESCRIPTION MUTATIONS IN THE DIABETES SUSCEPTIBILITY GENES HEPATOCYTE NUCLEAR FACTOR IHNF) 1 ALPHA (α). HNF-lβ AND HNF-4α BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates generally to the fields diabetes. More particularly, it concerns the identification of genes responsible for diabetes for use in diagnostics and therapeutics. 2. Description of Related Art Diabetes is a major cause of health difficulties in the United States. Non-insulin-dependent diabetes mellitus (NIDDM also referred to as Type 2 diabetes) is a major public health disorder of glucose homeostasis affecting about 5% of the general population in the United States. The causes of the fasting hyperglycemia and/or glucose intolerance associated with this form of diabetes are not well understood. Clinically, NIDDM is a heterogeneous disorder characterized by chronic hyperglycemia leading to progressive micro- and macrovascular lesions in the cardiovascular, renal and visual systems as well as diabetic neuropathy. For these reasons, the disease may be associated with early morbidity and mortality. Subtypes of the NIDDM can be identified based at Ieast to some degree on the time of onset of the symptoms. The principal type of NIDDM has on-set in mid-life or later. Early-onset NIDDM or maturity-onset diabetes of the young (MODY) shares many features with the more common form(s) of NIDDM whose onset occurs in mid-life. Maturity-onset diabetes of the young (MODY) is a form of non-insulin dependent (Type 2) diabetes mellitus (NIDDM) that is characterized by an early age at onset, usually before 25 years of age, and an autosomal dominant mode of inheritance (Fajans 1989). Except for these features, the clinical characteristics of patients with MODY are similar to those with the more common late-onset form(s) of NIDDM. Although most forms of NIDDM do not exhibit simple Mendelian inheritance, the contribution of heredity to the development of NIDDM has been recognized for many years (Cammidge 1928) and the high degree of concordance of NIDDM in monozygotic twin pairs (Barnett et al. 1981) indicates that genetic factors play an important role in its development. MODY is characterized by its early age of onset which is during childhood, adolescence or young adulthood and usually before the age of 25 years. It has a clear mode of inheritance being autosomal dominant. Further characteristics include high penetrance (of the symptomology), and availability of multigenerational pedigrees for genetic studies of NIDDM. MODY occurs worldwide and has been found to be a phenotypically and genetically heterogeneous disorder. A number of genetically distinct forms of MODY have been identified. Genetic studies have shown tight linkage between MODY and DNA markers on chromosome 20, this being the location of the M0DY1 gene (Bell et al., 1991; Cox et al., 1992). M0DY2 is associated with mutations in the glucokinase gene (GCK) located on chromosome 7 (Froguel et al. 1992 and 1993). Recent linkage studies have shown the existence of a further form of MODY which has been termed M0DY3 (Vaxillaire eta/., 1995). M0DY3 has been shown to be linked to chromosome 12 and is localized to a 5 cM region between markers D12S86 and D12S807/D12S820 of the chromosome (Menzel etal., 1995). Although it is well established that M0DY2 is associated with mutations in GCK there is still no information as to the identity of other MODY genes. There is a clear need to identify these genes and the mutations that result in diseased states. The identification of these genes and their products will facilitate a better understanding of the diseased states associated with mutations in these genes and has important implications in the diagnosis and therapy of MODY. Since an understanding of the molecular basis of diabetes in general and MODY specifically may facilitate the development of new therapeutic strategies for the treatment of these disorders, studies are needed to identify diabetes-susceptibility genes associated with MODY. Moreover, methods of detecting individuals with a propensity to develop such diseases are needed. Where possible, the molecular mechanism underpinning the genetic lesion should be determined in order to allow diagnosis and specifically-directed therapy SUMMARY OF THE INVENTION The present invention relates to the inventors discovery that the M0DY3 locus the HNF1α gene, the M0DY1 locus is the HNF4 gene and the M0DY4 locus is HNF1β. The invention further relates to the discovery that analysis of mutations in the HNF1α, HNF1 β and HNF4α genes can be diagnostic fo diabetes. The invention also contemplates methods of treating diabetes in view of the fact tha mutations in HNF1α, HNFI β and HNF4α can cause diabetes. In one embodiment, the invention contemplates methods for screening for diabetes mellitus These methods comprise: obtaining sample nucleic acid from an animal; and analyzing the nucleic acids t detect a mutation in an HNF-encoding nucleic segment; wherein a mutation in the HNF-encoding nuclei acid is indicative of a propensity for non-insulin dependent diabetes. In certain embodiments the HNF-encoding nucleic acid is an HNFlα-encoding nucleic acid. I view of the inventor's discovery that the M0DY3 locus is HNF1α, a mutation in the HNFlα-encodin nucleic acid is indicative of a propensity for diabetes, in some presently preferred embodiments, th HNFlα-encoding nucleic acid is located on human chromosome 12q, which is the location site of th M0DY3 locus. In other embodiments, the HNF-encoding nucleic acid is an HNF4α-encoding nucleic acid In view of the inventor's discovery that the M0DY1 locus is HNF4α, a mutation in the HNF4α-encodin nucleic acid is indicative of a propensity for diabetes. In some presently preferred embodiments, th HNF4α-encoding nucleic acid is located on human chromosome 20, which is the location of the M0DY1 locus. It is important to note that the terms NIDDM, MODY, MODYl, M0DY3, and M0DY4 are used t designate diabetes disease states, and the use of a particular such name may not always represent th same causation of that disease state. The inventors have discovered that mutations in HNF4α can lea to a MODYl disease state; however, not all mutations in HNF4α that lead to diabetes might cause "MODYl" disease state. Conversely, not all diabetes disease states brought about by a mutation i HNF4α might be considered a M0DY1 disease state. Therefore, Applicants prefer to use, in some cases, "HNF4α-diabetes" to note any diabetic disease state brought on by a mutation or malfunction of HNF4α, even those that do not exhibit all, or any, M0DY1 disease states. Likewise, Applicants may use "HNF4α- diabetes" and "HNF4β-diabetes" rather than "M0DY3" and "M0DY4", respectively. The nucleic acid to be analyzed can be either RNA or DNA. The nucleic acid can be analyzed in a whole tissue mount, a homogenate, or, preferably, isolated from tissue to be analyzed. In some preferred embodiments, the step of analyzing the HNF-encoding nucleic acid comprises sequencing of the HN encoding nucleic acid to obtain a sequence, the sequence may then be compared to a native nucleic acid sequence of HNF to determine a mutation. Such a native nucleic acid sequence of HNFIα may have the sequence set forth in SEQ ID NO: 1. Such a native nucleic acid sequence of HNF4α has a sequence set forth in SEQ ID N0:78. The method allows for the diagnosis of almost any mutation, including, for example, point mutations, traπslocatioπ mutations, deletion mutations, and insertion mutations. The method of analysis may comprise PCR, an RNase protection assay, an RFLP procedure, etc. Using this method, the inventors have diagnosed a variety of HNFIα mutations, including those set forth in Table 8. In preferred embodiments mutations occur at codons 17, 7, 27, 55/56, 98, 131, 122, 142, 129, 131, 159, 171, 229, 241, 272, 288, 289, 291, 292, 273, 379, 401, 443, 447, 459, 487, 515, 519, 547, 548 or 620 of an HNFlα-encoding nucleic acid nucleic acid, for example, having the sequence of SEQ ID N0:1. In other preferred embodiments a mutation occurs at the splice acceptor region of intron 5 and exon 6 of an HNFlα-encoding nucleic acid. In other embodiments a mutation occurs at the splice acceptor region of intron 9 of an HNFl -encoding nucleic acid. In other embodiments, the mutation occurs independently, in intron 1, intron 2, intron 5, intron 7 or intron 9 of HNFIα gene. The inventors have also found a variety of HNF4α mutations, including those found in Table 10. In some preferred embodiments, the HNF- encoding nucleic acid is an HNF4α-encoding nucleic acid and a mutation occurs in exon 7 of the HNF4α- encoding nucleic acid. In other preferred embodiments, a mutation occurs at codon 268, 127, 130 or 154 of an HNF4α-encoding nucleic acid having the sequence of SEQ ID N0:78. The invention also contemplates methods of treating diabetes in an animal comprising: diagnosing an animal that has diabetes and modulating HNF function in the animal. The step of diagnosing an animal with diabetes frequently comprises analysis of an HNFlα- encoding nucleic acid sequence or an HNF4α-encoding nucleic acid sequence for a mutation. The step of modulating HNF function may comprise providing an HNFIα or HNF4α polypeptide to the animal. In cases where normal HNFIα or HNF4α function is sought to be revived, the HNFIα or HNF4α polypeptide may be a native HNFIα or HNF4α polypeptide. For example, a native HNFIα polypeptide may the sequence of SEQ ID NO: 2. A native HNF4α polypeptide may the sequence of SEQ ID NO: 79. The provision of an HNFIα or HNF4α polypeptide is accomplished by any of a number of ways. For example, expression of an HNFIα or HNF4α polypeptide may be induced, with the expression being of an HNFIα or HNF4α polypeptide encoded in the animal's genome or of an HNFIα or HNF4α polypeptide encoded by a nucleic acid provided to the animal. The provision of an HNFIα or HNF4 polypeptide may be accomplished by a method comprising introduction of an HNFIα or HNF4α-encodi nucleic acid to the animal, for example, by injecting the HNFIα or HNF4α-encoding nucleic acid into t animal. Modulating HNF function in the animal can comprise providing a modulator of HNFIα or HNF4 function to the animal. Such modulators are in the nature of drugs and can be, for example HNF4, HNF HNF3 or any other peptide or molecule that regulates HNFI α. These modulators may be formulated in a pharmaceutical compound for delivery to the animal. The modulator of HNFIα, HNFβ or HNF4 function may be an agonist or antagonist of HNFIα, HNFβ or HNF4α. The modulator may modula transcription of an HNFIα, HNFβ or HNF4α-encoding nucleic acid, translation of an HNFI α, HNFβ HNF4α-encoding nucleic acid, or the functioning of the HNFIα, HNFβ or HNF4α polypeptide. The invention also contemplates methods of screening for modulators of HNF functio comprising: obtaining an HNF polypeptide, for example an HNFIα, HNFβ or HNF4α polypeptid determining a standard activity of the HNF; contacting the polypeptide with a putative modulator; an assaying for a change in the standard activity of the polypeptide. In some preferred methods, th standard activity profile of a HNFIα polypeptide is determined by measuring the binding of the HNFI polypeptide to a nucleic acid segment comprising the sequence of SEQ ID NO: 9. To facilitate measurin the HNFIα activity, the nucleic acid segment comprising the sequence of SEQ ID NO: 9 or the HNFI polypeptide may comprise a detectable label. In some preferred methods, the standard activity profile a HNF4α polypeptide is determined by measuring the binding of the HNF4α polypeptide to a nucleic aci segment comprising the sequence of SEQ ID NO: 85. To facilitate measuring the HNF4α activity, th nucleic acid segment comprising the sequence of SEQ ID NO: 85 or the HNF4α polypeptide may compris a detectable label, in other embodiments, the standard activity profile of an HNF polypeptide i determined by determining the ability of an HNFI polypeptide to stimulate transcription of a report gene, the reporter gene operatively positioned under control of a nucleic acid segment comprising th sequence of SEQ ID NO: 1. In other embodiments, the standard activity profile of an HNF polypeptide i determined by determining the ability of an HNF4α polypeptide to stimulate transcription of a report gene, the reporter gene operatively positioned under control of a nucleic acid segment comprising th sequence of SEQ ID NO: 78. Similar assays are contemplated for HNF1 β polypeptide. The invention also contemplates methods of screening for modulators of HNF polypeptide function comprising: obtaining an HNFIα, HNFIβ or HNF4α-encoding nucleic acid segment; determining a standard transcription and translation activity of the HNFIα, HNFIβ or HNF4α-encoding nucleic acid sequence; contacting the HNFIα or HNF4α-encoding nucleic acid segment with a putative modulator; maintaining the nucleic acid segment and putative modulator under conditions that normally allow for HNFIα or HNF4α transcription and translation; and assaying for a change in the transcription and translation activity. The inventors discovery allows for the preparation of a host of HNF modulators such as MODY3/HNF1α-modulators, M0DY4/HNF1β-modulators and MODYl /HNF4α modulators. Such modulators themselves are within the scope of the invention. Such an HNF modulator may be prepared or preparable by a process comprising screening for modulators of HNF function comprising: obtaining an HNF polypeptide; determining a standard activity profile of the HNF polypeptide; contacting the HNF polypeptide with a putative modulator; and assaying for a change in the standard activity profile. An HNF modulator prepared by a process comprising screening for modulators of HNF function comprising: obtaining an HNF-encoding nucleic acid segment; determining a standard transcription and translation activity of the HNF-nucleic acid sequence; contacting the HNF-encoding nucleic acid segment with a putative modulator; maintaining the nucleic acid segment and putative modulator under conditions that normally allow for HNF transcription and translation; and assaying for a change in the transcription and translation activity. Some aspects of the invention relate to isolated and purified polynucleotides encoding an HNF polypeptide. Such polynucleotides can be: an HNFlα-encoding nucleic acid, HNFIβ-encoding nucleic acid sequence, or an HNF4α-eπcoding nucleic acid. In some particular embodiments, the polynucleotide encodes an HNFI having an amino acid sequence as set forth in SEQ ID NO: 127. In preferred embodiments, the polynucleotide may be an HNFlα-encoding nucleic acid sequence has a sequence of SEQ ID NO: 126. In additional particular embodiments, the polynucleotide encodes an HNFIβ having an amino acid sequence as set forth in SEQ ID NO: 139. In preferred embodiments, the polynucleotide may be an HNFIβ-encoding nucleic acid sequence having a sequence of SEQ ID NO: 128. The polynucleotide may encode an HNF4α having an amino acid sequence as set forth in SEQ ID N0:140. In preferred embodiments, the polynucleotide may be an HNF4α-encoding nucleic acid sequence has a sequence SEQ ID N0:130. Other embodiments comprise isolated and purified nucleic acid segments comprising 10, 14, 1 25, 30, 35, 40, 45, 50, 55, 60, 70, 80, 90, 100, 125, 150, 175, 200, 250, 300, 350, 400, 450, or 50 contiguous nucleic acids identical to the sequence of SEQ ID N0.1 8 or SEQ ID NO: 126 or th complement of these sequences. These nucleic acid segments can be used by those of skill in the art a hybridization probes, PCR primers, for the expression of HNF polypeptides, for the expression of othe polypeptides, etc. In some embodiments, the segment encodes a full-length HNF polypeptide. O particular interest are the promoters for HNFIα and HNF1 β, which are disclosed in SEQ ID NOS: 126 an 128 respectively and in FIGs. 26 and 27, respectively and discussed elsewhere in this application. Thes promoters may be used by those of skill in the art in many varying applications. BRIEF DESCRIPTION OF THE DRAWINGS The following drawings form part of the present specification and are included to furthe demonstrate certain aspects of the present invention. The invention may be better understood b reference to one or more of these drawings in combination with the detailed description of specifi embodiments presented herein. FIG. 1. Pedigrees of M0DY3 families. The individuals studied in the Clinical Research Center a the University of Chicago are indicated by MD-1-5 and 8-13 and those with NIDDM, IGT and NGT ar shown by black symbols, shaded symbols and open symbols, respectively. The asterisks indicate tha these individuals have inherited the at-risk haplotype associated with M0DY3 in that family. Th genotypes and haplotypes for the P family have been described (Menzel et al., 1995) and the pairwise lo score between MODY and the D12S76/D12S321 haplotype in this family is 2.06 at a recombinatio fraction of 0.00. The pairwise lod score between MODY and D12S76 in pedigree F549 is 0.65 at recombination fraction of 0.00 (Vaxillaire et ai, 1995). The pedigrees BDA1 and BDA12 have not bee previously described. MODY co-segregates with markers tightly linked to MODY3 in these families wit pairwise lod scores between MODY and D12S86 of 1.94 and 0.60, respectively, at a recombinatio fraction of 0.00. FIG. 2. Average glucose (A), insulin (B) and insulin secretion rate (ISR) (C) profiles in 7 diabetic M0DY3 subjects (D), 6 nondiabetic MDDY3 subjects (*) and 6 control subjects (o), during the stepped glucose infusion studies. After a 30 min period of baseline sampling, glucose was infused at rates of 1 , 2, 3, 4, 6, and 8 mg -kg 1 -min \ Each infusion rate was administered for a period of 40 min and glucose, insulin and C-peptide were measured at 10, 20, 30 and 40 min into each period. FIG. 3. Relationship between average plasma glucose concentrations and ISR's during the stepped glucose infusion studies in 7 diabetic M0DY3 subjects (D), 6 nondiabetic M0DY3 subjects H and 6 control subjects (o). The lowest glucose levels and ISR's were measured under basal conditions, and subsequent levels were obtained during glucose infusion rates of 1, 2, 3, 4, 6 and 8 mg kg 1 -min ', respectively. FIG. 4. Graded intravenous glucose infusions were administered to 6 controls (A), 6 nondiabetic M0DY3 subjects (B) and 7 diabetic M0DY3 subjects (C) after an overnight fast (baseline (*)) and after a 42-fι intravenous infusion of glucose (postglucose ) at a rate of 4-6 mg kg ' min \ FIG. 5A, FIG. 5B, FIG. 5C, FIG. 5D, FIG. 5E, FIG. 5F and FIG 5G. M0DY3 pedigrees showing co-segregation of mutant HNFIα allele with diabetes mellitus. Males are noted by square symbols and females by circles. Individuals with NIDDM are noted by black symbols and those with gestational onset diabetes or impaired glucose tolerance by shaded symbols. A diagonal line through the symbol indicates that the individual is deceased. The individual ID is noted at the top right corner of each symbol and the HNFIα genotype, if determined, noted below: N, normal allele; M, mutant allele. The arrow indicates the individual from each pedigree who was screened for mutations. Note that some individuals have inherited the mutant allele but do not yet have NIDDM, usually because of their young age (e.g. P pedigree, individual IV-6; and Ber pedigree, individual V-2. Also, some individuals have NIDDM even though they did not inherit the mutant HNFIα allele segregating in that family (e.g. Ber pedigree, individual 11-2). Such heterogeneity has been noted previously (Bell etal, 1991) and is a reflection of the high prevalence of NIDDM. FIG. 6. The involvement of hepatocyte nuclear factors in diabetes. FIG. 7. An alignment of the HNF4α protein sequence from humans (h) with sequences from human, mouse <m) , Xenopus (x) and Drosophila (d) species. The putative DNA binding sites are underlined and the putative ligand binding sites are in bold. FIG. 8A, FIG. 8B, FIG. 8C, FIG. 8D FIG. BE, FIG. 8F. FIG. 8G. FIG. 81, FIG. 8H, FIG. 81. Th DNA sequences for exon 1, exon 2, exon 3, exon 4, exon 5 exon 6 exon 7 exon 8 exon 9 and exon 10 o HNF4α. FIG. 9. Physical map of the M0DY3 region of chromosome 12. YAC, BAC (b) and PAC (p) clones ar represented as lines, the length of which reflects the number of included STSs and not the actual size. Th physical distance between adjacent STSs has not been determined directly and STSs for which the orde has not been unambiguously determined are indicated in brackets. A circle indicates that the clone wa positive for the indicated STS and a square indicates a STS derived from the end of that specific clone Several YACs contain large internal deletions which are noted by brackets. The STSs are from GDB™ an the GenBank STS databases. FIG. 10. Partial sequence of exon 4 of the HNF-1α gene of individual EA1 (Edinburgh pedigree). Th sequences of the normal and mutant alleles are shown. There is an insertion of a C in codon 291 (noted b the arrowhead) in the mutant allele resulting in a f rameshif t and premature termination. FIG. 11. The cDNA sequence of HNFIα denoting position of the exons. FIG. 12. Model of the human HNF-4α showing the different patterns of alternative splicing an structures of the different forms of HNF-4α that can be generated by alternative splicing. The amin acids that define the boundaries of some of the regions of the protein are shown. DBD and LB correspond to the DNA and ligand-binding domains of HNF-4α, respectively. FIG. 13. Comparison of the sequences of the promoter regions of the human and mouse HNF-4 genes (SEQ ID N0.135 and SEQ ID N0:137, respectively). Identical residues are shown in boxes. Th binding sites for transcription factors that may regulate the expression of HNF-4α are overlined. Th asterisk notes the predicted transcriptional start site based on the study of the mouse HNF-4α gen (Zhong et a/., 1994). The minimal promoter region required for high-level expression of the mouse gene i hepato a cells is shown by shading. The ATG codon which defines the start of translation is noted. Th arrowhead shows the DNA polymorphism found in the promoter region of the proband of family J2-96 The GenBank accession nos. for the mouse promoter sequence are S74519 and S77762. FIG. 14A and FIG. 14B. Partial sequence of exon 4 of HNF4α gene of patient J2-21. Th sequences of the normal (FIG. 14A SEQ ID N0.141 and corresponding amino acids SEQ ID ND:142) an mutant (FIG. 14B; SEQ ID NO: 143) alleles are shown and the arrow indicates the C→T substitution at codon 127. FIG. 15. Pedigrees of Japanese families with mutations/polymorphisms in the HNF-4 gene. Individuals with diabetes are noted by filled symbols and nondiabetic (or not tested) individuals are indicated by open symbols. The arrow indicates the proband. The clinical features of each subject are shown including age at diagnosis, present age and present treatment. The HNF4 genotype of tested individuals is noted: N-πormal and M-mutation/polymorphism. FIG. 16. Identification of a nonsense mutation in the HNF4α gene in a german family, the Dresden- 11 pedigree. The members of this family with MODY and impaired glucose tolerance are indicated with black and shaded symbols, respectively. The age at diagnosis of diabetes mellitus, present age and therapy (OHA, oral hypogiycemic agents), and nature of complications (M, macrovascular disease; R, retinopathy; and N, peripheral polyneuropathy) are indicated. The haplotype associated with MODY in this family is shown. FIG. 17. Partial sequence of exon 4 of the HNF4α gene of subject II-4 of the Dresden- 11 pedigree. The R154X mutation is indicated (SEQ ID NO: 144 and SEQ ID NO: 145). Intron 4 follows the Gin codon, CAG. FIG. 18A, FIG. 18B, FIG. 18C and FIG. 18D. Oral glucose tolerance testing in the Dresden- 1 1 family. The blood glucose (FIG. 18A), insulin (FIG. 18B), C-peptide (FIG. 18C) and proinsulin (FIG. 18D) levels during the course of the glucose tolerance test are shown. The open symbols are the means±SEM for subjects with the R154X mutation, including those with diabetes and impaired glucose tolerance, and the filled symbols are the means for the two normal subjects. FIG. 19 A, FIG. 19B, FIG. 19C and FIG. 19D. Effect of bolus and infusion of arginine, of glucose, and of arginine during hyperglycemic clamp on plasma concentration of glucose (FIG. 19A), insulin (FIG. 19B), C-peptide (FIG. 19C), and glucagon (FIG. 19D) in 3 groups of subjects of the RW pedigree. FIG. 20A and FIG. 20B. Acute insulin (FIG. 20A) and C-peptide (FIG. 20B) response to bolus administration of arginine in 3 groups of subjects of the RW pedigree at baseline and during the hyperglycemic clamp procedure. The slope of the line connecting these insulin responses (slope of potentiation) was lower in ND[+] vs. ND[-J, p < 0.001. The slope for D[+) was lowest. FIG. 21. MODY pedigree, Italy- 1. Subjects with MODY and impaired glucose tolerance are indicated by filled and cross-hatched symbols, respectively. Nondiabetic subjects (by testing or history) are indicated by open symbols. The clinical features of the subjects are noted below the symbol including current treatment: insulin or oral hypoglγcemic agent (OH A). The haplotype at the markers D12S321- D12S76-UC-39 is shown and the at-risk haplotype is noted by shading. The HNF-lα genotype is shown: N, normal; M, mutant (A-»C substitution at nucleotide -58). Although treated insulin, subject III-9 fasting C-peptide value of 1.2 ng/ l indicating that she has MODY rather than insulin-dependent diabetes mellitus. FIG. 22. Comparison of the sequence of the promoter region of the human, rat, mouse, chicken and frog HNF-1α a genes (SEQ ID N0:134; SEQ ID N0:138; SEQ ID N0:136; SEQ ID N0:132; SEQ ID NO: 133 respectively). The A- C substitution at nucleotide -58 and HNF-4α binding site are shown. Residues identical to the human sequence are boxed. Nucleotides are numbered relative to the transcriptional start site of the human gene (indicated by an asterisk). The boxed ATG triplet is the initiating methionine. The dashes indicate gaps introduced in the sequences to generate this alignment. FIG. 23. Summary of mutations in the human HNF Iα gene. This cartoon shows the exons and promoter region as boxes. The mutations and amino acid polymorphisms are from Yamagata et al., 1996; Lehto M, et ai, 1997; Kaisaki PJ, et ai, 1997; Vaxillaire et ai, 1997; Frayling et al., 1997; Hansen T, et ai, 1997; Urhammer et al., 1997; Glucksmann et ai, 1997. The amino acid polymorphisms are I/L27, A/V98 and S/N487. The single-letter abbreviations for the amino acids are used. FIG. 24 Partial sequence of exon 2 of HNF-lβ gene of subject J2-20 (SEQ ID NO: 146 and SEQ ID N0:147). The C→T mutation in codon 177 is indicated. FIG. 25. J2-20 pedigree. Individuals with diabetes mellitus are noted by filled symbols. The arrow indicates the proband. The present age, age at diagnosis, current treatment and complications are shown. The HNF-1 β genotype is noted: N, normal; M, mutant. OHA, oral hypoglγcemic agent; PDR, proliferative diabetic retinopathy; CRF, chronic renal failure; and DKA, diabetic ketoacidosis. FIG. 26A-FIG. 26M Partial sequence of human HNFIα gene. SEQ ID N0:126 and SEQ ID NO: 127 These figures depict a contiguous sequence and have been split into panels due to the size of the sequence. The nucleotide and predicted amino acid sequences are shown. Exon and intron sequences are in uppercase and lower cases respectively. The approximate size of the gaps in the introns, the complete sequence of which was not determined are noted. In the promoter region, potential binding sites for transcription factors that may regulate expression of this gene are indicated, with sites identified by Onase footprinting in italics, those identified by sequence homology in normal type. The minimal promoters region is shown in boldface type. The polymorphisms and mutations in the HNFIα gene identified to date are shown in boldface type with the designation of the mutation noted. The asterisk notes the predicted transcriptional start site based on studies of rat HNFIα gene. The letter n indicates that the sequence was ambiguous at this site FIG. 27A-FIG. 271 Partial sequence of human HNFIβ gene. SEQ ID N0.128, SEQ ID N0:129, and SEQ ID NO: 139 These figures depict a contiguous sequence and have been split into panels due to the size of the sequence. The nucleotide and predicted amino acid sequences are shown. Exon and intron sequences are in uppercase and lower cases respectively. The approximate size of the gaps in the introns, the complete sequence of which was not determined are noted. In the promoter region, potential binding sites for transcription factors that may regulate expression of this gene are indicated, with sites identified by Dnase footprinting in italics, those identified by sequence homology in normal type. FIG. 28A-FIG. 28V Partial sequence of human HNF4α gene. SEQ ID NO: 130, SEQ ID N0:131 and SEQ ID NO: 140 These depict a contiguous sequence and have been split into panels due to the size of the sequence. The nucleotide and predicted amino acid sequences are shown. Exon and intron sequences are in uppercase and lower cases respectively. DESCRIPTION OF ILLUSTRATIVE EMBODIMENTS The present invention concerns the early detection, diagnosis, prognosis and treatment of diabetes. The present invention describes for the first time mutations responsible for HNFIα, HNFIβ and HNF4α- related diabetes. The specific mutation and identity of the corresponding wild-type genes from diabetic subjects, are disclosed. These mutations are indicators of HNFIα, HNFIβ and HNF4α related diabetes and are diagnostic of the potential for the development of diabetes. It is envisioned that the techniques disclosed herein will also be used to identify other gene mutations responsible for other forms of diabetes. Those skilled in the art will realize that the nucleic acid sequences disclosed will find utility in a variety of applications in diabetes detection, diagnosis, prognosis and treatment. Examples of such applications within the scope of the present invention include amplification of markers of MODY using specific primers; detection of markers of HNFIα, HNFIβ and HNF4α by hybridization with oligonucleotid probes; incorporation of isolated nucleic acids into vectors and expression of vector-incorporated nuclei acids as RNA and protein; development of immuπologic reagents corresponding to gene encoded product and therapeutic treatment for the identified MODY using these reagents as well as, anti-sense nucleic acid or other inhibitors specific for the identified MODY. The present invention further discloses screening assay for compounds to upregulate gene expression or to combat the effects of the mutant HNFIα, HNFIβ an HNF4α genes. A. DIABETES AND MODY Diabetes mellitus affects approximately 5% of the population of the United States and over 10 million people worldwide (King etai, 1988, Harris etai, 1992). A better way of identifying the populac who are at risk of developing diabetes is needed as a subject may have normal plasma glucos compositions but may be at risk of developing overt diabetes. These issues could be resolved if it wer possible to diagnose susceptible people before the onset of overt diabetes. This is presently not possibl with subjects having classical diabetes due to its multifactorial nature. MODY is a monogenic form of diabetes and thus the genes responsible can be more easily studie than those whose mutation contributes to the development of polygenic form(s) of this disorder such a type 1 and type 2 diabetes mellitus. Recent studies have shown that subjects with maturity onse diabetes of the young (MODY), a subset of diabetes characterized by diabetes in the first or secon decade of life and autosomal dominant inheritance have shown that MODY may result from mutations i genes on chromosome 20 (HNF4α/M0DY1), chromosome 7 (glucokinase M0DY2) chromosome 1 (HNF1α/M0DY3) and chromosoem 17 (HNF1 β|M0DY4). The clinical characteristics that manifest in HNF4α, HNFIα and HNFIβ type diabetes resembl those seen in patients with type 2 diabetes. These characteristics include frequent severe fastin hyperglycemia, the need for oral hypoglycemic agents, eventual insulin requirements, and vascular an neuropathic complications (Fajans et ai, 1994; Menzel et ai, 1995). The inventors have shown that prediabetic subjects with mutations in the HNFIα and HNF4 genes have subtle but important alterations in the normal pattern of glucose-stimulated insulin secretion Compared to control subjects with no family history of diabetes, they had normal insulin secretion rate at lower glucose concentrations. However the increase in insulin secretion rate resulting from an increas in the plasma glucose concentration above 8 mM was less in prediabetic HNFIα-mutation subjects than controls (see FIG. 2- FIG. 4). Exposure of the normal β-cell to increased plasma glucose concentrations for 42-hours results in an increase in β-cell responsiveness to a subsequent glucose stimulus. Following a 42-hr glucose infusion which raised the plasma glucose concentration to an average value of 7.1 ± 1.4 mM, the insulin secretion rate of prediabetic HNFIα-mutation subjects increased by 35% between 5-9 mM glucose with a resultant shift in the dose-response curve to the left. Five out of six prediabetic HNFIα-mutation subjects showed this increase in insulin secretion rate, and only one subject MD13 failed to demonstrate this effect. The magnitude of this priming effect of glucose was similar to that seen in the controls. Diabetic HNFIα-mutation subjects demonstrated diminished insulin secretion across the entire range of glucose concentrations studied. Thus, over the concentration range between 5 and 9 mM glucose, the diabetic subjects secreted 50% less insulin than the controls and 51 % less than the prediabetic HNFIα-mutation subjects. Furthermore, the priming effect of glucose was lost in the subjects with overt diabetes. Evaluation of insulin resistance indicated that HNFIα-mutation subjects were no more resistant than the controls. In fact, there was a tendency towards a lesser degree of insulin resistance in the HNFIα-mutation subjects, making it highly unlikely that insulin resistance plays a primary role in the pathophysiology of diabetes in these subjects. The inventors have recently characterized insulin secretory responses in prediabetic HNF4α and HNFIα-mutation subjects. Prediabetic HNF4α and HNFIα-mutation subjects both have reduced insulin secretory responses to glucose which are evident only as the plasma glucose rises above a threshold of 7 or 8 mM, respectively. Whereas in HNFIα-mutation subjects the priming effect of glucose on insulin secretion is retained, a low-dose glucose infusion did not have any significant effects on insulin secretion in prediabetic HNF4α-mutation subjects (Byrne et ai, 1995b). In subjects with mutations in the glucokinase gene, the dose-response curve is shifted to the right and ISR is markedly decreased at glucose concentrations below 7 mM, but insulin secretion continues to increase with increasing plasma glucose concentrations even above levels of 8 mM. The priming effect of glucose on insulin secretion also is preserved (Byrne et ai, 1994). The inventors have recently performed similar studies in subjects with classical Type 2 and impaired glucose tolerance. In subjects with IGT, although the dose-response curve relating glucose and insulin secretion was shifted to the right, the priming effect of glucose on insulin secretion was retained. In subjects with overt Type 2 diabetes, the increase in insulin secretion in response to an increase in glucose was markedly reduced and the priming effect of glucose on insulin secretion was lost. It thus appears that β-cell dysfunction plays an important, pathophysiologic role in the development of the three forms of MODY which have been characterized to date. A clear prediabetic phase has not been identified in subjects with glucokinase mutations. However, profound defects in the ability of the β-cell to respond to a glucose stimulus is present even in the face of the mild elevations in glucose which characterizes the majority of these subjects. By contrast, a prediabetic phase is a feature of the HNF4α and HNFIα forms of diabetes. These prediabetic subjects have reduced insulin secretory responses to elevated concentrations of glucose induced by the step-wise glucose infusion prior to onset of diabetes. Prediabetic HNF4α and HNFIα subjects can be distinguished based on the effects of a low dose glucose infusion on insulin secretion. The priming effect of glucose on insulin secretion is retained in HNFIα subjects in the prediabetic phase but is lost after the onset of overt hyperglycemia whereas this priming effect is absent in HNF4α diabetes even in the prediabetic phase of the disease. The severe reductions in insulin secretory responses to glucose seen in the overtly diabetic HNFIα subjects are likely to be due in part to the effects of high glucose, in view of the well documented adverse effects of hyperglycemia on insulin secretion. A full understanding of the reasons for these changes in the dose- response relationships between glucose and insulin secretion requires a better understanding of the roles of HNF4α and HNFIα in regulating normal pancreatic b-cell function. Further studies by the inventors have shown that elevations in the 2-hr post-challenge blood glucose levels predict alterations in insulin secretory responses to glucose. However, in that case, subjects with impaired glucose tolerance demonstrated reduced insulin secretory responses over a range of glucose concentrations and not just in response to increases in glucose above 8 mM as was seen in the prediabetic HNFIα-mutation subjects. Thus, the inventors do not believe that the alterations in insulin secretion seen in the prediabetic HNFIα subjects resulted from the modest elevations in glucose. Rather, the inventors' results suggest that the percent priming and overall insulin secretion rates deteriorate as glucose tolerance deteriorates, and the lack of ability to increase insulin secretion at high glucose levels is a feature of the mutation in the HNFIα gene. From the studies described above and in the Examples that follow it is clear that the identification and characterization of the gene(s) associated with MODY diabetes is important. Mutations in such genes lead to diabetes and it would be diagnostically and therapeutically advantageous to identify the mutations in subjects predisposed to such mutations. Studies attempting to find the location of the M0DY3 gene showed that the putative gene linked to MDDY3 type diabetes was localized to a 5 cM interval between the markers D12S86 and D12S807/D12S820 (Menzel et ai, 1995). However the identity of the gene has not been elucidated. The present invention for the first time shows that the gene linked to M0DY3 expresses a factor previously identified from hepatocyte known as hepatocyte nuclear factor 1 α herein referred to as HNFIα. Similarly studies attempting to find the location of the MODYl gene showed that the putative gene linked to M0DY1 type diabetes was focalized to a 13 cM interval between the markers D20S169 and D20S176 (Stoffel et ai, 1996). Likewise, as with M0DY3, the identity of the gene in M0DY1 has not been elucidated. The present invention for the first time shows that the gene linked to MODYl expresses a factor previously identified rom hepatocytes known as hepatocyte nuclear factor 4 α herein referred to as HNF4α. Subsequently, the inventors performed studies to elucidate the genetic defects responsible for other forms of MODY. The present invention for the first time shows that MODY is likely a consequence of mutations in hepatocyte nuclear factor 1 β herein referred to as HNF1 β. The association of mutation in HNFIα, HNFIβ and HNF4α with diabetes indicates the importance of the HNF network in controlling pancreatic β-cell function and glucose ho eostasis. Hence the studies presented here have categorized exemplary mutations in the HNFIα, HNFIβ and HNF4α genes as identified by PCR techniques. These landmark results form the basis of many therapeutic and diagnostic techniques as measures to alleviate diabetes, particularly HNF 1α-diabetes, HNF Iβ-diafaetes and HNF 4α-diabetes. B. HEPATOCYTE NUCLEAR FACTORS ARE THE GENES LINKED TO MODY TYPE DIABETES. Hepatocyte Nuclear Factor ϊα Hepatic nuclear factor 1α (also known as APF, LFB1 or HP1) has been described as a sequence specific DNA binding protein from rat liver. It is thought to interact with promoter elements present in many genes including albumin, α- and β- fibrinogen, α-1-antitrypsin, α-fetoprotein pyruvate kinase, transthyretin and aldose B among others. HNFIα has been purified from rat liver extracts by DNA affinity chromatography using fibrinogen promoter element (Courtoise, 1987) and was characterized as a single 88 kDa protein. It is now known that HNFIα is a transcription factor. Mendel and Crabtree (1993) suggested that HNFIα interacted with "hepatocyte-specific" genes in which it plays a prominent role in regulation of both in vitro and in vivo transcription. However, it was later shown that HNFIα mRNA can also be found in several non-hepatocyte tissues including the kidney stomach, intestines, thγmus and spleen and pancreas (Baumhueter et ai, 1990; Kuo et ai, 1990). This suggests that HNFIα expression may participate in the differentiation of non-hepatic organs as well as hepatogenesis. Transcription factors are proteins that control transcription by binding to cis-acting regulatory DNA sequences in a gene. As such, these factors play a crucial role in development and differentiation by dictating the pattern of expression of genes within specific ceils and tissues. The homeodomain proteins are a class of transcription factors. These proteins all possess the unusual characteristic of having very similar DNA-binding domains even though they mediate diverse effects. HNFIα is an example of a homeodomain protein. HNFIα has been shown to dimerize with itself in solution. It appears that maximal transcriptional activation by HNFIα requires a novel dimerization cof actor. This cof actor, known as the dimerization cof actor of HNFIα (DCoH), does not in itself bind DNA, rather, it binds HNFIα. HNFIα binds to DNA as a dimer; this was confirmed from studies on the purification and cloning of HNFIα. Other studies showed that there was a DNA binding protein that binds to the HNFIα binding site in cells that lacks the HNFIα mRNA. This second protein HNF1 β is a homolog of HNFI but is the product of a separate gene. Regulation studies of the HNFIα promoter showed that binding sites for transcription factors HNF3, AP1 and HNF4α are essential for the expression of HNFI α (Hansen and Crabtree, 1993). It has been demonstrated that HNF4α is located on chromosome 20 of the human genome. The present inventors suggest that M0DY1 , which is known to be linked to chromosome 20, may act as a regulator of 0DY3 gene expression as such mutations in HNF4α may be responsible for M0DY1 form of diabetes. HNFIα proteins possess three functional regions, namely, the dimerization, activation and DNA- binding domains. The dimerization domain is localized to the first 32 amino acids of the HNFIα proteins. The DNA-binding domain is a POU-like homeodomain which binds to a 13 bp palindromic DNA sequence in the promoters of HNFIα binding proteins (Courtois et ai, 1988; Fraiπ et ai, 1989). The consensus sequence for this HNFIα binding site on these genes is: GTTAATNATTACC (SEQ ID N0:9) Diabetes mellitus alters the transcription of numerous genes in many different tissues. The mechanisms underlying these alterations in transcription are largely unknown. One example of altered transcription is seen in the reduced transcription of the albumin gene in diabetes (Wanke et ai, 1991). Recently, it has been demonstrated that HNFI α protein levels are reduced in diabetes, leading to the theory that decreased gene transcription in diabetes is due to decreased levels of HNFIα a factor critical for the regulation of hepatic albumin gene expression. This is thought to be the case in other genes that posses an HNFI α binding site and are affected by diabetes. Therefore changes in the abundance of HNFIα in diabetes appears to affect the expression of genes whose expression is predominantly regulated by this factor. The expression of the insulin gene in adult mammals is localized to the β cells in the pancreatic islets. Studies of this gene have defined a small region in the promoter, the FF-minieπhaπcer, capable of conferring tissue-specific and glucose responsive transcriptional activity on a heterologous promoter (German et ai, 1990). This inienhancer region is composed of two primary regulatory elements the Far box and the FLAT element which interact to upregulate transcription. Further analysis of the FLAT element showed it to be a cluster of several cis loci that mediate discrete positive and negative effects. The positive locus is characterized as FLAT-F and its activity is only revealed when there is a mutation in the negative locus FLAT E. This FLAT-F region is able to specifically bind a number of DNA-binding proteins. The sequence of FLAT-F has significant similarity to the consensus sequence of HNFIα. This led to studies to determine whether HNFIα itself may play a role in the transcriptional regulation of the rat insulin gene. Subsequently, it was shown that HNFIα expression is present in the pancreatic β-cell derived insuiinoma cell line HIT. HNFIα has been shown to bind with and transactivate rat insulin gene enhancers that contain an HNFIα site. Hepatocyte Nuclear Factor 4α Hepatocyte nuclear factor 4α (HNF4α) is another transcription factor first associated with the liver and having limited tissue distribution (Xanthopoulos et ai, 1991; Zhong et ai, 1994). HNF4α can activate transcription in several non-hepatic cell lines, indicating that no liver-specific modification is required for its function (Sladek et ai, 1990). It has been observed that there is an apparent contradiction between the molecular mass of HNF4α predicted from the primary sequence (50.6 kDa) (Sladek et ai, 1990) and that determined by gel electrophoresis (54 kDa) suggesting that this difference may be due to post-translational modification(s). Of the many types of post-translational modifications that might regulate gene expression, most attention has been focused on phosphorylation, which can influence transcription factor activity in many ways (Hunter and Karin, 1992). Three main levels of regulation have been described: phosphorylation can affect the DNA-binding activity (Boyle et ai, 1991; Segil ef a/., 1991; Shuai et ai, 1994), the transcriptional activation potential (Yama oto et ai, 1988; Trautwein et ai, 1993), or the translocation of a transcription factor from the cytoplasm into the nucleus (Metz and Ziff, 1991; Kerr et ai, 1991; Schindler et ai, 1992; Shuai et ai, 1992). These possibilities are by no means mutually exclusive, and in principle phosphorylation can be responsible for simultaneous regulation at several distinct levels. With the exception of certain signal transduction proteins (Darnell et ai, 1994), all examples of this type of regulation have involved phosphorylation at serine or threonine residues. It has been demonstrated that the activity of HNF4α is post-translationally regulated by tyrosine phosphorylation, providing an example of a non-signal-transduction factor modulated by this modification. The HNF4α polypeptide (SEQ ID N0:79) contains 12 tyrosine residues scattered throughout the DNA- binding, dimerization, and putative iigand-binding domains (Sladek et ai, 1990) which could be potential phosphorylation sites. It seems that the tyrosine phosphorylation of HNF4α is required for its DNA- binding activity. It has been shown that the transcriptionallγ active form of HNF4α is localized in specific subnuclear domains. This intranuclear distribution depends directly or indirectly on tyrosine phosphorylation, suggesting the existence of an additional control mechanism at the level of subnuclear targeting playing a role in transcription regulation. Hepatocyte nuclear factor 4α (HNF-4α) is a positive-acting transcription factor which is expressed very early in embryo development and is essential to liver development and function (reviewed in Sladek, 1993 and Sladek, 1994). Mouse HNF4α mRNA appears in the primary endoderm of implanting blastocysts at embryonic day 4.5 and in the liver and gut primordia at day 8.5 (Duncan et ai, 1994), while mice deficient in HNF4α do not survive past day 9 postcoitus (Chen et ai, 1994). HNF4α has also been proposed to be responsible for the final commitment for cells to differentiate into hepatocytes (Nagy et al., 1994). In adult rodents, HNF4α is located primarily in the liver, kidney, and intestine, and in insects HNF4α is found in the equivalent tissues (Sladek et ai, 1990; Zhong et al., 1993). HNF4α is known to activate a wide variety of essential genes, including those involved in cholesterol, fatty acid, and glucose metabolism; blood coagulation; detoxification mechanisms; hepatitis B virus infections; and liver differentiation (reviewed in Sladek, 1993 and Sladek, 1994). HNF4α is a member of the superfamily of ligand-dependent transcription factors, which includes the steroid hormone receptors, thyroid hormone receptor (TR), vitamin A receptor, and vitamin D receptor (VDR), as well as a large number of receptors for which ligands have not yet been identified, the so-called orphan receptors (reviewed in Landers and Spelsberg, 1992; O'Malley and Conneely, 1992; Parker, 1993; and Tsai and O'Malley, 1994). All receptors are characterized by two conserved domains: the zinc finger region, which mediates DNA binding, and a large hydrophobic domain which mediates protein dimerization, transactivation, and ligand binding. Whether HNF4α responds to a ligand is not known, but it has been shown to activate transcription in the absence of an exogenously added ligand (Hall et ai, 1994; Kuo et ai, 1992; Metzger et ai, 1993; Mietus et ai, 1992; Reijnen et ai, 1992; Sladek et ai, 1990). HNF4α is also highly conserved with the Drosophila HNF-4, containing 91 % amino acid sequence identity to the rat HNF4α in the DNA binding domain and 68% identity in the large hydrophobic domain (Zhong etai, 1993). The members of the receptor superfamily have been classified in a variety of ways, one of which is by their ability to dimerize with themselves and with other members of the superfamily. For example, the steroid hormone receptors, glucocorticoid, mineralocorticoid, and progesterone receptors (6R, MR, and PR, respectively), all bind DNA and activate transcription as homodimers. They are present in the cytoplasm complexed with heat shock proteins (HSP) until the presence of the appropriate ligand disrupts the complex, allowing the receptors to translocate to the nucleus (reviewed in Freedman and Luisi, 1993; O'Malley and Tsai, 1993; and Tsai and O'Malley, 1994). On the other hand, the retinoid acid recept (RAR) and retinoid X receptor (RXR) as well as the VDR, peroxisome proliferator-activated recept (PPAR), and TR, which do not bind HSP and reside primarily in the nucleus, all bind DNA and activat transcription not only as homodimers but also as heterodimers (reviewed in Giguere, 1994; Parker, 199 and Stunnenberg, 1993). Several of the nuclear receptors bind DNA very inefficiently, if at all, a homodimers (RXRα, RAR, VDR, TR, and PPAR) but bind DNA well as heterodimers (reviewed in Giguer 1994 and Stunnenberg, 1993). At Ieast two of the receptors (RAR and TR) form heterodimers in solutio with RXRα (Hermann etai, 1992; Kurokawa et ai, 1993; Zhang et ai, 1992). The most common dimerization partner for all of these receptors is RXRα. The third class o receptors identified to date reside in both the nucleus and the cytoplasm and bind DNA preferentially a monomers (NGFI-B, FTZ-F1, steroidogenic factor 1 [SF-1], and RORαD (Giguere et ai, 1995; Kurachi e ai, 1994; Ohno et ai, 1994). HNF4α is very similar to the retinoid receptors, in particular to RXRα, in both amino aci sequence and DNA binding specificity. Mouse RXRα is 60% identical to rat HNF4α in the DNA bindin domain and 44% identical in the large hydrophobic domain. In comparison, RARα, which readil heterodimerizes with RXRα, is 61 % identical to RXRα in the DNA binding domain and only 27% identic in the large hydrophobic domain (Mangelsdorf et ai, 1992). HNF4α and RXRα have also been shown t share response elements from at Ieast six different genes as well as a consensus site of a direct repeat o AGGTCA separated by one nucleotide (referred to as DR + 1) (Carter et ai, 1994; Carter et ai, 1993 Garcia et ai, 1993; Ge et ai, 1994; Hall et ai, 1994; Hall et ai, 1992; Kekule et ai, 1993; Ladias 1994; Lucas et ai, 1991; Nakshatri and Chambon, 1994; Widom et ai, 1992). The structural an functional similarities of HNF4α and RXRα suggest that HNF4α might heterodimerize with RXRα and/o other receptors. Electrophoretic mobility shift analyses (EMSA) of HNF4α and RXRα proteins expressed in viv and in vitro showed that HNF4α in fact does not heterodimerize with RXRα on any one of a number o response elements and that while HNF4α forms homodimers in solution in the absence the DNA, it doe not form heterodimers with RXRα. It has also been shown that HNF4α does not heterodimerize with number of other receptors on DNA, suggesting that the lack of heterodimerization is a general property o HNF4α. These studies led to the proposal that HNF4α defines a new subfamily of nuclear receptors which are presently exclusively in the nucleus, exist in solution, bind DNA as homodimers, and do not form heterodimers with RXRα or other receptors. HNF4α is a member of the steroid hormone receptor family. The members of this family have been classified according to the amino acid sequence in the knuckle of the first zinc finger (referred to as the P box) a region important for recognizing the sequence of the half site of the palindrome in hormone response elements (Forman and Samuels, 1990). For examples members of the thyroid hormone receptor subfamily contain amino acid sequence EGCKG (SEQ ID N0:83) and bind to the thyroid response element (TRE). Members of the estrogen receptor subfamily contain the amino acids EGCKA (SEQ ID N0:84) and bind to estrogen response elements (ERE). The sequence of HNF4α is DGCKG (SEQ ID N0.85) and is most similar to that of the thyroid response element. Despite this similarity it appears that HNF4α does not bind TRE nor does it bind ERE, and the true ligand for HNF4α is as yet undetermined. The screening methods of the present invention will lead one of ordinary skill in the art to elucidate such a ligand or ligands. The present invention describes the exon-intron organization and partial sequence of the human HNF4α gene. In addition, the inventors have screened the exons, flanking introns and minimal promoter region for mutations in a group of 57 unrelated Japanese subjects with early-onset diabetes/MODY of unknown cause. The results of these screens suggest that mutations in the HNF4α gene may cause early-onset diabetes/MODY in Japanese but they are less common than mutations in the HNFIα /M0DY3 gene. The information presented herein on the sequence of the HNF4α gene and its promoter region will facilitate the search for mutations in other populations and studies of the role of this gene in determining normal pancreatic β-cell function. Furthermore, current understanding of the M0DY1 form of diabetes is based on studies of only a single family, the R W pedigree. Here the inventors report the identification of a second family with M0DY1 and the first in which there has been a detailed characterization of hepatic function. The present inventors demonstrate that M0DY1 is primarily a disorder of β-cell function, however, the inventors have ascertained that mutations in HNF4α may lead to α-cell as well as β-cell secretory defects or to a reduction in pancreatic islet mass. Hepatic Nuclear Factor 7β and DCoH Human HNF1 β is a homeodomain-containing transcription factor of 557 amino acids (type A) wit alternative splicing generating two other forms of 531 (type B) and 399 amino acids (type C) (Mendel e ai, 1991a; De Simone et ai, 1991; Rey-Campos et ai, 1991; Bach and Yaniv, 1993). The nucleic an amino acid sequences for human HNFI β are given in SEQ ID N0:128 and SEQ ID N0:129, respectively HNFI β is structurally related to HNFIα and functions as a homodi er or a heterodimer with HNFIα These dimers are stabilized by the bifunctional protein, DCoH/PCBD (Mendel et ai, 1991b; Citron et ai, 1992), which binds to the dimerization domain of HNF1 forming a heterotetrameric complex an enhancing transcriptional activity. As a homotetramer, PCBD is involved in the regeneration o tetrahydrobiopterin, an essential cof actor of phenylalanine hydroxylase and other mono-oxygenases, catalyzing the conversion of 4-hydroxytetrahydrobiopterin to quinonoid-dihydrobiopterin (Citron et ai, 1993; Johnen et ai, 1995). Loss of function mutations in PCBD are associated with a rare autosomal recessive form of mild hyperphenylalaninemia. HNFI β and DCoH mRNA are expressed in mouse pancreatic islets implying that they may function together with HNF-1α to regulate gene expression in this tissue. Human DCoH is a protein of 104 amino acids (including the initiating methionine) (Thony et αl, 1995) and functions as described herein below. MODY type Diabetes is a Manifestation of Defects in Hepatocyte Nuclear Factors It is established that all forms of Type 2 diabetes are associated with profound insulin secretory defects which include loss of the first phase response to intravenous glucose, delayed and blunted responses to ingestion of a mixed meal, loss of the normal oscillatory patterns of insulin secretion, and increased secretion of proinsulin and proinsuiin-like products. The molecular basis of these secretory defects in humans is unknown, although in rats it has been shown that there are global changes in gene expression in the islets of diabetic and prediabetic animals. One such global alteration is the reduction in the levels of mRNAs encoding many pancreatic islet specific proteins. This defect in gene expression would be compatible with decreased levels of a master transcription factor whose levels affect the expression of a whole array of downstream genes. The present invention predicts that the β-cell dysfunction and insulin secretory defects associated with M0DY3 are as a result of mutations in HNFIα, furthermore it demonstrates that β-cell dysfunction associated with M0DY1 are a result of mutations in HNF4α. The features of MODY-type diabetes are very similar to those of late onset Type 2 diabetes. Hence, acquired defects in the expression of HNFIα, HNF4α, and HNFI β, respectively, may well occur in late onset diabetes and lead to β-cell dysfunction and insulin secretory defects in this form of diabetes. The identification of agents that activate transcription of HNFIα, HNFI β and HNF4α will be therapeutic for the treatment of MODY, as well as late onset Type 2 diabetes. The present invention details methods for the identification of such agents which will then be used to increase the expression of HNFIα, HNFI β and HNF4α which in turn will lead to the increased transcription/expression or activation of β-cell genes such as insulin. It is clear from the present invention that hepatocyte nuclear factors, their expression, regulation and modification have far reaching implications in diabetes. To date three of the four types of MODY diabetes identified, are predicted to affect gene expression. Other forms of MODY can not be ruled out, for example genetic linkage studies predict the presence of additional MODY genes, the chromosomal localization of which are presently unknown. The absolute HNF4α dependence of the HNFIα promoter coupled with evidence of the ability of HNF4α to rescue endogenous HNFI α expression is indicative of HNF4α being an essential regulator of HNFIα (FIG. 6). Thus activation or repression of HNF4α will result in an indirect activation or repression of HNFIα . The present invention elucidates methods for identifying factors responsible for modulating HNF4α expression and/or activity. HNF1 β, also known as vHNFI, is closely related to HNFIα and is able to form heterodimers with HNFIα. Dimerization between members of classes of transcription factors appears to solve the problem of controlling expression of a very large number genes. An obvious advantage of the dimerization ability of a transcription factor is that it provides an opportunity to diversify the number of regulatory mechanisms that can be associated with a single regulatory DNA binding site. Another advantage lies in the possibility of translating subtle alterations in the relative levels of expression of members of a dimerization pair into a substantial quantitative effect on transcription. FIG. 6 summarizes the different factors involved in the regulation of expression and activity of the HNF transcription factors described above. From the inventors investigations it is conceivable that aberrations at any points along this pathway or any factors affecting this pathway directly or indirectly will result in β-cell dysfunction and diabetes mellitus, either as MODY or late-onset diabetes. The present invention has shown that mutations in HNFIα are clearly responsible for M0DY type diabetes. As discussed earlier HNFIα binds to DNA as a dimer. this can either be a homodimer or heterodimer with HNFIβ (SEQ ID NO: 80). The two forms of HNF1 are expressed in comparable amoun in the liver but there is a three-fold higher expression of HNF1 β in the kidney as compared to HNFIα. HNFIβ lacks the transcriptional activity attributable to HNFIα. One potential consequence this observation in combination with its ability to dimerize with HNFIα is that HNFI β is likely to be negative regulator of HNFIα transcriptional activity. This observation is suggested by the presence vHNFI in systems that do not express the majority of hepatocyte-specific gene products (Baumhueter ai, 1988). However, studies by Mendel et ai, (1991) were unable to confirm this observation. Studies by Mendel et ai, (1991) indicated that a dimerization cofactor of HNF1 (DCoH) ma increase the stability of HNFIα dimers. Thus, it is suggested that DCoH has the potential to restrict th activity of HNFIα and/or HNFIβ. There are a number of hypothesis as to how DCoH affects HNF activation of transcription. HNFIα is a monomer in solution and can only bind DNA as a dimer, th presence of DCoH favors the formation of the dimeric HNFIα. Alternatively it is plausible that DCo induces a conformational change in HNFIα to create a more potent transcriptional activator eith directly or by allowing interaction with other proteins, for example HNFIβ. Yet another alternative i that DCoH decreases the rate of HNFIα degradation thereby stabilizing HNFIα and potentiating th effects of HNFIα. The present invention demonstrates that M0DY4, which was previously uncharacterized, is manifestation of defects in HNFI β. The present invention describes specific mutations in HNFI β th have led to M0DY4 in certain individuals. In light of these observations, there are decribed herei methods for the identification and isolation of factors involved in the activity of HNFI β and DCoH with view to obtaining insights into therapeutic intervention in diabetes. C. In vitro Screening Assays for Candidate Substances Certain aspects of this invention concern methods for conveniently evaluating candidat substances to identify compounds capable of stimulating HNFIα-, HNFIβ- or HNF4α-mediate transcription. Such compounds will be capable of promoting gene expression, and thus can be said t have up-regulating activity. In as much as increased gene expression of, for example, the insulin gene i the body functions to alleviate the symptoms of diabetes, any positive substances identified by th assays of the present invention will be anti-diabetic drugs. Before human administration, such compounds would be rigorously tested using conventional animal models known to those of skill in the art. Successful candidate substances may function in the absence of mutations in HNFIα, HNFIβ or HNF4α in which case the candidate compound may be termed a "positive stimulator" of HNFIα, HNFIβ or HNF4α, respectively. Alternatively, such compounds may stimulate transcription in the presence of mutated HNFIα, HNFIβ or HNF4α overcoming the effects of the mutations, i.e., function to oppose HNFIα-mutant, and/or HNFIβ, and/or HNF4α-mediated diabetes, and thus may be termed "an HNFIα mutant agonist" "HNFIβ mutant agonist" or "HNF4α mutant agonist" respectively. Compounds may even be discovered which combine all three of these actions. Although the agonist class of compounds may ultimately seem to be the most desirable, compounds of either class will likely be useful therapeutic agents for use in stimulating gene expression and combating MODYl, M0DY3, M0DY4, and late-onset Type 2 diabetes in human subjects. Candidates for HNFIα As HNFIα is herein shown to be linked to M0DY3 type, one method by which to identify a candidate substance capable of stimulating /V /α-mediated transcription in diabetes is based upon specific proteinrDNA binding. Accordingly, to conduct such an assay, one may prepare an HNFIα binding protein composition, such as recombinant HNFIα, and determine the ability of a candidate substance to increase HNFIα protein binding to a DNA segment including a complementary HNFIα binding sequence, i.e., to increase the amount or the binding affinity of a proteinrDNA complex. This generally would be achieved using two parallel assays, one of which contains HNFI and the specific DNA alone and one of which contains HNFIα, DNA and the candidate substance composition. One would perform each assay under conditions, and for a period of time, effective to allow the formation of proteinrDNA complexes, and one would then separate the bound proteinrDNA complexes from any unbound protein or DNA and measure the amount of the proteinrDNA complexes. An increase in the amount of the bound proteinrDNA complex formed in the presence of the candidate substance would be indicative of a candidate substance capable of promoting HNFIα binding, and thus, capable of stimulating HNFIα-mediated transcription. In such binding assays, the amount of the proteinrDNA complex may be measured, after th removal of unbound species, by detecting a label, such as a radioactive or enzymatic label, which ha been incorporated into the original HNFIα protein composition or recombinant protein or HNFl containing DNA segment. Alternatively, one could detect the protein portion of the complex by means o an antibody directed against the protein, such as those disclosed herein. Preferred binding assays are those in which either the HNFIα protein, recombinant protein o purified composition or the HNFIα-containing DNA segment is bound to a solid support and contacte with the other component to allow complex formation. Unbound protein or DNA components are the separated from the proteinrDNA complexes by washing and the amount of the remaining bound comple quantitated by detecting the label or with antibodies. Such DNA binding assays form the basis of filte binding and microtiter plate-type assays and can be performed in a semi-automated manner to enabl analysis of a large number of candidate substances in a short period of time. Electrophoretic methods such as the gel-shift assay disclosed herein, could also be employed to separate unbound protein or DN from bound proteinrDNA complexes, but such labor-intensive methods are not preferred. Assays such as those described above are initially directed to identifying positive stimulato candidate substances and do not, by themselves, address the activity of the substance in the presence o HNFIα mutants. However, such positive regulators may also prove to act as HNFI α mutant agonists and in any event, would likely have utility in transcriptional promotion, either in vitro or in vivo. Positiv regulators would likely be further evaluated to assess the effects of HNFIα mutants on their action, fo example, by employing a cellular reporter gene assay such as those described herein below. Virtually any candidate substance may be analyzed by these methods, including compounds whic may interact with HNFIα binding protein(s), HNFIα or proteinrDNA complexes, and also substances suc as enzymes which may act by physically altering one of the structures present. Of course, any compoun isolated from natural sources such as plants, animals or even marine, forest or soil samples, may b assayed, as may any synthetic chemical or recombinant protein. Another potential method for stimulating HNFIα-mediated transcription is to prepare a HNFI protein composition and to modify the protein composition in a manner effective to increase HNFI protein binding to a DNA segment including the HNFIα protein binding sequence. The binding assay would be performed in parallel, similar to those described above, allowing the native and modified HNFI binding protein to be compared. In addition to phosphatases and kinases, other agents, including proteases and chemical agents, could be employed to modify HNFIα binding protein. The present invention, with the cloning of mutant HNFIα cDNA, also opens the way for genetically engineering HNFIα protein to promote gene transcription in diabetes. In this regard, the mutation of potential phosphorylation sites and/or the modification or deletion of other domains is contemplated. Candidates for HNF4α binding The criteria shown above for screening of modulators of HNFIα are also true of HNF4α. HNF4α is a member of the steroid hormone receptor superfamily however, the ligand for HNF4α is unknown. The identification of the endogenous ligand for HNF4α binding would be an important step towards elucidating the mechanisms of eukaryotic gene control, and would also provide biomedical science with a powerful tool by which to regulate specific gene expression. Such a development would lead to numerous useful applications in the pharmaceutical and biotechnological industries. Although many applications are envisioned, one particularly useful application would be as the central component in screening assays to identify new classes of pharmacologically active substances which may be employed to manipulate, and particularly, to promote, the transcription of genes whose expression is altered in diabetes. Hence HNF4α would be of great use in identifying agents to combat MODY and Type 2 diabetes. An anti-diabetic agent isolated by the screening methods of the present invention would act to promote the cellular transcription or function of HNF4α, which would in turn serve to increase transcription of genes whose activity is regulated by HNF4α (for example HNFIα) thereby increasing the transcription of genes involved in diabetes and alleviating the symptoms of diabetes. Candidates for HNF1 binding The criteria shown above for screening of modulators of HNFIα and HNF4α are also true of HNFIβ. HNFIβ is a 557 amino acid that is structurally related to HNFIα and functions as a homodimer and heterodimer with HNFIα. These dimers are stabilized by DCoH. The identification of factors that affect this dimerization, or any of the factors involved in the heterotetrameric complex, will provide useful compounds for the modulation of transcriptional activity. Such a development would lead to numerous useful applications in the pharmaceutical and biotechnological industries. Although many applications are envisioned, one particularly useful application would be as the central component in screening assays to identify new classes of pharmacologically active substances which may be employed to manipulate, an particularly, to promote, the transcription of genes whose expression is altered in diabetes. Hence HNFI β would be of great use in identifying agents to combat MODY and Type 2 diabetes An anti-diabetic agent isolated by the screening methods of the present invention would act to promot the cellular transcription or function of HNFIβ, which would in turn serve to increase transcription o genes whose activity is regulated by HNFIβ (for example HNFIα) thereby increasing the transcription o genes involved in diabetes and alleviating the symptoms of diabetes. D. Reporter Genes and Cell-Based Screening Assays Cellular assays also are available for screening candidate substances to identify those capable o stimulating HNFIα- HNFIβ- and HNF4α-mediated transcription and gene expression. In these assays, the increased expression of any natural or heterologous gene under the control of a functional HNFIα, HNFIβ or HNF4α protein may be employed as a measure of stimulatory activity, although the use of reporter genes is preferred. A reporter gene is a gene that confers on its recombinant host cell a readily detectable phenotype that emerges only under specific conditions. In the present case, the reporter gene, being under the control of a functional HNFIα, HNFIβ or HNF4α protein, will generally be repressed under conditions of M0DY3, M0DY4 or MODYl diabetes respectively and will generally be expressed in the M0DY3, M0DY4 or M0DY1 noπ diabetic conditions respectively. Reporter genes are genes which encode a polypeptide not otherwise produced by the host cell which is detectable by analysis of the cell culture, e.g., by fluorometric, radioisotopic or spectrophotometric analysis of the cell culture. Exemplary enzymes include luciferases, transferases, esterases, phosphatases, proteases (tissue plasminogen activator or urokinase), and other enzymes capable of being detected by their physical presence or functional activity. A reporter gene often used is chloramphenicol acetγltransferase (CAT) which may be employed with a radiolabeled substrate, or luciferase, which is measured fluorometrically. Another class of reporter genes which confer detectable characteristics on a host cell are those which encode polypeptides, generally enzymes, which render their transformants resistant against toxins, e.g., the neo gene which protects host cells against toxic levels of the antibiotic G418, and genes encoding dihydrofolate reductase, which confers resistance to methotrexate. Genes of this class are not generally preferred since the phenotype (resistance) does not provide a convenient or rapid quantitative output. Resistance to antibiotic or toxin requires days of culture to confirm, or complex assay procedures if other than a biological determination is to be made. Other genes of potential for use in screening assays are those capable of transforming hosts to express unique cell surface antigens, e.g., viral env proteins such as HIV gp120 or herpes gD, which are readily detectable by immunoassays. However, antigenic reporters are not preferred because, unlike enzymes, they are not catalytic and thus do not amplify their signals. The polypeptide products of the reporter gene are secreted, intracellular or, as noted above, membrane bound polypeptides. If the polypeptide is not ordinarily secreted it is fused to a heterologous signal sequence for processing and secretion. In other circumstances the signal is modified in order to remove sequences that interdict secretion. For example, the herpes gD coat protein has been modified by site directed deletion of its transmembrane binding domain, thereby facilitating its secretion (EP 139,417A). This truncated form of the herpes gD protein is detectable in the culture medium by conventional immunoassays. Preferably, however, the products of the reporter gene are lodged in the intracellular or membrane compartments. Then they can be fixed to the culture container, e.g., microtiter wells, in which they are grown, followed by addition of a detectable signal generating substance such as a chromogenic substrate for reporter enzymes. The transcriptional promotion process which, in its entirety, leads to enhanced transcription is termed "activation." The mechanism by which a successful candidate substance acts is not material since the objective is to promote HNFIα, HNFI β or HNF4α mediated gene expression, or even, to promote gene expression in the presence of mutant HNFIα, HNFIβ, or HNF4α gene products, by whatever means. To create an appropriate vector or plasmid for use in such assays one would ligate the HNFIα- containing promoter, whether a hybrid or the native HNFIα promoter, to a DNA segment encoding the reporter gene by conventional methods. Similar assays are also contemplated using HNFIβ and HNF4α promoters. The HNFIα, HNFIβ or HNF4α promoter sequences may be obtained by in vitro synthesis or recovered from genomic DNA and should be ligated upstream of the start codon of the reporter gene. The present invention provides the promoter region for human HNFIα, a comparison of the sequence of the promoter region of the human, rat, mouse, chicken and frog HNFIα genes is given in FIG. 22. There is also provided herein aomparison of the sequences of the promoter regions of the human and mouse HNF4α genes (FIG. 13). The partial sequence of the human HNFI β gene including promoter has als been identified by the present inventors and deposited in the GenBank database under accession number U90279-90287 and U96079. Any of these promoters may be particularly preferred in the presen invention. An AT-rich TATA box region should also be employed and should be located between the HN sequence and the reporter gene start codon. The region 3' to the coding sequence for the reporter gen will ideally contain a transcription termination and polyadenylation site. The promoter and reporter gen may be inserted into a replicable vector and transfected into a cloning host such as £. coli, the hos cultured and the replicated vector recovered in order to prepare sufficient quantities of the constructio for later transfection into a suitable eukaryotic host. Host cells for use in the screening assays of the present invention will generally be mammalia cells, and are preferably cell lines which may be used in connection with transient transfection studies Ceil lines should be relatively easy to grow in large scale culture. Also, they should contain as little nativ background as possible considering the nature of the reporter polypeptide. Examples include the Hep G2 VERO, HeLa, human embryonic kidney (HEK)- 293, CHO, WI38, BHK, COS-7, and MDCK cell lines, wit monkey CV-1 cells being particularly preferred. The screening assay typically is conducted by growing recombinant host cells in the presence an absence of candidate substances and determining the amount or the activity of the reporter gene. T assay for candidate substances capable of exerting their effects in the presence of mutated HNFIα HNFI β and/or HNF4α gene products, one would make serial molar proportions of such gene products tha alter HNFIα-, HNFI β-and HNF4α-mediated expression. One would ideally measure the reporter signa level after an incubation period that is sufficient to demonstrate mutant-mediated repression of signa expression in controls incubated solely with mutants. Cells containing varying proportions of candidat substances would then be evaluated for signal activation in comparison to the suppressed levels. Candidates that demonstrate dose related enhancement of reporter gene transcription o expression are then selected for further evaluation as clinical therapeutic agents. The stimulation o transcription may be observed in the absence of mutant HNFIα, HNFI β or HNF4α, in which case th candidate compound might be a positive stimulator of HNFIα HNFI β or HNF4α transcription respectively. Alternatively, the candidate compound might only give a stimulation in the presenc mutated HNFI α, mutated HNFI β or mutated HNF4α protein, which would indicate that it functions t oppose the mutation-mediated suppression of the gene expression. Candidate compounds of either class might be useful therapeutic agents that would stimulate gene expression and thereby combating MODY and Type 2 diabetes. E. Nucleic Acids As described the Examples, the present invention discloses the gene at the M0DY3 locus of chromosome 12, M0DY4 locus as being associated with HNFI β and the gene at the MQDY1 locus of chromosome 20. Mutations in these genes are responsible for diabetes. The present invention discloses mutations in the HNFIα, HNFIβ, and HNF4α genes identified by PCR techniques. The gene for the M0DY3 locus has for the first time been identified as hepatocyte nuclear factor 1 , herein referred to as HNFIα. The gene for the MODY 1 locus has been identified as hepatocyte nuclear factor 4 α (HNF4α). The gene for the M0DY4 locus has been identified as hepatocyte nuclear factor 1β (HNFI β). In one embodiment of the present invention, the nucleic acid sequences disclosed herein find utility as hybridization probes or amplification primers. In certain embodiments, these probes and primers consist of oligonucleotide fragments. Such fragments should be of sufficient length to provide specific hybridization to an RNA or DNA sample extracted from tissue. The sequences typically will be 10-20 nucleotides, but may be longer. Longer sequences, <?.#., 40, 50, 100, 500 and even up to full length, are preferred for certain embodiments. Nucleic acid molecules having contiguous stretches of about 10, 15, 17, 20, 30, 40, 50, 60, 75 or 100 or 500 nucleotides from a sequence selected from the group comprising SEQ ID N0:1, SEQ ID N0:3, SEQ ID N0:5, SEQ ID N0:7, HNFIα and its mutants are contemplated. In other embodiments nucleotides from a sequence selected from the group comprising SEQ ID N0.78, SEQ ID N0:34, SEQ ID N0:36, SEQ ID N0:38, SEQ ID N0:40, SEQ ID N0:42, SEQ ID N0:44, SEQ ID N0:46, SEQ ID N0:48, SEQ ID N0:50, SEQ ID N0:52, SEQ ID N0:54, HNF4α and its mutants are contemplated. In still other embodiments nucleotides from a sequence selected from the group comprising SEQ ID NO:-, SEQ ID NO: -, SEQ ID NO:-, SEQ ID NO:-, SEQ ID NO:-, SEQ ID NO:-, SEQ ID NO:-, SEQ ID NO:-, SEQ ID NO:-, SEQ ID NO:-, SEQ ID NO:- , SEQ ID NO:-, HNFIβ and its mutants are contemplated. Molecules that are complementary to the above mentioned sequences and that bind to these sequences under high stringency conditions also are contemplated. These probes will be useful in a variety of hybridization embodiments, such as Southern and northern blotting. In some cases, it is contemplated that probes may be used that hybridize to multiple target sequences without compromising their ability to effectively diagnose diabetes (M0DY1 , M0DY3, a M0DY4). In certain embodiments, it is contemplated that multiple probes may be used for hybridization to single sample. Various probes and primers can be designed around the disclosed nucleotide sequences. Prime may be of any length but, typically, are 10-20 bases in length. By assigning numeric values to a sequenc for example, the first residue is 1 , the second residue is 2, etc., an algorithm defining all primers can proposed: n to n + y where n is an integer from 1 to the last number of the sequence and y is the length of the prim minus one, where n + y does not exceed the last number of the sequence. Thus, for a 10-mer, the prob correspond to bases 1 to 10, 2 to 1 1, 3 to 12 ... and so on. For a 15-mer, the probes correspond to bases to 15, 2 to 16, 3 to 17 ... and so on. For a 20-mer, the probes correspond to bases 1 to 20, 2 to 21 , 3 to 2 ... and so on. The values of n in the algorithm above for the nucleic acid sequences is: SEQ ID NO: 1 , n - 3238 f HNFIα, SEQ ID N0:78 n- 1441 for HNF4α, SEQ ID N0:128 for HNF1 β. The use of a hybridization probe of between 17 and 100 nucleotides in length allows the formatio of a duplex molecule that is both stable and selective. Molecules having complementary sequences ov stretches greater than 20 bases in length are generally preferred, in order to increase stability and selectivit of the hybrid, and thereby improve the quality and degree of particular hybrid molecules obtained. One wi generally prefer to design nucleic acid molecules having stretches of 20 to 30 nucleotides, or even long where desired. Such fragments may be readily prepared by, for example, directly synthesizing the fragme by chemical means or by introducing selected sequences into recombinant vectors for recombina production. Accordingly, the nucleotide sequences of the invention may be used for their ability to selectivel form duplex molecules with complementary stretches of genes or RNAs or to provide primers f amplification of DNA or RNA from tissues. Depending on the application envisioned, one will desire to emplo varying conditions of hybridization to achieve varying degrees of selectivity of probe towards targ sequence. For applications requiring high selectivity, one will typically desire to employ relatively stringent conditions to form the hybrids, e.g., one will select relatively low salt and/or high temperature conditions, such as provided by about 0.02 M to about 0.10 M NaCl at temperatures of about 50°C to about 70°C. Such high stringency conditions tolerate little, if any, mismatch between the probe and the template or target strand, and would be particularly suitable for isolating specific genes or detecting specific mRNA transcripts. It is generally appreciated that conditions can be rendered more stringent by the addition of increasing amounts of f ormamide. For certain applications, for example, substitution of nucleotides by site-directed mutagenesis, it is appreciated that lower stringency conditions are required. Under these conditions, hybridization may occur even though the sequences of probe and target strand are not perfectly complementary, but are mismatched at one or more positions. Conditions may be rendered less stringent by increasing salt concentration and decreasing temperature. For example, a medium stringency condition could be provided by about 0.1 to 0.25 M NaCl at temperatures of about 37°C to about 55°C, while a low stringency condition could be provided by about 0.15 M to about 0.9 M salt, at temperatures ranging from about 20°C to about 55°C. Thus, hybridization conditions can be readily manipulated depending on the desired results. In other embodiments, hybridization may be achieved under conditions of, for example, 50 mM Tris- HCl (pH 8.3), 75 mM KCI, 3 mM MgCI 2 , 1.0 mM dithiothreitol, at temperatures between approximately 20°C to about 37°C. Other hybridization conditions utilized could include approximately 10 mM Tris-HCl (pH 8.3), 50 mM KCI, 1.5 mM MgCI 2 , at temperatures ranging from approximately 40°C to about 72° C. in certain embodiments, it will be advantageous to employ nucleic acid sequences of the present invention in combination with an appropriate means, such as a label, for determining hybridization. A wide variety of appropriate indicator means are known in the art, including fluorescent, radioactive, enzymatic or other ligaπds, such as avidiπ/biotin, which are capable of being detected. In preferred embodiments, one may desire to employ a fluorescent label or an enzyme tag such as urease, alkaline phosphatase or peroxidase, instead of radioactive or other environmentally undesirable reagents. In the case of enzyme tags, colorimetric indicator substrates are known that can be employed to provide a detection means visible to the human eye or spectrophotometrically, to identify specific hybridization with complementary nucleic acid-containing samples. In general, it is envisioned that the hybridization probes described herein will be useful both a reagents in solution hybridization, as in PCR, for detection of expression of corresponding genes, as well a in embodiments employing a solid phase. In embodiments involving a solid phase, the test DNA (or RNA) i adsorbed or otherwise affixed to a selected matrix or surface. This fixed, single-stranded nucleic acid is the subjected to hybridization with selected probes under desired conditions. The selected conditions will depen on the particular circumstances based on the particular criteria required (depending, for example, on th G + C content, type of target nucleic acid, source of nucleic acid, size of hybridization probe, etc.). Followin washing of the hybridized surface to remove non-specifically bound probe molecules, hybridization i detected, or even quantified, by means of the label. It will be understood that this invention is not limited to the particular probes disclosed herein an particularly is intended to encompass at Ieast nucleic acid sequences that are hγbridizable to the disclose sequences or are functional analogs of these sequences. For applications in which the nucleic acid segments of the present invention are incorporated int vectors, such as plasmids, cosmids or viruses, these segments may be combined with other DNA sequences such as promoters, polyadenylation signals, restriction enzyme sites, multiple cloning sites, other codin segments, and the like, such that their overall length may vary considerably. It is contemplated that a nuclei acid fragment of almost any length may be employed, with the total length preferably being limited by th ease of preparation and use in the intended recombinant DNA protocol. DNA segments encoding a specific gene may be introduced into recombinant host cells an employed for expressing a specific structural or regulatory protein. Alternatively, through the application o genetic engineering techniques, subportions or derivatives of selected genes may be employed. Upstrea regions containing regulatory regions such as promoter regions may be isolated and subsequently employe for expression of the selected gene. In an alternative embodiment, the HNFIα, HNFI β or HNF4α nucleic acids employed may actuall encode antisense constructs that hybridize, under intracellular conditions, to an HNFIα or HNFα nuclei acid, respectively. The term "antisense construct" is intended to refer to nucleic acids, preferabl oligonucleotides, that are complementary to the base sequences of a target DNA or RNA. Antisens oligonucleotides, when introduced into a target cell, specifically bind to their target nucleic acid an interfere with transcription, RNA processing, transport, translation and/or stability. Antisense constructs may be designed to bind to the promoter and other control regions, exons, introns or even exon-intron boundaries of a gene. Antisense RNA constructs, or DNA encoding such antisense RNA's, may be employed to inhibit gene transcription or translation or both within a host cell, either in vitro or in vivo, such as within a host animal, including a human subject. Nucleic acid sequences which comprise "complementary nucleotides" are those which are capable of base-pairing according to the standard Watson-Crick complementarity rules. That is, the larger purines will base pair with the smaller pyrimidiπes to form combinations of guaπine paired with cytosiπe (G:C) and adenine paired with either thymine (A:T), in the case of DNA, or adenine paired with uracil (A:U) in the case of RNA. Inclusion of less common bases such as inosiπe, 5-methylcytosine, 6-methyladenine, hypoxanthine and others in hybridizing sequences does not interfere with pairing. As used herein, the terms "complementary" means nucleic acid sequences that are substantially complementary over their entire length and have very few base mismatches. For example, nucleic acid sequences of fifteen bases in length may be termed complementary when they have a complementary nucleotide at thirteen or fourteen positions with only a single mismatch. Naturally, nucleic acid sequences which are "completely complementary" will be nucleic acid sequences which are entirely complementary throughout their entire length and have no base mismatches. Other sequences with lower degrees of homology also are contemplated. For example, an antisense construct which has limited regions of high homology, but also contains a non-homologous region [e.g., a ribozyme) could be designed. These molecules, though having less than 50% homology, would bind to target sequences under appropriate conditions. While all or part of the HNFIα, HNFIβ, HNF4α gene sequence may be employed in the context of antisense construction, short oligonucleotides are easier to make and increase in vivo accessibility. However, both binding affinity and sequence specificity of an antisense oligonucleotide to its complementary target increases with increasing length. It is contemplated that antisense oligonucleotides of 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19, 20, 25, 30, 35, 40, 45, 50, 60, 70, 80, 90, 100 or more base pairs will be used. One can readily determine whether a given antisense nucleic acid is effective at targeting of the corresponding host cell gene simply by testing the constructs in vitro to determine whether the endogenous gene's function is affected or whether the expression of related genes having complementary sequences is affected. In certain embodiments, one may wish to employ antisense constructs which include oth elements, for example, those which include C-5 propyne pyrimidines. Oligonucleotides which contain C- propyne analogues of uridine and cytidine have been shown to bind RNA with high affinity and to b potent antisense inhibitors of gene expression (Wagner et ai, 1993). Throughout this application, the term "expression construct" is meant to include any type genetic construct containing a nucleic acid coding for a gene product in which part or all of the nuclei acid encoding sequence is capable of being transcribed. The transcript may be translated into a protei but it need not be. Thus, in certain embodiments, expression includes both transcription of a gene an translation of a RNA into a gene product. In other embodiments, expression only includes transcription o the nucleic acid, for example, to generate antisense constructs. In preferred embodiments, the nucleic acid is under transcriptional control of a promoter. "promoter" refers to a DNA sequence recognized by the synthetic machinery of the cell, or introduce synthetic machinery, required to initiate the specific transcription of a gene. The phrase "unde transcriptional control" means that the promoter is in the correct location and orientation in relation t the nucleic acid to control RNA polymerase initiation and expression of the gene. The term promoter will be used here to refer to a group of transcriptional control modules tha are clustered around the initiation site for RNA polymerase II. Much of the thinking about how promoter are organized derives from analyses of several viral promoters, including those for the HSV thymidin kinase (tk) and SV40 early transcription units. These studies, augmented by more recent work, hav shown that promoters are composed of discrete functional modules, each consisting of approximately 7 20 bp of DNA, and containing one or more recognition sites for transcriptional activator or represso proteins. At Ieast one module in each promoter functions to position the start site for RNA synthesis. Th best known example of this is the TATA box, but in some promoters lacking a TATA box, such as th promoter for the mammalian terminal deoxynucleotidγl transferase gene and the promoter for the SV4 late genes, a discrete element overlying the start site itself helps to fix the place of initiation. Additional promoter elements regulate the frequency of transcriptional initiation. Typically, thes are located in the region 30-110 bp upstream of the start site, although a number of promoters hav recently been shown to contain functional elements downstream of the start site as well. The spacin between promoter elements frequently is flexible, so that promoter function is preserved when elements are inverted or moved relative to one another. In the tk promoter, the spacing between promoter elements can be increased to 50 bp apart before activity begins to decline. Depending on the promoter, it appears that individual elements can function either co-operatively or independently to activate transcription. The particular promoter that is employed to control the expression of a nucleic acid is not believed to be critical, so long as it is capable of expressing the nucleic acid in the targeted cell. Thus, where a human cell is targeted, it is preferable to position the nucleic acid coding region adjacent to and under the control of a promoter that is capable of being expressed in a human cell. Generally speaking, such a promoter might include either a human or viral promoter. Preferred promoters include those derived from HSV, and HNFIα (see for example, FIG. 22), HNFI β or HNF4α promoter (see for example, FIG. 13). The partial sequence of the human HNFI β gene including promoter has also been identified by the present inventors and deposited in the GenBank database under accession numbers U90279-90287 and U96079 (SEQ 10 NO: 128). Another preferred embodiment is the tetracycline controlled promoter. In various other embodiments, the human cytomegalovirus (CMV) immediate early gene promoter, the SV40 early promoter and the Rous sarcoma virus long terminal repeat can be used to obtain high-level expression of transgeπes. The use of other viral or mammalian cellular or bacterial phage promoters which are well-known in the art to achieve expression of a transgene is contemplated as well, provided that the levels of expression are sufficient for a given purpose. Tables 1 and 2 list several elements/promoters which may be employed, in the context of the present invention, to regulate the expression of a transgene. This list is not intended to be exhaustive of all the possible elements involved in the promotion of transgene expression but, merely, to be exemplary thereof. Enhancers were originally detected as genetic elements that increased transcription from a promoter located at a distant position on the same molecule of DNA. This ability to act over a large distance had little precedent in classic studies of prokaryotic transcriptional regulation. Subsequent work showed that regions of ONA with enhancer activity are organized much like promoters. That is, they are composed of many individual elements, each of which binds to one or more transcriptional proteins. The basic distinction between enhancers and promoters is operational. An enhancer region as a whole must be able to stimulate transcription at a distance; this need not be true of a promoter region or its component elements. On the other hand, a promoter must have one or more elements that direc initiation of RNA synthesis at a particular site and in a particular orientation, whereas enhancers lac these specificities. Promoters and enhancers are often overlapping and contiguous, often seeming t have a very similar modular organization. Additionally any promoter/enhancer combination (as per the Eukaryotic Promoter Data Bas EPDB) could also be used to drive expression of a transgene. Use of a T3, T7 or SP6 cytoplasmi expression system is another possible embodiment. Eukaryotic cells can support cytoplasmi transcription from certain bacterial promoters if the appropriate bacterial polymerase is provided, eithe as part of the delivery complex or as an additional genetic expression construct. TABLE 1 PROMOTER Immunoglobulin Heavy Chain c-HA-ras Immunoglobulin Light Chain Insulin T-Cell Receptor Neural Cell Adhesion Molecule (NCAM) HLA DQ and DQ β α r Anti-trypsin β-lnterferon H2B (TH2B) Histone Interleukin 2 Mouse or Type 1 Collagen lnterleukin-2 Receptor Glucose-Regulated Proteins (GRP94 and GRP78) MHC Class II 5 Rat Growth Hormone MHC Class II HLA-DRα Human Serum Amyloid A (SAA) β-Actin Troponin 1 (TN 1) Muscle Creatiπe Kinase Platelet-Derived Growth Factor Prealbumin (Transthyretin) Duchenne Muscular Dystrophy Elastase/ SV40 Metallothionein Polyoma Collagenase Retroviruses Albumin Gene Papilloma Virus -Fetoprotein Hepatitis B Virus -Globiπ Human Immunodeficiency Virus β-Globin Cytomegalovirus c-fos Gibbon Ape Leukemia Virus TABLE 2 Element Inducer MT II Phorbol Ester (TPA) Heavy metals MMTV (mouse mammary tumor virus) Glucocorticoids β-lnterferon polγlrOX poly(rc) Adenovirus 5 E2 Ela c-jun Phorbol Ester (TPA), H 2 0 2 Collagenase Phorbol Ester (TPA) Stromelysin Phorbol Ester (TPA), IL-1 SV40 Phorbol Ester (TPA) Murine MX Gene Interferon, Newcastle Disease Virus GRP78 Gene A23187 -2-Macroglobulin IL-6 Vimentin Serum MHC Class 1 Gene H-2kB Interferon HSP70 Ela, SV40 Large T Antigen Proliferin Phorbol Ester-TPA Tumor Necrosis Factor FMA Thyroid Stimulating Hormone α Gene Thyroid Hormone Use of the baculovirus system will involve high level expression from the powerful polyhedro promoter. One will typically include a polyadenylation signal to effect proper polyadenylation of th transcript. The nature of the polyadenylation signal is not believed to be crucial to the successfu practice of the invention, and any such sequence may be employed. Preferred embodiments include th SV40 polyadenylation signal and the bovine growth hormone polyadenylation signal, convenient an known to function well in various target cells. Also contemplated as an element of the expressio cassette is a terminator. These elements can serve to enhance message levels and to minimize read through from the cassette into other sequences. A specific initiation signal also may be required for efficient translation of coding sequences. These signals include the ATG initiation codon and adjacent sequences. Exogenous translational control signals, including the ATG initiation codon, may need to be provided. One of ordinary skill in the art would readily be capable of determining this and providing the necessary signals, ft is well known that the initiation codon must be "in-frame" with the reading frame of the desired coding sequence to ensure translation of the entire insert. The exogenous translational control signals and initiation codons can be either natural or synthetic. The efficiency of expression may be enhanced by the inclusion of appropriate transcription enhancer elements (Bittner et ai, 1987). In various embodiments of the invention, the expression construct may comprise a virus or engineered construct derived from a viral genome. The ability of certain viruses to enter cells via receptor-mediated endocytosis and to integrate into the host cell genome and express viral genes stably and efficiently have made them attractive candidates for the transfer of foreign genes into mammalian cells (Ridgeway, 1988; Nicolas and Rubenstein, 1988; Baichwal and Sugden, 1986; Temin, 1986). The first viruses used as vectors were DNA viruses including the papovaviruses (simian virus 40, bovine papilloma virus, and polyoma) (Ridgeway, 1988; Baichwal and Sugden, 1986) and adenoviruses (Ridgeway, 1988; Baichwal and Sugden, 1986) and adeno-associated viruses. Retroviruses also are attractive gene transfer vehicles (Nicolas and Rubenstein, 1988; Temin, 1986) as are vaccina virus (Ridgeway, 1988) and adeno-associated virus (Ridgeway, 1988). Such vectors may be used to (i) transform cell lines in vitro for the purpose of expressing proteins of interest or (ii) to transform cells in vitro or in vivo to provide therapeutic polypeptides in a gene therapy scenario. In some embodiments, the vector is HSV. Because HSV is neurotropic, it has generated considerable interest in treating nervous system disorders. Since insulin-secreting pancreatic β-cells share many features with neurons, HSV may be useful for delivering genes to β-cells and for gene therapy of diabetes. Moreover, the ability of HSV to establish latent infections in non-dividing neuronal cells without integrating into the host cell chromosome or otherwise altering the host cell's metabolism, along with the existence of a promoter that is active during latency. And though much attention has focused on the neurotropic applications of HSV, this vector also can be exploited for other tissues. Another factor that makes HSV an attractive vector is the size and organization of the genom Because HSV is large, incorporation of multiple genes or expression cassettes is less problematic than i other smaller viral systems. In addition, the availability of different viral control sequences with varyin performance (temporal, strength, etc.) makes it possible to control expression to a greater extent than other systems. It also is an advantage that the virus has relatively few spliced messages, further easin genetic manipulations. HSV also is relatively easy to manipulate and can be grown to high titers. Thus, delivery is le of a problem, both in terms of volumes needed to attain sufficient MOI and in a lessened need for repe dosings. F. Encoded Proteins Once the entire coding sequence of a marker-associated gene has been determined, the gene can b inserted into an appropriate expression system. The gene can be expressed in any number of differe recombinant DNA expression systems to generate large amounts of the polypeptide product, which can the be purified and used to vaccinate animals to generate antisera with which further studies may be conducte Examples of expression systems known to the skilled practitioner in the art include bacteria such a £ coli, yeast such as Saccharomyces cerevisia and Pichia pastoris, baculovirus, and mammalian expressio systems such as in COS or CHO cells. In one embodiment, polypeptides are expressed in £ coli and i baculovirus expression systems. A complete gene can be expressed or, alternatively, fragments of the gen encoding portions of polypeptide can be produced. in one embodiment, the gene sequence encoding the polypeptide is analyzed to detect putativ transmembrane sequences. Such sequences are typically very hydrophobic and are readily detected by th use of standard sequence analysis software, such as MacVector (IBl, New Haven, CT). The presence transmembrane sequences is often deleterious when a recombinant protein is synthesized in man expression systems, especially £ coli, as it leads to the production of insoluble aggregates that are difficu to renature into the native conformation of the protein. Deletion of transmembrane sequences typically doe not significantly alter the conformation of the remaining protein structure. Moreover, transmembrane sequences, being by definition embedded within a membrane, ar inaccessible. Therefore, antibodies to these sequences will not prove useful for in vivo or in situ studie Deletion of transmembrane-encoding sequences from the genes used for expression can be achieved b standard techniques. Por example, fortuitously-placed restriction enzyme sites can be used to excise the desired gene fragment, or PCR-type amplification can be used to amplify only the desired part of the gene. The skilled practitioner will realize that such changes must be designed so as not to change the translational reading frame for downstream portions of the protein-encoding sequence. In one embodiment, computer sequence analysis is used to determine the location of the predicted major antigenic determinant epitopes of the polypeptide. Software capable of carrying out this analysis is readily available commercially, for example MacVector (IBl, New Haven, CT). The software typically uses standard algorithms such as the Kyte/Doolittle or Hopp/Woods methods for locating hydrophilic sequences which are characteristically found on the surface of proteins and are, therefore, likely to act as antigenic determinants. Once this analysis is made, polypeptides can be prepared that contain at Ieast the essential features of the antigenic determinant and that can be employed in the generation of antisera against the polypeptide. Minigenes or gene fusions encoding these determinants can be constructed and inserted into expression vectors by standard methods, for example, using PCR methodology. The gene or gene fragment encoding a polypeptide can be inserted into an expression vector by standard subcloning techniques. In one embodiment, an £ cø// expression vector is used that produces the recombinant polypeptide as a fusion protein, allowing rapid affinity purification of the protein. Examples of such fusion protein expression systems are the glutathione ^-transferase system (Pharmacia, Piscataway, NJ), the maltose binding protein system (NEB, Beverley, MA), the FLAG system (IBl, New Haven, CT), and the 6xHis system (Qiagen, Chatsworth, CA). Some of these systems produce recombinant polypeptides bearing only a small number of additional amino acids, which are unlikely to affect the antigenic ability of the recombinant polypeptide. For example, both the FLAG system and the θxHis system add only short sequences, both of that are known to be poorly antigenic and which do not adversely affect folding of the polypeptide to its native conformation. Other fusion systems produce polypeptide where it is desirable to excise the fusion partner from the desired polypeptide. In one embodiment, the fusion partner is linked to the recombinant polypeptide by a peptide sequence containing a specific recognition sequence for a protease. Examples of suitable sequences are those recognized by the Tobacco Etch Virus protease (Life Technologies, Gaithersburg, MD) or Factor Xa (New England Biolabs, Beverley, MA). Recombinant bacterial cells, for example £ coli, are grown in any of a number of suitable media, f example LB, and the expression of the recombinant polypeptide induced by adding IPTG to the media switching incubation to a higher temperature. After culturing the bacteria for a further period of between and 24 hours, the cells are collected by centrifugation and washed to remove residual media. The bacteri cells are then lysed, for example, by disruption in a cell homogenizer and centrifuged to separate the den inclusion bodies and ceil membranes from the soluble cell components. This centrifugation can be performe under conditions whereby the dense inclusion bodies are selectively enriched by incorporation of sugars suc as sucrose into the buffer and centrifugation at a selective speed. In another embodiment, the expression system used is one driven by the baculovirus polyhedro promoter. The gene encoding the polypeptide can be manipulated by standard techniques in order t facilitate cloning into the baculovirus vector. One baculovirus vector is the pBlueBac vector (Invitroge Sorrento, CA). The vector carrying the gene for the polypeptide is transfected into Spodoptera frugiper (Sf9) cells by standard protocols, and the cells are cultured and processed to produce the recombina antigen. See Summers et ai, A MANUAL OF METHODS FOR BACULOVIRUS VECTORS AND INSECT CEL CULTURE PROCEDURES, Texas Agricultural Experimental Station. As an alternative to recombinant polypeptides, synthetic peptides corresponding to the antigeni determinants can be prepared. Such peptides are at Ieast six amino acid residues long, and may contain u to approximately 35 residues, which is the approximate upper length limit of automated peptide synthesi machines, such as those available from Applied Biosystems (Foster City, CA). Use of such small peptides f vaccination typically requires conjugation of the peptide to an immunogenic carrier protein such as hepatiti B surface antigen, keyhole limpet hemocyanin or bovine serum albumin. Methods for performing thi conjugation are well known in the art. In one embodiment, amino acid sequence variants of the polypeptide can be prepared. These ma for instance, be minor sequence variants of the polypeptide that arise due to natural variation within th population or they may be homoiogues found in other species. They also may be sequences that do n occur naturally but that are sufficiently similar that they function similarly and/or elicit an immune respons that cross-reacts with natural forms of the polypeptide. Sequence variants can be prepared by standar methods of site-directed mutagenesis such as those described below in the following section. Amino acid sequence variants of the polypeptide can be substitutional, insertional or deletion variants. Deletion variants lack one or more residues of the native protein which are not essential for function or immunogenic activity, and are exemplified by the variants lacking a transmembrane sequence described above. Another common type of deletion variant is one lacking secretory signal sequences or signal sequences directing a protein to bind to a particular part of a cell. An example of the latter sequence is the SH2 domain, which induces protein binding to phosphotyrosine residues. Substitutional variants typically contain the exchange of one amino acid for another at one or more sites within the protein, and may be designed to modulate one or more properties of the polypeptide such as stability against proteolytic cleavage. Substitutions preferably are conservative, that is, one amino acid is replaced with one of similar shape and charge. Conservative substitutions are well known in the art and include, for example, the changes of: alanine to serine; arginine to lysine; asparagine to glutamine or histidine; aspartate to glutamate; cysteine to serine; glutamine to asparagine; glutamate to aspartate; glycine to proline; histidine to asparagine or glutamine; isoleucine to leucine or valine; leucine to valine or isoleucine; lysine to arginine; methionine to leucine or isoleucine; phenylalanine to tyrosine, leucine or methionine; serine to threonine; threonine to serine; tryptophan to tyrosine; tyrosine to tryptophan or phenylalanine; and valine to isoleucine or leucine. Insertional variants include fusion proteins such as those used to allow rapid purification of the polypeptide and also can include hybrid proteins containing sequences from other proteins and polypeptides which are homoiogues of the polypeptide. For example, an insertional variant could include portions of the amino acid sequence of the polypeptide from one species, together with portions of the homologous polypeptide from another species. Other insertional variants can include those in which additional amino acids are introduced within the coding sequence of the polypeptide. These typically are smaller insertions than the fusion proteins described above and are introduced, for example, into a protease cleavage site. In one embodiment, major antigenic determinants of the polypeptide are identified by an empirical approach in which portions of the gene encoding the polypeptide are expressed in a recombinant host, and the resulting proteins tested for their ability to elicit an immune response. For example, PCR can be used to prepare a range of cDNAs encoding peptides lacking successively longer fragments of the C-terminus of the protein. The immunoprotective activity of each of these peptides then identifies those fragments or domains of the polypeptide that are essential for this activity. Further experiments in which only a small number of amino acids are removed at each iteration then allows the location of the antigenic determinants of th polypeptide. Another embodiment for the preparation of the polypeptides according to the invention is the use o peptide mimetics. Mimetics are peptide-containing molecules that mimic elements of protein secondar structure. See, for example, Johnson et a/.,"Peptide Turn Mimetics" in BIOTFCHNOIOGYAND PHARMAC Pezzuto if .?/., Eds., Chapman and Hall, New York (1993). The underlying rationale behind the use of peptid mimetics is that the peptide backbone of proteins exists chiefly to orient amino acid side chains in such way as to facilitate molecular interactions, such as those of antibody and antigen. A peptide mimetic i expected to permit molecular interactions similar to the natural molecule. Successful applications of the peptide mimetic concept have thus far focused on mimetics of β turns within proteins, which are known to be highly antigenic. Likely β-turn structure within an polypeptid can be predicted by computer-based algorithms as discussed above. Once the component amino acids of th turn are determined, peptide mimetics can be constructed to achieve a similar spatial orientation of th essential elements of the amino acid side chains. Modification and changes may be made in the structure of a gene and still obtain a functiona molecule that encodes a protein or polypeptide with desirable characteristics. The following is a discussio based upon changing the amino acids of a protein to create an equivalent, or even an improved, second generation molecule. The amino acid changes may be achieved by changing the codons of the DN sequence, according to the following data. For example, certain amino acids may be substituted for other amino acids in a protein structur without appreciable loss of interactive binding capacity with structures such as, for example, antigen-bindin regions of antibodies or binding sites on substrate molecules. Since it is the interactive capacity and natur of a protein that defines that protein's biological functional activity, certain amino acid substitutions can b made in a protein sequence, and its underlying DNA coding sequence, and nevertheless obtain a protein wit like properties. It is thus contemplated by the inventors that various changes may be made in the DN sequences of genes without appreciable loss of their biological utility or activity. In making such changes, the hydropathic index of amino acids may be considered. The importance o the hydropathic amino acid index in conferring interactive biologic function on a protein is generall understood in the art (Kyte & Doolittle, 1982). TABLE 3 Amino Acids Codons Alanine Ala A GCA GCC GCG GCU Cysteine Cys C UGC UGU Aspartic acid Asp D GAC GAU Glutamic acid Glu E GAA GAG Phenylalanine Phe F UUC UUU Glycine Gly G GGA GGC GGG GGU Histidine His H CAC CAU Isoleucine lie 1 AUA AUC AUU Lysine Lys K AAA AAG Leucine Leu L UUA UUG CUA cue CUG CUU Methionine Met M AUG Asparagine Asn N AAC AAU Proline Pro P CCA CCC CCG ecu Glutamine Gin Q CAA CAG Arginine Arg R AGA AGG CGA CGC CGG CGU Serine Ser S AGC AGU UCA UCC UCG UCU Threonine Thr T ACA ACC ACG ACU Valine Val V GUA GUC GUG GUU Tryptophan Trp W UGG Tyrosine Tyr Y UAC UAU It is accepted that the relative hydropathic character of the amino acid contributes to secondary structure of the resultant protein, which in turn defines the interaction of the protein w other molecules, for example, enzymes, substrates, receptors, DNA, antibodies, antigens, and the like. Each amino acid has been assigned a hydropathic index on the basis of their hydrophobicity a charge characteristics (Kyte & Doolittle, 1982), these are: Isoleucine (+4.5); valine (+4.2); leuci (+3.8); phenylalanine (+2.8); cysteine/cystine (+2.5); methionine (+ 1.9); alanine (+ 1.8); glycine ( 0. threonine (-0.7); serine (-0.8); tryptophan (-0.9); tyrosine (-1.3); proline (-1.6); histidine (-3.2); glutamat 3.5); glutamine (-3.5); aspartate (-3.5); asparagine (-3.5); lysine (-3.9); and arginine (-4.5). It is known in the art that certain amino acids may be substituted by other amino acids havin similar hydropathic index or score and still result in a protein with similar biological activity, i.e., s obtain a biological functionally equivalent protein. In making such changes, the substitution of ami acids whose hydropathic indices are within ±2 is preferred, those which are within ± 1 are particula preferred, and those within ±0.5 are even more particularly preferred. It is also understood in the art that the substitution of like amino acids can be made effectiv on the basis of hydrophilicity. U.S. Patent 4,554,101, incorporated herein by reference, states that t greatest local average hydrophilicity of a protein, as governed by the hydrophilicity of its adjacent ami acids, correlates with a biological property of the protein. As detailed in U.S. Patent 4,554,101, the following hydrophilicity values have been assigned amino acid residues: arginine (+3.0); lysine (+3.0); aspartate (+3.0 ± 1); glutamate (+ 3.0 ± 1 ); seri (+0.3); asparagine (+0.2); glutamine (+0.2); glycine (0); threonine (-0.4); proline (-0.5 ± 1); alani (-0.5); histidine -0.5); cysteine (-1.0); methionine (-1.3); valine (-1.5); leucine (-1.8); isoleucine (-1. tyrosine (-2.3); phenylalanine (-2.5); tryptophan (-3.4). It is understood that an amino acid can be substituted for another having a similar hydrophilici value and still obtain a biologically equivalent and immunologically equivalent protein. In such changes, t substitution of amino acids whose hydrophilicity values are within ±2 is preferred, those that are wit ± 1 are particularly preferred, and those within ±0.5 are even more particularly preferred. As outlined above, amino acid substitutions are generally based on the relative similarity of t amino acid side-chain substituents, for example, their hydrophobicity, hydrophilicity, charge, size, and t like. Exemplary substitutions that take various of the foregoing characteristics into consideration a well known to those of skill in the art and include: arginine and lysine; glutamate and aspartate; serine and threonine; glutamine and asparagine; and valine, leucine and isoleucine. G. Site-Specific Mutagenesis Site-specific mutagenesis is a technique useful in the preparation of individual peptides, or biologically functional equivalent proteins or peptides, through specific mutagenesis of the underlying DNA. The technique further provides a ready ability to prepare and test sequence variants, incorporating one or more of the foregoing considerations, by introducing one or more nucleotide sequence changes into the DNA. Site-specific mutagenesis allows the production of mutants through the use of specific oligonucleotide sequences which encode the ONA sequence of the desired mutation, as well as a sufficient number of adjacent nucleotides, to provide a primer sequence of sufficient size and sequence complexity to form a stable duplex on both sides of the deletion junction being traversed. Typically, a primer of about 17 to 25 nucleotides in length is preferred, with about 5 to 10 residues on both sides of the junction of the sequence being altered. in general, the technique of site-specific mutagenesis is well known in the art. As will be appreciated, the technique typically employs a bacteriophage vector that exists in both a single stranded and double stranded form. Typical vectors useful in site-directed mutagenesis include vectors such as the M13 phage. These phage vectors are commercially available and their use is generally well known to those skilled in the art. Double stranded plasmids are also routinely employed in site directed mutagenesis, which eliminates the step of transferring the gene of interest from a phage to a plasmid. In general, site-directed mutagenesis is performed by first obtaining a single-stranded vector, or melting of two strands of a double stranded vector which includes within its sequence a DNA sequence encoding the desired protein. An oligonucleotide primer bearing the desired mutated sequence is synthetically prepared. This primer is then annealed with the single-stranded DNA preparation, and subjected to DNA polymerizing enzymes such as £ coli polymerase I Klenow fragment, in order to complete the synthesis of the mutation-bearing strand. Thus, a heteroduplex is formed wherein one strand encodes the original non-mutated sequence and the second strand bears the desired mutation. This heteroduplex vector is then used to transform appropriate cells, such as £ coli cells, and clones are selected that include recombinant vectors bearing the mutated sequence arrangement. The preparation of sequence variants of the selected gene using site-directed mutagenesis i provided as a means of producing potentially useful species and is not meant to be limiting, as there ar other ways in which sequence variants of genes may be obtained. For example, recombinant vector encoding the desired gene may be treated with mutagenic agents, such as hydroxylamine, to obtai sequence variants. H. Expression and Purification of Encoded Proteins /. Expression of Proteins from Cloned cDNAs The cDNA species specified in SEQ ID 1.0:1, SEQ ID N0:3, SEQ ID N0:5, SEQ ID 1.0:7, an HNFIα can be expressed as encoded peptides or proteins. In other embodiments cDNA species specifie in SEQ ID N0:78, SEQ ID N0:34, SEQ ID N0:36, SEQ ID N0:38, SEQ ID N0:40, SEQ ID N0:42, SEQ I N0:44, SEQ ID N0:46, SEQ ID N0:48, SEQ ID N0:50, SEQ ID N0:52, SEQ ID N0:54, and HNF4α can b expressed as encoded peptides or proteins. The DNA species specified in SEQ ID 1.0:128 and HNFI β ca be expressed as encoded peptides or proteins. The engineering of DNA segment(s) for expression in prokaryotic or eukaryotic system may be performed by techniques generally known to those of skill i recombinant expression. It is believed that virtually any expression system may be employed in th expression of the claimed nucleic acid sequences. Both cDNA and genomic sequences are suitable for eukaryotic expression, as the host cell wil generally process the genomic transcripts to yield functional mRNA for translation into protein. Generall speaking, it may be more convenient to employ as the recombinant gene a cDNA version of the gene. It i believed that the use of a cDNA version will provide advantages in that the size of the gene will generall be much smaller and more readily employed to transfect the targeted cell than will a genomic gene, whic will typically be up to an order of magnitude larger than the cDNA gene. However, the inventor does no exclude the possibility of employing a genomic version of a particular gene where desired. As used herein, the terms "engineered" and "recombinant" cells are intended to refer to a cell int which an exogenous DNA segment or gene, such as a cDNA or gene has been introduced. Therefore engineered cells are distinguishable from naturally occurring cells which do not contain a recombinantl introduced exogenous DNA segment or gene. Engineered cells are thus cells having a gene or gene introduced through the hand of man. Recombinant cells include those having an introduced cDNA o genomic DNA, and also include genes positioned adjacent to a promoter not naturally associated with the particular introduced gene. To express a recombinant encoded protein or peptide, whether mutant or wild-type, in accordance with the present invention one would prepare an expression vector that comprises one of the claimed isolated nucleic acids under the control of one or more promoters. To bring a coding sequence "under the control of" a promoter, one positions the 5' end of the translational initiation site of the reading frame generally between about 1 and 50 nucleotides "downstream" of [i.e., 3' of) the chosen promoter. The "upstream" promoter stimulates transcription of the inserted DNA and promotes expression of the encoded recombinant protein. This is the meaning of "recombinant expression" in the context used here. Many standard techniques are available to construct expression vectors containing the appropriate nucleic acids and transcriptional/translational control sequences in order to achieve protein or peptide expression in a variety of host-expression systems. Cell types available for expression include, but are not limited to, bacteria, such as £ coli and B. subtilis transformed with recombinant phage DNA, plasmid DNA or cosmid DNA expression vectors. Certain examples of prokaryotic hosts are £ coli strain RR1, £ coli LE392, £ co/IB, £ coli χ 1776 (ATCC No. 31537) as well as £ α?// W3110 (F-, lambda-, prototrophic, ATCC No. 273325); bacilli such as Bacillus subtilis; and other enterobacteriaceae such as Salmonella typhimurium, Serratia marcescens, and various Pseudomonas species. In general, plasmid vectors containing replicon and control sequences that are derived from species compatible with the host cell are used in connection with these hosts. The vector ordinarily carries a replication site, as well as marking sequences that are capable of providing phenotypic selection in transformed cells. For example, £ coli is often transformed using pBR322, a plasmid derived from an £ coli species. Plasmid pBR322 contains genes for ampicillin and tetracycline resistance and thus provides easy means for identifying transformed cells. The pBR322 plasmid, or other microbial plasmid or phage must also contain, or be modified to contain, promoters that can be used by the microbial organism for expression of its own proteins. In addition, phage vectors containing replicon and control sequences that are compatible with the host microorganism can be used as transforming vectors in connection with these hosts. For example, the phage lambda GEM™-11 maγ be utilized in making a recombinant phage vector that can be used t transform host cells, such as £ coli LE392. Further useful vectors include pIN vectors (Inouγe et ai, 1985); and pGEX vectors, for use i generating glutathione S transferase (GST) soluble fusion proteins for later purification and separation o cleavage. Other suitable fusion proteins are those with β-galactosidase, ubiquitin, or the like. Promoters that are most commonlγ used in recombinant DNA construction include the β lactamase (penicillinase), lactose and trγptophan (trp) promoter sγstems. While these are the mos commonlγ used, other microbial promoters have been discovered and utilized, and details concerning thei nucleotide sequences have been published, enabling those of skill in the art to ligate them functionall with plasmid vectors. For expression in Saccharomyces, the plasmid YRp7, for example, is commonlγ used (Stinchcom et ai, 1979; Kingsman et ai, 1979; Tschemper etai, 1980). This plasmid contains the trp\ gene, whic provides a selection marker for a mutant strain of γeast lacking the abilitγ to grow in trγptophan, fo example ATCC No. 44076 or PEP4-1 (Jones, 1977). The presence of the trp\ lesion as a characteristic o the γeast host cell genome then provides an effective environment for detecting transformation b growth in the absence of trγptophan. Suitable promoting sequences in γeast vectors include the promoters for 3-phosphoglγcerat kinase (Hitze an et ai, 1980) or other glγcolγtic enzγmes (Hess et ai, 1968; Holland et ai, 1978), suc as enolase, glγceraldehγde-3-phosphate dehγdrogenase, hexokinase, pγruvate decarboxγlase phosphofructokinase, glucose-6-phosphate isomerase, 3-phosphoglγcerate mutase, pyruvate kinase triosephosphate isomerase, phosphoglucose isomerase, and glucokinase. In constructing suitabl expression plasmids, the termination sequences associated with these genes are also ligated into th expression vector 3' of the sequence desired to be expressed to provide polyadenylation of the mRNA an termination. Other suitable promoters, which have the additional advantage of transcription controlled b growth conditions, include the promoter region for alcohol dehγdrogenase 2, isocγtochrome C, aci phosphatase, degradative enzγmes associated with nitrogen metabolism, and the aforementione glγceraldehγde-3-phosphate dehγdrogenase, and enzγmes responsible for maltose and galactos utilization. In addition to micro-organisms, cultures of cells derived from multicellular organisms may also be used as hosts. In principle, any such cell culture is workable, whether from vertebrate or invertebrate culture. In addition to mammalian cells, these include insect cell systems infected with recombinant virus expression vectors [e.g., baculovirus); and plant cell systems infected with recombinant virus expression vectors [e.g., cauliflower mosaic virus, CaMV; tobacco mosaic virus, TMV) or transformed with recombinant plasmid expression vectors [e.g., Ti plasmid) containing one or more coding sequences. In a useful insect system, Autograph califomica nuclear poiyhidrosis virus (AcNPV) is used as a vector to express foreign genes. The virus grows in Spodoptera frugiperda cells. The isolated nucleic acid coding sequences are cloned into non-essential regions (for example the polyhedron gene) of the virus and placed under control of an AcNPV promoter (for example, the polyhedron promoter). Successful insertion of the coding sequences results in the inactivatioπ of the polyhedron gene and production of non- occluded recombinant virus [i.e., virus lacking the proteinaceous coat coded for by the polyhedron gene). These recombinant viruses are then used to infect Spodoptera frugiperda cells in which the inserted gene is expressed [e.g., U.S. Patent No. 4,215,051). Examples of useful mammalian host cell lines are VERO and HeLa cells, Chinese hamster ovary (CHO) cell lines, WI38, BHK, COS 7, 293, HepG2, NIH3T3, RIN and MDCK cell lines. In addition, a host cell may be chosen that modulates the expression of the inserted sequences, or modifies and processes the gene product in the specific fashion desired. Such modifications [e.g., glycosγlation) and processing [e.g., cleavage) of protein products maγ be important for the function of the encoded protein. Different host cells have characteristic and specific mechanisms for the post-translational processing and modification of proteins. Appropriate cell lines or host sγstems can be chosen to ensure the correct modification and processing of the foreign protein expressed. Expression vectors for use in mammalian cells ordinarily include an origin of replication (as necessary), a promoter located in front of the gene to be expressed, along with any necessary ribosome binding sites, RNA splice sites, polyadenylation site, and transcriptional terminator sequences. The origin of replication may be provided either by construction of the vector to include an exogenous origin, such as may be derived from SV40 or other viral [e.g., Polyoma, Adeno, VSV, BPV) source, or maγ be provided by the host cell chromosomal replication mechanism. If the vector is integrated into the host cell chromosome, the latter is often sufficient. The promoters maγ be derived from the genome of mammalian cells [e.g., metallothione promoter) or from mammalian viruses [e.g., the adenovirus late promoter; the vaccinia virus 7.5 promoter). Further, it is also possible, and maγ be desirable, to utilize promoter or control sequenc normally associated with the desired gene sequence, provided such control sequences are compatible wi the host cell sγstems. A number of viral based expression sγstems maγ be utilized, for example, commonlγ us promoters are derived from polγoma, Adenovirus 2, cγtomegalovirus and Simian Virus 40 (SV40). T earlγ and late promoters of SV40 virus are useful because both are obtained easilγ from the virus as fragment which also contains the SV40 viral origin of replication. Smaller or larger SV40 fragments ma also be used, provided there is included the approximatelγ 250 bp sequence extending from the //MM site toward the Bgl site located in the viral origin of replication. In cases where an adenovirus is used as an expression vector, the coding sequences maγ b ligated to an adenovirus transcription/translation control complex, e.g., the late promoter and tripartit leader sequence. This chimeric gene maγ then be inserted in the adenovirus genome bγ in vitro or in vi recombination. Insertion in a non-essential region of the viral genome [e.g., region E1 or E3) will result i a recombinant virus that is viable and capable of expressing proteins in infected hosts. Specific initiation signals maγ also be required for efficient translation of the claimed isolate nucleic acid coding sequences. These signals include the ATG initiation codon and adjacent sequence Exogenous translational control signals, including the ATG initiation codon, maγ additionally need to b provided. One of ordinary skill in the art would readily be capable of determining this need and providin the necessary signals. It is well known that the initiation codon must be in-frame (or in-phase) with th reading frame of the desired coding sequence to ensure translation of the entire insert. These exogenou translational control signals and initiation codons can be of a varietγ of origins, both natural an sγnthetic. The efficiencγ of expression maγ be enhanced bγ the inclusion of appropriate transcriptio enhancer elements or transcription terminators (Bittner et ai, 1987). In eukarγotic expression, one will also typically desire to incorporate into the transcriptional un an appropriate polyadenylation site [e.g., 5 -AATAAA-3') if one was not contained within the origin cloned segment. Typically, the poly A addition site is placed about 30 to 2000 nucleotides "downstream of the termination site of the protein at a position prior to transcription termination. For long-term, high-yield production of recombinant proteins, stable expression is preferred. For example, cell lines that stably express constructs encoding proteins may be engineered. Rather than using expression vectors that contain viral origins of replication, host cells can be transformed with vectors controlled by appropriate expression control elements [e.g., promoter, enhancer, sequences, transcription terminators, polyadenylation sites, etc.), and a selectable marker. Following the introduction of foreign DNA, engineered cells maγ be allowed to grow for 1 -2 daγs in an enriched medium, and then are switched to a selective medium. The selectable marker in the recombinant plasmid confers resistance to the selection and allows cells to stably integrate the plasmid into their chromosomes and grow to form foci, which in turn can be cloned and expanded into cell lines. A number of selection systems may be used, including, but not limited, to the herpes simplex virus thymidine kinase (Wigler et ai, 1977), hypoxanthine-guanine phosphoribosyltransferase (Szybalska et ai, 1962) and adenine phosphoribosγltransferase genes (Lowγ et ai, 1980), in tk, hgprf or aprf cells, respectively. Also, antimetabolite resistance can be used as the basis of selection for dhfr, which confers resistance to methotrexate (Wigler et ai, 1980; O'Hare et ai, 1981); gpt, which confers resistance to mycophenolic acid (IVIulligan et ai, 1981); neo, which confers resistance to the aminoglycoside G-418 (Colberre-Garapin etai, 1981); and hygro, which confers resistance to hγgromyciπ. It is contemplated that the isolated nucleic acids of the invention may be "overexpressed", i.e., expressed in increased levels relative to its natural expression in human cells, or even relative to the expression of other proteins in the recombinant host cell. Such overexpression may be assessed by a variety of methods, including radio-labeling and/or protein purification. However, simple and direct methods are preferred, for example, those involving SOS/PAGE and protein staining or western blotting, followed by quantitative analyses, such as densitometric scanning of the resultant gel or blot. A specific increase in the level of the recombinant protein or peptide in comparison to the level in natural human ceils is indicative of overexpression, as is a relative abundance of the specific protein in relation to the other proteins produced by the host cell and, e.g., visible on a gel. 2. Purification of Expressed Proteins Further aspects of the present invention concern the purification, and in particular embodiments, the substantial purification, of an encoded protein or peptide. The term "purified protein or peptide " as used herein, is intended to refer to a composition, isolatable from other components, wherein the protein or peptide is purified to anγ degree relative to its naturally-obtainable state, i.e., in this case, relative to its puritγ within a hepatocγte or β-cell extract. A purified protein or peptide therefore also refers to a protein or peptide, free from the environment in which it maγ naturally occur. Generally, "purified" will refer to a protein or peptide composition that has been subjected to fractionation to remove various other components, and which composition substantially retains its expressed biological activity. Where the term "substantially purified" is used, this designation will refer to a composition in which the protein or peptide forms the major component of the composition, such as constituting about 50% or more of the proteins in the composition. Various methods for quantifying the degree of purification of the protein or peptide will be known to those of skill in the art in light of the present disclosure. These include, for example, determining the specific activity of an active fraction, or assessing the number of polγpeptides within a fraction bγ SDS/PAGE analγsis. A preferred method for assessing the puritγ of a fraction is to calculate the specific activitγ of the fraction, to compare it to the specific activitγ of the initial extract, and to thus calculate the degree of puritγ, herein assessed bγ a " fold purification number". The actual units used to represent the amount of activitγ will, of course, be dependent upon the particular assaγ technique chosen to follow the purification and whether or not the expressed protein or peptide exhibits a detectable activitγ. Various techniques suitable for use in protein purification will be well known to those of skill in the art. These include, for example, precipitation with ammonium sulphate, polyethylene glycol, antibodies and the like or by heat denaturation, followed bγ centrifugation; chromatographγ steps such as ion exchange, gel filtration, reverse phase, hγdroxγlapatite and affinitγ chromatographγ; isoelectric focusing; gel electrophoresis; and combinations of such and other techniques. As is generally known in the art, it is believed that the order of conducting the various purification steps may be changed, or that certain steps may be omitted, and still result in a suitable method for the preparation of a substantially purified protein or peptide. There is no general requirement that the protein or peptide always be provided in their most purified state. Indeed, it is contemplated that less substantially purified products will have utility in certain embodiments. Partial purification maγ be accomplished bγ using fewer purification steps in combination, or bγ utilizing different forms of the same general purification scheme. For example, it is appreciated that a cation-exchange column chromatographγ performed utilizing an HPLC apparatus will generally result in a greater -fold purification than the same technique utilizing a low pressure chromatography system. Methods exhibiting a lower degree of relative purification may have advantages in total recovery of protein product, or in maintaining the activity of an expressed protein. It is known that the migration of a polypeptide can vary, sometimes significantly, with different conditions of SDS/PAGE (Capaidi et ai, Biochem. Biophys. Res. Comm., 76A2S, 1977). It will therefore be appreciated that under differing electrophoresis conditions, the apparent molecular weights of purified or partially purified expression products may vary. I. Preparation of Antibodies Specific for Encoded Proteins Antibody Generation For some embodiments, it will be desired to produce antibodies that bind with high specificity to the protein product(s) of an isolated nucleic acid selected from the group comprising SEQ ID N0:1, SEQ ID N0:3, SEQ ID N0:5, SEQ ID N0:7 or any other mutant of HNFIα, SEQ ID N0:78, SEQ ID N0:34, SEQ ID N0:36, SEQ ID N0:38, SEQ ID N0.40, SEQ ID N0:42, SEQ ID N0:44, SEQ ID N0.46, SEQ ID N0:48, SEQ ID N0:50, SEQ ID N0:52, SEQ ID N0:54, or any other mutant of HNF4α, SEQ ID NO: 128 (HNFIβ) or any mutant of HNF1 β. Means for preparing and characterizing antibodies are well known in the art (See, e.g., Antibodies: A Laboratory Manual, Cold Spring Harbor Laboratory, 1988; incorporated herein by reference). Methods for generating polyclonal antibodies are well known in the art. Briefly, a polyclonal antibody is prepared by immunizing an animal with an antigenic composition and collecting antisera from that immunized animal. A wide range of animal species can be used for the production of antisera. Typically the animal used for production of antisera is a rabbit, a mouse, a rat, a hamster, a guinea pig or a goat. Because of the relatively large blood volume of rabbits, a rabbit is a preferred choice for production of polyclonal antibodies. As is well known in the art, a given composition maγ vary in its immunogenicitγ. It is often necessarγ therefore to boost the host immune system, as may be achieved by coupling a peptide or polypeptide immunogen to a carrier. Exemplary and preferred carriers are keyhole limpet hemocyanin (KLH) and bovine serum albumin (BSA). Other albumins such as ovalbumin, mouse serum albumin or rabbit serum albumin can also be used as carriers. Means for conjugating a polypeptide to a carrier protein are well known in the art and include glutaraldehyde, m-maleimidobenzoyl-N-hγdroxγsuccinimide ester, carbodiimide and bis-biazotized benzidine. As is also well known in the art, the immunogenicity of a particular immunogen composition can be enhanced by the use of non-specific stimulators of the immune response, known as adjuvants. Exemplarγ and preferred adjuvants include complete Freund's adjuvant (a non-specific stimulator of the immune response containing killed Mycobacterium tuberculosis), incomplete Freund's adjuvants and aluminum hγdroxide adjuvant. The amount of immunogen composition used in the production of polγclonal antibodies varies upon the nature of the immunogen as well as the animal used for immunization. A variety of routes can be used to administer the immunogen (subcutaneous, intramuscular, intradermal, intravenous and intraperitoneal). The production of polγclonal antibodies maγ be monitored bγ sampling blood of the immunized animal at various points following immunization. A second, booster injection, maγ also be given. The process of boosting and titering is repeated until a suitable titer is achieved. When a desired level of immunogenicitγ is obtained, the immunized animal can be bled and the serum isolated and stored, and/or in some cases the animal can be used to generate MAbs. For production of rabbit polγclonal antibodies, the animal can be bled through an ear vein or alternatively by cardiac puncture. The removed blood is allowed to coagulate and then centrifuged to separate serum components from whole cells and blood clots. The serum maγ be used as is for various applications or the desired antibodγ fraction maγ be purified bγ well-known methods, such as affinitγ chromatography using another antibody or a peptide bound to a solid matrix. Monoclonal antibodies (MAbs) maγ be readily prepared through use of well-known techniques, such as those exemplified in U.S. Patent 4,196,265, incorporated herein by reference. Typically, this technique involves immunizing a suitable animal with a selected immunogen composition, e.g., a purified or partially purified expressed protein, polypeptide or peptide. The immunizing composition is administered in a manner that effectively stimulates antibodγ producing cells. The methods for generating monoclonal antibodies (MAbs) generally begin along the same lines as those for preparing polyclonal antibodies. Rodents such as mice and rats are preferred animals, however, the use of rabbit, sheep or frog cells is also possible. The use of rats maγ provide certain advantages (Goding, 1986, pp. 60-61), but mice are preferred, with the BALB/c mouse being most preferred as this is most routinely used and generally gives a higher percentage of stable fusions. The animals are injected with antigen as described above. The antigen may be coupled to carrier molecules such as keyhole limpet hemocyanin if necessary. The antigen would typically be mixed with adjuvant, such as Freund's complete or incomplete adjuvant. Booster injections with the same antigen would occur at approximately two-week intervals. Following immunization, somatic cells with the potential for producing antibodies, specifically B lymphocytes (B cells), are selected for use in the MAb generating protocol. These ceils may be obtained from biopsied spleens, tonsils or lymph nodes, or from a peripheral blood sample. Spleen cells and peripheral blood cells are preferred, the former because they are a rich source of antibody-producing cells that are in the dividing plasmablast stage, and the latter because peripheral blood is easily accessible. Often, a panel of animals will have been immunized and the spleen of animal with the highest antibody titer will be removed and the spleen lymphocytes obtained by homogenizing the spleen with a syringe. Typically, a spleen from an immunized mouse contains approximately 5 X 10 7 to 2 X 10 8 lymphocytes. The antibody-producing B lymphocytes from the immunized animal are then fused with cells of an immortal myeloma cell, generally one of the same species as the animal that was immunized. Myeloma cell lines suited for use in hybridoma-producing fusion procedures preferably are πon-antibody-produciπg, have high fusion efficiency, and have enzyme deficiencies that render them incapable of growing in certain selective media that support the growth of only the desired fused cells (hybridomas). Any one of a number of myeloma cells may be used, as are known to those of skill in the art (Goding, pp. 65-66, 1986; Campbell, pp. 75-83, 1984). For example, where the immunized animal is a mouse, one may use P3-X63/Ag8, X63-Ag8.653, NS1/1.Ag 4 1, Sp210-Ag14, FO, NSO/U, MPC-11, MPC11-X45-GTG 1.7 and S194/5XX0 Bui; for rats, one may use R210.RCY3, Y3-Ag 1.2.3, IR983F and 4B210; and U-266, GM1500-GRG2, LICR-L0N-HMy2 and UC729-6 are all useful in connection with human cell fusions. One preferred murine mγeloma cell is the NS-1 mγeloma cell line (also termed P3-NS-1 -Ag4-1), which is readilγ available from the NIGMS Human Genetic Mutant Cell Repositorγ bγ requesting cell line repository number GM3573. Another mouse myeloma cell line that may be used is the 8-azaguaπine-resistant mouse murine myeloma SP2/0 non-producer cell line. Methods for generating hγbrids of antibody-producing spleen or Iγmph node cells and mγeloma cells usually comprise mixing somatic cells with mγeloma cells in a 2:1 proportion, though the proportion maγ varγ from about 20:1 to about 1:1, respectivelγ, in the presence of an agent or agents (chemical or electrical) that promote the fusion of cell membranes. Fusion methods using Sendai virus have been described bγ Kohler and Milstein (1975; 1976), and those using polyethylene glycol (PEG), such as 37% (v/v) PEG, bγ Gefter et al. (1977). The use of electrically induced fusion methods is also appropriate (Goding pp. 71 -74, 1986). Fusion procedures usually produce viable hγbrids at low frequencies, about 1 X 10 6 to 1 X 10 8 . However, this low frequencγ does not pose a problem, as the viable, fused hγbrids are differentiated from the parental, unfused cells (particularlγ the unfused mγeloma cells that would normallγ continue to divide indefinitelγ) bγ culturing in a selective medium. The selective medium is generally one that contains an agent that blocks the de novo sγnthesis of nucleotides in the tissue culture media. Exemplary and preferred agents are aminopterin, methotrexate, and azaserine. Aminopterin and methotrexate block de novo synthesis of both purines and pγrimidines, whereas azaserine blocks onlγ purine sγnthesis. Where aminopterin or methotrexate is used, the media is supplemented with hγpoxanthine and thγmidine as a source of nucleotides (HAT medium). Where azaserine is used, the media is supplemented with hγpoxanthine. The preferred selection medium is HAT. Oπlγ cells capable of operating nucleotide salvage pathwaγs are able to survive in HAT medium. The mγeloma cells are defective in keγ enzγmes of the salvage pathwaγ, e.g., hγpoxanthine phosphoribosyl transferase (HPRT), and thus they cannot survive. The B cells can operate this pathwaγ, but theγ have a limited life span in culture and generally die within about two weeks. Therefore, the onlγ cells that can survive in the selective media are those hγbrids formed from mγeloma and B cells. This culturing provides a population of hγbridomas from which specific hγbridomas are selected. Tγpicallγ, selection of hγbridomas is performed bγ culturing the cells bγ single-clone dilution in microtiter plates, followed bγ testing the individual clonal supematants (after about two to three weeks) for the desired reactivity. The assaγ should be sensitive, simple and rapid, such as radioimmunoassaγs, enzγme immunoassaγs, cγtotoxicitγ assaγs, plaque assaγs, dot immunobinding assaγs, and the like. The selected hybridomas would then be serially diluted and cloned into individual antibody-producing cell lines, which can then be propagated indefinitely to provide MAbs. The cell lines may be exploited for MAb production in two basic ways. A sample of the hybridoma can be injected (often into the peritoneal cavity) into a histocompatible animal of the type that was used to provide the somatic and myeloma cells for the original fusion. The injected animal develops tumors secreting the specific monoclonal antibody produced bγ the fused cell hybrid. The body fluids of the animal, such as serum or ascites fluid, can then be tapped to provide MAbs in high concentration. The individual cell lines could also be cultured in vitro, where the MAbs are naturally secreted into the culture medium from which they can be readily obtained in high concentrations. MAbs produced by either means may be further purified, if desired, using filtration, centrifugation and various chromatographic methods such as HPLC or affinity chromatography. Large amounts of the monoclonal antibodies of the present invention may also be obtained by multiplying hybridoma cells in vivo. Cell clones are injected into mammals that are histocompatible with the parent cells, e.g., syngeneic mice, to cause growth of antibody-producing tumors. Optionally, the animals are primed with a hydrocarbon, especially oils such as pristane (tetramethylpentadecane) prior to injection. In accordance with the present invention, fragments of the monoclonal antibody of the invention can be obtained from the monoclonal antibody produced as described above, by methods which include digestion with enzymes such as pepsin or papain and/or cleavage of disulfide bonds by chemical reduction. Alternativelγ, monoclonal antibodγ fragments encompassed by the present invention can be synthesized using an automated peptide synthesizer, or by expression of full-length gene or of gene fragments in £. coli. The monoclonal conjugates of the present invention are prepared by methods known in the art, e.g., by reacting a monoclonal antibody prepared as described above with, for instance, an enzyme in the presence of a coupling agent such as glutaraldehyde or periodate. Conjugates with fluorescein markers are prepared in the presence of these coupling agents or by reaction with an isothiocyanate. Conjugates with metal chelates are similarly produced. Other moieties to which antibodies may be conjugated include radionuclides such as 3 H, \, 13, l 32 P, 35 S, 14 C, 5, Cr, 36 CI, 57 Co, 58 Co, 59 Fe, 75 Se, ,52 Eu, and 99m Tc, are other useful labels that can be conjugated to antibodies. Radioactively labeled monoclonal antibodies of the present invention are produced according to well-known methods in the art. For instance, monoclonal antibodies can be iodinated bγ contact with sodium or potassium iodide and a chemical oxidizing agent such as sodium hγpochlorite, or an enzγmatic oxidizing agent, such as lactoperoxidase. Monoclonal qα antibodies according to the invention maγ be labeled with technetium- bγ ligand exchange process, for example, bγ reducing pertechnate with stannous solution, chelating the reduced technetium onto a Sephadex column and applγing the antibodγ to this column or bγ direct labelling techniques, e.g., bγ incubating pertechnate, a reducing agent such as SNCI 2 , a buffer solution such as sodium-potassium phthalate solution, and the antibodγ. It will be appreciated bγ those of skill in the art that monoclonal or polγclonal antibodies specific for HNFIα, HNFI β or HNF4α (for proteins that are mutated in M0DY3, M0DY4, and MODYl) will have utilities in several tγpes of applications. These can include the production of diagnostic kits for use in detecting or diagnosing M0DY3, M0DY4, and M0DY1 tγpe diabetes. The skilled practitioner will realize that such uses are within the scope of the present invention. J. Immunodetection Assaγs The immunodetection methods of the present invention have evident utilitγ in the diagnosis of conditions such as M0DY3, M0DY4, and M0DY1 related NIDDM. Here, a biological or clinical sample suspected of containing either the encoded protein or peptide or corresponding antibodγ is used. However, these embodiments also have applications to non-clinical samples, such as in the titering of antigen or antibodγ samples, in the selection of hγbridomas, and the like. In the clinical diagnosis or monitoring of patients with M0DY3, M0DY4 or MODYl, the detection of an antigen encoded bγ an HNFIα nucleic acid, HNF4α nucleic acid, HNFI β nucleic acid, or an decrease in the levels of such an antigen, in comparison to the levels in a corresponding biological sample from a normal subject is indicative of a patient with M0DY3, M0DY4, or MODYL The basis for such diagnostic methods lies, in part, with the finding that the nucleic acid HNFIα, HNFI β and HNF4α mutants identified in the present invention are responsible for M0DY3, M0DY4, and MODYl related diabetes, respectively. Hence, it can be inferred that at Ieast some of these mutations produce elevated levels of encoded proteins, that maγ also be used as markers for M0DY3, M0DY4 or MODYL Those of skill in the art are verγ familiar with differentiating between significant expression of a biomarker, which represents a positive identification, and low level or background expression of a biomarker. Indeed, background expression levels are often used to form a "cut-off" above which increased staining will be scored as significant or positive. Significant expression may be represented by high levels of antigens in tissues or within body fluids, or alternatively, by a high proportion of cells from within a tissue that each give a positive signal. /. Immunodetection Methods In still further embodiments, the present invention concerns immunodetection methods for binding, purifying, removing, quantifying or otherwise generally detecting biological components. The encoded proteins or peptides of the present invention may be employed to detect antibodies having reactivity therewith, or, alternatively, antibodies prepared in accordance with the present invention, may be emploγed to detect the encoded proteins or peptides. The steps of various useful immunodetection methods have been described in the scientific literature, such as, e.g., Nakamura et ai (1987). In general, the immunobinding methods include obtaining a sample suspected of containing a protein, peptide or antibody, and contacting the sample with an antibody or protein or peptide in accordance with the present invention, as the case may be, under conditions effective to allow the formation of immunocomplexes. The immunobinding methods include methods for detecting or quantifying the amount of a reactive component in a sample, which methods require the detection or quantitation of any immune complexes formed during the binding process. Here, one would obtain a sample suspected of containing a HNFI α or HNF4α mutant encoded protein, peptide or a corresponding antibody, and contact the sample with an antibody or encoded protein or peptide, as the case may be, and then detect or quantify the amount of immune complexes formed under the specific conditions. In terms of antigen detection, the biological sample analyzed may be anγ sample that is suspected of containing a HNFIα, HNFIβ or HNF4α antigen, such as a pancreatic β-cell, a homogenized tissue extract, an isolated cell, a cell membrane preparation, separated or purified forms of anγ of the above protein-containing compositions, or even anγ biological fluid that comes into contact with diabetic tissue, including blood. Contacting the chosen biological sample with the protein, peptide or antibodγ under conditions effective and for a period of time sufficient to allow the formation of immune complexes (primarγ immune complexes) is generally a matter of simply adding the composition to the sample and incubating the mixture for a period of time long enough for the antibodies to form immune complexes with, i.e., to bind to, anγ antigens present. After this time, the sample-antibody composition, such as a tissue section, ELISA plate, dot blot or western blot, will generally be washed to remove anγ non specifically bound antibodγ species, allowing onlγ those antibodies specifically bound within the primary immune complexes to be detected. In general, the detection of immunocomplex formation is well known in the art and maγ be achieved through the application of numerous approaches. These methods are generally based upon the detection of a label or marker, such as anγ radioactive, fluorescent, biological or enzγmatic tags or labels of standard use in the art. U.S. Patents concerning the use of such labels include 3,817,837; 3,850,752; 3,939,350; 3,996,345; 4,277,437; 4,275,149 and 4,366,241, each incorporated herein bγ reference. Of course, one maγ find additional advantages through the use of a secondarγ binding ligand such as a second antibodγ or a biotin/avidin ligand binding arrangement, as is known in the art. The encoded protein, peptide or corresponding antibodγ emploγed in the detection maγ itself be linked to a detectable label, wherein one would then simplγ detect this label, thereby allowing the amount of the primarγ immune complexes in the composition to be determined. Alternativelγ, the first added component that becomes bound within the primarγ immune complexes maγ be detected bγ means of a second binding ligand that has binding affinitγ for the encoded protein, peptide or corresponding antibodγ. In these cases, the second binding ligand maγ be linked to a detectable label. The second binding ligand is itself often an antibody, which may thus be termed a "secondarγ" antibodγ. The primarγ immune complexes are contacted with the labeled, secoπdarγ binding ligand, or antibodγ, under conditions effective and for a period of time sufficient to allow the formation of secondarγ immune complexes. The secondarγ immune complexes are then generally washed to remove anγ non-specificallγ bound labeled secondarγ antibodies or ligands, and the remaining label in the secondarγ immune complexes is then detected. Further methods include the detection of primarγ immune complexes bγ a two step approach. A second binding ligand, such as an antibodγ, that has binding affinitγ for the encoded protein, peptide or corresponding antibodγ is used to form secondarγ immune complexes, as described above. After washing, the secondarγ immune complexes are contacted with a third binding ligand or antibodγ that has binding affinitγ for the second antibodγ, again under conditions effective and for a period of time sufficient to allow the formation of immune complexes (tertiary immune complexes). The third ligand or antibody is linked to a detectable label, allowing detection of the tertiary immune complexes thus formed. This system may provide for signal amplification if desired. 2. Immunohistochemistry The antibodies of the present invention may also be used in conjunction with both fresh-frozen and formalin-fixed, paraffin-embedded tissue blocks prepared for study bγ immunohistochemistry (IHC). For example, each tissue block consists of 50 mg of residual "pulverized" diabetic tissue. The method of preparing tissue blocks from these paniculate specimens has been successfully used in previous IHC studies of various prognostic factors, and is well known to those of skill in the art (Brown et ai, 1990; Abbondanzo et ai, 1990; Allred et ai, 1990). Briefly, frozen-sections may be prepared by rehydrating 50 ng of frozen "pulverized" diabetic tissue at room temperature in phosphate buffered saline (PBS) in small plastic capsules; pelleting the particles by centrifugation; resuspeπding them in a viscous embedding medium (OCT); inverting the capsule and pelleting again by centrifugation; snap-freezing in -70°C isopentane; cutting the plastic capsule and removing the frozen cylinder of tissue; securing the tissue cylinder on a cryostat microtome chuck; and cutting 25-50 serial sections. Permanent-sections may be prepared by a similar method involving rehydration of the 50 mg sample in a plastic microfuge tube; pelleting; resuspendiπg in 10% formalin for 4 hours fixation; washing/pelleting; resuspending in warm 2.5% agar; pelleting; cooling in ice water to harden the agar; removing the tissue/agar block from the tube; infiltrating and embedding the block in paraffin; and cutting up to 50 serial permanent sections. 3. ELISA As noted, it is contemplated that the encoded proteins or peptides of the invention will find utility as immunogens, e.g., in connection with vaccine development, in immunohistochemistry and in ELISA assaγs. One evident utilitγ of the encoded antigens and corresponding antibodies is in immunoassays for the detection of HNFIα, HNFI β and HNF4 , mutant protiens, as needed in diagnosis and prognostic monitoring of MODY. Immunoassays, in their most simple and direct sense, are binding assays. Certain preferred immunoassaγs are the various tγpes of enzyme linked immunosorbent assays (ELISA) and radioimmunoassaγs (RIA) known in the art. Immunohistochemical detection using tissue sections is also particularlγ useful. However, it will be readilγ appreciated that detection is not limited to such techniques, and western blotting, dot blotting, FACS analγses, and the like maγ also be used. In one exemplarγ ELISA, antibodies binding to the encoded proteins of the invention are immobilized onto a selected surface exhibiting protein affinitγ, such as a well in a polγstγrene microtiter plate. Then, a test composition suspected of containing the HNFIα, HNF1 β or HNF4α mutant, such as a clinical sample, is added to the wells. After binding and washing to remove πon-specificallγ bound immune complexes, the bound antibodγ maγ be detected. Detection is generally achieved by the addition of a second antibodγ specific for the target protein, that is linked to a detectable label. This tγpe of ELISA is a simple "sandwich ELISA". Detection maγ also be achieved bγ the addition of a second antibodγ, followed bγ the addition of a third antibodγ that has binding affinitγ for the second antibodγ, with the third antibodγ being linked to a detectable label. In another exemplarγ ELISA, the samples suspected of containing the mutant HNFIα, HNFI β or HNF4α antigen are immobilized onto the well surface and then contacted with the antibodies of the invention. After binding and washing to remove non-specificallγ bound immune complexes, the bound antigen is detected. Where the initial antibodies are linked to a detectable label, the immune complexes maγ be detected directlγ. Again, the immune complexes maγ be detected using a second antibodγ that has binding affinity for the first antibodγ, with the second antibodγ being linked to a detectable label. Another ELISA in which the proteins or peptides are immobilized, involves the use of antibodγ competition in the detection. In this ELISA, labeled antibodies are added to the wells, allowed to bind to the mutant HNFIα protein, mutant HNFI β protein or mutant HNF4 protein, and detected bγ means of their label. The amount of marker antigen in an unknown sample is then determined bγ mixing the sample with the labeled antibodies before or during incubation with coated wells. The presence of marker antigen in the sample acts to reduce the amount of antibodγ available for binding to the well and thus reduces the ultimate signal. This is appropriate for detecting antibodies in an unknown sample, where the unlabeled antibodies bind to the antigen-coated wells and also reduces the amount of antigen available to bind the labeled antibodies. Irrespective of the format employed, ELISAs have certain features in common, such as coating, incubating or binding, washing to remove non-specifically bound species, and detecting the bound immune complexes. These are described as follows: In coating a plate with either antigen or antibody, one will generally incubate the wells of the plate with a solution of the antigen or antibody, either ovemight or for a specified period of hours. The wells of the plate will then be washed to remove incompletely adsorbed material. Any remaining available surfaces of the wells are then "coated" with a nonspecific protein that is antigenically neutral with regard to the test antisera. These include bovine serum albumin (BSA), casein and solutions of milk powder. The coating of nonspecific adsorption sites on the immobilizing surface reduces the background caused bγ nonspecific binding of antisera to the surface. In ELISAs, it is probably more customary to use a secondary or tertiary detection means rather than a direct procedure. Thus, after binding of a protein or antibodγ to the well, coating with a non- reactive material to reduce background, and washing to remove unbound material, the immobilizing surface is contacted with the control MDDY3, M0DY4 or MODYl and/or clinical or biological sample to be tested under conditions effective to allow immune complex (antigen/antibody) formation. Detection of the immune complex then requires a labeled secondary binding ligand or antibody, or a secondary binding ligand or antibody in conjunction with a labeled tertiary antibody or third binding ligand. "Under conditions effective to allow immune complex (antigen/antibody) formation" means that the conditions preferably include diluting the antigens and antibodies with solutions such as BSA, bovine gamma globulin (B6G) and phosphate buffered saline (PBS)/Tween™. These added agents also tend to assist in the reduction of nonspecific background. The "suitable" conditions also mean that the incubation is at a temperature and for a period of time sufficient to allow effective binding. Incubation steps are typically from about 1 to 2 to 4 hours, at temperatures preferably on the order of 25° to 27°C, or may be overnight at about 4°C or so. Following all incubation steps in an ELISA, the contacted surface is washed so as to remove non- complexed material. A preferred washing procedure includes washing with a solution such as PBS/T een™, or borate buffer. Following the formation of specific immune complexes between the test sample and the originally bound material, and subsequent washing, the occurrence of even minute amounts of immune complexes may be determined. To provide a detecting means, the second or third antibodγ will have an associated label to allow detection. Preferablγ, this label will be an enzγme that will generate color development upon incubating with an appropriate chromogenic substrate. Thus, for example, one will desire to contact and incubate the first or second immune complex with a urease, glucose oxidase, alkaline phosphatase or hydrogen peroxidase conjugated antibodγ for a period of time and under conditions that favor the development of further immune complex formation [e.g., incubation for 2 hours at room temperature in a PBS-containing solution such as PBS-Tween™). After incubation with the labeled antibodγ, and subsequent to washing to remove unbound material, the amount of label is quantified, e.g., bγ incubation with a chromogenic substrate such as urea and bromocresol purple or 2,2 -azido-di-(3-ethγl-benzthiazoline-6 sulfonic acid [ABTSl and H 2 0 2 , in the case of peroxidase as the enzγme label. Quantitation is then achieved bγ measuring the degree of color generation, e.g., using a visible spectra spectrophotometer. 4. Use of Antibodies for Radioimaging The antibodies of this invention will be used to quantifγ and localize the expression of the encoded marker proteins. The antibodγ, for example, will be labeled bγ anγ one of a varietγ of methods and used to visualize the localized concentration of the cells producing the encoded protein. Such an assaγ also will reveal the subcellular localization of the protein, which can have diagnostic and therapeutic applications. In accordance with this invention, the monoclonal aπtibodγ or fragment thereof maγ be labeled bγ anγ of several techniques known to the art. The methods of the present invention maγ also use paramagnetic isotopes for purposes of in vivo detection. Elements particularlγ useful in Magnetic Resonance Imaging ("MRI") include 157 Gd, 55 Mn, ,62 Dγ, 52 Cr, and 56 Fe. Administration of the labeled antibodγ maγ be local or sγstemic and accomplished intravenouslγ, intraarteriallγ, via the spinal fluid or the like. Administration may also be intradermal or intracavitarγ, depending upon the bodγ site under examination. After a sufficient time has lapsed for the monoclonal antibodγ or fragment thereof to bind with the diseased tissue, for example, 30 minutes to 48 hours, the area of the subject under investigation is examined bγ routine imaging techniques such as MRI, SPECT, planar scintillation imaging or newlγ emerging imaging techniques. The exact protocol will necessarilγ varγ depending upon factors specific to the patient, as noted above, and depending upon the bodγ site under examination, method of administration and type of label used; the determination of specific procedures would be routine to the skilled artisan. The distribution of the bound radioactive isotope and its increase or decrease with time is then monitored and recorded. By comparing the results with data obtained from studies of clinically normal individuals, the presence and extent of the diseased tissue can be determined. It will be apparent to those of skill in the art that a similar approach may be used to radio-image the production of the encoded HNFIα, HNFIβ or HNF4α mutant proteins in human patients. The present invention provides methods for the in vivo diagnosis of M0DY3, M0DY4 or MODYl in a patient. Such methods generally comprise administering to a patient an effective amount of an HNFIα, HNFI β or HNF4α mutant specific antibody, to which antibody is conjugated a marker, such as a radioactive isotope or a spin-labeled molecule, that is detectable by non-invasive methods. The antibody-marker conjugate is allowed sufficient time to come into contact with reactive antigens that are present within the tissues of the patient, and the patient is then exposed to a detection device to identify the detectable marker. 5. Kits In still further embodiments, the present invention concerns immunodetection kits for use with the immunodetection methods described above. As the encoded proteins or peptides may be employed to detect antibodies and the corresponding antibodies may be emploγed to detect encoded proteins or peptides, either or both of such components maγ be provided in the kit. The immunodetection kits will thus comprise, in suitable container means, an encoded protein or peptide, or a first antibody that binds to an encoded protein or peptide, and an immunodetection reagent. In certain embodiments, the encoded protein or peptide, or the first antibody that binds to the encoded protein or peptide, maγ be bound to a solid support, such as a column matrix or well of a microtiter plate. The immunodetection reagents of the kit may take any one of a variety of forms, including those detectable labels that are associated with or linked to the given antibody or antigen, and detectable labels that are associated with or attached to a secondarγ binding ligand. Exemplary secondary ligands are those secondary antibodies that have binding affinitγ for the first antibodγ or antigen, and secondarγ antibodies that have binding affinity for a human antibodγ. Further suitable immunodetection reagents for use in the present kits include the two-component reagent that comprises a secondarγ antibodγ that has binding affinitγ for the first antibodγ or antigen, along with a third antibodγ that has binding affiπitγ for the second antibodγ, the third antibodγ being linked to a detectable label. The kits maγ further comprise a suitablγ aliquoted composition of the encoded protein or polγpeptide antigen, whether labeled or unlabeled, as maγ be used to prepare a standard curve for a detection assaγ. The kits maγ contain antibody-label conjugates either in fully conjugated form, in the form of intermediates, or as separate moieties to be conjugated bγ the user of the kit. The components of the kits maγ be packaged either in aqueous media or in Iγophilized form. The container means of the kits will generally include at Ieast one vial, test tube, flask, bottle, sγringe or other container means, into which the antibodγ or antigen maγ be placed, and preferablγ, suitablγ aliquoted. Where a second or third binding ligand or additional component is provided, the kit will also generally contain a second, third or other additional container into which this ligand or component maγ be placed. The kits of the present invention will also tγpicallγ include a means for containing the antibodγ, antigen, and anγ other reagent containers in close confinement for commercial sale. Such containers maγ include injection or blow-molded plastic containers into which the desired vials are retained. K. Detection and Quantitation of Nucleic Acid Species One embodiment of the instant invention comprises a method for identification of HNF1 α, HNFIβ or HNF4α mutants in a biological sample bγ amplifγing and detecting nucleic acids corresponding to HNFIα, HNFI β or HNF4α mutants. The biological sample can be aπγ tissue or fluid in which these mutants might be present. Various embodiments include β and α-cells of pancreatic islets, bone marrow aspirate, bone marrow biopsγ, iγmph node aspirate, Iγmph node biopsγ, spleen tissue, fine needle aspirate, skin biopsγ or organ tissue biopsγ. Other embodiments include samples where the bodγ fluid is peripheral blood, Iγmph fluid, ascites, serous fluid, pleural effusion, sputum, cerebrospinal fluid, lacrimal fluid, stool or urine. Nucleic acid used as a template for amplification is isolated from cells contained in the biological sample, according to standard methodologies (Sambrook et ai, 1989). The nucleic acid maγ be genomic DNA or fractionated or whole cell RNA. Where RNA is used, it may be desired to convert the RNA to a complementary DNA. in one embodiment, the RNA is whole cell RNA and is used directly as the template for amplification. Pairs of primers that selectively hybridize to nucleic acids corresponding to HNFIα, HNFIβ or HNF4α mutants are contacted with the isolated nucleic acid under conditions that permit selective hybridization. Once hybridized, the nucleic acid.primer complex is contacted with one or more enzymes that facilitate template-dependent nucleic acid synthesis. Multiple rounds of amplification, also referred to as "cycles," are conducted until a sufficient amount of amplification product is produced. Next, the amplification product is detected. In certain applications, the detection may be performed by visual means. Alternativelγ, the detection maγ involve indirect identification of the product via chemiluminesceπce, radioactive scintigraphγ of incorporated radiolabel or fluorescent label or even via a sγstem using electrical or thermal impulse signals (Affγmax technology; Bellus, 1994). Following detection, one may compare the results seen in a given patient with a statistically significant reference group of normal patients and MODY or indeed MODY dependent diabetics and non MODY dependent diabetics. In this way, it is possible to correlate the amount of HNFIα, HNFIβ or HNF4α mutants detected with various clinical states. /. Primers The term primer, as defined herein, is meant to encompass anγ nucleic acid that is capable of priming the sγnthesis of a nascent nucleic acid in a template-dependent process. Tγpicallγ, primers are oligonucleotides from ten to twentγ base pairs in length, but longer sequences can be emploγed. Primers maγ be provided in double-stranded or single-stranded form, although the single-stranded form is preferred. 2. Template Dependent Amplification Methods A number of template dependent processes are available to amplify the marker sequences present in a given template sample. One of the best known amplification methods is the polymerase chain reaction (referred to as PCR) which is described in detail in U.S. Patent Nos. 4,683,195, 4,683,202 and 4,800,159, and in Innis etai, 1990, each of which is incorporated herein by reference in its entirety. Briefly, in PCR, two primer sequences are prepared that are complementary to regions on opposite complementary strands of the marker sequence. An excess of deoxyπucleoside triphosphates are added to a reaction mixture along with a DNA polγmerase, e.g., Tag polγmerase. If the marker sequence is present in a sample, the primers will bind to the marker and the polγmerase will cause the primers to be extended along the marker sequence bγ adding on nucleotides. Bγ raising and lowering the temperature of the reaction mixture, the extended primers will dissociate from the marker to form reaction products, excess primers will bind to the marker and to the reaction products and the process is repeated. A reverse transcriptase PCR amplification procedure maγ be performed in order to quantifγ the amount of mRNA amplified. Methods of reverse transcribing RNA into cDNA are well known and described in Sambrook et ai, 1989. Alternative methods for reverse transcription utilize thermostable, RNA dependent DNA polγmerases. These methods are described in WO 90/07641 filed December 21 , 1990. Polγmerase chain reaction methodologies are well known in the art. Another method for amplification is the ligase chain reaction ("LCR"), disclosed in EPA No. 320 308, incorporated herein bγ reference in its entiretγ. In LCR, two complementarγ probe pairs are prepared, and in the presence of the target sequence, each pair will bind to opposite complementarγ strands of the target such that theγ abut. In the presence of a ligase, the two probe pairs will link to form a single unit. Bγ temperature cγciing, as in PCR, bound ligated units dissociate from the target and then serve as "target sequences" for ligation of excess probe pairs. U.S. Patent 4,883,750 describes a method similar to LCR for binding probe pairs to a target sequence. Qbeta Replicase, described in PCT Application No. PCT/US87/00880, maγ also be used as still another amplification method in the present invention. In this method, a replicative sequence of RNA that has a region complementarγ to that of a target is added to a sample in the presence of an RNA polγmerase. The polγmerase will copγ the replicative sequence that can then be detected. An isothermal amplification method, in which restriction endonucleases and ligases are used to achieve the amplification of target molecules that contain nucleotide 5 * -[alpha thio] trip osphates in one strand of a restriction site maγ also be useful in the amplification of nucleic acids in the present invention, Walker etai, (1992), incorporated herein bγ reference in its entiretγ. Strand Displacement Amplification (SDA) is another method of carrγing out isothermal amplification of nucleic acids which involves multiple rounds of strand displacement and sγnthesis, i.e., nick translation. A similar method, called Repair Chain Reaction (RCR), involves annealing several probes throughout a region targeted for amplification, followed by a repair reaction in which only two of the four bases are present. The other two bases can be added as biotinγlated derivatives for easγ detection. A similar approach is used in SDA. Target specific sequences can also be detected using a cyclic probe reaction {CPR). In CPR, a probe having 3' and 5' sequences of non-specific DNA and a middle sequence of specific RNA is hybridized to DNA that is present in a sample. Upon hybridization, the reaction is treated with RNase H, and the products of the probe identified as distinctive products that are released after digestion. The original template is annealed to another cycling probe and the reaction is repeated. Still another amplification methods described in GB Application No. 2 202 328, and in PCT Application No. PCT/US89/01025, each of which is incorporated herein by reference in its entirety, may be used in accordance with the present invention. In the former application, "modified" primers are used in a PCR like, template- and enzyme-dependent synthesis. The primers may be modified bγ labelling with a capture moiety [e.g., biotin) and/or a detector moiety [e.g., enzyme). In the latter application, an excess of labeled probes are added to a sample. In the presence of the target sequence, the probe binds and is cleaved catalyticallγ. After cleavage, the target sequence is released intact to be bound by excess probe. Cleavage of the labeled probe signals the presence of the target sequence. Other nucleic acid amplification procedures include transcription-based amplification sγstems (TAS), including nucleic acid sequence based amplification (NASBA) and 3SR (Kwoh et ai, 1989); Gingeras et ai, PCT Application WO 88/10315, incorporated herein bγ reference in their entiretγ). In NASBA, the nucleic acids can be prepared for amplification by standard phenol/chloroform extraction, heat denaturation of a clinical sample, treatment with lysis buffer and minispin columns for isolation of DNA and RNA or guanidiniυm chloride extraction of RNA. These amplification techniques involve annealing a primer which has target specific sequences. Following polymerization, DNA/RNA hybrids are digested with RNase H while double stranded DNA molecules are heat denatured again. In either case the single stranded DNA is made fully double stranded by addition of second target specific primer, followed by polγmerization. The double-stranded DNA molecules are then multiplγ transcribed bγ an RNA polγmerase such as T7 or SP6. In an isothermal cγclic reaction, the RNA's are reverse transcribed into single stranded DNA, which is then converted to double stranded DNA, and then transcribed once again with an RNA polγmerase such as T7 or SP6. The resulting products, whether truncated or complete, indicate target specific sequences. Daveγ et ai, EPA No. 329 822 (incorporated herein bγ reference in its entiretγ) disclose a nucleic acid amplification process involving cyclically synthesizing single-stranded RNA ("ssRNA"), ssDNA, and double-stranded DNA (dsDNA), which maγ be used in accordance with the present invention. The ssRNA is a template for a first primer oligonucleotide, which is elongated bγ reverse transcriptase (RNA- dependent DNA polγmerase). The RNA is then removed from the resulting DNA:RNA duplex by the action of ribonuclease H (RNase H, an RNase specific for RNA in duplex with either DNA or RNA). The resultant ssDNA is a template for a second primer, which also includes the sequences of an RNA polγmerase promoter (exemplified bγ T7 RNA polγmerase) 5' to its homologγ to the template. This primer is then extended bγ DNA polγmerase (exemplified bγ the large "Klenow" fragment of £ coli DNA polγmerase I), resulting in a double-stranded DNA ("dsDNA") molecule, having a sequence identical to that of the original RNA between the primers and having additionally, at one end, a promoter sequence. This promoter sequence can be used bγ the appropriate RNA polγmerase to make manγ RNA copies of the DNA. These copies can then re-enter the cγcle leading to verγ swift amplification. With proper choice of enzγmes, this amplification can be done isother allγ without addition of enzγmes at each cγcle. Because of the cγclical nature of this process, the starting sequence can be chosen to be in the form of either DNA or RNA. Miller et ai, PCT Application WO 89/06700 (incorporated herein bγ reference in its entiretγ) disclose a nucleic acid sequence amplification scheme based on the hγbridization of a promoter/primer sequence to a target single-stranded DNA ("ssDNA") followed bγ transcription of manγ RNA copies of the sequence. This scheme is not cγclic, i.e., new templates are not produced from the resultant RNA transcripts. Other amplification methods include "RACE" and "one-sided PCR" (Frohman, M.A., In: PCR PROTOCOIS: A GUIDE TO METHODS AND APPUCATIONS, Academic Press, N.Y., 1990; Ohara et ai, 1989; each herein incorporated bγ reference in their entiretγ). Methods based on ligation of two (or more) oligonucleotides in the presence of nucleic acid having the sequence of the resulting "di-oligonucleotide", therebγ amplifγing the di-oligonucleotide, maγ also be used in the amplification step of the present invention. Wu et ai, 1989), incorporated herein bγ reference in its entiretγ. 3. RNase Protection Assay Methods for genetic screening by identifying mutations associated with most genetic diseases such as diabetes must be able to assess large regions of the genome. Once a relevant mutation has been identified in a given patient, other family members and affected individuals can be screened using methods which are targeted to that site. The ability to detect dispersed point mutations is critical for genetic counseling, diagnosis, and early clinical intervention as well as for research into the etiology of cancer and other genetic disorders. The ideal method for genetic screening would quickly, inexpensively, and accurately detect all types of widely dispersed mutations in genomic DNA, cDNA, and RNA samples, depending on the specific situation. Historically, a number of different methods have been used to detect point mutations, including denaturing gradient gel electrophoresis ("DGGE"), restriction enzyme polymorphism aπalγsis, chemical and enzγmatic cleavage methods, and others (Cotton, 1989). The more common procedures currentlγ in use include direct sequencing of target regions amplified bγ PCR™ and single-strand conformation polγmorphism analγsis ("SSCP"). Another method of screening for point mutations is based on RNase cleavage of base pair mismatches in RNA/DNA and RNA/RNA heterodupiexes. As used herein, the term "mismatch" is defined as a region of one or more unpaired or mispaired nucleotides in a double-stranded RNA/RNA, RNA/DNA or DNA/DNA molecule. This definition thus includes mismatches due to insertion/deletion mutations, as well as single and multiple base point mutations. U.S. Patent No. 4,946,773 describes an RNase A mismatch cleavage assaγ that involves annealing single-stranded DNA or RNA test samples to an RNA probe, and subsequent treatment of the nucleic acid duplexes with RNase A. After the RNase cleavage reaction, the RNase is inactivated bγ proteolγtic digestion and organic extraction, and the cleavage products are denatured bγ heating and analγzed by electrophoresis on denaturing polyacrylamide gels. For the detection of mismatches, the single-stranded products of the RNase A treatment, electrophoretically separated according to size, are compared to similarly treated control duplexes. Samples containing smaller fragments (cleavage products) not seen in the control duplex are scored as +. Currently available RNase mismatch cleavage assaγs, including those performed according to U.S. Patent No. 4,946,773, require the use of radiolabeled RNA probes. Mγers and Ma iatis in U.S. Patent No. 4,946,773 describe the detection of base pair mismatches using RNase A Other invenstigators have described the use of E.coli enzγme, RNase I, in mismatch assaγs. Because it has broader cleavage specificitγ than RNase A, RNase I would be a desirable enzγme to emploγ in the detection of base pair mismatches if components can be found to decrease the extent of non-specific cleavage and increase the frequencγ of cleavage of mismatches. The use of RNase I for mismatch detection is described in literature from Promega Biotech. Promega markets a kit containing RNase I that is shown in their literature to cleave three out of four known mismatches, provided the enzγme level is sufficientiγ high. The RNase protection assaγ as first described bγ Melton et ai (1984) was used to detect and map the ends of specific mRNA targets in solution. The assaγ relies on being able to easilγ generate high specific activitγ radiolabeled RNA probes complementarγ to the mRNA of interest bγ in vitro transcription. Originally, the templates for in vitro transcription were recombinant plasmids containing bacteriophage promoters. The probes are mixed with total cellular RNA samples to permit hγbridization to their complementarγ targets, then the mixture is treated with RNase to degrade excess unhγbridized probe. Also, as originally intended, the RNase used is specific for single-stranded RNA, so that hγbridized double-stranded probe is protected from degradation. After inactivation and removal of the RNase, the protected probe (which is proportional in amount to the amount of target mRNA that was present) is recovered and analγzed on a polγacrγlamide gel. The RNase Protection assaγ was adapted for detection of single base mutations bγ Myers and Maniatis (1985) and bγ Winter and Perucho (1985). In this tγpe of RNase A mismatch cleavage assaγ, radiolabeled RNA probes transcribed in vitro from wild tγpe sequences, are hγbridized to complementarγ target regions derived from test samples. The test target generally comprises DNA (either genomic DNA or DNA amplified by cloning in plasmids or bγ PCR™), although RNA targets (endogenous mRNA) have occasionally been used (Gibbs and Caskey, 1987; Winter et ai, 1985). If single nucleotide (or greater) sequence differences occur between the hγbridized probe and target, the resulting disruption in Watson- Crick hγdrogen bonding at that position ("mismatch") can be recognized and cleaved in some cases bγ single-strand specific ribonuclease. To date, RNase A has been used almost exclusively for cleavage of single-base mismatches, although RNase I has recentlγ been shown as useful also for mismatch cleavage. There are recent descriptions of using the MutS protein and other DNA-repair enzγmes for detection of single-base mismatches (Ellis et ai, 1994; Lishanski et ai, 1994). By hybridizing each strand of the wild type probe in RNase cleavage mismatch assays separately to the complementary Sense and Antisense strands of the test target, two different complementary mismatches (for example, A C and G-U or G-T) and therefore two chances for detecting each mutation by separate cleavage events, was provided. Myers etai (1985) used the RNase A cleavage assay to screen 615 bp regions of the human β-globin gene contained in recombinant plasmid targets. Bγ probing with both strands, theγ were able to detect most, but not all, of the β-globin mutations in their model system. The collection of mutants included examples of all the 12 possible types of mismatches between RNA and DNA: rA/dA, rC/dC, rU/dC, rC/dA, rC/dT, rU/dG, rG/dA, rG/dG, rU/dG, rA/dC, rG/dT, and rA/dG. Myers et. al. (1985) showed that certain types of mismatch were more frequently and more completely cleaved by RNase A than others. For example, the rC/dA, rC/dC, and rC/dT mismatches were cleaved in all cases, while the rG/dA mismatch was only cleaved in 13% of the cases tested and the rG/dT mismatch was almost completely resistant to cleavage. In general, the complement of a difficult- to-detect mismatch was much easier to detect. For example, the refractory rG/dT mismatch generated by probing a G to A mutant target with a wild type sense-strand probe, is complemented by the easily cleaved rC/dA mismatch generated by probing the mutant target with the wild type antisense strand. By probing both target strands, Myers and Maniatis (1986) estimated that at Ieast 50% of all single-base mutations would be detected by the RNase A cleavage assay. These authors stated that approximately one-third of all possible types of single-base substitutions would be detected bγ using a single probe for just one strand of the target DNA (Myers etai, 1985). In the typical RNase cleavage assays, the separating gels are run under denaturing conditions for analysis of the cleavage products. This requires the RNase to be inactivated by treating the reaction with protease (usually Proteinase K, often in the presence of SDS) to degrade the RNase. This reaction is generally followed bγ an organic extraction with a phenol/chloroform solution to remove proteins and residual RNase activity. The organic extraction is then followed by concentration and recovery of the cleavage products by alcohol precipitation (Myers et ai, 1985; Winter et ai, 1985; Theophilus et ai, 1989). 4. Separation Methods Following amplification, it maγ be desirable to separate the amplification product from the template and the excess primer for the purpose of determining whether specific amplification has occurred. In one embodiment, amplification products are separated bγ agarose, agarose-acrγlamide or polγacrγlamide gel electrophoresis using standard methods. See Sambrook etai, 1989. Alternatively, chromatographic techniques maγ be emploγed to effect separation. There are manγ kinds of chromatographγ which maγ be used in the present invention: adsorption, partition, ion exchange and molecular sieve, and manγ specialized techniques for using them including column, paper, thin-layer and gas chromatographγ (Freifelder, 1982). 5. Identification Methods Amplification products must be visualized in order to confirm amplification of the marker sequences. One tγpical visualization method involves staining of a gel with ethidium bromide and visualization under UV light. Alternativelγ, if the amplification products are integrallγ labeled with radio- or fluorometricallγ-labeled nucleotides, the amplification products can then be exposed to x-ray film or visualized under the appropriate stimulating spectra, following separation. In one embodiment, visualization is achieved indirectly. Following separation of amplification products, a labeled, nucleic acid probe is brought into contact with the amplified marker sequence. The probe preferablγ is conjugated to a chromophore but maγ be radiolabeled. In another embodiment, the probe is conjugated to a binding partner, such as an antibody or biotin, and the other member of the binding pair carries a detectable moiety. In one embodiment, detection is bγ Southern blotting and hybridization with a labeled probe. The techniques involved in Southern blotting are well known to those of skill in the art and can be found in manγ standard books on molecular protocols. See Sambrook et ai, 1989. Briefly, amplification products are separated by gel electrophoresis. The gel is then contacted with a membrane, such as nitrocellulose, permitting transfer of the nucleic acid and non-covalent binding. Subsequently, the membrane is incubated with a chromophore-conjugated probe that is capable of hybridizing with a target amplification product. Detection is bγ exposure of the membrane to x-ray film or ion-emitting detection devices. One example of the foregoing is described in U.S. Patent No. 5,279,721, incorporated bγ reference herein, which discloses an apparatus and method for the automated electrophoresis and transfer of nucleic acids. The apparatus permits electrophoresis and blotting without external manipulation of the gel and is ideally suited to carrying out methods according to the present invention. 6. Kit Components All the essential materials and reagents required for detecting MODY markers in a biological sample may be assembled together in a kit. This generally will comprise pre selected primers for specific markers. Also included may be enzymes suitable for amplifying nucleic acids including various polymerases IRT, Taq, etc.), deoxynucleotides and buffers to provide the necessary reaction mixture for amplification. Such kits generally will comprise, in suitable means, distinct containers for each individual reagent and enzyme as well as for each marker primer pair. Preferred pairs of primers for amplifying nucleic acids are selected to amplify the sequences specified in SEQ ID N0:3, SEQ ID N0:5, or SEQ ID N0:5, along with the cDNAs for HNFIα (SEQ ID N0:1) HNFI β (SEQ ID N0:128) and HNF4α (SEQ ID NO:78). In other embodiments preferred pairs of primers for amplification are selected to amplify sequences specified in SEQ ID N0:34, SEQ ID N0.36, SEQ ID N0:38, SEQ ID N0:40, SEQ ID N0:42, SEQ ID N0:44, SEQ ID N0:46, SEQ ID N0:48, SEQ ID N0:50, SEQ ID N0:52, SEQ ID N0:54. In another embodiment, such kits will comprise hybridization probes specific for M0DY3, chosen from a group including nucleic acids corresponding to the sequences specified in SEQ ID N0:1, SEQ ID N0:3, SEQ ID N0:5, and SEQ ID N0:7, along with the cDNAs for HNFIα (SEQ ID N0:1). In yet another embodiment such kits will comprise probes specific for MODY 1 chosen from a group including nucleic acids corresponding to the sequences specified in SEQ ID N0.78, SEQ ID N0:34, SEQ ID N0:36, SEQ ID N0:38, SEQ ID N0:40, SEQ ID N0:42, SEQ ID N0:44, SEQ ID N0:46, SEQ ID N0:48, SEQ ID N0:50, SEQ ID N0:52, SEQ 10 N0.54, HNF4α. In still another embodiment such kits will comprise probes specific for M0DY4 chosen from a group including nucleic acids corresponding to the sequences specified in SEQ ID N0:128, HNFIβ or any of the exons shown in FIG. 27A-FIG. 271, or Genbank accession numbers U90279- 90287 and U96079, incorporated herein by reference. Such kits generally will comprise, in suitable means, distinct containers for each individual reagent and enzyme as well as for each marker hybridization probe. L. Use of RNA Fingerprinting to Identify 0DY3, M0DY4, and M0DY1 Markers RNA fingerprinting is a means by which RNAs isolated from many different tissues, cell types or treatment groups can be sampled simultaneously to identify RNAs whose relative abundances vary. Two forms of this technology were developed simultaneously and reported in 1992 as RNA fingerprinting by differential display (Liang and Pardee, 1992; Welsh es ai, 1992). [See also Liang and Pardee, U.S. patent 5,262,31 1, incorporated herein by reference in its entirety.) Some of the experiments described herein were performed similarly to Donahue etai, J. Biol. Chem. 269: 8604-8609, 1994. All forms of RNA fingerprinting bγ PCR are theoretically similar but differ in their primer design and application. The most striking difference between differential displaγ and other methods of RNA fingerprinting is that differential display utilizes anchoring primers that hybridize to the poly A tails of mRNAs. As a consequence, the PCR products amplified in differential displaγ are biased towards the 3' untranslated regions of mRNAs. The basic technique of differential display has been described in detail (Liang and Pardee, 1992). Total cell RNA is primed for first strand reverse transcription with an anchoring primer composed of oligo dT and anγ two of the four deoxγnucleosides. The oligo dT primer is extended using a reverse transcriptase, for example, Moloneγ Murine Leukemia Virus (MMLV) reverse transcriptase. The synthesis of the second strand is primed with an arbitrarily chosen oligonucleotide, using reduced stringency conditions. Once the double-stranded cDNA has been synthesized, amplification proceeds bγ standard PCR techniques, utilizing the same primers. The resulting DNA fingerprint is analγzed bγ gel electrophoresis and ethidium bromide staining or autoradiographγ. A side bγ side comparison of fingerprints obtained from for example tumor versus normal tissue samples using the same oligonucleotide primers identifies mRNAs that are differentially expressed. RNA fingerprinting technologγ has been demonstrated as being effective in identifying genes that are differentially expressed in cancer (Liang et ai, 1992; Wong et ai, 1993; Sager et ai, 1993; Mok et ai, 1994; Watson et ai, 1994; Chen et ai, 1995; An et ai, 1995). The present invention utilizes the RNA fingerprinting technique to identify genes that are differentially expressed in diabetes. Design and Theoretical Considerations for Relative Quantitative RTPCR Reverse transcription (RT) of RNA to cDNA followed by relative quantitative PCR (RT PCR) can be used to determine the relative concentrations of specific mRNA species isolated from M0DY3, M0DY4, and M0DY1 patients. By determining that the concentration of a specific mRNA species varies, it is shown that the gene encoding the specific mRNA species is differentially expressed. This technique can be used to confirm that mRNA transcripts shown to be differentially regulated by RNA fingerprinting are differentially expressed in MODY related diabetes. In PCR, the number of molecules of the amplified target DNA increase by a factor approaching two with every cycle of the reaction until some reagent becomes limiting. Thereafter, the rate of amplification becomes increasingly diminished until there is no increase in the amplified target between cycles. If a graph is plotted in which the cycle number is on the X axis and the log of the concentration of the amplified target DNA is on the Y axis, a curved line of characteristic shape is formed by connecting the plotted points. Beginning with the first cycle, the slope of the line is positive and constant. This is said to be the linear portion of the curve. After a reagent becomes limiting, the slope of the line begins to decrease and eventually becomes zero. At this point the concentration of the amplified target DNA becomes asymptotic to some fixed value. This is said to be the plateau portion of the curve. The concentration of the target DNA in the linear portion of the PCR amplification is directly proportional to the starting concentration of the target before the reaction began. By determining the concentration of the amplified products of the target DNA in PCR reactions that have completed the same number of cycles and are in their linear ranges, it is possible to determine the relative concentrations of the specific target sequence in the original DNA mixture. If the DNA mixtures are cDNAs synthesized from RNAs isolated from different tissues or cells, the relative abundances of the specific mRNA from which the target sequence was derived can be determined for the respective tissues or cells. This direct proportionality between the concentration of the PCR products and the relative mRNA abundances is only true in the linear range of the PCR reaction. The final concentration of the target DNA in the plateau portion of the curve is determined by the availability of reagents in the reaction mix and is independent of the original concentration of target DNA. Therefore, the first condition that must be met before the relative abundances of a mRNA species can be determined by RT PCR for a collection of RNA populations is that the concentrations of the amplified PCR products must be sampled when the PCR reactions are in the linear portion of their curves. The second condition that must be met for an RT PCR experiment to successfully determine the relative abundances of a particular mRNA species is that relative concentrations of the amplifiable cDNAs must be normalized to some independent standard. The goal of an RT PCR experiment is to determine the abundance of a particular mRNA species relative to the average abundance of all mRNA species in the sample. In the experiments described below, mRNAs for β-actin, asparagine synthetase and iipocortin II were used as external and internal standards to which the relative abundance of other mRNAs ar compared. Most protocols for competitive PCR utilize internal PCR standards that are approximatelγ as abundant as the target. These strategies are effective if the products of the PCR amplifications are sampled during their linear phases. If the products are sampled when the reactions are approaching the plateau phase, then the less abundant product becomes relatively over represented. Comparisons of relative abundances made for manγ different RNA samples, such as is the case when examining RNA samples for differential expression, become distorted in such a waγ as to make differences in relative abundances of RNAs appear less than theγ actually are. This is not a significant problem if the internal standard is much more abundant than the target. If the internal standard is more abundant than the target, then direct linear comparisons can be made between RNA samples. The above discussion describes theoretical considerations for an RT PCR assaγ for clinically derived materials. The problems inherent in clinical samples are that theγ are of variable quantitγ (making normalization problematic), and that theγ are of variable qualitγ (necessitating the co-amplification of a reliable internal control, preferablγ of larger size than the target). Both of these problems are overcome if the RT PCR is performed as a relative quantitative RT PCR with an internal standard in which the internal standard is an amplifiable cDNA fragment that is larger than the target cDNA fragment and in which the abundance of the mRNA encoding the internal standard is roughlγ 5- 00 fold higher than the mRNA encoding the target. This assaγ measures relative abundance, not absolute abundance of the respective mRNA species. Other studies maγ be performed using a more conventional relative quantitative RT PCR assaγ with an external standard protocol. These assays sample the PCR products in the linear portion of their amplification curves. The number of PCR cycles that are optimal for sampling must be empirically determined for each target cDNA fragment, in addition, the reverse transcriptase products of each RNA population isolated from the various tissue samples must be carefullγ normalized for equal concentrations of amplifiable cDNAs. This consideration is verγ important since the assaγ measures absolute mRNA abundance. Absolute mRNA abundance can be used as a measure of differential gene expression onlγ in normalized samples. While empirical determination of the linear range of the amplification curve and normalization of cDNA preparations are tedious and time consuming processes, the resulting RT PCR assays can be superior to those derived from the relative quantitative RT PCR assay with an internal standard. One reason for this advantage is that without the internal standard/competitor, all of the reagents can be converted into a single PCR product in the linear range of the amplification curve, thus increasing the sensitivity of the assay. Another reason is that with only one PCR product, display of the product on an electrophoretic gel or another display method becomes less complex, has less background and is easier to interpret. M. Methods for Activation of Gene Expression In one embodiment of the present invention, there are provided methods for the increased gene expression or activation in a cell. This is particularly useful where there is an aberration in the gene product or gene expression is not sufficient for normal function. This will allow for the alleviation of symptoms of M00Y3 type diabetes experienced as a result of mutation in HNFIα, M0DY4 type diabetes experienced as a result of mutation in HNF 1 β and MO DY 1 type diabetes experienced as a result of mutation in HI\IF4 . The general approach to increasing gene expression as mediated by HNFIα, HNFIβ or HNF4α according to the present invention, will be to provide a cell with an HNFIα, HNFIβ or HNF4 polypeptide, thereby permitting the transcription promotional activitγ of HNFIα, HNFIβ or HNF4α to take effect. While it is conceivable that the protein may be delivered directly, a preferred embodiment involves providing a nucleic acid encoding an HNFIα, HNFIβ or HNF4α polypeptide, i.e., an HNFIα, HNFIβ or HNF4α gene, to the cell. Following this provision, the HNFIα HNFIβ or HNF4α polypeptide is synthesized by the host cell's transcriptional and translational machinery, as well as any that may be provided by the expression construct. Cis acting regulatory elements necessary to support the expression of the HNFIα HNFIβ or HNF4α gene will be provided, in the form of an expression construct. It also is possible that, expression of the virally- encoded HNFI α, HNFIβ or HNF4 could be stimulated or enhanced, or the expressed polypeptide stabilized, thereby achieving the same or similar effect. In order to effect expression of constructs encoding HNFIα, HNFIβ or HNF4α genes, the expression construct must be delivered into a cell. One mechanism for delivery is via viral infection, where the expression construct is encapsidated in a viral particle which will deliver either a replicating or non- replicating nucleic acid. In certain embodiments an HSV vector is used, although virtually any vector would suffice. Several non-viral methods for the transfer of expression constructs into cultured mammalian cell also are contemplated by the present invention. These include calcium phosphate precipitation (Graham an Van Der Eb, 1973; Chen and Okayama, 1987; Rippe et ai, 1990) DEAE-dextran (Gopal, 1985) electroporation (Tur-Kaspa et ai, 1986; Potter et ai, 1984), direct microinjection (Harland and Weintraub 1985), DNA-loaded liposomes (Nicolau and Sene, 1982; Fraley et ai, 1979) and iipofectamine-DN complexes, cell sonication (Fechheimeret a/., 1987), gene bombardment using high velocity microprojectile (Yang et. ai, 1990), and receptor-mediated transfection (Wu and Wu, 1987; Wu and Wu, 1988). Some o these techniques may be successfully adapted for in vivo or ex vivo use, as discussed below. In another embodiment of the invention, the expression construct may simply consist of nake recombinant DNA or plasmids. Transfer of the construct may be performed by any of the method mentioned above which physically or chemically permeabilize the cell membrane. This is particularl applicable for transfer in vitro, but it may be applied to in vivo use as well. Another embodiment of th invention for transferring a naked DNA expression construct into cells maγ involve particle bombardment. This method depends on the abilitγ to accelerate DNA coated microprojectiles to a high velocitγ allowing them to pierce cell membranes and enter cells without killing them (Klein et ai, 1987). Several devices fo accelerating small particles have been developed. One such device relies on a high voltage discharge to generate an electrical current, which in turn provides the motive force (Yang et ai, 1990). The microprojectiles used have consisted of biologically inert substances such as tungsten or gold beads. In a further embodiment of the invention, the expression construct maγ be entrapped in a iiposome. Liposomes are vesicular structures characterized bγ a phospholipid bilaγer membrane and an inner aqueous medium. ultilamellar liposomes have multiple lipid layers separated by aqueous medium. They form spontaneously when phospholipids are suspended in an excess of aqueous solution. The lipid components undergo self-rearrangement before the formation of closed structures and entrap water and dissolved solutes between the lipid bilayers (Ghosh and Bachhawat, 1991 ). Also contemplated are Iipofectamine-DNA complexes. Liposome-mediated nucleic acid deliverγ and expression of foreign DNA in vitro has been verγ successf l. Wong et al. ( 1980) demonstrated the feasibility of liposome-mediated delivery and expression of foreign DNA in cultured chick embryo, HeLa and hepatoma cells. In certain embodiments of the invention, the Iiposome maγ be complexed with a hemagglutinating virus (HVJ). This has been shown to facilitate fusion with the cell membrane and promote cell entry of liposome-encapsulatedDNA (Kaneda et ai., 1989). In other embodiments, the Iiposome may be complexed or employed in conjunction with nuclear non histone chromosomal proteins (HMG-1) (Kato et al., 1991). In yet further embodiments, the Iiposome may be complexed or employed in conjunction with both HVJ and HMG- 1. In other embodiments, the delivery vehicle may comprise a ligand and a Iiposome. Where a bacterial promoter is employed in the DNA construct, it also will be desirable to include within the Iiposome an appropriate bacterial polymerase. Other expression constructs which can be employed to deliver a nucleic acid encoding an HNFIα, HNF 1 β, or HNF4 transgene into cells are receptor-mediated delivery vehicles. These take advantage of the selective uptake of macromolecules by receptor-mediated endocytosis in almost all eukaryotic cells. Because of the cell type-specific distribution of various receptors, the delivery can be highly specific (Wu and Wu, 1993). Receptor-mediated gene targeting vehicles generally consist of two components: a cell receptor specific ligand and a DNA-binding agent. Several ligands have been used for receptor-mediated gene transfer. The most extensively characterized ligands are asialoorosomucoid(ASOR) (Wu and Wu, 1987) and transferrin (Wagner et ai, 1990). Recently, a synthetic neoglycoprotein, which recognizes the same receptor as ASOR, has been used as a gene delivery vehicle (Ferkol et ai, 1993; Perales et al., 1994). Mannose can be used to target the mannose receptor on liver cells. Also, antibodies to CD5 (CLL), CD22 (lymphoma), CD25 (T-cell leukemia) and MAA (melanoma) can similarly be used as targeting moieties. In other embodiments, the delivery vehicle may comprise a ligand and a Iiposome. Primary mammalian cell cultures may be prepared in various ways. In order for the cells to be kept viable while in vitro and in contact with the expression construct, it is necessary to ensure that the cells maintain contact with the correct ratio of oxygen and carbon dioxide and nutrients but are protected from microbial contamination. Cell culture techniques are well documented and are disclosed herein by reference {Freshner, 1992). One embodiment of the foregoing involves the use of gene transfer to immortalize cells for the production of proteins. The gene for the protein of interest may be transferred as described above into appropriate host cells followed by culture of cells under the appropriate conditions. The gene for virtually any polypeptide may be employed in this manner. The generation of recombinant expression vectors, and the elements included therein, are discussed above. Alternativelγ, the protein to be produced maγ be an endogenous protein normallγ sγnthesized bγ the cell in question. Examples of useful mammalian host cell lines are Vero and HeLa cells and cell lines of Chinese hamster ovary, W138, BHK, COS-7, 293, HepG2, NIH3T3, RIN and MDCK cells. In addition, a host cell strain maγ be chosen that modulates the expression of the inserted sequences, or modifies and process the gene product in the manner desired. Such modifications [e.g., glγcosγlation) and processing (e.g., cleavage) of protein products maγ be important for the function of the protein. Different host cells have characteristic and specific mechanisms for the post-translational processing and modification of proteins. Appropriate cell lines or host sγstems can be chosen to insure the correct modification and processing of the foreign protein expressed. A number of selection sγstems maγ be used including, but not limited to, HSV thγmidine kinase, hγpoxanthine-guanine phosphoribosγltransferase and adenine phosphoribosγltransferase genes, in tk-, hgprt- or aprt- cells, respectivelγ. Also, anti-metabolite resistance can be used as the basis of selection for dhfr, that confers resistance to; gpt, that confers resistance to mγcophenolic acid; neo, that confers resistance to the aminoglγcoside G418; and hygro, that confers resistance to hγgromγcin. Animal cells can be propagated in vitro in two modes: as non-anchorage dependent cells growing in suspension throughout the bulk of the culture or as anchorage-dependent cells requiring attachment to a solid substrate for their propagation (i.e., a monolaγer tγpe of cell growth). Non-anchorage dependent or suspension cultures from continuous established cell lines are the most widelγ used means of large scale production of cells and cell products. However, suspension cultured cells have limitations, such as tumorigenic potential and lower protein production than adherent cells. Large scale suspension culture of mammalian cells in stirred tanks is a common method for production of recombinant proteins. Two suspension culture reactor designs are in wide use - the stirred reactor and the airlift reactor. The stirred design has successfullγ been used on an 8000 liter capacitγ for the production of interferon. Cells are grown in a stainless steel tank with a height-to-diameter ratio of 1:1 to 3:1. The culture is usually mixed with one or more agitators, based on bladed disks or marine propeller patterns. Agitator systems offering less shear forces than blades have been described. Agitation may be driven either directly or indirectly by magnetically coupled drives. Indirect drives reduce the risk of microbial contamination through seals on stirrer shafts. The airlift reactor, also initially described for microbial fermentation and later adapted for mammalian culture, relies on a gas stream to both mix and oxygenate the culture. The gas stream enters a riser section of the reactor and drives circulation. Gas disengages at the culture surface, causing denser liquid free of gas bubbles to travel downward in the downcomer section of the reactor. The main advantage of this design is the simplicity and lack of need for mechanical mixing. Typically, the height-to- diameter ratio is 10:1. The airlift reactor scales up relatively easily, has good mass transfer of gases and generates relatively low shear forces. N. Methods for Blocking Mutant HNF 1 α, HNF 1 β and HNF4α Action In another embodiment of the present invention, there is contemplated the method of blocking the function of mutated HNFIα in M0DY3, HNFIβ in M0DY4, and HNF4α in MODYL In this way, it may be possible to curtail the effects of the mutation in diabetes. In addition, it may prove effective to use this sort of therapeutic intervention in combination with more traditional diabetes therapies, such as the administration of insulin. The general form that this aspect of the invention will take is the provision, to a cell, of an agent that will inhibit mutated HNFIα, HNFIβ or HNF4α function. Four such agents are contemplated. First, one may employ an antisense nucleic acid that will hybridize either to the mutated HNFIα, HNFIβ or HNF4α gene or the mutated HNFIα, HNFIβ or HNF4α gene transcript, thereby preventing transcription or translation, respectively. The considerations relevant to the design of antisense constructs have been presented above. Second, one may utilize a mutated HNFIα-, HNFIβ- or HNF4α-binding protein or peptide, for example, a peptidomimetic or an antibody that binds immunologically to a mutated HNFIα, HNFIβ or HNF4α respectively, the binding of either will block or reduce the activity of the mutated HNFIα, HNFIβ and HNF4α respectively. The methods of making and selecting peptide binding partners and antibodies are well known to those of skill in the art. Third, one may provide to the cell an antagonist of mutated HNFIα, HNFIβ or HNF4α, for example, the transactivation target sequence, alone or coupled to another agent. And fourth, one may provide an agent that binds to the mutated HNFIα, HNFIβ or HNF4α target without the same functional result as would arise with mutated HNFIα, HNFIβ or HNF4α binding. Provision of an HNFIα, HNFIβ or HNF4α gene, a mutated HNFI α, HNFI β or HNF4α protein, or a mutated HNFIα, HNFIβ or HNF4α antagonist, would be according to anγ appropriate pharmaceutical route. The formulation of such compositions and their deliverγ to tissues is discussed below. The method bγ which the nucleic acid, protein or chemical is transferred, along with the preferred deliverγ route, will be selected based on the particular site to be treated. Those of skill in the art are capable of determining the most appropriate methods based on the relevant clinical considerations. Manγ of the gene transfer techniques that generally are applied in vitro can be adapted for ex vivo or in vivo use. For example, selected organs including the liver, skin, and muscle tissue of rats and mice have been bombarded rø iwø (Yang et ai, 1990; Zelenin er a/., 1991 ). Naked DNA also has been used in clinical settings to effect gene therapγ. These approaches maγ require surgical exposure of the target tissue or direct target tissue injection. Nicolau et al. {1987) accomplished successful liposome-mediated gene transfer in rats after intravenous injection. Dubensky et al. (1984) successfully injected polyomavirus DNA in the form of CaP0 4 precipitates into liver and spleen of adult and newborn mice demonstrating active viral replication and acute infection. Benvenistγ and Neshif (1986) also demonstrated that direct intraperitoneal injection of CaP0 4 precipitated plasmids results in expression of the transfected genes. Thus, it is envisioned that DNA encoding an antisense construct also maγ be transferred in a similar manner in vivo. Where the embodiment involves the use of an antibodγ that recognizes a mutated HNF1 α, HNF 1 β or HNF4α polγpeptide, consideration must be given to the mechanism bγ which the antibodγ is introduced into the cell cγtoplasm. This can be accomplished, for example, by providing an expression construct that encodes a single-chain antibody version of the antibodγ to be provided. Most of the discussion above relating to expression constructs for antisense versions of HNFIα, HNFIβ or HNF4α genes will be relevant to this aspect of the invention. Alternatively, it is possible to present a bifunctional antibodγ, where one antigen binding arm of the antibody recognizes an HNFIα, HNFI β or HNF4α polypeptide and the other antigen binding arm recognizes a receptor on the surface of the cell to be targeted. Examples of suitable receptors would be an HSV glycoprotein such as gB, gC, gD, or gH. In addition, it maγ be possible to exploit the Fc-binding function associated with HSV gE, therebγ obviating the need to sacrifice one arm of the antibodγ for purposes of cell targeting. Advantageously, one maγ combine this approach with more conventional diabetes therapγ options. 0. Pharmaceuticals and In vivo Methods for the Treatment of Disease Aqueous pharmaceutical compositions of the present invention will have an effective amount of an HNFIα, HNFI β or HNF4α expression construct, an antisense HNFIα, HNFIβ or HNF4α expression construct, an expression construct that encodes a therapeutic gene along with HNFIα, HNFI β or HNF4α, a protein or compound that inhibits mutated HNFIα, HNFI β or HNF4α function respectively, such as an anti-mutant HNFIα antibody, an anti-mutant HNFI β antibody or an anti-mutant HNF4 antibody, or a mutated HNFIα polypeptide, mutated HNFI β polypeptide or a mutated HNF4 polypeptide. Such compositions generally will be dissolved or dispersed in a pharmaceutically acceptable carrier or aqueous medium. An "effective amount," for the purposes of therapγ, is defined at that amount that causes a clinically measurable difference in the condition of the subject. This amount will vary depending on the substance, the condition of the patient, the type of treatment, the location of the lesion, etc. The phrases "pharmaceutically or pharmacologically acceptable" refer to molecular entities and compositions that do not produce an adverse, allergic or other untoward reaction when administered to an animal, or human, as appropriate. As used herein, "pharmaceutically acceptable carrier" includes any and all solvents, dispersion media, coatings, antibacterial and antifungal agents, isotoπic and absorption delaying agents and the like. The use of such media and agents for pharmaceutically active substances is well known in the art. Except insofar as any conventional media or agent is incompatible with the active ingredients, its use in the therapeutic compositions is contemplated. Supplementary active ingredients, such as other anti-diabetic agents, can also be incorporated into the compositions. In addition to the compounds formulated for parenteral administration, such as those for intravenous or intramuscular injection, other pharmaceutically acceptable forms include, e.g., tablets or other solids for oral administration; time release capsules; and any other form currently used, including cremes, lotions, mouthwashes, inhalants and the like. The active compounds of the present invention will often be formulated for parenteral administration, e.g., formulated for injection via the intravenous, intramuscular, subcutaneous, or even intraperitoneai routes. The preparation of an aqueous composition that contains mutated HNFIα, HNF1 β or HNF4α inhibitory compounds alone or in combination with a conventional diabetes therapy agents as active ingredients will be known to those of skill in the art in light of the present disclosure. Typically, such compositions can be prepared as iπjectables, either as liquid solutions or suspensions; solid forms suitable for using to prepare solutions or suspensions upon the addition of a liquid prior to injection can also be prepared; and the preparations can also be emulsified. Solutions of the active compounds as free base or pharmacologically acceptable salts can be prepared in water suitably mixed with a surfactant, such as hγdroxγpropγlcellulose. Dispersions can also be prepared in glycerol, liquid polyethylene glγcols, and mixtures thereof and in oils. Under ordinary conditions of storage and use, these preparations contain a preservative to prevent the growth of microorganisms. The pharmaceutical forms suitable for injectable use include sterile aqueous solutions or dispersions; formulations including sesame oil, peanut oil or aqueous propylene glycol; and sterile powders for the extemporaneous preparation of sterile injectable solutions or dispersions. In manγ cases, the form must be sterile and must be fluid to the extent that easγ sγringabilitγ exists. It must be stable under the conditions of manufacture and storage and must be preserved against the contaminating action of microorganisms, such as bacteria and fungi. The active compounds maγ be formulated into a composition in a neutral or salt form. Pharmaceutically acceptable salts, include the acid addition salts (formed with the free amino groups of the protein) and which are formed with inorganic acids such as, for example, hydrochloric or phosphoric acids, or such organic acids as acetic, oxalic, tartaric, mandelic, and the like. Salts formed with the free carboxyl groups can also be derived from inorganic bases such as, for example, sodium, potassium, ammonium, calcium, or ferric hydroxides, and such organic bases as isopropylamine, trimethγlamine, histidine, procaine and the like. The carrier also can be a solvent or dispersion medium containing, for example, water, ethanol, poiγol (for example, glycerol, propylene glycol, and liquid polyethylene glycol, and the like), suitable mixtures thereof, and vegetable oils. The proper fluidity can be maintained, for example, bγ the use of a coating, such as lecithin, by the maintenance of the required particle size in the case of dispersion and bγ the use of surfactants. The prevention of the action of microorganisms can be brought about bγ various antibacterial and antifungal agents, for example, parabens, chlorobutanol, phenol, sorbic acid, thimerosal, and the like. In manγ cases, it will be preferable to include isotonic agents, for example, sugars or sodium chloride. Prolonged absorption of the injectable compositions can be brought about by the use in the compositions of agents delaying absorption, for example, aluminum monostearate and gelatin. Sterile injectable solutions are prepared by incorporating the active compounds in the required amount in the appropriate solvent with various of the other ingredients enumerated above, as required, followed by filtered sterilization. Generally, dispersions are prepared by incorporating the various sterilized active ingredients into a sterile vehicle which contains the basic dispersion medium and the required other ingredients from those enumerated above. In the case of sterile powders for the preparation of sterile injectable solutions, the preferred methods of preparation are vacuum-drying and freeze-drying techniques which yield a powder of the active ingredient plus any additional desired ingredient from a previously sterile-filtered solution thereof. Upon formulation, solutions will be administered in a manner compatible with the dosage formulation and in such amount as is therapeutically effective. The formulations are easily administered in a variety of dosage forms, such as the type of injectable solutions described above, with even drug release capsules and the like being employable. For parenteral administration in an aqueous solution, for example, the solution should be suitably buffered if necessary and the liquid diluent first rendered isotonic with sufficient saline or glucose. These particular aqueous solutions are especially suitable for intravenous, intramuscular, subcutaneous and intraperitoneal administration. In this connection, sterile aqueous media which can be employed will be known to those of skill in the art in light of the present disclosure. For example, one dosage could be dissolved in 1 mL of isotonic NaCl solution and either added to 1000 mL of hypodermoclysis fluid or injected at the proposed site of infusion; (see for example, "Remington's Pharmaceutical Sciences" 15th Edition, pages 1035-1038 and 1570-1580). Some variation in dosage will necessarily occur depending on the condition of the subject being treated. The person responsible for administration will, in any event, determine the appropriate dose for the individual subject. P. Examples The following examples are included to demonstrate preferred embodiments of the invention. It should be appreciated by those of skill in the art that the techniques disclosed in the examples which follow represent techniques discovered by the inventor to function well in the practice of the invention, and thus can be considered to constitute preferred modes for its practice. However, those of skill in the art should, in light of the present disclosure, appreciate that many changes can be made in the specifi embodiments which are disclosed and still obtain a like or similar result without departing from the spiri and scope of the invention. EXAMPLE 1 Altered Insulin Secretory Responses To Glucose In Diabetic And Nondiabetic Subjects With Mutations In The Diabetes Mellitus Susceptibility Gene MODY3 On Chromosome 12 The present Example determines whether alterations in the dose-response relationships between plasma glucose concentration and insulin secretion rate (ISR) can be identified in subjects who have inherited an at-risk M0DY3 allele but who have not yet developed overt diabetes. 1. Methods Subjects from M0DY3 pedigrees Thirteen Caucasian subjects who were positive for M0DY3 markers on chromosome 12q were studied. Two subjects were members of a French pedigree F549 (Vaxillaire et ai, 1995), three were from the P pedigree from Michigan (Menzel et ai, 1995), two from a New York pedigree the H pedigree depicted in FIG. 1, two were from a Liverpool pedigree, the BDA1 pedigree and four from a Nottingham pedigree, the BDA12 pedigree (FIG. 1). Each subject was typed with a series of DNA markers in the region of M0DY3 to determine whether or not they had inherited the at-risk haplotype segregating with MODY in that family. The diabetes status of each subject except for MD13, had been determined by oral glucose tolerance testing (OGTT) according to the World Health Organization (WHO) criteria (WHO Study Group on Diabetes Mellitus, 1985) and confirmed at the time of the studies by the measurement of glycosylated hemoglobin. Based on the results of the OGTT and glycosylated hemoglobin values within or above the normal range for the inventors' laboratory ( < 7.4%) subjects were divided into diabetic and nondiabetic groups. Nondiabetic M0DY3 subjects (n=6J. The clinical profiles of these subjects are described in Table 4. All had normal fasting glucose and glycosylated hemoglobin ( < 7.4%) levels at the time of this study. At the time of study 4 subjects had IGT (MD1 , MD4, MD9, MD13) and 2 subjects had normal glucose tolerance (NGT) (MD3, MD5). Based on previous glucose tolerance testing MD1 had IGT, MD3 consistently demonstrated NGT on serial OGTTs, MD4 was diagnosed with IGT in 6/93 and has persistent IGT with a 2-h postprandial blood glucose level of 147 mg/dl, MD5 was initially diagnosed with IGT and subsequently had 2 normal OGTTs, with 2-h blood glucose values of 130 mg/dl and 105 mg/dl, respectively, MD9 had IGT, with a 2-h post-challenge blood glucose level was 167 mg/dl with no other blood glucose level above 200 mg/dl and MD13 had IGT with elevated postprandial blood glucose levels in the past up to 160 mg/dl. Age of diagnosis refers to the age at which abnormal glucose tolerance was diagnosed. None of these subjects were ever diagnosed with NIDDM. Diabetic M0DY3 subjects fn=7J. Clinical profiles are shown in Table 4. All subjects had been treated with oral hypoglycemic agents except for MD8 who was taking insulin which was discontinued two days prior to the study and MD12 who was treated with diet alone. All subjects had discontinued treatment with oral hypoglycemic agents at Ieast three weeks prior to being studied. As shown in Table 4, fasting plasma glucose and total glycosylated hemoglobin levels were higher in the diabetic group and fasting insulin levels were lower. The diabetic group was also significantly older than the other two groups. Nondiabetic controls. The control subjects consisted of 5 males and one female (5 Caucasians and 1 African American) who did not have a personal or family history of NIDDM. They were all within 20% of ideal body weight, had no medical illnesses and were not receiving any medications. Data from four of the control subjects have previously been published (Byrne et ai, 1994; Byrne et ai, 1995a). BMI was not significantly different between the control and diabetic or nondiabetic M0DY3 groups. Female volunteers had regular menstrual cycles and were studied only in the early follicular phase. The study was approved by the Institutional Review Board of the University of Chicago Medical Center and all subjects and/or parents provided written informed consent. Experimental protocol Studies began at 0800 h with subjects in the recumbent position after a 12-h ovemight fast. An intravenous catheter was placed in each forearm, one for blood sampling and one for glucose administration. In all experiments, the arm containing the sampling catheter was maintained in a heating blanket or hot hand box to ensure arterialization of the venous sample. Graded glucose infusion studies. These studies were designed to characterize the dose-response relationships between glucos and insulin secretion rate (ISR). In order to eliminate potentially confounding effects of differences in th basal glucose concentration, each study began with the administration of a small bolus of insuli intravenously (0.007 U/kg) followed bγ a low dose continuous infusion of insulin to lower the fastin plasma glucose to similar levels in all groups (target plasma glucose = 5 mM). After a period of 20 mi during which time the exogenously administered insulin was allowed to decay, samples were drawn at 1 min intervals for 30 min to define baseline insulin, glucose and C-peptide levels. An intravenous infusio of 20% dextrose was then started at a rate of 1 mg/kg/min, followed bγ infusions of 2 mg/kg/min, mg/kg/min, 4 mg/kg/min, 6 mg/kg/min and 8 mg/kg/min. Each infusion rate was administered for a perio of 40 min. Insulin, C-peptide and glucose concentrations were measured at 10, 20, 30 and 40 min int each infusion period. Effects of prolonged intravenous glucose administration on insulin secretory responses to graded glucose infusions. At the completion of the graded glucose infusion studγ described above, glucose was infuse intravenouslγ for a 42- h period at a rate of 4-6 mg/kg/min in order to determine if the insulin secretor responses to glucose could be primed bγ exposure to mild hγperglγcemia. Subjects also consumed thre carbohγdrate enriched meals during the second daγ of this glucose infusion. At the conclusion of the 42 h infusion period, the infusion rate was reduced over a 60 min period and then stopped. Thirty minute later, the graded glucose infusion studγ was repeated. Plasma glucose levels were obtained everγ fou hours during the 42-h glucose infusion. Assays. Plasma glucose was measured bγ the glucose oxidase technique (YSI analγzer, Yellow Springs OH). The coefficient of variation of this method is < 2%. Serum insulin was assaγed bγ a doubl antibodγ technique (Morgan and Lazarow, 1963). The average intra-assaγ coefficient of variation wa 6%. Plasma C-peptide was measured as previously described (Faber et ai, 1978). The lower limit o sensitivity of the assay was 0.02 pmol/ml and the intra-assay coefficient of variation averaged 6%. Al samples were measured in duplicate. Assaγs were performed at the Universitγ of Chicago. Data analysis Estimation of ISRs. ISRs were derived by deconvolution of plasma C-peptide concentrations assuming a two-compartmental model of C-peptide clearance kinetics (Van Cauter et ai, 1992; Eaton et ai, 1980; Polonsky tf*/., 1986). Relationship between glucose and ISRs. The relationship between plasma glucose and ISR was explored in each individual by analyzing the data from the graded glucose infusion studies. Baseline glucose, insulin, C-peptide and ISRs were calculated as the man of the values in the -30, -20, -10 and 0 min samples. During each glucose infusion period, average glucose and ISRs were calculated. Mean ISRs for each period were then plotted against the corresponding mean glucose level, thereby establishing a dose-response relationship between glucose and ISR. Mean ISRs were determined for 1 mM glucose concentration intervals by calculating the area under the curve for each interval using the trapezoidal rule. This area was divided by 1 mM to obtain the correct units fpmol/min). Statistical analyses All results are expressed as mean ± SEM. Data analysis was performed using the Statistical Analysis System (SAS Version 6 Edition for Personal Computers, SAS Institute, Inc., Cary, NC). The significance of differences between the groups was determined using paired or unpaired Mests or analysis of variance where appropriate. Tukey's studentized range test was used for post hoc comparisons. Pearson's correlation coefficient was used to evaluate correlations between pairs of parameters. 2. Results Glucose, insulin and ISR during graded intravenous glucose infusion Fasting plasma glucose levels were higher in the M0DY3 diabetic group compared to the nondiabetic group or controls (7.5 ±0.7 mM vs. 4.5 ±0.2 mM and 4.7 ±0.2, respectively; P> 0.0008). The corresponding fasting plasma insulin levels were lower in the diabetic M0DY3 group compared to noπdiabetics and controls (Table 4). Glucose, insulin and ISR responses to the glucose infusions are shown in FIG. 2A, FIG. 2B and FIG. 2C, respectively. Average glucose concentrations over the duration of the study were higher in the diabetic M0DY3 subjects compared to the nondiabetic M0DY3 and control subjects |8.5±0.4 mM vs. 6.3±0.3 mM and 64±0.2; P< 0.0002) (FIG. 2A). Average insulin levels were lower in the diabetic and nondiabetic M0DY3 groups than in the controls (57.4 ±8.2 pmol/L an 79.8± 11.0 vs. 139.3 ± 14.7 pmol/L; P< 0.0006) (FIG. 2B). Average ISR's were significantly lower i diabetic compared to the nondiabetic MODY3 subjects and the controls (1 16± 18.8 pmol/min vs 179.7 ± 19.9 pmol/min and 1995 ± 18.7; P < 0.02) (FIG.2C). TABLE 4 Non-Diabetic MODY 3 ID Kindred/Generation/ Glucose Sex Age BMI Age of Fasting Fasting Glycohemoglobiπ Subject Tolerance Diagnosis Glucose mM Insulin pmol/l MD1 F549 IV-1 IGT F 17.0 24.0 12 4.69 43.0 6.0 MD3 P IV-6 NGT F 19.0 17.9 3.86 23.1 5.1 MD4 P IV 7 IGT F 14.0 17.1 12 4.47 33.8 5.1 MD5 P IV-5 NGT F 15.0 18.8 13 4.22 63.6 5.1 MD9 BDA1 V-12 IGT M 14.0 20.0 12 4.77 69.9 6.4 MD13 BDA12 IV-2 IGT F 14.0 23.7 12 5.17 60.9 6.4 Mean ± SEM 15.5±0.9 20.4± 1.2 4.5 ±0.2 49.1 ±7.6 5.7±0.3 Diabetic M0DY3 MD2 F549 111-2 NIDDM F 41 23.2 30 8.89 35.0 7.5 MD6 H IV 1 NIDDM F 17 23.6 16 7.39 24.7 10.6 MD7 H IV 2 NIDDM F 15 19.4 14 7.11 48.8 8.9 MD8 BDA1 V 11 NIDDM F 17 20.9 12 4.22 7.6 M10 BDA 12 II-1 NIDDM F 67 26.1 27 8.67 29.8 8.4 Mi l BDA 12 IV-1 NIDDM M 17 17.8 14 10.1 16.6 10.1 M12 BDA 12 III-2 NIDDM F 46 21.4 14 6.19 43.0 7.6 Mean ± SEM 31.4+7.7 21.4 + .9 7.51 ±0.7 * 33±4.8 * 8.7±0.5 * Controls Mean ± SEM 17.7±.2 21.1 ±0.7 4.7±0.2 69.9±8 < 6.2 P value p> 0.08 p > 0.8 P < 0.0008 P < 0.007 P < 0.0004 Demographic data on the study subjects. Age of diagnosis refers to the age at which diabetes or IGT was diagnosed. D3 is the only M0DY3 subject who had demonstrated consistently normal glucose tolerance, p values refer to the results of analysis of variance comparing the three groups. The asterisks denote statistically significant differences between the diabetic subjects and the other two groups using Tukey's studentized range test for post-hoc comparisons. TABLE 5 Insulin Secreted between 5 and 9 mM glucose ID Baseline Post-glucose Priming effect % Non diabetic M0DY3 MD1 188.1 221.6 17.9 MD3 164.5 255 55 MD4 136.6 208.3 52.5 MD5 297.5 342.5 15.1 MD9 249.1 292.1 34.5 MD13 248.1 234.2 -5.9 MEAN 214.3+24.8 259 ±20.6 35±8 Diabetic M0DY3 MD2 67.4 68.9 2.2 MD6 131.5 109.1 •17 MD7 144.6 85.2 -41 MD8 156.6 189.3 20.9 M10 63.7 34.9 -45 M11 38.2 28.4 -26 M12 102.6 115.1 12.2 MEAN 100.8± 17.3 * 90.0±20.8 * •13.4±9.8 # Controls C05 318.1 356.8 12.2 C07 209.5 272.1 29.2 C09 166.9 223.1 33.7 C12 235.6 381.6 62.0 C13 215.6 306.5 42.2 C18 120.1 180.5 50.3 MEAN 211 ±27 287 ±32 38±7 p value p < 0.004 P < 0.002 p < 0.009 The amount of insulin secreted as glucose was raised from 5 to 9 mM in studγ subjects before and after a priming intravenous infusion of glucose. Asterisks refer to statistically significant differences between the diabetic subjects and those in the other two groups using Tukey's studentized range test for post-hoc comparisons. Changes in insulin sensitivity Insulin resistance estimated by the Homeostasis Model Assessment Method (HOMA) (Matthews et ai, 1985) failed to demonstrate significant differences between the groups (diabetic M0DY3: 1.9±0.2; nondiabetic M0DY3: 1.7 ±0.3; controls: 2.4 ±0.2; '--O.11). Dose-response relationship between glucose and ISR The ISR in the three groups was compared at the same plasma glucose level by plotting the mean ISR at each glucose infusion rate against the corresponding mean glucose level. The resulting glucose-ISR dose-response relationships are shown in FIG. 3. Over the 5-9 mM glucose concentration interval the diabetic M00Y3 group secreted significantly less insulin than subjects in the nondiabetic M00Y3 and control groups (101 ± 17 pmol/min vs. 214±25 pmol/min and 211 ±27 pmol/min, respectively; P< 0.004). The mean insulin secretion rate did not differ between these latter two groups. The dose response curves (FIG. 3) indicate that the insulin secretion rates were similar in nondiabetic MODY subjects and controls at lower glucose concentrations. The amount of insulin secreted as the glucose concentration was increased from 5-7 mM was similar in these two groups (180 + 19 vs. 160 ± 17 pmol/min; P=0A5). Over the 7-8 mM glucose interval the nondiabetic M0DY3 subjects secreted 243.5±31.5 pmol/min compared to 284.7±30.5 pmol/min in controls P=0.37. From 8-9 mM glucose they secreted 257.1 ±35.0 pmol/min compared to 354.0±43.4 pmol/min in controls (FIG. 3). As the glucose concentration was increased from 7-8 mM to 8-9 mM the increase in insulin secretion rate in the nondiabetic M00Y3 subjects was significantly less than in the controls (37.3 ± 13.5 vs. 75.7 ±9.5 pmol/min; P< 0.05). Effect of low-dose glucose infusion on relationships between glucose and ISR Mean glucose levels achieved during the 42-h constant glucose infusion were significantly higher in the diabetic compared to the nondiabetic M0DY3 group and controls (14.9 ±0.6 mM vs. 10.0 ± 1.4 mM vs. 6.6 ±0.3 mM; /*< 0.0001). The glucose infusion was discontinued after 42-h and low dose insulin was administered resulting in a fall in the plasma glucose concentration to similar levels in the two groups. The graded intravenous glucose infusion study was then repeated in each subject. In order to quantify the priming effect of glucose on insulin secretion, the average ISR measured during each glucose infusion rate was plotted against the average plasma glucose concentration and compared with values obtained before glucose infusion. Over the glucose concentration range between 5 and 9 mM glucose, control subjects secreted 21 1 ±27 pmol/min before and 287 ±32 pmol/min {P< 0.005) insulin after glucose infusion (FIG. 4A). There was a shift in the glucose-ISR does-response curves upwards and to the left, with ISR increasing by 38 ±7%. The nondiabetic M0DY3 group increased their ISR from 214±25 pmol/min to 259±21 pmol/min (Z'< 0.03) (FIG. 4B). The diabetic M00Y3 group had a small and non significant 13± 10% decrease in ISR after glucose administration (101 ± 17 pmol/min to 90±21 pmol/min; > > 0.9) (FIG. 4C). Individual values for ISR from 5-9 mM glucose before and after low-dose glucose infusion are given in Table 5. Relationship between glycosylated hemoglobin levels and parameters of the insulin secretory response to glucose There was a significant negative correlation between glycosylated hemoglobin and percent priming (r - -0.78; P< 0.002) and between glycosylated hemoglobin and ISR from 5-9 mM glucose (r = - 0.61; °< 0.03). Bγ contrast there was no significant decrease in ISR as glucose concentrations rose from 7-8 to 8-9 mM with increasing glycosylated hemoglobin levels (r « - 0.07; P=0.S2). 3. Discussion Basal glucose levels were higher and insulin levels were lower in M0DY3 subjects with diabetes compared to nondiabetic subjects or normal healthy controls. In response to the graded glucose infusion, insulin secretion rates were significantly lower in the diabetic subjects over a broad range of glucose concentrations. Insulin secretion rates in the nondiabetic M0DY3 subjects were not significantly different from the controls at plasma levels < 8 mM. As glucose rose above this level, however, the increase in insulin secretion is these subjects was significantly reduced. Administration of glucose by intravenous infusion for 42-h resulted in a significant increase in the amount of insulin secreted over the 5-9 mM glucose concentration range in the controls and nondiabetic M0DY3 subjects (by 38% and 35%, respectively) but no significant change was observed in the diabetic MQDY3 subjects. In conclusion, in nondiabetic M0DY3 subjects insulin secretion demonstrates a diminished ability to respond when blood glucose exceeds 8 mM. The priming effect of glucose on insulin secretion is preserved. Thus, β-cell dysfunction is present prior to the onset of overt hyperglycemia in this form of MODY. The defect in insulin secretion in the nondiabetic M0DY3 subjects differ from than reported previously in nondiabetic M0DY1 or mildly diabetic M0DY2 subjects. EXAMPLE 2 Mutations in HNFI Relating to M0DY3 Type Diabetes 1. Materials and Methods Isolation of partial sequence of the human HNFIα gene. The PAC clone, 254A7, containing the human HNFIα gene was isolated from a library (Genome Systems, St. Louis, MO) by screening PAC DNA pools with PCR and the primers HNF1P1 (5 - TACACCACTCTGGCAGCCACACT-3' SEQ ID N0.10) and HNF1P2 (5 '-CGGTGGGTACATTGGTGACAGAAC- 3' SEQ ID N0.1 1). The sequences of the exons and flanking introns were determined after subcloning fragments of the 254A7 into pGEM-4Z (Promega Biotec, Madison, l) or pBluescript SK+ (Stratagene, La Joila, CA) and sequencing using primers based on the sequence of the human HNFIα cDNA (Bach et ai, 1990; and Bach and Yaniv, 1993) and selected using the conserved exon-intron organization of the mouse and rat genes (Bach et ai, 1992) as a guide. Sequencing was carried using a AmpliTaq FS Dye Terminator Cycle Sequening Kit (ABI, Foster City, CA) on an ABI Prism™ 377 DNA Sequencer (ABI). The sequences of the exon 2/intron 2, exon 3/intron 3, intron 6/exon 7, and intron 8/exon 9/intron 9 junctions were determined by directly sequencing PCR products generated by amplification of PAC 254A7 or human genomic DNA. FIG. 11 shows the cDNA sequence of HNFI . Screening of NFta gene for mutations. The ten exons and flanking introns of the HNFIα gene of an affected subject from families in which of MODY cosegregated with markers spanning the M0DY3 region of chromsome 12 subjects with the MODY3-form of NIDDM were amplified using PCR and specific primers (Table 6). PCR conditions were denaturation at 94°C for 5 min following by 35 cycles of denaturation at 94°C for 30 sec, annealing at 62°C for 30 sec (except for exon 9 - annealing temperature was 60°C) and extension at 72°C for 45 sec, and final extension at 72°C for 10 min. The PCR products were purified using a Ceπtricon-100 membrane (Amicon, Beverly, MA) and sequenced from both ends using the primers shown in Table 6, a AmpliTaq FS Dye Terminator Cycle Sequencing Kit and ABI Prism™ 377 DNA Sequencer. The presence of the specific mutation in other family members was assessed by amplifying and directly sequencing the appropriate exon. At Ieast 40 normal unrelated healthy non iabetic non-Hispanic white subjects (80 chromosomes) were also similarly screened. DNA polymorphisms identified during the course of screening patients for mutations were characterized by PCR and direct sequencing, or digestion with an appropriate restriction endonuclease and gel electrophoresis. Table 6 Sequences of primers used to amplify and directly sequence exons and flanking introns of the human HNFIα gene Exon Forward primer (5 '-3') Reverse primer (5 -3') Product size (bp) 1 GGCAGGCAAACGCAACCCACG (SEQ ID N0.12) GAAGGGGGGCTCGTTAGGAGC (SEQ ID N0:13) 483 2 CATGCACAGTCCCCACCCTCA (SEQ ID N0:14) CTTCCAGCCCCCACCTATGAG (SEQ ID N0:15) 384 3 GGGCAAGGTCAGGGGAATGGA (SEQ ID N0:16) CAGCCCAGACCAAACCAGCAC (SEQ ID N0.17) 306 4 CAGAACCCTCCCCTTCATGCC (SEQ ID N0.18) GGTGACTGCTGTCAATGGGAC (SEQ ID N0:19) 404 5 GCCTCCCTAGGGACTGCTCCA (SEQ ID N0.20) GGCAGACAGGCAGATGGCCTA (SEQ ID N0:21) 347 6 TGGAGCAGTCCCTAGGGAGGC (SEQ ID N0:22) GTTGCCCCATGAGCCTCCCAC (SEQ ID N0:23) 320 7 GGTCTTGGGCAGGGGTGGGAT (SEQ ID N0:24) CTGCAATGCCTGCCAGGCACC (SEQ ID N0.25) 345 CCCCTGCATCCATTGACAGCC* (SEQ ID N0.26) 8 GAGGCCTGGGACTAGGGCTGT (SEQ ID N0.27) CTCTGTCACAGGCCGAGGGAG (SEQ ID N0.28) 228 9 CCTGTGACAGAGCCCCTCACC (SEQ ID N0.29) CGGACAGCAACAGAAGGGGTG (SEQ ID N0:31) 286 CAGAGCCCCTCACCCCCACAT*(SEQ ID N0:30) 10 GTACCCCTAGGGACAGGCAGG (SEQ ID N0:32) ACCCCCCAAGCAGGCAGTACA (SEQ ID N0:33) 247 = primer used only for sequencing 2. Results Table 7 identifies the DNA polymorphisms identified in the coding region of HNFIα gene. Of course these are exemplary polymorphisms and those of skill in the art will easily be able to employ the methods and descriptions set forth in the present invention to identify other polymorphisms. Table 7. DNA polymorphisms identified in coding region of human HNFIα gene Exon Codon Nucleotide change Frequency 1 17 CTC(Leu)→CTG (Leu) C, 0.57; G, 0.43 1 27 ATC(lle)→CTC (Leu) A, 0.63; C, 0.37 1 98 CCC(Ala)→GTC (Val) C, 0.98; T,0.02 4 279 GGG(Gly)→GGC (Gly) G, 0.69; C, 0.31 7 459 CTG(Leu)→TTG (Leu) C, 0.63;T, 0.37 7 487 AGC(Ser)→AAC (Asn) G, 0.68; C, 0.32 8 515 ACG(Thr)→ACA(Thr) G, 0.79; A, 0.21 Intron 1 nt-91 A→G A, 0.88; G, 0.12 Intron 1 nt-42 G→A G, 0.66; A, 0.34 Intron 2 nt-51 T→A T, 0.85; A, 0.15 Intron 2 nt-23 C→T C, 0.88; T, 0.12 Intron 5 nt-47 C→T C, 0.99; T, 0.01 Intron 7 nt-7 G→A G, 0.57; A, 0.43 Intron 9 nt-44 C→T C, 0.96; T, 0.04 Intron 9 nt-24 T→C T, 0.59; C, 0.41 Table 8 shows a summary of mutations identified in human HNFIα in patients with M0DY3. Sixteen exemplarγ mutations are identified in the HNF-1α gene in M0DY3 patients but were not present in unaffected individuals, these mutations include f rameshifts in exons 1 , 4, 6, and 9, missense coding in exons 2, and 7 as well as abnromal splicing in introns 5 and 9. The results described herein demonstrate that mutations in this transcription factor can cause diabetes mellitus and focuses attention on the role of HNF- 1 α in determining normal pancreatic β-cell function. Table 8 Summary Of Mutations In Human HNFIα In Patients With M0DY1 Location Mutation/Location Effect Family Exon 1 R55G56fsdelGAGGG Frameshift F593 Exon 2 codon 122 Y→C R213 codon 131 R→Q H,GL codon 142 S→F F515 codon 159 R→Q F384 codon 171 R→X F Pierre Exon 4 P291fsinsC Frameshift EA, SW,G17,G18,M13 P291 sdelC Frameshift FS4 G292fsdelG Frameshift F159 Intron 5 IVS5nt-2A→G abnormal splice P Exon 6 P379fsdelCT Frameshift R,F632 P379fsinsC Frameshift F549 Q401fsdelC Frameshift G19 Exon 7 codon 447 P→L A,Danish-1 Exon 9 T547E548fsdelTG Frameshift ber Intron 9 IVS9nt+ 1G→A abnormal splice GK 3. Discussion Linkage analysis localized M0DY3 to a 10 cM interval of chromosome 12 between the markers D12S86 and D12S342 (Vaxillaire et ai, 1995) and then to a 5 cM interval between the markers D12S86 and D12S807/D12S820 (Menzel, S. et al. 1995). A combined YAC, BAC and PAC contig spanning D12S86 and D12S807 (FIG. 9) was generated using information in public databases (Chumakov et al. 1995; Hudson et al. 1995) and screening appropriate libraries (YAC and BAC, Research Genetics, Huntsville, Alabama; and PAC, Genome Sγstems, St. Louis, Missouri) with STSs from the MQDY3 region. The physical map allowed localization of new polymorphisms as theγ were reported as well as to generate new markers to further localize recombination events in key individuals. Such studies refined the localization of M0DY3 to the 3 cM interval between D12S1666 and the polymorphic STS UC-39. Fluorescence in situ chromosomal hybridization using the BAC 162B15 mapped the contig to chromosome band 12q24.2. This combination of genetic and physical mapping information was used to begin a systematic search for M0DY3. Using a combination of approaches including testing genes known to be on the long arm of chromosome 12 to see if they mapped into the contig, exon-trapping (Church, et al. 1994), and cDNA selection (Kaplan et ai, 1992) using human pancreatic islet cDNA (clinical studies had shown that insulin secretion was abnormal in M0DY3 patients, and thus islets were a likely site of expression of M0DY3 mRNA and protein), the inventors identified 14 genes encoding known proteins (γ-subunit of AMP-activated protein kinase, citron, the GTP-binding protein H-raγ, paxillin, acidic ribosomal phosphoprotein PO, pancreatic phospholipase A2, splicing factor SRp30, cγctochrome C oxidase subunit Via, short chain acyl CoA dehydrogenase, HNF-1α, thyroid receptor interactor (TRIP14) protein, Ca 2+ lcalmodulin-dependent protein kinase, P 2X4 purinoceptor and restin), 5 pseudogenes (metallopanstimulin like, cell surface heparin binding protein-like, ribosomal protein L12-like, nucleoside diphosphate kiπase-like and ADP ribosγlation factor-like), 12 ESTs (γq81d09, γd50d03, IB383, hbc3028, yu36h05, γn75d09, γz51b06, yd88g07, ym03h09, ym30e05, Wl-6178/c-01 h06, WI-6239/c-04b12) and 9 unknown genes (FIG. 9). These genes were being systematically sequenced in affected and unaffected subjects using nested PCR and illegitimate transcription of lymphoblastoid RNA (Kaplan et ai, 1 92), as well as PCR of individual exons of the gene. Comparison of the sequences of the pancreatic phospholipase A2, γ-subunit of AMP activated protein kinase, H-ray, cytochrome C oxidase subunit VIA, acidic ribosomal phosphoprotein PO, paxillin, splicing factor SRp30, short chain acyl CoA dehydrogenase, and P 2 4 purinoceptor genes from patients and controls revealed a number of polymorphisms but no M0DY3- associated mutations. The HNF-lα gene was localized in the interval containing M0DY3 using PCR and HNF-1α gene- specific primers (FIG. 9). HNF-1α cDNAs were also isolated at high frequency by cDNA selection from human pancreatic islet cDNA using PAC 254A7, a result consistent with the report of Emens etai (1992) showing that HNF-lα was expressed in hamster insulinoma cells and functioned as a weak transactivator of the rat insulin I gene. The human HNF-lα gene was isolated and partially sequenced to provide the exon-intron organization and the sequences of introns from which primers could be selected for PCR. The human gene consists of 10 exons with introns 1-8 located in the same positions as in the rat and mouse genes (Bach etai, 1 92). Intron 9 interrupts codon 590 (phase 1) and is not present in the rat and mouse genes but does occur in the chicken gene (Hδrlein et ai, 1993) consistent with loss of this intron during the period when humans and rodents shared their last common ancestor. Amplification and direct sequencing of exon 4 of subject EA1 (Edinburgh pedigree, FIG. 5A) showed an insertion of a C in codon 289 (Pro) resulting in a frameshift and premature termination (designated P289fsinsC) (FIG. 10). This mutation was present in all affected members and no unaffected members of this family. It was also not found on screening 55 healthy non diabetic white subjects (110 chromosomes). Hence it was concluded that the HNF-lα gene is M0DY3 and led the inventors to sequence the HNF-1α gene in other families in which NIOOM cosegregated with markers from the MODY3 region. Fifteen additional mutations were found (Table 8), all of which co-segregated with NIDDM, and did not occur in any of at Ieast 50 healthy non diabetic white subjects. However, there were individuals in several pedigrees (GK pedigree, III-3; Ber pedigree, V-2; and P pedigree, IV-5 and IV-6) who had inherited the mutant chromosome (and at-risk chromosome 12 haplotype) but who were non diabetic or showed only evidence of impaired glucose intolerance or diabetes during pregnancy. These individuals will likely develop NIDDM in the future. In addition, one subject with NIDDM did not have the mutant allele (Ber pedigree, 11-2). He was diagnosed with NIDDM at 65 years of age at which time he was mildly obese with a body mass index of 27 kg/m 2 suggesting a diagnosis of late-onset NIDDM rather than MODY. Such heterogeneity within MODY families has been noted previously (Bell etai 1991; Vionnet 1992) and is due to the high frequency of late-onset NIDDM which affects 10% or more of individuals over age 65 years (Kenny et ai, 1995). In addition to the mutations listed in Table 8, three amino acid polymorphisms (IJL27, A/V98 and S/N487), four silent polymorphisms (in codons for LI 7, G288, L459 and T515) and seven polymorphisms in introns were found in the HNF-lα gene (Tables 7 and 8). Sixteen different mutations in the HNF-1α gene were identified in patients with the M0DY3-form of diabetes. The splicing and frameshift mutations would be predicted to result in the expression of a truncated protein having at Ieast amino acids 1-290 of the native protein. The missense mutations, R131Q and P447L, are of residues that are conserved in human, rat, mouse, hamster, chicken, Xenopus and salmon HNF-1α and the structurally-related transcription factor human HNF-l β suggesting that these residues are functionally important. HNF-1α is one of a group of transcription factors expressed in liver that act together to confer tissue-specific expression of genes in this tissue (Tranche et ai, 1992; Bach et ai, 1990). It is also found in kidney, intestine, stomach and pancreas, including islets of Langerhans, and at low levels in spleen and testis suggesting that it plays a role in transcriptional regulation in these tissues as well. HNF- 1α is composed of three functional domains: an NH 2 -terminal dimerization domain (amino acids 1-32), a DNA binding domain with POU-like and homeodo ain-like motifs (amino acids 150-280) and a C00H- terminal transactivation domain (amino acids 281-631). The functional form of HNF-1α is a dimer and HNF-1α may form homodimers or heterodimers with the structurally-related protein HNF-l β (Mendel et αl., 1991) Pontoglio et al. (1996) have generated mice that lack HNF-1α. Homozygous HNF-1α-deficient animals failed to thrive and usually died around the time of weaning. They also suffered from phenylketonuria and renal tubular dysfunction. However, the homozygous HNF-1α-deficient mice did not appear to be diabetic as they had normal blood glucose levels and a normal response to an intravenous bolus injection of glucose. The massive glucosuria in these animals though may have masked the presence of diabetes mellitus. The insulin secretory responses of heterozygous HNF-lα deficient mice, animals that may be most similar to human subjects with HNF-1α mutations and MODY, were not reported. In view of the present findings that mutations in the HNF-1α gene causes early-onset NIDDM, more detailed evaluation of β-cell and liver function in HNF-1α-deficient mice is indicated. The mechanism by which mutations in the HNF-lα gene when present on a single allele can cause diabetes is unclear however, it is possible that a partial deficiency of HNF-1α could lead to β-cell dysfunction and diabetes. Alternatively, mutations in HNF-lα may cause diabetes by a dominant- negative mechanism (Herskowitz, 1987) by interfering with the function of wild-type HNF-lα and other proteins which act in concert with HNF- 1α to regulate transcription in the β-cell and/or liver. All of the HNF-lα gene mutations identified to date would result in the synthesis of a mutant protein impaired in DNA binding or transactivation but not dimerization. These mutant proteins could form non-productive dimers with the product of the normal HNF-lα allele or other proteins such as HNF-lβ and thereby impair the normal function of HNF-1α. The inventors have previously shown that diabetes mellitus in the Zucker diabetic fatty rat, a rodent model of obesity and NIDDM, is associated with decreased expression of a large number of β-cell genes including genes such as insulin whose expression is restricted to the β-cell as well as others with a much broader tissue distribution (Tokuyama, etai 1995). Thus, it is believed that NIDDM is likely to be a disorder of transcription with genetic or acquired defects affecting key proteins that regulate transcription leading to β-cell dysfunction and diabetes. EXAMPLE 3 Mutations in HNF4α Relating to MODYl Type Diabetes The PAC clone, 114E13, 130B8, 207N8, containing the human HNF4α gene was isolated from a library (Genome Systems, St. Louis, MD) by screening PAC DNA pools with PCR and the primers HNF4P1 (5 '-CACCTGGTGATCACGTGGTC-3' SEQ ID N0:81) and HNF4P2 (5 -GTAAGGCTCAAGTCATCTCC-3' SEQ ID N0:82). The sequences of the exons and flanking introns were determined by directly sequencing using primers based on the sequence of the human HNF4α cDNA (Chartier et ai, 1994; Drewes et ai, 1996) and selected using the conserved exon-intron organization of the mouse (Taraviras etai, 1994) as a guide. Sequencing was carried using a AmpliTaq FS Dye Terminator Cycle Sequening Kit (ABI, Foster City, CA) on an ABI Prism TM 377 DNA Sequencer (ABI). Screening ofHNF4a gene for mutations. The eleven exons and flanking introns of the HNF4α gene of an affected subject from families in which of MODY cosegregated with markers spanning the M0DY1 region of chromsome 20 subjects with the MODY 1 -form of NIDDM were amplified using PCR and specific primers (Table 9). PCR conditions were denaturation at 94°C for 5 min following by 35 cycles of denaturation at 94°C for 30 sec, annealing at 60° C for 30 sec and extension at 72°C for 30 sec, and final extension at 72°C for 10 mi The PCR products were purified using a Centricon-100 membrane (Amicon, Beverly, MA) and sequence from both ends using the primers shown in Table 9, a AmpliTaq FS Dye Terminator Cycle Sequencing Ki and ABI Prism™ 377 DNA Sequencer. The presence of the specific mutation in other family members wa assessed by digestion with Bta3 restriction endonuclease that resulted from mutation and g electrophoresis. At Ieast 100 normal unrelated healthy non diabetic non-Hispanic white subjects (20 normal chromosomes) were also similarly screened. DNA polymorphisms identified during the course o screening patients for mutations were characterized by PCR and direct sequencing, or digestion with a appropriate restriction endonuclease and gel electrophoresis. Table 10 identifies the DNA polymorphisms and mutations identified in the coding region of the HNF4 gene. Of course, these are exemplary polymorphisms and those of skill in the art will easily be able to employ the methods and descriptions set forth in the present invention to identify other polymorphisms. FIG. 7 shows an alignment of the HNF4α protein sequence from humans with sequences from human mouse, X. Laves and Drosophila. The putative DNA binding sites are underlined and the putative ligand binding sites are in bold. The DNA sequences for exon 1, exon 1b, exon 2, exon 3, exon 4, exon 5 exon 6 exon 7 exon 8 exon 9 and exon 10 of HNF4α are shown in FIG. 8A, FIG. 8B, FIG. 8C, FIG. 8D FIG. 8E, FIG. 8F, FIG. 8G, FIG. 81, FIG. 8H, FIG. 81 and SEQ ID N0:34, SEQ ID N0:36, SEQ ID N0:38, SEQ ID N0:40, SEQ ID N0:42, SEQ ID N0:44, SEQ ID N0:46, SEQ ID N0:48, SEQ ID N0:50, SEQ ID N0:52, and SEQ ID N0:54, respectively. It is contemplated that mutations in anγ of these exons, or the related intron regions therebetween, of HNF4 will result in M0DY1 type diabetes. Table 10. Polymorphisms and Mutations in the Human HIIF4α Gene Location Nucleotide change Frequency Exon Codon 4 130 ACT (Thr)-ATT(lle) C:T= 105:5 C-0.95, T-0.05 7 273 GATIAsp)-GAC(Asp) T:C - 169:1 T-0.004, C 0.006 7 268 GAG(Glπ) TAG(stop) 0/216 control chromosomes The R-W pedigree, which includes more than 360 members spanning 6 generations and 74 members with diabetes including those with MODY, has been studied prospectively since 1958 (Fajans, 989). The members of this family are descendants of a man who was born in East Prussia in 1809 and emigrated to Detroit, Michigan in 1861 with his four sons, three of whom were diabetic, and five daughters, one of whom was diabetic (Fajans, 1989; Fajans e/ a/., 1994). Linkage studies have shown that the gene responsible for MODY in this family, MODYl, is tightly linked to markers in chromosome band 20q12-q13.1 with a multipoint lod score > 14 in those branches of the family in which MODY is segregating (Bell, et al. 1991; Bowden, et a/., 1992; Irwin, et ai, 1994). The analysis of key recombinants in the R-W pedigree localized MODYl to a 13-cM interval ( ~ 7 Mb) between D20S169 and D20S176, an interval which also includes the gene encoding HNF 4 (Stoffel, M. et ai, 1996). The demonstration in the previous examples that mutations in the HNF-1α gene are the cause of the M0DY3 form of NIDDM prompted the inventors to screen the HNF-4α gene for mutations in the R-W pedigree. The human HNF-4α gene consists of 11 exons with the introns being located in the same positions as in the mouse gene <Tavaviras, et ai, 1994). Alternative splicing generates a family of HNF- 4α mRNAs, HNF-4 1, 2 and 4, the latter two of which contain inserts of 30 and 90 nucleotides, respectively (Tavaviras et ai, 1994; Laiπe etai, 1994; Drewes, 1996). Of these, HNF-4 2 mRNA appears to be the most abundant transcript in many tissues. In contrast to a previous report (Drewes et ai, 1996), the inventors studies show that HNF-4α mRNA encodes a truncated and presumably nonfunctional form of HNF-4 . The sequence of exon 1 B, the exon encoding the insertion in HNF-4α mRNA revealed an additional T between nucleotides 219 and 220 in both alleles of five unrelated individuals (10 chromosomes) not present in the cDNA sequence (Drewes et ai, 1996) which causes a frameshift and the generation of a protein of 98 amino acids whose function, if any, is unknown. The 11 exons of the HNF-4α gene of two affected, V-20 and 22, and one unaffected, VI-9, subject from the R-W pedigree were amplified and the PCR products sequenced directly. The sequences were identical to one another and to the cDNA (Drewes et ai, 1996; Laine et ai, 1994)) except for a C→T substitutions in exon 4, codon 130 and exon 7, codon 268. The C→T substitution in codon 130 results in a Thr (ACT)→lle (ATT) substitution and is a polymorphism (T/1130) with a frequency of the lie allele in a group of 55 unrelated nondiabetic non-Hispanic white subjects of 5%. The C→T substitution in codon 268 results in a nonsense mutation CAG (Gln)→TAG (AM) (Q268X). The nonsense mutation was confirmed by cloning and sequencing PCR products derived from both alleles. The Q268X mutation created a site for the enzyme Bfa I with digestion of the normal allele generating fragments of 281 and 34 bp, and the mutant allele, 152, 129 and 34 bp and facilitating testing for this mutation in other members of the R-W pedigree. In the R-W pedigree, He 130 and the amber mutation at codon 268 were present in the same allele. The Q268X mutation cosegregated with the at-risk haplotype and NIDDM in the R-W pedigree and was not observed on screening 108 healthy nondiabetic non-Hispanic white subjects (216 normal chromosomes). Seven subjects in the R-W pedigree who have inherited the mutant allele (V-18, 37 and 48; and VI-6, 1 1, 15 and 20) have normal glucose tolerance. The ages of five of these subjects (V-48, and VI-6, 1 1, 15 and 20) are less than 25 years and thus, they are still within the age range when diabetes usually develops in at-risk individuals in this family. Of the others, subject V- 8 is 44 years of age and has shown normal glucose on ail oral glucose tolerance tests, and subject V-37 who is 36 years of age had one glucose tolerance test characteristic of impaired glucose tolerance and one of diabetes at ages 16-17 years but for the past 19 years each glucose tolerance test has been normal even though she has a low insulin response to orally administered glucose. She is very lean and active, and has increased sensitivity to insulin during the frequently sampled intravenous glucose tolerance test. During a prolonged low dose glucose infusion, she became markedly hyperglycemic (Herman, etai 1994; Byrne, etai 1995). Two subjects (V-1 and 4) who have the mutation were considered nondiabetic based on medical history and their affection status needs to be evaluated by oral glucose tolerance testing. The results indicate that the nonsense mutation in the HNF-4 gene in the R-W pedigree is highly but not completely penetrant although the age of diabetes onset is variable. In addition to subjects who inherited the Q268X mutation but are presently nondiabetic, there are subjects in the R-W pedigree who have NIDDM but did not inherit the Q268X mutation or at-risk haplotype. Subject IV-9 was diagnosed with NIDDM at 48 years of age and was hyperinsuiinemic, a diagnosis consistent with late-onset NIDDM rather than MODY. The inventors also tested her six children, one of whom had NIDDM and another impaired glucose tolerance, and all had two normal alleles. Similarly, 10 children of subject III-7, five of whom had NIDDM were also tested, and none had inherited the Q268X mutation, suggesting that the NIDDM in this branch of the R-W family is of a different etiology. Finally, the five nondiabetic children of 111-1 1 were also tested and all were normal. The presence of both MODY and late-onset NIDDM in the R-W family has been noted previously (Bell, et al. 1991; Bowden, et al, 1992). The MODY phenotype results from a mutation in the HNF-4 gene. The cause(s) of the late-onset NIDDM is unknown. HNF-4 is a member of the steroid/thyroid hormone receptor superfamily and is expressed at highest levels in liver, kidney and intestine (Xanthopoulos et ai, 1991; Sladek et ai, 1990). It is also expressed in pancreatic islets and insulinoma cells (Miquerol, et al 1994). In liver, HNF-4α is a key regulator of hepatic gene expression and is a major activator of HNF-1α which in turn activates expression of a large number of liver-specific genes including those involved in glucose, cholesterol and fatty acid metabolism (Sladek et ai, 1990; Kuo et ai, 1992). Its expression in kidney, intestine and pancreatic islets implies that it plays a central role in tissue-specific regulation of gene expression in these tissues as well, although its specific function in nonhepatic tissues has not been addressed. Homozygous loss of functional HNF-4α protein causes embryonic lethality characterized bγ defects in gastrulation underscoring the key role played by this transcription factor in development and differentiation (Chen et ai, 1994). The phenotype of the heterozygous animals was not described and further studies are necessary to determine if they represent a mouse model of MODY. HNF-4α defines a subclass of nuclear receptors which reside primarily in the nucleus and bind to their recognition site and regulate transcription as homodimers (Sladek et ai, 1994; Kuo et ai, 1992). The key role played by HNF-4α in the regulation of hepatic gene expression is well established (Sladek et ai, 1994; Kuo et ai, 1992). However, its role as well as that of HNF-lα, the MODY3 product and a downstream target of HNF-4α action, in regulating gene expression in the insulin-secreting pancreatic β- cell is largely unknown, although Emeπs et */.(1992) have shown that HNF-lα is a weak transactivator of the insulin gene. Thus, the mechanism by which mutations in HNF-4α result in an autosomal dominant form of NIOOM characterized by pancreatic -cell dysfunction is unclear. The nonsense mutation in HNF- 4α found in the R-W family is predicted to result in the synthesis of a protein of 267 amino acids with an intact DNA binding domain. However, it is missing the regions involved in dimerization and transcriptional activation in other members of the steroid/thyroid hormone superfamily Zhang, et ai, 1994; Bourguet, et ai, 1995; Renaud, etai 1995; Wagner, R.L. et ai 1995) and as a consequence is predicted to be unable to dimerize, bind to its recognition site and activate transcription. Thus, the dominant inheritance is due to a reduction in the amount of HNF-4α per se rather than a dominant negative mechanism. The decreased levels of functional HNF-4α appear to have a critical effect on β-cell function perhaps as a consequence of decreased HNF-1α gene expression, mutations in this gene also leading to MODY as described in the examples above. Prediabetic subjects with mutations in either the HNF-4α or HNF-1α genes exhibit similar abnormalities in glucose-stimulated insulin secretion with normal insulin secretion rates at lower glucose concentrations but lower than normal rates as the glucose concentration increases (Byrne et ai, 1995), a result consistent with HNF-4α and HNF-1α affecting a common pathway in the pancreatic β-cell. The absence of overt hepatic, renal or gastrointestinal dysfunction in affected members of the R-W pedigree suggests that the levels of HNF-4α in these tissues, although possibly lower than normal, are sufficient to ensure normal function or that alternative pathways are sufficient for expression of key genes. However, detailed studies of hepatic glucose production and metabolism have not performed in subjects from the R-W pedigree and it is possible that subtle alterations in these processes may be present. The demonstration that MODY can result from mutations in the HNF-1α and HNF-4α genes suggests that this form of NIDDM is primarily a disorder of abnormal gene expression. In this regard, genes encoding other proteins in the HNF-1α/HNF-4α regulatory cascade such as other members of the HNF-1 (Mendel et ai, 1994) and HNF-4 families (Drewes etai, 1996) as well as HNF-3 (Lai et ai, 1993), HNF-6 (Lemaigre, etai 1996).), and perhaps dimerization cof actor of HNF 1 (Mendel et ai, 1991 ) should be considered as candidates for other forms of MODY and/or late-onset NIDDM. The role of HNF-4 in the development of the more common late-onset NIDDM is unknown. There is no evidence for linkage of markers flanking the HNF-4α gene with late-onset NIDDM in Mexican Americans or Japanese implying that mutations in the HNF-4α gene are unlikely to a significant genetic factor contributing to the development of late-onset NIDDM. However, acquired defects in HNF-4α expression maγ contribute, at Ieast in part, to the β-cell dysfunction which characterizes late-onset NIDDM (Polonsky et ai, 1996) especially if it plays a central role in regulating gene expression in the pancreatic β-cell as suggested by its association with MODY. Furthermore, the similarity between HNF-4α and ligand dependent transcription factors raises the possibility that HNF-4 and the genes it regulates respond to an unidentified ligand. The identification of such a ligand bγ the methods of the present invention will lead to new approaches for treating diabetes. EXAMPLE 4 Organization and Partial Sequence of the HNF 4α/M0DY1 Gene and Identification of Missense Mutation, R127W, in a Japanese Family with MODY HNF-4 is a member of the nuclear receptor superfamily, a class of ligand-activated transcription factors. A nonsense mutation in the gene encoding this transcription factor has been recently found in a white familγ with one form of maturitγ-onset diabetes of the young, M0DY1. In the present example, the inventors report the exon-intron organization and partial sequence of the human HNF-4 gene. In addition, the inventors have screened the twelve exons, flanking introns and minimal promoter region for mutations in a group of 57 unrelated Japanese subjects with early-onset NIDDM/MODY of unknown cause. Eight nucleotide substitutions were noted, of which one resulted in the mutation of a conserved arginine residue, Arg127 (CGG)→Trp (TGG) (designated R127W), located in the T-box, a region of the protein that may play a role in HNF-4α dimerization and DNA binding. This mutation was not found in 214 unrelated nondiabetic subjects (53 Japanese, 53 Chinese, 51 white and 57 African-American). The R127W mutation was only present in three of five diabetic members in this family indicating that it is not the only cause of diabetes in this family. The remaining seven nucleotide substitutions were located in the proximal promoter region and introns. They are not predicted to affect the transcription of the gene or mRNA processing and represent polymorphisms and rare variants. The results suggest that mutations in the HNF-4α gene may cause early-onset NIDDM/MODY in Japanese but they are less common than mutations in the HNF-1α /M0DY3 gene. The information on the sequence of the HNF-4α gene and its promoter region will facilitate the search for mutations in other populations and studies of the role of this gene in determining normal pancreatic β-cell function. 1. Methods Isolation and partial sequence of the human HNF-4α gene Three P1 -derived artificial chromosome (PAC) clones, 1 14E13, 130B8 and 207N8, containing the human HNF-4α gene were isolated by screening PAC DNA pools (Genome System, St. Louis, MO) by PCR™ with HNF-4α specific primers (Yamagata etai, 1996a). The partial sequence of the HNF-4 gene was determined using DNA from PAC's 1 14E13 and 207N8 and sequence-specific primers with an AmpliTaq FS Dye Terminator Cycle Sequencing Kit and ABI Prism™ 377 DNA sequencer (ABI, Foster City, CA). The promoter sequence was examined for transcription factor binding sites using Matlnspector (Quandt et ai, 1995) and TFSEARCH (Version 1.3 http//www.genome.ad.gp/kit/tf search.html). The sequences of alternatively-spliced mRNAs were confirmed bγ sequencing PCR™ products generated by amplification of human liver cDNA using specific primers. Screening of the HNF-4α gene for mutations The 12 exons, flanking introns and minimal promoter region were screened for mutations by amplifying and directly sequencing both strands of the PCR™ product using specific primers (the sequences of the primers are available at www.diabetes.org/diabetes). The sequence of the missense mutation (R127W) was confirmed by cloning the PCR™ product into pGEM-T (Promega, Madison, Wl) and sequencing clones representing both alleles. The R127W mutation leads to loss of a Msp I site and subjects were tested for the presence of this mutation by digestion of the PCR™ product of exon 4 with Msp I, separation of the fragments by electrophoresis on a 3% NuSieve 3:1 agarose gel (FMC BioProducts, Rockland, ME) and visualization by ethidium bromide staining. The sequences of the DNA polymorphisms are based on sequencing both strands of the PCR™ product and were not confirmed directly by cloning and sequencing the PCR™ product. Subjects The study population consisted of 57 unrelated Japanese subjects attending the Diabetes Clinic, Tokyo Women's Medical College who were diagnosed with NIDDM before 25 years of age and/or who were members of families in which NIDDM was present in three or more generations: age at diagnosis, 20.1 ±7.5 years (mean±SE); male/female, 31 /26; and treatment, insulin - 36, oral hypoglycemic agents • 10, and diet - 1 1. Thirty-two of the subjects met strict criteria for a diagnosis of MODY [i.e., NIDDM in at ieast three generations with autosomal dominant transmission and diagnosis before 25 years of age in at Ieast one affected subject). NIDDM was diagnosed using the criteria of the World Health Organization (Bennett etai, 1994). At the time of recruitment, informed consent was obtained from each subject and a blood sample was taken for DNA isolation. Fifty-three unrelated nondiabetic Japanese subjects were tested for each nucleotide substitution and mutation to determine if the sequence change was a polymorphism or disease-associated mutation. In addition, 53 Chinese (15), 51 white (16), and 57 African- American unrelated nondiabetic subjects ( 16) were tested for the R 127W mutation 2. Results Organization and partial sequence of human HNF-4 gene. The human HNF-4α gene (gene symbol, TCF14\ consists of 12 exons spanning approximately 30 kb, of which about 10 kb were sequenced including 1 kb of the promoter region (the gene sequence is available at www.diabetes.org/diabetes). Human HNF-4 mRNA is alternatively spliced (Hata et ai, 1992; Chartier et ai, 1994; Drewes et ai, 1996; Kritis et ai, 1996) which maγ generate as many as six different forms of HNF-4α (FIG. 12). HNF-4α2 is the predominant form present in manγ adult tissues including liver, kidneγ and intestine. The inventors have used RT PCR™ to determine which HNF-4α transcripts are expressed in human pancreatic islets. This analysis showed that islets express mRNAs for HNF-4 1 , 2 and 3. The inventors could not detect islet transcripts that included exons 1 C and 1 B although transcripts containing these two exons could be detected in human liver by RT PCR™. The sequence of 1 kb of the promoter region of the human HNF-4α gene was determined (FIG. 13). The comparison of the sequences of the human and mouse genes showed regions of sequence conservation that included the predicted start of transcription and the binding sites for several transcription factors including HNF-6, AP-1, HNF-3, HNF-1α and NF-1. The transcription start site for the human gene has not been determined directly but has been inferred from studies of the mouse gene which showed multiple start sites spread over a 10 bp interval (Zhong et ai, 1994; Tavaviras et ai, 1994) of which one was defined as nucleotide + 1 (Zhong et ai, 1994). The sequence homology in the promoter of the human and mouse genes suggests that transcription of the HNF-4 gene maγ be regulated in a similar manner. In this regard, Zhong et ai (Zhong et ai, 1994) have shown that the major promoter activity in a hepatoma cell line was associated with a 126 bp fragment of the mouse promoter (nucleotides 289-414 in FIG. 13). There is 83% identity between the human and mouse sequences in this minimal promoter region. Mutations and polymorphisms in the HNF-4α gene. The twelve exons, flanking introns and minimal promoter region were screened for mutations in 57 unrelated Japanese subjects with early-onset NIDOM/MODY. This analysis revealed one putative mutation (FIG. 14) and seven DNA polymorphisms/variants (Table 1 1). The putative mutation in exon 4 at codon 127, CGG (Arg)→TGG (Trp) (R127W) alters a conserved amino acid that is located in the T-box, a region implicated in receptor dimerization and DNA binding (Lee et ai, 1993; Rastinejad et ai, 1995; Gronemeyer and Moras, 1995; Jiang and Sladek et ai, 1997). The C→T substitution in codon 127 results in the loss of a site for the enzyme Msp I and digestion of the normal allele generates fragments of 104, 91, and 76 bp, whereas the mutant allele generates fragments of 104 and 167 bp. PCR™-RFLP analysis showed that the R127W mutation was not present in any of 214 unrelated nondiabetic subjects of different ethnic groups (53 Japanese, 53 Chinese, 51 white and 57 African-American). TABLE 11 DNA Polymorphisms/Variants in the Human HNF 4α Gene in Japanese Subjects Location Nucleotide Substitution Allele frequency Early-onset Nondiabetic NIDDM/MODY Promoter nt 922 G→A G-0.99, A-0.01 G-1.00. A-0.00 Intron 1A nt 1364 ( + 109) T→C T-0.99, A-0.01 T-1.00. C-0.00 nt 1486 (-21) G→A G-0.99, A-0.01 G-0.99, A-0.01 Intron 1C nt 2218 (-105) G→A G-0.99, A 0.01 G-1.00, A-0.00 Intron IB nt 2420 (+8) A→G G-0.99, A-0.01 G-0.99, A-0.01 nt 3142 (-38) T→C T-0.28, C-0.72 T-0.24, C-0.76 nt 3175 (-5) C→T C-0.84, T-0.16 C-0.86, T-0.14 The R127W mutation was present in three of five diabetic members of the J2-2T family, a MODY family characterized bγ severe microvascular complications (Iwasaki et ai, 1988) (FIG. 15). In addition, subject 11-2 must be a carrier since she has children with both normal homozγgous and heterozγgou genotγpes. The age at diagnosis of diabetes in two of the four subjects with the R127W mutation was < 25 γears (subject II-2, 16 years; and subject 111-4, 17 years). One of the subjects with the R127 mutation was diagnosed with diabetes at 90 years of age indicating the variable penetrance of the mutant allele. Another subject, the 12 year-old son of subject III-4, has inherited the mutant allele but i nondiabetic. However, he is not yet beγond the age at risk and may develop diabetes in the future. There are two subjects with diabetes in the J2-21 family who did not inherit the at-risk allele (subjects III-3 and -6). Such etiological heterogeneity has been noted previously (Bell etai, 1991). The seven DNA polymorphisms/variants were located in the promoter region and the intron (Table 11, FIG. 13). In subject J2-96 (FIG. 15), there was a G→A substitution at nucleotide 922 in th proximal promoter region which changes the human sequence so that it more closely resembles the sequence of the mouse gene (FIG. 13). This substitution was not found on screening 53 nondiabetic subjects. Since this substitution does not alter a conserved residue or disrupt the binding site for one of the factors predicted to regulate transcription of the HNF-4α gene, the inventors believe that it is a rare variant rather than a diabetes-associated mutation. However, further studies are necessary to distinguish between these two possibilities. The six substitutions found in introns (Table 11) do not disrupt the conserved GT and AG dinucleotides of the splice donor and acceptor sites, respectively, and are thus unlikely to affect splicing. The substitutions at nucleotides 1486, 2420, 3142 and 3175 were found in both diabetic and nondiabetic Japanese subjects indicating that they are polymorphisms rather than diabetes-associated mutations. The substitutions at nucleotides 1364 and 2218 were found only in two different unrelated subjects with early-onset NIDDM/MODY. The inventors believe that these are rare variants rather than diabetes-associated mutations as they are not near the splice donor and acceptor sites but are rather in the central portion of the intron. EXAMPLE 5 Hepatic Function in a Family with a Nonsense Mutation (R154X) in HNF 4α/M0DY1 Gene MODY is a genetically heterogeneous monogenic disorder characterized by autosomal dominant inheritance, onset usually before 25 years of age and abnormal pancreatic β-cell function. Mutations in the hepatocyte nuclear factor (HNF)-4α/M0DY1, glucokinase/M0DY2 and HNF-1α/M0DY3 genes can cause this form of diabetes. In contrast to the glucokinase and HI\JF-1α genes, mutations in the HNF-4α gene are a relatively uncommon cause of MODY and the inventors' understanding of the M0DY1 form of diabetes is based on studies of only a single family, the R-W pedigree. Here the inventors report the identification of another family with M0DY1 and the first in which there has been a detailed characterization of hepatic function. The affected members of this family, Dresden- 11 have inherited a nonsense mutation, R154X in the HNF-4 gene and are predicted to have reduced levels of this transcription factor in the tissues in which it is expressed including pancreatic islets, liver, kidney and intestine. Subjects with the R 154X mutation exhibited a diminished insulin secretory response to oral glucose. HNF-4 plays a central role in tissue-specific regulation of gene expression in the fiver including the control of synthesis of proteins involved in cholesterol and lipoproteiπ metabolism and the coagulation cascade. However, subjects with the R1 4X mutation showed no abnormalities in lipid metabolism or coagulation except for a paradoxical 3.3-fold increase in serum lipoprotein(a) levels. Nor was there any evidence of renal dysfunction in these subjects. The results suggest that M0DY1 is primarily a disorde of β-cell function. 1. Methods Subjects. The study population consisted of members of twelve unrelated families with early-onset NIDDM ascertained through the Department of Internal Medicine III, University Clinic Carl Gustav Carus of th Technical University, Dresden, Germany. Families were selected based on the presence of non-insulin dependent (type 2) diabetes mellitus (NIDDM) in two or more generations with diagnosis before 35 years of age in at Ieast one subject. Sufficient family data were available to suggest a diagnosis of MODY in nine of these families (i.e., NIDDM in three generations with autosomal dominant inheritance and onset before 25 years of age in at Ieast one affected subject) (Fajans et ai, 1994). The remaining three families were classified as having early-onset NIDDM. The average age at diagnosis of diabetes in affected members of these twelve families was 29.9±2.8 years (range, 14-60 years) (mean±SEM) and included 18 men and 13 women of whom 12, 12 and 7 were being treated with insulin, oral hypoglycemic agents and diet, respectively. At the time of recruitment, informed consent was obtained from each subject and blood and urine samples were obtained for DNA isolation and clinical testing. Screening HNF-4α gene for mutations. The minimal promoter region (nucleotides -21 to -459) (Zhong et ai, 1994) and 10 exons encoding the HNF-4α form (Drewes et ai, 1996) of HNF-4α were screened for mutations by polγmerase chain reaction (PCR™) amplification and direct sequencing of both strands of the amplified PCR™ product as described previously (Yamagata et ai, 1996). Sequence changes were confirmed by cloning the PCR™ product into pGEM-4Z (Promega, Madison, Wl) and sequencing clones derived from both alleles. The sequences of the primers for the amplification and sequencing of the minimal promoter region are P 1,5 '-CAAGGATCCAGAAGATTGGC-3' (SEQ ID N0.120), and P2, 5 '-CGTCCTCTGGGAAGATCTGC-3' (SEQ ID N0.121); the size of the PCR™ product is 479 bp. The sequence of the promoter of the human HNF-4α gene has been deposited in the GenBank database with accession number U72959. Linkage analysis. Family members were typed with the markers D20S43, D20S89, D20S96, D20S119, D20S169 and D20S424, all of which are tightly linked to the HNF-4α gene (Stoffel et ai, 1996). Tests for linkage were carried out using the haplotype formed from these markers and assuming a recombination frequency between adjacent markers of 0.001 with the computer program ILINK (Lathrop et ai, 1984; Lathrop and Lalouel, 1984). The frequencies of the haplotypes were estimated from the data. The analysis assumed a disease allele frequency of 0.001 and two liability classes. Liability class 1 included individuals who were 25 years of age with penetrances of 0.00, 0.95 and 0.95 for the normal homozygote, heterozygote and susceptible homozygote, respectively. Liability class 2 included individuals who were < 25 years of age with penetrances of 0.00, 0.60 and 0.95 for the normal homozygote, heterozygote and susceptible homozygote, respectively. The affection status of the one subject with impaired glucose tolerance was coded as affected. The maximum expected lod score (EL0D) was determined using the computer program SLINK (Ott, 1989; Weeks etai, 1990). Clinical Studies. A standard 75 g oral glucose tolerance test was given to subjects after a 12 h overnight fast. Treatment with insulin and oral hypoglycemic agents was discontinued 12 h and 24 h, respectively, before testing. Blood samples for glucose, insulin, C-peptide and proinsulin were drawn at 0, 30, 60, 90 and 120 min. Fasting blood samples were also drawn for the measurement of insulin, islet cell and glutamic acid decarboxylase (GAD) antibodies, glycosylated hemoglobin (HbA, c ), lipoprotein(a), apolipoproteins Al, All, B, Cll, Clll and E, cholesterol (total and in VLDL, LDL, HDL, HDL2 and HDL3), triglycerides (total and in VLDL and LDL + HDL), coagulation time (QUICK test) and partial thro boplastin time (PTT), fibrinogen, von Willebrand factor antigen (vWFπAg), plasminogen activator inhibitor- 1 (PAI D, tissue-type plasminogen activator (tPA), alanine aminotransferase, γ-glutamyl transferase, bilirubin, albumin, total protein, hemoglobin, creatinine, urea, amylase, iipase and uric acid. A urine sample (from a 24-hour collection of urine) was taken for measurements of creatinine and microalbumin. Assays. Blood glucose was measured with a hexokinase method (Boehringer-Mannheim, Mannheim, Germany), plasma insulin and C-peptide by radioimmunoassay (DPC Biermann GmbH, Bad Nauheim, Germany; and C peptide RIA Diagnostic Systems Laboratories, Sinsheim, Germany, respectively), plasma proinsulin by ELISA (DRG Instruments, Marburg, Germany), HbA, c by HPLC (DIAMAT Analyzer, Bio-Rad, Munich, Germany), fibrinogen bγ the Clauss method (Fibrinogen A Kit, Boehringer-Mannheim), PAI-1 by bioimmunoassay and ELISA (TC ® Actibind PAI-1 and TC* PAI-1 ELISA, Technoclonellmmuno GmbH Deutschland, Heidelberg, Germany), tPA by ELISA (TintElize tPA, Biopool AB, Umea, Sweden), vWFr:Ag enzymatically (ELISA Asserachrom vWF, Boehringer-Mannheim), insulin- and GAD-Ab by ELISA and radioimmunoassay (Eiias, Freiburg, Germany), islet cell-Ab by an immunofluorescence assaγ (using a positive sample from EUROIMMUN Immunologie GmbH, Groβ Grόnau, Germany), coagulation and partial thromboplastin time by the AMAX Analyzer (Munich, Germany). Total cholesterol, cholesterol in VLDL, HDL, LDL+HDL, and HDL3 were measured by the CHOD-PAP, total triglycerides and triglycerides in VLDL and LDL+HDL by the GPO-PAP method using the Ciba Corning 550 Express Clinical Chemistrγ Analyzer (Boehringer-Mannheim). HDL2-cholesterol was calculated using the formula HDL2=HDL-HDL3. Samples for the measurement of cholesterol, triglycerides in VLDL, HDL, LDL+ HDL were prepared by preparative ultracentrifugation using a Beckman Optima tabletop TLX ultracentrifuge with a TLA- 120.2 rotor. Serum creatinine, urea, uric acid, total protein, alanine aminotransferase, γ glutamyl transferase, bilirubin, amylase and urine creatinine were measured using the BM Hitachi 717 Chemistry Analyzer (Boehringer Mannheim). Lipase was measured using the Monarch System (Sigma Germany, Munich, Germany). Apolipoproteins Al, All and B and urine microalbumin were measured using the Behring-Nephelometer BN II (Behringwerke, Marburg, Germany). Apolipoproteins Clll and E were measured using the Sebia System (Fulda, Germany), apoiipoprotein Cll using the RID System (WAK, Bad Homburg, Germany). 2. Results Identification of a nonsense mutation in the HNF-4 gene. Twelve families with early-onset NIDDM/MODY were ascertained for genetic studies of MODY in subjects of German ancestry. Mutations in the HNF-lα/M0DY3 gene (Yamagata et ai, 1996) were found in three of these families (Kaisaki et ai, 997). The HNF-4α gene was screened for mutations in one affected subject from the remaining nine families. There was a C→T substitution in codon 154 of exon 4 in the proband (II-4) of familγ Dresden-11 (FIG. 16) which generated a nonsense mutation CGA (Arg)— TGA (OP) (R154X, FIG. 17). The R154X mutation would result in the synthesis of a truncated protein of 153 amino acids with an intact DNA binding domain but lacking the ligand binding and traπsactivation domain (Sladek et ai, 1990). in addition to this mutation, there was a silent C→T substitution in the codon for Ala58 (6CC/GCT) in one subject which did not cosegregate with MODY/early onset NIDDM. The presence of the R154X mutation in other members of the Dresden- 11 family was determined by PCR™ amplification and direct sequencing of exon 4. The R154X mutation cosegregated with MODY in the Dresden- 11 family (FIG. 16). All diabetic subjects had the R154X mutation as did a 14-year old male (III-2) with impaired glucose tolerance. The at-risk haplotype showed some evidence for linkage with MODY with a lod score of 1.20 at a recombination of 0.00 (the maximum expected lod score in this pedigree is 1.20). Age at diagnosis. Three subjects were diagnosed with NIDDM between 15-25 years of age and two others at 28 and 44 years (FIG. 16). The subject, 1-1, diagnosed with diabetes at 44 years of age had proliferative retinopathy at the time of diagnosis suggesting that the onset of diabetes had been many years earlier. Clinical severity of diabetes. The diabetes in the Dresden- 11 family was severe and all the diabetic subjects were treated with either insulin or oral hypoglycemic agents. Subjects with diabetes of long duration [e.g., 1-1, 11-4) had diabetic complications including proliferative retinopathy, macrovascular disease (coronary heart disease) and peripheral polyneuropathy. Surprisingly, none of the subjects with the R154X mutation had evidence of nephropathy. Thus, the diabetic phenotype of the Dresden- 11 family is very similar to that seen in the R-W pedigree (Fajans etai, 1994). None of the subjects in the Dresden ! 1 family were positive for islet, insulin or GAD antibodies. Insulin-secretory response. Previous studies have shown that prediabetic subjects with a mutation in HNF-4α exhibit a characteristic defect in the normal pattern of glucose-stimulated insulin secretion as well as abnormalities in other measures of normal β-cell function (Herman etai, 1994; Byrne et ai, 1995). The OGTT studies showed a profound reduction in insulin secretion accompanied by diminished C-peptide and proinsulin levels in subjects with the R154X mutation (FIG. 18). Lipid levels. None of the subjects with the R154X mutation showed evidence of secondary hypertriglyceridemia, even though several (1-1, II-4, HIT) had poor metabolic control with HbA lc levels of 10.6, 8.8 and 10.1, respectively (Table 12). TABLE 12 Clinical Parameters of the Dresden- 11 family Genotype Parameter Normal/Mutant Normal/Normal Reference (female/male) values Age at diagnosis (years) 26.40 ± 3.47 - -- Current age (years) 35.50 ± 7.58 62/41 n (females/males) 2/4 1/1 -- BMI (kg/m 2 ) 25.21 ± 1.15 41.08/22.86 < 25.00 HbA lc (%) 8.13 ± 0.78 5.60/5.30 < 6.50 Basal insulin (nM) 0.067 ± 0.005 0.080/0.040 0.059-0.253 Basal C-peptide (nM) 0.60 ± 0.08 0.68/0.45 < 1.06 Cholesterol (mM), total 4.72 ± 0.41 5.03/5.01 < 5.20 in VLDL (mM) 0.79 ± 0.31 0.21/0.70 0.10-1.40 in LDL (mM) 2.86 ± 0.25 3.62/3.34 1.80-5.10 in HDL (mM) 1.17 ± 0.18 1.32/1.26 0.80-2.50 in HDL2 (mM) 0.31 ± 0.06 0.44/0.27 0.10-0.60 in HDL3 (mM) 0.86 ± 0.12 0.88/0.99 0.80 1.90 Triglycerides (mM), total 0.70 ± 0.13 0.65/1.45 0.40-2.80 in VLDL ( M) 0.43 ± 0.13 0.34/1.06 0.10-2.10 in LDL+HDL (mM) 0.28 ± 0.02 0.33/0.47 0.20 0.80 Lipoprotein (a) (mg/l) 816.0 ± 90.4 3.0/6.0 < 250.0 ApoB (g/l) 1.38 ± 0.22 1.33/1.38 0.72-1.50 ApoAI (g/l) 1.66 ± 0.16 1.89/2.00 1.12-1.75 ApoAII (g/l) 0.32 ± 0.02 0.290.53 0.30-0.70 ApoE (mg/l) 61.2 ± 12.2 65.0/55.0 13.0-76.0 ApoCII (mg/l) 36.0 ± 5.3 36.0/61.0 7.0-63.0 ApoCIII (mg/l) 26.7 ± 3.7 23.0/36.0 16.0-45.0 TABLE 12, continued Genotype Parameter Normal/Mutant Normal/Normal Reference (female/male) values Creatinine (μM) 91.5 ± 5.6 73.0/80.0 < 124.0 Urea (mM) 5.6 ± 0.8 6.6/1.0 3.6-8.9 Total protein (g/l) 72.7 ± 1.7 77.2/84.0 65.0-85.0 Albumin (g/l) 38.6 ± 1.0 38.5/43.5 37.0-53.0 Alanine aminotranferase 0.39 ± 0.06 0.39/0.91 0 .10-0.67 (μmol/l ' s)) γ-glutamyl transferase 0.54 ± 0.12 0.55/1.11 0.18-0.83 (μmol/(»s)) Bilirubin (μM), total 16.7 ± 5.2 13.7/24.3 1.0-16.0 Uric acid (μM) 249 ± 28 317/359 208-416 Exocrine pancreatic function Amylase (U/l) 56.8 ± 6.7 30.0/58.0 17.0-115.0 Lipase (μmole/(l ' s)) 1.22 ± 0.40 0.20/3.00 0.38-3.40 Coagulation parameters Coagulation time (%) 117 ± 6 108/125 70-120 Partial thromboplastin time (s) 33 ± 1 29/35 30-40 Fibrinogen (g/l) 3.54 ± 0.23 2.89/3.69 1.50-4.00 Von Willebrand Factor Antigen 103 ± 11 145/115 70-200 (%) PAI-1 (ng/ml), total 36 ± 8 102/40 30-80 tPA (ng/ml) 10.6 ± 1.5 17.2/16.0 2.0-10.0 Urine analysis Creatinine (mM) 8.36 ± 0.88 7.96/2.86 4.66-18.00 Microalbumin (mg/24 h) < 2.2 13.5/ < 2.2 2.2-18.0 Values are means±SEM (standard error of means). The two normal subjects are shown with the single values. Reference values are those from the Institute of Clinical Laboratory Diagnostics, University Clinic Carl Gustav Ca s, Dresden. Hepatic and renal function. HNF-4α is expressed in the liver and kidney and as such mutations in HNF-4 might be expected to affect the normal function of these tissues (Sladek et ai, 1990; Cereghini, 1996). In this regard, HNF-4α regulates the expression of a number of apolipoproteins including Al, AIV, B and Clll (Cereghini, 1996). The serum apolipoprotein levels and lipoprotein fractions were normal in the subjects with the R154X mutation except for lipoprotein(a) levels, which were elevated 3.3-fold (Table 12). Lipoprotein(a) levels have been reported to be elevated in subjects with NIDDM in some studies (Nakagawa etai, 1996; Hirata et ai, 1995) but not others (Durlach et ai, 1996; Chico et ai, 1996). However, an elevation in lipoprotein(a) levels in subjects with HNF-4α deficiency appears paradoxical as expression of lipoprotein(a) is controlled bγ HNF-lα (Wade et ai, 1994) which is in turn regulated bγ HNF-4α (Cereghini, 1996). Thus, lower lipoprotein(a) levels not higher would be expected in subjects with the R154X mutation. Further studies will be necessarγ to determine the relationship between lipoprotein(a) levels and mutations in HNF-4α. HNF-4α also regulates the expression of albumin, fibrinogen and the coagulation factors VII, VIII, IX and X (Cereghini, 1996; Erdmann and Heim, 1995; Figueiredo and Brownlee, 1995; Naka and Brownlee, 1996; Hung and High, 1996). The serum levels of albumin and fibrinogen and measurements of coagulation time were normal in subjects with the R154X mutation (Table 12). HNF-4α is also expressed in the kidneγ although the identitγ of the target genes in this organ are unknown (Sladek et ai, 1990; Cereghini, 1996). The urinarγ creatinine and microalbumin levels were normal in subjects with the R154X mutation (Table 12) suggesting that renal function was not impaired in subjects with mutations in the HNF-4 gene. EXAMPLE 6 Diminished Insulin and Glucagon Secretory Responses to Arginine in Nondiabetic Subject with a Mutation in HNF4αjM0DY1 Gene Nondiabetic subjects with the Q268X mutation in the hepatocγte nuclear factor (HNF)- 4 /M0DY1 gene have impaired glucose-induced insulin secretion. To ascertain the effects of the nonglucose secretagogue arginine on insulin and glucagon secretion in these subjects, we studied 18 members of the RW pedigree: 7 nondiabetic mutation negative (ND[-]), 7 nondiabetic mutation positive (ND[+1), and 4 diabetic mutation positive (D[+_). We gave arginine as a 5 g bolus followed bγ a 25 minute infusion at basal glucose concentrations and after glucose infusion to clamp plasma glucose at ~ 200 mg/dl. The acute insulin response (AIR), the 10-60 minute insulin area under the curve (AUC), and the insulin secretion rate (ISR) were compared as were acute glucagon response (AGR) and glucagon AUC. The ND[+] and D[+] groups had decreased insulin AUC and ISR and decreased glucose potentiation of AIR, insulin AUC, and ISR to arginine administration when compared to the ND[ ] group. At basal glucose concentrations, glucagon AUC was greatest for NDI-], intermediate for ND[+], and lowest for D[ +] group. During the hyperglycemic clamp there was decreased suppression of glucagon AUC for both ND[+] and D[+] groups compared to the ND[ ] group. The decreased ISR to arginine in the ND[+) group compared to the ND[ ] group, magnified by glucose potentiatioπ, indicates that HNF-4 affects the signaling pathway for arginiπe-induced insulin secretion. The decrease in glucagon AUC and decreased suppression of glucagon AUC with hyperglycemia suggest that mutations in HNF-4α may lead to -cell as well as β-cell secretory defects or to a reduction in pancreatic islet mass. 1. Methods Subjects Eighteen members of the RW pedigree from branches II 2 and 11-5, generations III, IV, and V, were studied (Fajans, 1990; Fajans et ai, 1994). The study was reviewed and approved by the Institutional Review Board of the University of Michigan Medical Center, and all subjects and/or parents provided written informed consent. The glyce ic status of each subject was determined by oral glucose tolerance test (OGTT) as defined by the National Diabetes Data Group (NDDG) (1979). Each subject was originally typed with a series of DNA markers on chromosome 20q to determine whether he or she has inherited the extended at-risk haplotype (defined by alleles at the loci ADA, D20S17, D20S79, and D20S4) associated with M0DY1 (Bell et ai, 1991; Bowden et ai, 1992; Cox et ai, 1992; Rothschild et ai, 1993). When the Q268X mutation in the HNF-4α gene was shown to be the cause of MODYl in the RW pedigree (Yamagata etai, 1996a), subjects were tested directly for this mutation. All the subjects included in this study, except nondiabetic individual GM 11626, have been tested for the presence of the Q268X mutation. However, his nondiabetic father, IV- 16, was tested and he does not have the Q268X mutation. Based on the OGTT results and the presence or absence of the Q268X mutation or at-risk haplotype, the family members were subdivided into three groups: Nondiabetic 0268X mutation-negative group (NDf-l) Seven nondiabetic mutation-negative subjects were studied. GM identification numbers (Human Genetic Mutant Cell Repository) as given by Bell et al. (1991), RW pedigree generation and person numbers as given by Fajans etai (1994), and age at the time of study were: GM 10085, IV 22, 45 fears; GM11429, IV-41, 32 years; GM11626, offspring of IV- 16, 17 years; GM10153, offspring of IV- 17, 18 years; G 11579, offspring of IV- 19, 16 years; GM 11331, offspring of IV-21, 21 years; and GM 11333, offspring of IV-21, 22 years. Four of these subjects were offspring of diabetic parents (GM 10085, GM11429, GM10153, and GM11579). Nondiabetic Q268X mutation-positive group (NDM) This group included seven subjects. Two subjects never had diabetes or impaired glucose tolerance on OGTT: GM11090, offspring of IV-143, 16 years; and GM10668, offspring of IV-141 , 16 years. Five subjects has previous abnormalities of glucose tolerance but none had ever had an abnormal fasting plasma glucose or glycosylated hemoglobin concentration. Two had single diabetic OGTTs 4 and 22 years, respectively, before the study but had numerous normal glucose tolerance tests subsequently: GM10018, IV-168, 25 years; and GM8072, IV 143, 39 γears. Three subjects had fulfilled NDDG diagnostic criteria for diabetes bγ OGTT in the past. Prior to the studγ they had normal OGTTs on 2, 4 and 5 occasions, over 2, 4 and 4 years, respectively. They were: GM1 1600, offspring of IV-143, 14 years; GM8759, IV 166, 31 years; and GM8073, offspring of 143, 19 years. Diabetic Q268X mutation-positive group (Dl+D The four subjects in this group ad consistently diabetic OGTTs for 6 or more γears or ad mild fasting hyperglycemia ( < 200 mg/dl) when untreated. They were GM8106, 111-35, 59 years; GM7974, IV-141, 43 years; GM8107, IV-165, 26 years; and GM10724, offspring of IV 142, 17 years. Subject GM8106 was treated with tolbutamide between 1958 and 1968 and with chlorpropamide since Maγ, 1995. When untreated, his highest fasting plasma glucose was 160 mg/dl and his highest total glycosylated hemoglobin 9.1 % (normal < 6.3%). On 100 mg of chlorpropamide per day, his fasting plasma glucose was 91 mg/dl and glycosylated hemoglobin was 5.3%. Chlorpropamide was discontinued for 26 days before the studγ and fasting plasma glucose was 99 mg/dl and total glycosylated hemoglobin concentration was 5.8% on the day of the studγ. Subject GM7974 was treated with diet alone. She had diabetic OGTTs intermittently since 1969; OGTTs were consistently diabetic since 1990. Her fasting plasma glucose was 84 mg/dl and her total glycosylated hemoglobin was 6.9% at the time of the studγ. Subject GM8107's highest fasting plasma glucose was 192 mg/dl and highest total glycosylated hemoglobin was 9.5% when untreated. When treated with glyburide 1,25 mg daily, she had normal fasting and postprandial plasma glucose concentrations and a total glycosylated hemoglobin of 6.7%. Glyburide was discontinue 11 days before the studγ. Her fasting plasma glucose concentration was 106 mg/dl and her total glycosylated hemoglobin was 6.9% on the day of the study. Subject GM10725 had been treated with glyburide 2.5 mg twice daily since 1989. Her highest total glycosylated hemoglobin concentration was 9.0%. She discontinued medication 5 days before the study and her fasting plasma glucose was 158 mg/dl and her total glycosylated hemoglobin was 7.7% at the time of the study. Protocol Subjects were studied in the University of Michigan General Clinical Research Center (CRO. Subjects were admitted to the CRC in the evening and studied in the recumbent position after a 10-12 hour ovemight fast. An intravenous sampling catheter was inserted in a retrograde direction in a dorsal vein of the hand and the hand was kept in a wooden box thermostatically heated to 60°C to achieve arteriaiization of venous blood. A second catheter for insulin, arginine and glucose administration was inserted into the contralateral antecubital vein. In subjects with fasting hyperglycemia, a small intravenous bolus of human regular insulin (0.007 U/kg or approximately 0.5 U) was given at -50 minutes to lower the plasma glucose to approximately 75 mg/dl. Blood samples for measurement of basal glucose, insulin, C-peptide, and glucagon concentrations were obtained at -30, -20, -10, and 0 minutes. At 0 minutes, arginine was administered. The total arginine dose was calculated as 0.41 gm/kg body weight to a maximum of 30 grams. At time 0, 5 grams of arginine was administered as an IV bolus over 30 seconds and at time 5 minutes, the remaining arginine was infused with a pump at a constant rate over 25 minutes. Samples were drawn at 2, 3, 5, 7, 10, 20, and 30-minutes for measurement of glucose, insulin, C-peptide, and glucagon. Following the first arginine bolus and infusion, there was a 60 minute washout period. Blood samples for measurement of the same constituents were obtained at 40, 50, 60, 70, 80, and 90 minutes. At 90 minutes, glucose (150 mg/kg) was administered over 30 seconds and a variable rate infusion of 20% dextrose with 10 mEq KCI/I was begun to clamp the plasma glucose level at 200 mg/dl for the remainder of the study, as determined by frequent bedside blood glucose measurements. Blood samples for the above constituents were obtained at 92, 93, 95, 97, 100, 1 10, 120, 130, 140, and 150 minutes. At 150 minutes, arginine (0.41 gm/kg, maximum 30 grams) was again administered as a 5 gram bolus followed after 5 minutes by an infusion over 25 minutes, as previously, and samples were drawn at 152, 153, 155, 157, 160, 170, 180, 190, 200, 210, 220, 230, and 240 minutes for measurement of glucose, insulin, C-peptide, and glucagon. Assay procedures All blood samples were collected on ice and stored at -70°C until assayed. Plasma glucose was measured on a Kodak Ektachem 700 Analyzer using a hexokinase method (intra-assay coefficient of variation [CV] 1.7% at 5.0 mmol and 1.2% at 16.1 mmol). Immunoreactive insulin was measured by double-antibody radioimmunoassay (RIA) (intra-assay CV 6.4%) (Hayashi et ai, 1977). C-peptide was measured by a specific RIA (intra-assay CV 3.9%) (Faber et ai, 1978). Glucagon was measured by double-antibody radioimmunoassay (intra-assaγ CV 3.2%) (Hayashi et ai, 1977). All samples were measured in duplicate and their means were used. Samples from individual subjects were measured in a single assay. All assays were performed in the Michigan Diabetes Research and Training Center Chemistry Core laboratory. Data analysis Acute insulin responses (AIR), acute C-peptide responses (ACR), and acute glucagon responses (AGR) were calculated as the mean of the 2, 3, 4, and 5 minute hormone levels minus the mean of the - 10, -5, and 0 minute hormone levels. Glucose, insulin, C-peptide, and glucagon areas under the curve were calculated with the trapezoidal rule for the time interval 10 to 60 minute when the arginine bolus was administered at time 0 and the arginine infusion began at time 5 minutes. Baseline values, calculated as the mean hormone levels measured at -10, -5, and 0 minutes immediately preceding the arginine bolus, were subtracted from the areas under the curve. Insulin secretion rates were calculated bγ deconvolution of C-peptide values (Polonskγ et ai, 1986). All of these indices of insulin secretion were assessed during arginine administration at baseline glucose levels, during glucose administration, and during arginine administration during the hγperglγcemic clamp. Slope of potentiation was calculated as the difference between the AIR or ACR to arginine obtained during the hγperglγcemic clamp and at baseline glucose levels divided bγ the difference between these two glucose levels (Halter et ai, 1979). Results are expressed as means ± standard error of the mean. Statistical significance of differences among groups was assessed with chi-square and unpaired t-tests. The primarγ comparisons of interest were between the ND[ ] and ND[+] group. P < 0.05 was defined as the limit of statistical significance. 2. Results Eighteen members of the RW Pedigree were studied: Seven non diabetic mutation negative (ND[- ]), seven non-diabetic mutation positive (ND[+]), and four diabetic mutation positive (D[ +]) (Table 13). There were no significant differences among groups with regard to gender or age, although D[+J subjects tended to be older. All subjects were non-obese. Fasting glucose and insulin levels did not differ significantly among groups although D[+] subjects tended to have higher glucose levels and lower insulin levels. Fasting C-peptide levels were lower in D[+] subjects compared to IMDf ] subjects. Fasting glucagon levels did not differ among groups. Glycosylated hemoglobin concentration did not differ between the two nondiabetic groups, but was higher in the D[+] group. Table 13 Characteristics of Subjects from RW Pedigree by Glucose Tolerance and Mutation Status Glucose Tolerance Nondiabetic Nondiabetic Diabetic Genotype* [ J 1+] [+] Number and gender (M/F) 5/2 % 1/3 Age (years) 24 ±4 23 ±4 36 ± 9 Body Mass Index (kg/m 2 ) 25.2 + 1.5 23.1 ± 1.0 22.5 ± 0.4 Fasting glucose (mg/dl) 91 ± 2 87 ± 2 1 12 ± ie Fasting insulin (μU/ml) 10 + 1 11 + 2 7 ± 1 Fasting C-peptide (ng/ml) ι.8± o.r* 1.6 ± 0.2 1.3 ± 0.2 Fasting glucagon (pg/ml) 73 ± 6 64 ± 9 77 ± 12 Glycosylated hemoglobin 5.5 ± 0.1 ** 5.7 ± 0.2 ## 7.8 ± 0.4 *[-] = Normal/Normal * * p < 0.05 vs. diabetic [ +] [+] = Normal/Q268X Mutation All values are mean ± SEM FIG. 19 demonstrates the protocol and illustrates concentrations of glucose (FIG. 19A), insulin (FIG. 19B), C-peptide (FIG. 19C), and glucagon (FIG. 190) during the three phases of the study. These were: A) administration of arginine (bolus and infusion) at basal glucose concentrations, B) administration of glucose (bolus and variable rate infusion) to clamp the glucose level at 200 mg/dl, and C) administration of arginine (bolus and infusion) during the hyperglycemic clamp. Table 14 summarizes average glucose levels; acute insulin responses (AIR) and C-peptide responses (ACR) to arginine; and hormone areas under the curve (AUC) and insulin secretion rate (ISR) measured 10 to 60 minutes following commencement of the three study phases. These are A) administration of arginine at basal glucose concentrations, B) administration of glucose, and C) administration of arginine during the hyperglγcemic clamp. Table 14: Plasma Concentrations of Glucose, Acute Insulin and C-peptide Responses (AIR and ACR), Areas Under the Curve (AUC 10-60 minutes) for Insulin and C-peptide and Insulin Secretion Rate (ISR) during administration of A) Arginine at basal glucose concentrations (Bolus and Infusion), B) Glucose (Bolus and Infusion) and C) Arginine (Bolus and Infusion) during hyperglγcemic clamp. Period Group Nondiabetic ( • ) Nondiabetic (+) Diabetic (+) Number n = 7 n = 7 n = 4 A. Arginine administration at basal glucose concentration Glucose (mg/dl) * 107 ±3 102 ±2 115 ± 15 AIR (μU/ml) 48 ±10 70 ±19 27 ±7 ACR (ng/ml) 3.05 ± 0.61 3.25 ± 0.44 2.19 ±0.55 AUC, (ng/ml) 78.5 ±7.7 25.6 ±5.5* 3.5±0.8* § AUC C (ng/ml) 205 ±12 71 ±9* 38 ± 6* 5 ISR (μg) 76 ±6 31 ±3" 16±3 1§ B. Glucose administration Glucose (mg/dl) * 207 ±2 207 ±5 203 ±7 AIR (μUlml) 72± 10 63 ±15 16±6 1 ACR (ng/ml) 4.03 ±0.61 2.83 ± 0.54 1,25 ±0.58* AUC, (ng/ml) 43.9 ± 6.3 47.1 ±11.4 16.1 ±4.1 1 AUC C (ng/ml) 131 ± 12 103± 16 61 ± 22 # ISR (μg) 63 ±4 51 ±6 33±2 1 C. Arginine administration during hyperglycemic clamp Glucose (mg/dl) * 198 ±2 209 ±7 201 ±6 AIR (μU/ml) 271 ±33 162 ±36 ** 50±10* § ACR (ng/ml) 10.33 ±1.31 5.87 ± 0.72" 3.21 ±0.91 1S AUC, (ng/ml) 628 ±69 149 ±40* 25 ±7* 5 AUC C (ng/ml) 739 ±52 209 ±40* 109 ±42* ISR (μg) 276 ±18 101 ±19* 54 ±16* * mean for period 10-60 minutes All values are mean ± SEM ** p<0.05 "p<0.01 *p< 0.001, ND[ +] vs ND[] * p < 0.05 1 p < 0.01 * p < 0.001, DM vs ND[] 5 p < 0.05Dl+]vsND[+] Effects of Arginine and Glucose on Insulin Secretion Administration of Arginine at Basal Glucose Concentrations At baseline, glucose levels did not differ among the groups (Table 13) After the 5 g arginine bolus, AIR and ACR did not differ among groups but tended to be lower for the DM group (Table 14). During and after the subsequent arginine infusion, glucose levels were slightly higher at 10, 20, and 30 minute intervals in the ND[ ] as compared to the l\ID[+J group (FIG. 19) but the average glucose levels during the 10-60 minute time interval (Table 14) and the glucose area under the curve (1171 ± 99 vs. 1012 ± 141 mg/dl, respectively, p = 0.37) did not differ. Insulin and C-peptide levels rose to a peak at 30 minutes in the ND[ ] group but were markedly decreased in both the ND[+] and D[+] groups (FIG. 19). The insulin area under the curve (AUC,) and C-peptide area under the curve (AUC C ) were significantly reduced in l\ID[+] group compare to ND[ ] group (Table 14). They were further reduced in D[+] group compared to the ND[+] group (Table 14). ISR was significantly reduced in ND[+J compared to l\ID[ ] subjects and further reduced in Df+] compared to l\ID[+] subjects (Table 14). Administration of Glucose Glucose levels did not differ among the groups during the bolus and the variable rate glucose infusion (Table 14). AIR and ACR to glucose did not differ between the ND[+] and l\ID[-j groups but were significantly reduced in the DM group compared to the ND[ ] group (FIG. 19, Table 14). AUC,, AUC C , and ISR during the glucose infusion did not differ between the ND[ ] and l\ID[+] groups (Table 14). They were reduced in the D[+] group compared to the ND[-] group (Table 14). Administration of Arginine during the Hyperglycemic Clamp Glucose levels did not differ among the groups during the variable rate glucose infusion and second arginine bolus and infusion (Table 14). At hyperglycemic plasma glucose levels, as compared to euglycemic levels, AIR and ACR to arginine, and AUC,, AUC C and ISR were enhanced and differences among groups were greatly magnified (FIG. 19, Table 14). All indices of insulin secretion were significantly reduced in the ND[+] group compare to the ND[ ] group and there was a further reduction in the DM group (Table 14). FIG. 20A and FIG. 20B demonstrates the slopes of potentiation for insulin and C-peptide, respectively. Glucose potentiation of arginine-stimulated insulin secretion was reduced in both the I\ID[+) (0.80 ± 0.18) and D[+] (0.24 ± 0.04) groups compared to the ND[ ] group (2.12 ± 0.25, p < 0.001). The insulin slope of potentiation was also reduced in D[+] group compared to ND[+] group (p < 0.05). Glucose potentiation of arginine-stimulated C-peptide secretion was also reduced in the NDl +1 (0.02 ± 0.00) and DM (0.01 ± 0.00) groups compared to the NDl-] group (0.07 ± 0.01, p < 0.01). Effects of Arginine on Plasma Glucagon Concentrations At baseline, glucagon levels did not differ among groups (Table 13). Acute glucagon responses to the 5 g bolus of arginine administered at basal glucose concentrations did not differ significantly among NDl ], ND[ +], and Dl+] groups (104 ± 19, 92 ± 16, and 82 ± 23 pglml, respectively). On the other hand, the glucagon area under the curve (10-60 minutes) during and following the arginine infusion at basal glucose concentrations was reduced in DM compared to ND[ ] subjects (4,778 + 1,087 vs. 7,549 ± 639 pglml, p < 0.05). NDl +1 subjects showed intermediated volumes (5,772 ± 734 pglml; p = 0.09 vs. NDl- ] group). During the hyperglycemic clamp there were no significant differences among glucagon areas under the curve for any of the groups (4,237 ± 406, 3.963 ± 508, and 2,941 ± 568 pglml, for NDl-], ND[+] and DM, respectively). To assess the impact of glucose infusion on the glucagon response to arginine in the three study groups, the inventors assessed the differences in glucagon area under the curve between the euglycemic and hyperglycemic periods. Decreases in glucagon areas induced by the hyperglycemic clamp between the first and the second arginine infusion were 3312 ± 404, 1809 ± 387, and 1836 + 535 pg/ml for the ND[-], NDM and DM groups, respectively (p < 0.02 ND[ ] vs. NDM. EXAMPLE 7 MODY Due to Mutations in the HNF-4α Binding Site in the HNF-lα Gene Promoter Recent studies have shown that mutations in the transcription factor hepatocyte nuclear factor (HNF)-lα are the cause of one form of maturity-onset diabetes of the young, M0DY3. These studies have identified mutations in the mRNA and protein coding regions of this gene that result in the sγnthesis of an abnormal mRNA or protein. Here, the inventors report an Italian family in which an A— . C substitution at nucleotide -58 of the promoter region of the HNF-lα gene cosegregates with MODY. This mutation is located in a highly conserved region of the promoter and disrupts the binding site for the transcription factor HNF-4α, mutations in the gene encoding HNF-4α being another cause of MODY (M0DY1). This result demonstrates that decreased levels of WWrΛα erse can cause MODY. Moreover, it indicates that both the promoter and coding regions of the HNF-lα gene should be screened for mutations in subjects thought to have MODY because of mutations in this gene. 1. Method Subjects The MODY family Italy- 1 was ascertained through the diabetes clinic of Santo Spirito's Hospital. Affection status was determined using criteria of the National Diabetes Data Group. The affection status of unaffected family members was defined as normal or impaired based on the results of a standard 75 g OGTT. This study had institutional approval and all subjects gave informed consent. Linkage analysis Family members were genotyped with the markers D12S321, D12S76 and UC-39 all of which are tightly linked to the HNF- 1α gene (M0DY3) (Yamagata etai, 1996). The forward and reverse primers for the polymorphic sequence tagged site (STS) UC-39 are 5 '-GCAACAGAGCAAGACTCCATCTCA-3' (SEQ ID NO: 122) and 5 -GAGTTTAATGGAAGAACTAACC-3' (SEQ ID NO: 123) respectively, and the PCR included initial denaturation at 94°C for 5 min and 35 cycles of denaturation at 94°C for 1 min, annealing at 63°C for 1 min and extension at 72°C for 1 min with a final extension at 72°C for 10 min. n The forward primer was labeled with P and the MgCI 2 concentration in the reaction was 1.0 mM. The PCR was carried out in a GeneAmp 9600 PCR System (Perkin Elmer, Norwalk, CT). The PCR products were separated by electrophoresis on a 5% polyacrylamide sequencing gel and visualized by autoradiography. Tests for linkage were carried out using the haplotype formed from D12S321, D12S76 and UC-39 and assuming a recombination frequency between adjacent markers of 0.001 with the computer program MLINK from the LINKAGE package (version 5.1) (Lathrop et al., 1985). The frequencies of the haplotypes were estimated from the data. The analysis assumed a disease allele frequency of 0.001 and two liability classes. Liability class 1 included individuals whose age was >25 years of age with penetrances of 0.00, 0.95 and 0.95 for the normal homozygote, heterozygote and susceptible homozygote, respectively. Liability class 2 included individuals < 25 years of age with penetrances of 0.00, 0.50 and 0.95 for the normal homozygote, heterozygote and susceptible homozygote, respectively. The affection status of the one subject with impaired glucose tolerance was coded as unknown. Identification of mutations Each exon and minimal promoter region of the HNF l α gene of subjects 11-5 and III 1 were screened for mutations as described previously (Yamagata et ai, 1996; Kaisaki et ai, 1997). The mutation was confirmed by cloning the PCR product into pGEM-4Z and sequencing clones derived from both alleles. The presence of the mutation in other family members and unrelated nondiabetic subjects was tested by PCR amplification of the proximal promoter region and direct sequencing. 2. Results Linkage studies The NIDDM in the pedigree Italy- 1 has the clinical features of MODY including autosomal dominant inheritance and age at diagnosis < 25 γears in multiple family members (Fig. 21). The six affected members are treated with either insulin (individuals 11-1 , II 5 and III-9) or oral hypoglycemic agents (II-7, 111-1 and III-2). The three subjects on insulin therapy showed evidence of diabetic complications including retinopathy (11-1 and II-5) and nephropathy (III-9). One member of this pedigree, III- 6, has impaired glucose tolerance. The polymorphic markers D12S321, D12S76 and UC-39 which are closely linked to the HNF-1α gene (order: cen - D12S321 - D12S76 • HNF-1α - UC-39 - qter) were typed in this family. The haplotype 3-3-7 co-segregated with MODY with no obligate recombinants (Fig. 21). One subject with IGT (age, 18 years) also inherited this haplotype as did two unaffected young women, individuals tll-5 and 111-13, of 21 and 14 years of age, respectively. These three subjects may be at risk of developing diabetes in the future. The LOD score in this family was 1.28 at a recombination fraction of 0.00. Although this LOD score does not meet formal criteria for establishing linkage (ie. the LOD score is < 3.0), the p -value associated with the evidence for linkage is 0.008 which is sufficient to justify a search for mutations in the HNF-1α gene. Mutation screening. Two diabetic subjects, II-5 and III- 1 , were screened for mutations in the HNF-1α gene. No mutations were found on screening the mRNAfprotein coding regions, exons 1-10, although the subjects were heterozygous for several previously described polymorphisms (Yamagata et al., 1996). Since no mutations were found in the coding region of the HNF-1 α gene, the proximal promoter region was screened. This analysis revealed that both affected subjects were heterozygous for an k→Z substitution at nucleotide -58 which is located in a highly conserved region of the promoter of the HNF-1α gene that includes the binding site for HNF-4α (FIG. 22) (Tian and Schibler et ai, 1991; Kuo et al., 1992). Since this mutation does not lead to gain or loss of a site for a restriction endonuclease, it was tested for by PCR amplification and direct sequencing. The A→C substitution at nucleotide -58 co-segregated with the at-risk haplotype in the Italy- 1 pedigree (FIG. 21) and was not present in a sample of 50 unrelated white subjects implying that it is the mutation responsible for MODY in this family. EXAMPLE 8 Mutation in HNF- 1 β associated with MODY HNF-lα and HNF-4α are members of a complex transcriptional regulatory network which includes other homeodomain proteins and nuclear receptors as well as members of the forkhead/winged helix and leucine zipper CCAAT/enhancer binding protein families (Cereghini, 1996). The inventors have screened two other members of this network, HNF-1β (Mendel et ai, 1991a; De Simone et al., 1991; Rey-Campos et ai, 1991; Bach and Yaniv, 1993) and the bifunctional protein dimerization cofactor of HNF-1 (DCoH)/pterin-4 -carbinolamine dehydratase (PCBD) (Mendel et ai, 1991b; Citron et ai. 1 92) for mutations in Japanese subjects with MODY. No diabetes-associated mutations were found in DCoH. However, the inventors found one subject with a nonsense mutation, R177X, in HΛIF-lp which co segregated with early-onset diabetes. The identification of mutations in three members of the HNF-family of transcription factors indicates the importance of this regulatory network in the maintenance of glucose homeostasis. 1. Methods Study population. The study population consisted of 57 unrelated Japanese subjects attending the Diabetes Clinic of Tokyo Women's Medical College who were diagnosed with NIDDM before 25 years of age and/or who were members of families in which NIDDM was present in three or more generations: age at diagnosis, 20.1 ± 7.5 years (mean ± SE); male/female, 31/26; and treatment, insulin - 36, oral hypoglycemic agents - 10, and diet - 11. These subjects had been screened for mutations in the HNF-1/M0DY3 gene and all were negative for mutations in this gene (Lazzaro et αl., 1992). Thirty-two of the subjects met strict criteria for a diagnosis of MODY (i.e., NIDDM in at Ieast three generations with autosomal dominant transmission and diagnosis before 25 years of age in at Ieast one affected subject). NIDDM was diagnosed using the criteria of the World Health Organization (Bennett, 1994). At the time of recruitment, informed consent was obtained from each subject and a blood sample was taken for DNA isolation. Fifty-three unrelated nondiabetic Japanese subjects were tested for each nucleotide substitution and mutation to determine if the sequence change was a polymorphism or disease-associated mutation. Pedigree J2-20. The proband (subject 111-2, FIG. 25) presented with glucosuria at 10 years of age and was 5 hospitalized. She was diagnosed with diabetes and treated with insulin for two days and then with diet only for two years. At 12 years of age, she resumed insulin therapy (28 U/day). She came to clinical attention again at 21 years because of a pyelonephritis and poorly controlled diabetes. At 23 years of age, she was admitted to the hospital of Tokyo Women's Medical College because of blurred vision. Her urine C-peptide levels at this time were 3.2 g/day (normal, 50 ± 25 g/day) indicating low insulin secretory 10 capacity. Despite persistent high blood glucose levels, she had no history of ketosis. The subject was diagnosed with NIDDM based on her clinical course. Subject 111-3 presented with general fatigue at 15 years of age. He had gained 15 kg during the previous three months and his weight at the time of presentation was 75 kg. He was diagnosed with diabetes and was treated first with insulin and then diet and exercise. He was well controlled when he maintained his weight at 60 kg. At 18 years of age, he I S had gained weight again and insulin treatment was initiated. His urinary C-peptide at this time was 57.5 g/day with fasting C-peptide and glucose levels of 2.4 ng/ml and 106 mg/dl, respectively. There was no history of ketosis and he was diagnosed with NIDDM. He presently shows diminished pancreatic-cell function with no increase in C-peptide levels following administration of glucagon. All individuals shown in FIG. 25 were invited to participate in this study but many declined to do so. 0 Isolation and partial sequence of human HNF- lb gene. The PAC clone 319P12 containing the human HNF-l β gene was isolated from a library (Genome Systems, St. Louis, MO) by screening PAC DNA pools using polymerase chain reaction (PCR™) and the primers vHNFPI (5 -CCTCATGGAGAAACATCCTAAGT-3') (SEQ ID N0.124) and vHNFP2 (5 -AGGGAGTGCACGGCTGAGCTCCTG-3') (SEQ ID NO: 125). The sequences of the exons, flanking 5 introns and promoter region were determined by sequencing PCR™ products and appropriate restriction ® fragments cloned into pGEM -4Z (Promega, Madison, Wl) with an AmpliTaq FS Dye Terminator cycle sequencing kit (Perkin-Elmer, Norwalk, CT) and ABI Prism™ 377 DNA sequencer. Primers for PCR™ and sequencing were selected using the exon-intron organization of the human HNF-1α gene (Yamagata et αl., 1996a) as a guide since related genes often have similar exon-intron organizations. The partial sequence of the human HNF-lβ gene including promoter has been deposited in the GenBank database under accession numbers U90279-90287 and U96079. Mutation screening. The nine exons, flanking introns and minimal promoter region of the HNF-lβ gene were amplified using PCR™ and specific primers (Table 17) and the PCR™ products were sequenced from both ends as described above. PCR™ for exon 1 was carried out using ELONGASE Enzyme™ Mix (Life Technologies, Grand Island, NY) with denaturation at 94°C for 1 min followed by 35 cycles of denaturation at 94°C for 30 s, annealing at 55°C for 30 s and extension at 68°C for 1 min, and final extension at 68°C for 10 min. PCR™ for exons 2-9 was carried out using Taq DNA polymerase and 1.5 mM MgCI 2 with denaturation at 94°C for 5 min followed by 35 cycles of denaturation at 94°C for 30 s, annealing at 60°C for 30 s and extension at 72°C for 30 s, and final extension at 72°C for 10 min. The sequence of each mutation was confirmed by cloning the PCR™ product into pGEM -T Easy (Promega, Madison, Wl) and sequencing clones representing both alleles. Exons 2-4 of the DCoH gene were amplified using Taq DNA polymerase/ 1.5 mM MgCI 2 and specific primers (Table 16) and sequenced as described above. Exon 1 of the DCoH gene encoding the 5 ' untranslated region and the initiating Met was refractory to PCR™ amplification and therefore was not screened for mutations. The presence of a specific mutation or polymorphism in other individuals was determined by PCR-RFLP analysis if it resulted in the gain/loss of a site for a restriction endonuclease, or PCR™ and direct sequencing if there was no change in a site. Linkage studies. The human HNF-lβ (STS WI-7310) and DCoH genes were mapped and confirmed to YACs 969C9 (chromosome 17) (Schuler et αl., 1996) and 849H3 (chromosome 10), respectively. The adjacent polymorphic STSs D17S1788 and D10S1688 were tested for linkage with NIDDM in Japanese affected sib pairs (258 and 268 possible pairs, respectively). In the genome-wide screen of Mexican American affected sib pairs 23, the HNF-1β and DCoH genes are in the intervals D17S1293-D17S1299 and D 10S589-D 10S535, respectively (Schuler et αl., 1996). Transactivation studies of normal and mutant human HNF-1b . The construct pcDNA3.1-HNF-1β was prepared by cloning the type A human HNF-1β cDNA (nucleotides 195-2783 inclusive, GenBank Accession No. X58840; SEQ ID NO: 128) into pcDNA3.1 + (Invitrogen, Carlsbad, CA). The R177X mutation was introduced by site-directed mutagenesis (QuikChange™ mutagenesis kit; Stratagene, La Joila, CA) to generate pcDNA3.1 -HNF-1 β-R177X. The reporter gene construct pGL3-RA was prepared by cloning the promoter of the rat albumin gene, nucleotides -170 to +5 (Ringeisen et ai, 1993), into the firefly luciferase reporter vector pGL3-Basic (Promega, Madison, Wl). The sequences of all constructs were confirmed. HeLa cells were transfected for 5 hr using lipofectAMlNE™ (GIBCO BRL, Gaithersburg, MD) with 500 ng of pGL3-RA, 250 ng of pcDNA3.1 -HNF-1 β or pcDNA3.1-HNF-1β -R177X, and 25 ng of pRL-SV40 to control for efficiency of transfection. pcDNA3.1 + DNA was added to each transfection so that the final amount of DNA added was 2 g. After 24 h, the transactivation activity of the normal and mutant HNF-l β proteins was measured using the Dual-Luciferase™ Reporter Assay System (Promega, Madison, Wl). 2. Results The nine exons, flanking introns and minimal promoter region of the human HNF-1 β gene (TCF2) which encode all forms of HNF-1 β were screened for mutations in 57 unrelated Japanese subjects with MODY. This analysis revealed four nucleotide substitutions, a C T substitution in codon 177 (exon 2) in the proband from family J2-20 which generated a nonsense mutation CGA (Arg) TGA (OP) (R177X) (FIG. 24), an uncommon silent mutation in codon 463 (exon 7) for which one subject was homozygous, and two polymorphisms in intron 8 (Table 15), neither of which is predicted to affect RNA splicing. The nonsense mutation R177X was not found on screening 53 unrelated non diabetic Japanese subjects. One nondiabetic subject was heterozygous for the silent mutation in codon 463 (Table 15). Table 15 Mutations and DNA polymorphisms in human HNF-lβ and DCoH genes Location Nucleotide Frequency Site Codon Change Patients (n= 57) Controls A. HNF-lβ Exon 2 177 CGA(Arg)→TGA (OP) C-0.99; T-0.01 C-1.00; T-0.00 Exon 7 463 GCCfAla)→GCT(Ala) C-0.98; T-0.02 C-0.99; T-0.01 Intron 8 nt 48 Insertion C C 0.12 C O.17 Intron 8 nt -22 C→T C-0.71; T0.29 C-0.68; T-0.32 B. DCoH Exon 4 nt 9306 A→G A-0.82 A-0.80; G-0.20 DNA polymorphisms found in introns are noted relative to the splice donor or acceptor site, nt, nucleotide. In the HNF1-β gene the C→T substitution in codon 463 and the C-insertion polymorphism in intorn 8 nt 48, result in the gain of a Dde I site and loss of a Nae I, respectively. In the human DCoH gene (Genbank accession no. L41560, incorporated herein by reference), the nt 9306 is in the region encoding the 3 ' untranslated region of DcoH mRNA and is 36 nucleotides after the translation termination codon. Family J2-20 shows bilineal inheritance of diabetes (FIG. 25). The R177X mutation, which was maternally inherited, is associated with early-onset NIDDM, progression to insulin treatment and severe complications. The earlier age at diagnosis in the proband and her brother may be due to the inheritance of diabetes-susceptibility genes from both parents. The paternal diabetes gene which may potentiate the effect of the HNF-1β mutation is unknown but is not another known MODY gene as mutations were not found in the HNF-1α and HNF-4α and glucokinase genes of the proband (Iwasaki, et al, 1997; Furuta et al, 1997; Iwasaki et ai, 1995). The proband's older brother had been healthy until developing a common cold and died one week later of diabetic ketoacidosis. The proband's maternal grandparents, both of whom are deceased, were not known to have diabetes. However, she has a maternal uncle with mild diet-controlled NIDDM diagnosed at 60 years of age. The difference in phenotype between the proband's mother and maternal uncle and the absence of diabetes in the maternal grandparents suggest that the R177X mutation may represent a new mutation in the proband's mother. The father and two paternal uncles have late-onset NIDDM treated with oral hypoglycemic agents. The proband's paternal grandmother was reported to have had diabetes. The presence of MODY and late-onset NIDDM within the same family is not unusual and has been reported previously (Bell et ai, 1991). With respect to the presence of nephropathy in the subjects with the R177X mutation in HNF-l β , it is interesting to note that HNF-1β is expressed at highest levels in kidney (Mendel et ai, 1991a; De Simone et al , 1991 ; Rey-Campos et ai, 1991; Bach and Yaniv, 1993; Lazzaro et ai, 1992) and perhaps decreased levels of this transcription factor contribute to renal dysfunction. HNF-1β contains a bipartite DNA binding region consisting of a POU-like element and a homeodomain (Mendel et ai, 1991a; De Simone et ai, 1991; Rey-Campos et ai, 1991; Bach and Yaniv, 1993). The R177X mutation is located at the end of the POU-like domain and generates a protein of 176 amino acids having the NH 2 -dimerization and POU domains (Cereghini, 1996; Mendel et ai, 1991a; De Simone et ai, 1991; Rey-Campos et ai, 1991; Bach and Yaniv, 1993). This truncated protein cannot stimulate transcription of a rat albumin promoter-linked reporter gene and does not inhibit the activity of wild-type HNF-1β (Table 16). This suggests that the R177X mutation represents a loss of function mutation which results in decreased HNF-lβ levels and a corresponding reduction in expression of HNF-1β target genes. Table 16. Transactiviation activity of human HNF-1β and R177X mutation. Construct Normalized Activity (Firefly Luciferase| ?g/ /Y/a luciferase) pcDNA 3.1 3.5 ± 0.5 pc DNA 3.1-HNF-1 β 25.1 + 3.2 pc DNA 3.1- R177X 3.8 ± 1.0 pcDNA 3.1-HNF-ip + pcDNA 3.1-R177X 32.2 ± 2.8 The activity of each construct was meassured in triplicate and the mean ±SD is shown. These results are representative of at Ieast two independent experiments. Table 17. Seqences of PCR primers used for amplification and sequencing of human HNF-1 (TCF2) and DCoH (PCBD) genes Region Forward primer (5 '-3') Reverse primer (5 -3') Product size (bp) A. HNF-1 [TCF2) Promoter CATGAACCCCGAAGAGTGGTG (SEQ ID N0:90) GCCTCCAGACACCTGTTACT (SEQ ID N0.91) 423 Exon 1 -1 GGCGATCATGGCAAGTTAGAAG (SEQ ID N0.92) TTGGTGAGAGTATGGAAGACC (SEQ ID N0:93) 392 Exon 1 -2 GGGGTTTGCTTGTGAAACTCC (SEQ ID N0:94) TTGGTGGGAAACGGGCTTGG (SEQ ID N0:95) 536 Exon 2 CTCCCACTAGTACCCTAACC (SEQ ID N0:96) GAGAGGGCAAAGGTCACTTCAG (SEQ ID N0:97) 291 Exon 3 AGTGAAGGCTACAGACCCTATC (SEQ ID N0:98) TTCCTGGGTCTGTGTACTTGC (SEQ ID N0:99) 365 Exon 4-1 TGTGTTTTGGGCCAAGCACCA (SEQ ID N0:100) AACCAGATAAGATCCGTGGC (SEQ ID N0:101) 381 Exon 4-2 AACCAGACTCACAGCCTGAACC (SEQ ID N0:102) TCACAGGGCAATGGCTGAAC (SEQ ID N0:103) 293 Exon 5 TGCCGAGTCATTGTTCCAGG (SEQ ID N0:104) CCTCTTATCTTATCAGCTCCAG (SEQ ID N0:105) 276 Exon 6 CTGCTCTTTGTGGTCCAAGTCC (SEQ ID N0.106) GAGTTTGAAGGAGACCTACAG (SEQ ID N0:107) 288 Exon 7 ATCCACCTCTCCTTATCCCAG (SEQ ID N0:108) ACTTCCGAGAAAGTTCAGACC (SEQ ID N0:109) 340 Exon 8 TTTGCCTGTGTATGCACCTTG (SEQ ID N0:1 10) GCCGAGTCCATGCTTGCCAC (SEQ ID N0:11 1) 257 Exon 9 CTTTGCTGGTTGAGTTGGGC (SEQ ID N0:112) TTCCATGACAGCTGCCCAGAG (SEQ ID N0:1 13) 208 B. DCoH [PCBD] Exon 2 TAAAGGTTGGAGCCCCTCTG (SEQ ID N0:1 14) TTGTAAGGTGACCCCATCAG (SEQ ID N0:1 15) 264 Exon 3 TTGGTGATGTCCAGAAGTCC (SEQ ID N0:1 16) CAGAATGTGTCAGAGTTCGC (SEQ ID N0:117) 213 Exon 4 CTCCCTCCTGTTCTTAAGTG (SEQ ID N0:1 18) CTGGACTCCCAGTTCAGTCA (SEQ ID N0:1 19) 205 Human DCoH is a protein of 104 amino acids (including the initiating methionine) (Thony et ai. 1995). Exons 2-4 which encode amino acids 2-104 were screened for mutations in the 57 unrelated Japanese subjects with MODY described above. The sequences were identical to one another except for an A 6 polymorphism located in the 3 ' untranslated region (Table 15), the frequency of which was not different between MODY and nondiabetic subjects. Thus, mutations in DCoH do not appear to contribute to the development of MODY in Japanese. The frequency of HNF-1 β mutations in the inventors' study population of Japanese subjects with MODY is 2% (1/57) which is the same as for mutations in HNF-4α (Furuta et al, 1997) whereas the frequency of HNF-1α mutations is about 8% (Iwasaki, et al, 1997) (the frequency of glucokinase mutations in this sample is unknown). However, genetic variation in HNF-l β or DCoH is unlikely to be a major factor contributing to the more common late-onset NIDDM as there is no evidence for linkage of markers adjacent to these genes with diabetes in Japanese or Mexican American affected sib pairs (Hanis <?t α/., 1996). The association of a mutation in HNF-l β with diabetes indicates the importance of the HNF- regulatory network in determining pancreatic-cell function. Moreover, HNF-l α is not able to compensate for the reduction in HNF-1 β activitγ implying that the primary target genes for these transcription factors in pancreatic β-cells are different. The identification of these target genes will provide a better understanding of the molecular mechanisms that determine normal-cell function and maγ lead to new approaches for treating diabetes. EXAMPLE 9 Elucidation of the Genes Responsible for Additional MODY Disease States The inventors have identified that various MODY-type diabetes disease states are caused by mutations in various HNF proteins in the diseased individuals. However, the inventors are also aware of families that exhibit classic "MODY" disease states that are not caused by mutations in HNFIα, HNFI β, or HNF4α. Therefore, one aspect of this invention is to continue to screen the genetic complement of these families to determine the genes that cause these additional MODY disease states. Such screening can be done in the manner successfully used by the inventors to screen for the causes of MODYl , M0DY2, and MODY 3. One of ordinary skill will be able and motivated in view of the teachings of this application, to work towards elucidating genes that, when mutated, cause additional MODY disease states. Once such genes are elucidated, all aspects diagnostic, treatment, and other aspects of the invention will be realizable by those of skill in the art for those additional MODY causations. In order to achieve these aspects of the invention, one will simply have to modify procedures and protocols taught in this specification to be appropriate to the specific gene determined to cause a MODY disease state. * All of the compositions and/or methods disclosed and claimed herein can be made and executed without undue experimentation in light of the present disclosure. While the compositions and methods of this invention have been described in terms of preferred embodiments, it will be apparent to those of skill in the art that variations may be applied to the compositions and/or methods and in the steps or in the sequence of steps of the method described herein without departing from the concept, spirit and scope of the invention. More specifically, it will be apparent that certain agents which are both chemically and physiologically related may be substituted for the agents described herein while the same or similar results would be achieved. All such similar substitutes and modifications apparent to those skilled in the art are deemed to be within the spirit, scope and concept of the invention as defined by the appended claims. REFERENCES The following references, to the extent that they provide exemplary procedural or other details supplementary to those set forth herein, are specifically incorporated herein bγ reference. 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Kaisaki (B STREET: Unknown (C CITY: Chicago (D STATE: IL (E COUNTRY: USA (F POSTAL CODE (ZIP) : Unknown (A NAME: Hiroto Furuta (B STREET.- Unknown (C CITY: Chicago (D STATE : IL (E COUNTRY: USA (F POSTAL CODE (ZIP) : Unknown (A NAME: Stephen Menzel (B STREET : Unknown (C CITY: Chicago (D STATE : IL (E COUNTRY: USA (F) POSTAL CODE (ZIP) : Unknown (ii) TITLE OF INVENTION: MUTATIONS IN THE DIABETES SUSCEPTIBILITY GENES HEPATOCYTE NUCLEAR FACTOR (HNF) 1 ALPHA, HNF-1BETA and HNF-4ALPHA (iii) NUMBER OF SEQUENCES: 147 (iv) COMPUTER READABLE FORM: (A) MEDIUM TYPE: Floppy disk (B) COMPUTER: IBM PC compatible (C) OPERATING SYSTEM: PC-DOS/MS-DOS (D) SOFTWARE: Patentin Release #1.0, Version #1.30 (EPO) (vi) PRIOR APPLICATION DATA: (A) APPLICATION NUMBER: US Unknown (B) FILING DATE: 09-SEP-1996 (vi) PRIOR APPLICATION DATA: (A) APPLICATION NUMBER: US 60/029,679 (B) FILING DATE: 30-OCT-1996 (vi) PRIOR APPLICATION DATA: (A) APPLICATION NUMBER: US 60/028,056 (B) FILING DATE: 02-OCT-1996 (vi) PRIOR APPLICATION DATA: (A) APPLICATION NUMBER: US 60/025,719 (B) FILING DATE: 10-SEP-1996 (2) INFORMATION FOR SEQ ID NO : 1: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 3238 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ix) FEATURE: (A) NAME/KEY: modified_base (B) LOCATION: 988 (D) OTHER INFORMATION: /mod_base= OTHER /note= "N = A, C, G, or T" (ix) FEATURE: (A) NAME/KEY: CDS (B) LOCATION: join (24..986, 990..1916) (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 1: CGTGGCCCTG TGGCAGCCGA GCC ATG GTT TCT AAA CTG AGC CAG CTG CAG 50 Met Val Ser Lys Leu Ser Gin Leu Gin 1 5 ACG GAG CTC CTG GCG GCC CTG CTC GAG TCA GGG CTG AGC AAA GAG GCA 98 Thr Glu Leu Leu Ala Ala Leu Leu Glu Ser Gly Leu Ser Lys Glu Ala 10 15 20 25 CTG ATC CAG GCA CTG GGT GAG CCG GGG CCC TAC CTC CTG GCT GGA GAA 146 Leu He Gin Ala Leu Gly Glu Pro Gly Pro Tyr Leu Leu Ala Gly Glu 30 35 40 GGC CCC CTG GAC AAG GGG GAG TCC TGC GGC GGC GGT CGA GGG GAG CTG 194 Gly Pro Leu Asp Lys Gly Glu Ser Cys Gly Gly Gly Arg Gly Glu Leu 45 50 55 GCT GAG CTG CCC AAT GGG CTG GGG GAG ACT CGG GGC TCC GAG GAC GAG 242 Ala Glu Leu Pro Asn Gly Leu Gly Glu Thr Arg Gly Ser Glu Asp Glu 60 65 70 ACG GAC GAC GAT GGG GAA GAC TTC ACG CCA CCC ATC CTC AAA GAG CTG 290 Thr Asp Asp Asp Gly Glu Asp Phe Thr Pro Pro He Leu Lys Glu Leu 75 80 85 GAG AAC CTC AGC CCT GAG GAG GCG GCC CAC CAG AAA GCC GTG GTG GAG 338 Glu Asn Leu Ser Pro Glu Glu Ala Ala His Gin Lys Ala Val Val Glu 90 95 100 105 ACC CTT CTG CAG GAG GAC CCG TGG CGT GTG GCG AAG ATG GTC AAG TCC 386 Thr Leu Leu Gin Glu Asp Pro Trp Arg Val Ala Lys Met Val Lys Ser 110 115 120 TAC CTG CAG CAG CAC AAC ATC CCA CAG CGG GAG GTG GTC GAT ACC ACT 434 Tyr Leu Gin Gin His Asn He Pro Gin Arg Glu Val Val Asp Thr Thr 125 130 135 GGC CTC AAC CAG TCC CAC CTG TCC CAA CAC CTC AAC AAG GGC ACT CCC 482 Gly Leu Asn Gin Ser His Leu Ser Gin His Leu Asn Lys Gly Thr Pro 140 145 150 ATG AAG ACG CAG AAG CGG GCC GCC CTG TAC ACC TGG TAC GTC CGC AAG 530 Met Lys Thr Gin Lys Arg Ala Ala Leu Tyr Thr Trp Tyr Val Arg Lys 155 160 165 CAG CGA GAG GTG GCG CAG CAG TTC ACC CAT GCA GGG CAG GGA GGG CTG 578 Gin Arg Glu Val Ala Gin Gin Phe Thr His Ala Gly Gin Gly Gly Leu 170 175 180 185 ATT GAA GAG CCC ACA GGT GAT GAG CTA CCA ACC AAG AAG GGG CGG AGG 626 He Glu Glu Pro Thr Gly Asp Glu Leu Pro Thr Lys Lys Gly Arg Arg 190 195 200 AAC CGT TTC AAG TGG GGC CCA GCA TCC CAG CAG ATC CTG TTC CAG GCC 674 Asn Arg Phe Lys Trp Gly Pro Ala Ser Gin Gin He Leu Phe Gin Ala 205 210 215 TAT GAG AGG CAG AAG AAC CCT AGC AAG GAG GAG CGA GAG ACG CTA GTG 722 Tyr Glu Arg Gin Lys Asn Pro Ser Lys Glu Glu Arg Glu Thr Leu Val 220 225 230 GAG GAG TGC AAT AGG GCG GAA TGC ATC CAG AGA GGG GTG TCC CCA TCA 770 Glu Glu Cys Asn Arg Ala Glu Cys He Gin Arg Gly Val Ser Pro Ser 235 240 245 CAG GCA CAG GGG CTG GGC TCC AAC CTC GTC ACG GAG GTG CGT GTC TAC 818 Gin Ala Gin Gly Leu Gly Ser Asn Leu Val Thr Glu Val Arg Val Tyr 250 255 260 265 AAC TGG TTT GCC AAC CGG CGC AAA GAA GAA GCC TTC CGG CAC AAG CTG 866 Asn Trp Phe Ala Asn Arg Arg Lys Glu Glu Ala Phe Arg His Lys Leu 270 275 280 GCC ATG GAC ACG TAC AGC GGG CCC CCC CCA GGG CCA GGC CCG GGA CCT 914 Ala Met Asp Thr Tyr Ser Gly Pro Pro Pro Gly Pro Gly Pro Gly Pro 285 290 295 GCG CTG CCC GCT CAC AGC TCC CCT GGC CTG CCT CCA CCT GCC CTC TCC 962 Ala Leu Pro Ala His Ser Ser Pro Gly Leu Pro Pro Pro Ala Leu Ser 300 305 310 CCC AGT AAG GTC CAC GGT GTG CGC TNT GGA CAG CCT GCG ACC AGT GAG 1010 Pro Ser Lys Val His Gly Val Arg Gly Gin Pro Ala Thr Ser Glu 315 320 325 ACT GCA GAA GTA CCC TCA AGC AGC GGC GGT CCC TTA GTG ACA GTG TCT 1058 Thr Ala Glu Val Pro Ser Ser Ser Gly Gly Pro Leu Val Thr Val Ser 330 335 340 ACA CCC CTC CAC CAA GTG TCC CCC ACG GGC CTG GAG CCC AGC CAC AGC 1106 Thr Pro Leu His Gin Val Ser Pro Thr Gly Leu Glu Pro Ser His Ser 345 350 355 360 CTG CTG AGT ACA GAA GCC AAG CTG GTC TCA GCA GCT GGG GGC CCC CTC 1154 Leu Leu Ser Thr Glu Ala Lys Leu Val Ser Ala Ala Gly Gly Pro Leu 365 370 375 CCC CCT GTC AGC ACC CTG ACA GCA CTG CAC AGC TTG GAG CAG ACA TCC 1202 Pro Pro Val Ser Thr Leu Thr Ala Leu His Ser Leu Glu Gin Thr Ser 380 385 390 CCA GGC CTC AAC CAG CAG CCC CAG AAC CTC ATC ATG GCC TCA CTT CCT 1250 Pro Gly Leu Asn Gin Gin Pro Gin Asn Leu He Met Ala Ser Leu Pro 395 400 405 GGG GTC ATG ACC ATC GGG CCT GGT GAG CCT GCC TCC CTG GGT CCT ACG 1298 Gly Val Met Thr He Gly Pro Gly Glu Pro Ala Ser Leu Gly Pro Thr 410 415 420 TTC ACC AAC ACA GGT GCC TCC ACC CTG GTC ATC GGC CTG GCC TCC ACG 1346 Phe Thr Asn Thr Gly Ala Ser Thr Leu Val He Gly Leu Ala Ser Thr 425 430 435 440 CAG GCA CAG AGT GTG CCG GTC ATC AAC AGC ATG GGC AGC AGC CTG ACC 1394 Gin Ala Gin Ser Val Pro Val He Asn Ser Met Gly Ser Ser Leu Thr 445 450 455 ACC CTG CAG CCC GTC CAG TTC TCC CAG CCG CTG CAC CCC TCC TAC CAG 1442 Thr Leu Gin Pro Val Gin Phe Ser Gin Pro Leu His Pro Ser Tyr Gin 460 465 470 CAG CCG CTC ATG CCA CCT GTG CAG AGC CAT GTG ACC CAG AGC CCC TTC 1490 Gin Pro Leu Met Pro Pro Val Gin Ser His Val Thr Gin Ser Pro Phe 475 480 485 ATG GCC ACC ATG GCT CAG CTG CAG AGC CCC CAC GCC CTC TAC AGC CAC 1538 Met Ala Thr Met Ala Gin Leu Gin Ser Pro His Ala Leu Tyr Ser His 490 495 500 AAG CCC GAG GTG GCC CAG TAC ACC CAC ACG GGC CTG CTC CCG CAG ACT 1586 Lys Pro Glu Val Ala Gin Tyr Thr His Thr Gly Leu Leu Pro Gin Thr 505 510 515 520 ATG CTC ATC ACC GAC ACC ACC AAC CTG AGC GCC CTG GCC AGC CTC ACG 1634 Met Leu He Thr Asp Thr Thr Asn Leu Ser Ala Leu Ala Ser Leu Thr 525 530 535 CCC ACC AAG CAG GTC TTC ACC TCA GAC ACT GAG GCC TCC AGT GAG TCC 1682 Pro Thr Lys Gin Val Phe Thr Ser Asp Thr Glu Ala Ser Ser Glu Ser 540 545 550 GGG CTT CAC ACG CCG GCA TCT CAG GCC ACC ACC CTC CAC GTC CCC AGC 1730 Gly Leu His Thr Pro Ala Ser Gin Ala Thr Thr Leu His Val Pro Ser 555 560 565 CAG GAC CCT GCC GGC ATC CAG CAC CTG CAG CCG GCC CAC CGG CTC AGC 1778 Gin Asp Pro Ala Gly He Gin His Leu Gin Pro Ala His Arg Leu Ser 570 575 580 GCC AGC CCC ACA GTG TCC TCC AGC AGC CTG GTG CTG TAC CAG AGC TCA 1826 Ala Ser Pro Thr Val Ser Ser Ser Ser Leu Val Leu Tyr Gin Ser Ser 585 590 595 600 GAC TCC AGC AAT GGC CAG AGC CAC CTG CTG CCA TCC AAC CAC AGC GTC 1874 Asp Ser Ser Asn Gly Gin Ser His Leu Leu Pro Ser Asn His Ser Val 605 610 615 ATC GAG ACC TTC ATC TCC ACC CAG ATG GCC TCT TCC TCC CAG 1916 He Glu Thr Phe He Ser Thr Gin Met Ala Ser Ser Ser Gin 620 625 630 TAACCACGGC ACCTGGGCCC TGGGGCCTGT ACTGCCTGCT TGGGGGGTGA TGAGGGCAGC 1976 AGCCAGCCCT GCCTGGAGGA CCTGAGCCTG CCGAGCAACC GTGGCCCTTC CTGGACAGCT 2036 GTGCCTCGCT CCCCACTCTG CTCTGATGCA TCAGAAAGGG AGGGCTCTGA GGCGCCCCAA 2096 CCCGTGGAGG CTGCTCGGGG TGCACAGGAG GGGGTCGTGG AGAGCTAGGA GCAAAGCCTG 2156 TTCATGGCAG ATGTAGGAGG GACTGTCGCT GCTTCGTGGG ATACAGTCTT CTTACTTGGA 2216 ACTGAAGGGG GCGGCCTATG ACTTGGGCAC CCCCAGCCTG GGCCTATGGA GAGCCCTGGG 2276 ACCGCTACAC CACTCTGGCA GCCACACTTC TCAGGACACA GGCCTGTGTA GCTGTGACCT 2336 GCTGAGCTCT GAGAGGCCCT GGATCAGCGT GGCCTTGTTC TGTCACCAAT GTACCCACCG 2396 GGCCACTCCT TCCTGCCCCA ACTCCTTCCA GCTAGTGACC CACATGCCAT TTGTACTGAC 2456 CCCATCACCT ACTCACACAG GCATTVCCTG GGTGGCTACT CTGTGCCAGA GCCTGGGGCT 251υ CTAACTGCCT GAGCCCAGGG AGGCCGAAGC TAACAGGGAA GGCAGGCAGG GCTCTCCTGG 2576 TCTTCCCATC CCCAGCGATT CCCTCTCCCA GGCCCCATGA CCTCCAGCTT TCCTGTATTT 2636 CTTCCCAAGA GCATGATGCC TCTGAGGCCA GCCTGGCCTC CTGCCTCTAC TGGGAAGGCT 2696 ACTTCGGGGC TGGGAAGTCG TCCTTACTCC TGTGGGAGCC TCGCAACCCG TGCCAAGTCC 2756 AGGTCCTGGT GGGGCAGCTC CTCTGTCTCG AGCGCCCTGC AGACCCTGCC CTTGTTTGGG 2816 GCAGGAGTAG CTGAGCTCAC AAGGCAGCAA GGCCCGAGCA GCTGAGCAGG GCCGGGGAAC 2876 TGGCCAAGCT GAGGTGCCCA GGAGAAGAAA GAGGTGACCC CAGGGCACAG GAGCTACCTG 2936 TGTGGACAGG ACTAACACTC AGAAGCCTGG GTGCCTGGCT GGCTGAGGGC AGTTCGCAGC 2996 CACCCTGAGG AGTCTGAGGT CCTGAGCACT GCCAGGAGGG ACAAAGGAGC CTGTGAACCC 3056 AGGACAAGCA TGGTCCCACA TCCCTGGGCC TGCTGCTGAG AACCTGGCCT TCAGTGTACC 3116 GCGTCTACCC TGGGATTCAG GAAAAGGCCT GGGGTGACCC GGCACCCCCT GCAGCTTGTA 3176 GCCAGCCGGG GCGAGTGGCA CGTTTATTTA ACTTTTAGTA AAGTCAAGGA GAAATGCGGT 3236 GG 3238 (2) INFORMATION FOR SEQ ID NO: 2: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 630 amino acids (B) TYPE: amino acid (D) TOPOLOGY: linear (ii) MOLECULE TYPE: protein (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 2: Met Val Ser Lys Leu Ser Gin Leu Gin Thr Glu Leu Leu Ala Ala Leu 1 5 10 15 Leu Glu Ser Gly Leu Ser Lys Glu Ala Leu He Gin Ala Leu Gly Glu 20 25 30 Pro Gly Pro Tyr Leu Leu Ala Gly Glu Gly Pro Leu Asp Lys Gly Glu 35 40 45 Ser Cys Gly Gly Gly Arg Gly Glu Leu Ala Glu Leu Pro Asn Gly Leu 50 55 60 Gly Glu Thr Arg Gly Ser Glu Asp Glu Thr Asp Asp Asp Gly Glu Asp 65 70 75 80 Phe Thr Pro Pro He Leu Lys Glu Leu Glu Asn Leu Ser Pro Glu Glu 85 90 95 Ala Ala His Gin Lys Ala Val Val Glu Vhr Leu Leu Gin Glu Asp Pro 100 105 110 Trp Arg Val Ala Lys Met Val Lys Ser Tyr Leu Gin Gin His Asn He 115 120 125 Pro Gin Arg Glu Val Val Asp Thr Thr Gly Leu Asn Gin Ser His Leu 130 135 140 Ser Gin His Leu Asn Lys Gly Thr Pro Met Lys Thr Gin Lys Arg Ala 145 150 155 160 Ala Leu Tyr Thr Trp Tyr Val Arg Lys Gin Arg Glu Val Ala Gin Gin 165 170 175 Phe Thr His Ala Gly Gin Gly Gly Leu He Glu Glu Pro Thr Gly Asp 180 185 190 Glu Leu Pro Thr Lys Lys Gly Arg Arg Asn Arg Phe Lys Trp Gly Pro 195 200 205 Ala Ser Gin Gin He Leu Phe Gin Ala Tyr Glu Arg Gin Lys Asn Pro 210 215 220 Ser Lys Glu Glu Arg Glu Thr Leu Val Glu Glu Cys Asn Arg Ala Glu 225 230 235 240 Cys He Gin Arg Gly Val Ser Pro Ser Gin Ala Gin Gly Leu Gly Ser 245 250 255 Asn Leu Val Thr Glu Val Arg Val Tyr Asn Trp Phe Ala Asn Arg Arg 260 265 270 Lys Glu Glu Ala Phe Arg His Lys Leu Ala Met Asp Thr Tyr Ser Gly 275 280 285 Pro Pro Pro Gly Pro Gly Pro Gly Pro Ala Leu Pro Ala His Ser Ser 290 295 300 Pro Gly Leu Pro Pro Pro Ala Leu Ser Pro Ser Lys Val His Gly Val 305 310 315 320 Arg Gly Gin Pro Ala Thr Ser Glu Thr Ala Glu Val Pro Ser Ser Ser 325 330 335 Gly Gly Pro Leu Val Thr Val Ser Thr Pro Leu His Gin Val Ser Pro 340 345 350 Thr Gly Leu Glu Pro Ser His Ser Leu Leu Ser Thr Glu Ala Lys Leu 355 360 365 Val Ser Ala Ala Gly Gly Pro Leu Pro Pro Val Ser Thr Leu Thr Ala 370 375 380 Leu His Ser Leu Glu Gin Thr Ser Pro Gly Leu Asn Gin Gin Pro Gin 385 390 395 400 hsn Leu He Met Ala Ser Leu Pro Gly Val Met Thr He Gly Pro Gly 405 410 415 Glu Pro Ala Ser Leu Gly Pro Thr Phe Thr Asn Thr Gly Ala Ser Thr 420 425 430 Leu Val He Gly Leu Ala Ser Thr Gin Ala Gin Ser Val Pro Val He 435 440 445 Asn Ser Met Gly Ser Ser Leu Thr Thr Leu Gin Pro Val Gin Phe Ser 450 455 460 Gin Pro Leu His Pro Ser Tyr Gin Gin Pro Leu Met Pro Pro Val Gin 465 470 475 480 Ser His Val Thr Gin Ser Pro Phe Met Ala Thr Met Ala Gin Leu Gin 485 490 495 Ser Pro His Ala Leu Tyr Ser His Lys Pro Glu Val Ala Gin Tyr Thr 500 505 510 His Thr Gly Leu Leu Pro Gin Thr Met Leu He Thr Asp Thr Thr Asn 515 520 525 Leu Ser Ala Leu Ala Ser Leu Thr Pro Thr Lys Gin Val Phe Thr Ser 530 535 540 Asp Thr Glu Ala Ser Ser Glu Ser Gly Leu His Thr Pro Ala Ser Gin 545 550 555 560 Ala Thr Thr Leu His Val Pro Ser Gin Asp Pro Ala Gly He Gin His 565 570 575 Leu Gin Pro Ala His Arg Leu Ser Ala Ser Pro Thr Val Ser Ser Ser 580 585 590 Ser Leu Val Leu Tyr Gin Ser Ser Asp Ser Ser Asn Gly Gin Ser His 595 600 605 Leu Leu Pro Ser Asn His Ser Val He Glu Thr Phe He Ser Thr Gin 610 615 620 Met Ala Ser Ser Ser Gin 625 630 (2) INFORMATION FOR SEQ ID NO : 3: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 3238 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS. single (D) TOPOLOGY: linear ( x) FEATURE: (A) NAME/KEY: modified base (B) LOCATION : 988 (D) OTHER INFORMATIO : /mod_base= OTHER /note= "N = A, C , G , or T" ( ix) FEATURE : (A) NAME/KEY: CDS (B) LOCATION: join (24..986, 990..1916) (xi) SEQUENCE DESCRIPTION: SEQ ID NO : 3: CGTGGCCCTG TGGCAGCCGA GCC ATG GTT TCT AAA CTG AGC CAG CTG CAG 50 Met Val Ser Lys Leu Ser Gin Leu Gin 1 5 ACG GAG CTC CTG GCG GCC CTG CTC GAG TCA GGG CTG AGC AAA GAG GCA 98 Thr Glu Leu Leu Ala Ala Leu Leu Glu Ser Gly Leu Ser Lys Glu Ala 10 15 20 25 CTG ATC CAG GCA CTG GGT GAG CCG GGG CCC TAC CTC CTG GCT GGA GAA 146 Leu He Gin Ala Leu Gly Glu Pro Gly Pro Tyr Leu Leu Ala Gly Glu 30 35 40 GGC CCC CTG GAC AAG GGG GAG TCC TGC GGC GGC GGT CGA GGG GAG CTG 194 Gly Pro Leu Asp Lys Gly Glu Ser Cys Gly Gly Gly Arg Gly Glu Leu 45 50 55 GCT GAG CTG CCC AAT GGG CTG GGG GAG ACT CGG GGC TCC GAG GAC GAG 242 Ala Glu Leu Pro Asn Gly Leu Gly Glu Thr Arg Gly Ser Glu Asp Glu 60 65 70 ACG GAC GAC GAT GGG GAA GAC TTC ACG CCA CCC ATC CTC AAA GAG CTG 290 Thr Asp Asp Asp Gly Glu Asp Phe Thr Pro Pro He Leu Lys Glu Leu 75 80 85 GAG AAC CTC AGC CCT GAG GAG GCG GCC CAC CAG AAA GCC GTG GTG GAG 338 Glu Asn Leu Ser Pro Glu Glu Ala Ala His Gin Lys Ala Val Val Glu 90 95 100 105 ACC CTT CTG CAG GAG GAC CCG TGG CGT GTG GCG AAG ATG GTC AAG TCC 386 Thr Leu Leu Gin Glu Asp Pro Trp Arg Val Ala Lys Met Val Lys Ser 110 115 120 TAC CTG CAG CAG CAC AAC ATC CCA CAG CAG GAG GTG GTC GAT ACC ACT 434 Tyr Leu Gin Gin His Asn He Pro Gin Gin Glu Val Val Asp Thr Thr 125 130 135 GGC CTC AAC CAG TCC CAC CTG TCC CAA CAC CTC AAC AAG GGC ACT CCC 482 Gly Leu Asn Gin Ser His Leu Ser Gin His Leu Asn Lys Gly Thr Pro 140 145 150 ATG AAG ACG CAG AAG CGG GCC GCC CTG TAC ACC TGG TAC GTC CGC AAG 530 Met Lys Thr Gin Lys Arg Ala Ala Leu Tyr Thr Trp Tyr Val Arg Lys 155 160 165 CAG CGA GAG GTG GCG CAG CAG TTC ACC CAT GCA GGG CAG GGA GGG CTG 578 Gin Arg Glu Val Ala Gin Gin Phe Thr His Ala Gly Gin Gly Gly Leu 170 175 180 185 ATT GAA GAG CCC ACA GGT GAT GAG CTA CCA ACC AAG AAG GGG CGG AGG 626 He Glu Glu Pro Thr Gly Asp Glu Leu Pro Thr Lys Lys Gly Arg Arg 190 195 200 AAC CGT TTC AAG TGG GGC CCA GCA TCC CAG CAG ATC CTG TTC CAG GCC 674 Asn Arg Phe Lys Trp Gly Pro Ala Ser Gin Gin He Leu Phe Gin Ala 205 210 215 TAT GAG AGG CAG AAG AAC CCT AGC AAG GAG GAG CGA GAG ACG CTA GTG 722 Tyr Glu Arg Gin Lys Asn Pro Ser Lys Glu Glu Arg Glu Thr Leu Val 220 225 230 GAG GAG TGC AAT AGG GCG GAA TGC ATC CAG AGA GGG GTG TCC CCA TCA 770 Glu Glu Cys Asn Arg Ala Glu Cys He Gin Arg Gly Val Ser Pro Ser 235 240 245 CAG GCA CAG GGG CTG GGC TCC AAC CTC GTC ACG GAG GTG CGT GTC TAC 818 Gin Ala Gin Gly Leu Gly Ser Asn Leu Val Thr Glu Val Arg Val Tyr 250 255 260 265 AAC TGG TTT GCC AAC CGG CGC AAA GAA GAA GCC TTC CGG CAC AAG CTG 866 Asn Trp Phe Ala Asn Arg Arg Lys Glu Glu Ala Phe Arg His Lys Leu 270 275 280 GCC ATG GAC ACG TAC AGC GGG CCC CCC CCA GGG CCA GGC CCG GGA CCT 914 Ala Met Asp Thr Tyr Ser Gly Pro Pro Pro Gly Pro Gly Pro Gly Pro 285 290 295 GCG CTG CCC GCT CAC AGC TCC CCT GGC CTG CCT CCA CCT GCC CTC TCC 962 Ala Leu Pro Ala His Ser Ser Pro Gly Leu Pro Pro Pro Ala Leu Ser 300 305 310 CCC AGT AAG GTC CAC GGT GTG CGC TNT GGA CAG CCT GCG ACC AGT GAG 1010 Pro Ser Lys Val His Gly Val Arg Gly Gin Pro Ala Thr Ser Glu 315 320 325 ACT GCA GAA GTA CCC TCA AGC AGC GGC GGT CCC TTA GTG ACA GTG TCT 1058 Thr Ala Glu Val Pro Ser Ser Ser Gly Gly Pro Leu Val Thr Val Ser 330 335 340 ACA CCC CTC CAC CAA GTG TCC CCC ACG GGC CTG GAG CCC AGC CAC AGC 1106 Thr Pro Leu His Gin Val Ser Pro Thr Gly Leu Glu Pro Ser His Ser 345 350 355 360 CTG CTG AGT ACA GAA GCC AAG CTG GTC TCA GCA GCT GGG GGC CCC CTC 1154 Leu Leu Ser Thr Glu Ala Lys Leu Val Ser Ala Ala Gly Gly Pro Leu 365 370 375 CCC CCT GTC AGC ACC CTG ACA GCA CTG CAC AGC TTG GAG CAG ACA TCC 1202 Pro Pro Val Ser Thr Leu Thr Ala Leu His Ser Leu Glu Gin Thr Ser 380 385 390 CCA GGC CTC AAC CAG CAG CCC CAG AAC CTC ATC ATG GCC TCA CTT CCT 1250 Pro Gly Leu Asn Gin Gin Pro Gin Asn Leu He Met Ala Ser Leu Pro 395 400 405 GGG GTC ATG ACC ATC GGG CCT GGT GAG CCT GCC TCC CTG GGT CCT ACG 1298 Gly Val Met Thr He Gly Pro Gly Glu Pro Ala Ser Leu Gly Pro Thr 410 415 420 TTC ACC AAC ACA GGT GCC TCC ACC CTG GTC ATC GGC CTG GCC TCC ACG 1346 Phe Thr Asn Thr Gly Ala Ser Thr Leu Val He Gly Leu Ala Ser Thr 425 430 435 440 CAG GCA CAG AGT GTG CCG GTC ATC AAC AGC ATG GGC AGC AGC CTG ACC 1394 Gin Ala Gin Ser Val Pro Val He Asn Ser Met Gly Ser Ser Leu Thr 445 450 455 ACC CTG CAG CCC GTC CAG TTC TCC CAG CCG CTG CAC CCC TCC TAC CAG 1442 Thr Leu Gin Pro Val Gin Phe Ser Gin Pro Leu His Pro Ser Tyr Gin 460 465 470 CAG CCG CTC ATG CCA CCT GTG CAG AGC CAT GTG ACC CAG AGC CCC TTC 1490 Gin Pro Leu Met Pro Pro Val Gin Ser His Val Thr Gin Ser Pro Phe 475 480 485 ATG GCC ACC ATG GCT CAG CTG CAG AGC CCC CAC GCC CTC TAC AGC CAC 1538 Met Ala Thr Met Ala Gin Leu Gin Ser Pro His Ala Leu Tyr Ser His 490 495 500 AAG CCC GAG GTG GCC CAG TAC ACC CAC ACG GGC CTG CTC CCG CAG ACT 1586 Lys Pro Glu Val Ala Gin Tyr Thr His Thr Gly Leu Leu Pro Gin Thr 505 510 515 520 ATG CTC ATC ACC GAC ACC ACC AAC CTG AGC GCC CTG GCC AGC CTC ACG 1634 Met Leu He Thr Asp Thr Thr Asn Leu Ser Ala Leu Ala Ser Leu Thr 525 530 535 CCC ACC AAG CAG GTC TTC ACC TCA GAC ACT GAG GCC TCC AGT GAG TCC 1682 Pro Thr Lys Gin Val Phe Thr Ser Asp Thr Glu Ala Ser Ser Glu Ser 540 545 550 GGG CTT CAC ACG CCG GCA TCT CAG GCC ACC ACC CTC CAC GTC CCC AGC 1730 Gly Leu His Thr Pro Ala Ser Gin Ala Thr Thr Leu His Val Pro Ser 555 560 565 CAG GAC CCT GCC GGC ATC CAG CAC CTG CAG CCG GCC CAC CGG CTC AGC 1778 Gin Asp Pro Ala Gly He Gin His Leu Gin Pro Ala His Arg Leu Ser 570 575 580 GCC AGC CCC ACA GTG TCC TCC AGC AGC CTG GTG CTG TAC CAG AGC TCA 1826 Ala Ser Pro Thr Val Ser Ser Ser Ser Leu Val Leu Tyr Gin Ser Ser 585 590 595 600 GAC TCC AGC AAT GGC CAG AGC CAC CTG CTG CCA TCC AAC CAC AGC GTC 1874 Asp Ser Ser Asn Gly Gin Ser His Leu Leu Pro Ser Asn His Ser Val 605 610 615 ATC GAG ACC TTC ATC TCC ACC CAG ATG GCC TCT TCC TCC CAG 1916 He Glu Thr Phe He Ser Thr Gin Met Ala Ser Ser Ser Gin 620 625 630 TAACCACGGC ACCTGGGCCC TGGGGCCTGT ACTGCCTGCT TGGGGGGTGA TGAGGGCAGC 1976 AGCCAGCCCT GCCTGGAGGA CCTGAGCCTG CCGAGCAAvJC GTGGCCCTTC CTGGACAGCT 2036 GTGCCTCGCT CCCCACTCTG CTCTGATGCA TCAGAAAGGG AGGGCTCTGA GGCGCCCCAA 2096 CCCGTGGAGG CTGCTCGGGG TGCACAGGAG GGGGTCGTGG AGAGCTAGGA GCAAAGCCTG 2156 TTCATGGCAG ATGTAGGAGG GACTGTCGCT GCTTCGTGGG ATACAGTCTT CTTACTTGGA 2216 ACTGAAGGGG GCGGCCTATG ACTTGGGCAC CCCCAGCCTG GGCCTATGGA GAGCCCTGGG 2276 ACCGCTACAC CACTCTGGCA GCCACACTTC TCAGGACACA GGCCTGTGTA GCTGTGACCT 2336 GCTGAGCTCT GAGAGGCCCT GGATCAGCGT GGCCTTGTTC TGTCACCAAT GTACCCACCG 2396 GGCCACTCCT TCCTGCCCCA ACTCCTTCCA GCTAGTGACC CACATGCCAT TTGTACTGAC 2456 CCCATCACCT ACTCACACAG GCATTTCCTG GGTGGCTACT CTGTGCCAGA GCCTGGGGCT 2516 CTAACTGCCT GAGCCCAGGG AGGCCGAAGC TAACAGGGAA GGCAGGCAGG GCTCTCCTGG 2576 TCTTCCCATC CCCAGCGATT CCCTCTCCCA GGCCCCATGA CCTCCAGCTT TCCTGTATTT 2636 CTTCCCAAGA GCATGATGCC TCTGAGGCCA GCCTGGCCTC CTGCCTCTAC TGGGAAGGCT 2696 ACTTCGGGGC TGGGAAGTCG TCCTTACTCC TGTGGGAGCC TCGCAACCCG TGCCAAGTCC 2756 AGGTCCTGGT GGGGCAGCTC CTCTGTCTCG AGCGCCCTGC AGACCCTGCC CTTGTTTGGG 2816 GCAGGAGTAG CTGAGCTCAC AAGGCAGCAA GGCCCGAGCA GCTGAGCAGG GCCGGGGAAC 2876 TGGCCAAGCT GAGGTGCCCA GGAGAAGAAA GAGGTGACCC CAGGGCACAG GAGCTACCTG 2936 TGTGGACAGG ACTAACACTC AGAAGCCTGG GTGCCTGGCT GGCTGAGGGC AGTTCGCAGC 2996 CACCCTGAGG AGTCTGAGGT CCTGAGCACT GCCAGGAGGG ACAAAGGAGC CTGTGAACCC 3056 AGGACAAGCA TGGTCCCACA TCCCTGGGCC TGCTGCTGAG AACCTGGCCT TCAGTGTACC 3116 GCGTCTACCC TGGGATTCAG GAAAAGGCCT GGGGTGACCC GGCACCCCCT GCAGCTTGTA 3176 GCCAGCCGGG GCGAGTGGCA CGTTTATTTA ACTTTTAGTA AAGTCAAGGA GAAATGCGGT 3236 GG 3238 (2) INFORMATION FOR SEQ ID NO: 4: (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 630 amino acids (B) TYPE: amino acid (D) TOPOLOGY: linear (ii) MOLECULE TYPE: protein (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 4: Met Val Ser Lys Leu Ser Gin Leu Gin Thr Glu Leu Leu Ala Ala Leu 1 5 10 15 Leu Glu Ser Gly Leu Ser Lys Glu Ala Leu He Gin Ala Leu Gly Glu 20 25 30 Pro Gly Pro Tyr Leu Leu Ala Gly Glu Gly Pro Leu Asp Lys Gly Glu 35 40 45 Ser Cys Gly Gly Gly Arg Gly Glu Leu Ala Glu Leu Pro Asn Gly Leu 50 55 60 Gly Glu Thr Arg Gly Ser Glu Asp Glu Thr Asp Asp Asp Gly Glu Asp 65 70 75 80 Phe Thr Pro Pro He Leu Lys Glu Leu Glu Asn Leu Ser Pro Glu Glu 85 90 95 Ala Ala His Gin Lys Ala Val Val Glu Thr Leu Leu Gin Glu Asp Pro 100 105 110 Trp Arg Val Ala Lys Met Val Lys Ser Tyr Leu Gin Gin His Asn He 115 120 125 Pro Gin Gin Glu Val Val Asp Thr Thr Gly Leu Asn Gin Ser His Leu 130 135 140 Ser Gin His Leu Asn Lys Gly Thr Pro Met Lys Thr Gin Lys Arg Ala 145 150 155 160 Ala Leu Tyr Thr Trp Tyr Val Arg Lys Gin Arg Glu Val Ala Gin Gin 165 170 175 Phe Thr His Ala Gly Gin Gly Gly Leu He Glu Glu Pro Thr Gly Asp 180 185 190 Glu Leu Pro Thr Lys Lys Gly Arg Arg Asn Arg Phe Lys Trp Gly Pro 195 200 205 Ala Ser Gin Gin He Leu Phe Gin Ala Tyr Glu Arg Gin Lys Asn Pro 210 215 220 Ser Lys Glu Glu Arg Glu Thr Leu Val Glu Glu Cys Asn Arg Ala Glu 225 230 235 240 Cys He Gin Arg Gly Val Ser Pro Ser Gin Ala Gin Gly Leu Gly Ser 245 250 255 Asn Leu Val Thr Glu Val Arg Val Tyr Asn Trp Phe Ala Asn Arg Arg 260 265 270 Lys Glu Glu Ala Phe Arg His Lys Leu Ala Met Asp Thr Tyr Ser Gly 275 280 285 Pro Pro Pro Gly Pro Gly Pro Gly Pro Ala Leu Pro Ala His Ser Ser 290 295 300 Pro Gly Leu Pro Pro Pro Ala Leu Ser Pro Ser Lys Val His Gly Val 305 310 315 320 Arg Gly Gin Pro Ala Thr Ser Glu Thr Ala Glu Val Pro Ser Ser Ser 325 330 335 Gly Gly Pro Leu Val Thr Val Ser Thr Pro Leu His Gin Val Ser Pro 340 345 350 Thr Gly Leu Glu Pro Ser His Ser Leu Leu Ser Thr Glu Ala Lys Leu 355 360 365 Val Ser Ala Ala Gly Gly Pro Leu Pro Pro Val Ser Thr Leu Thr Ala 370 375 380 Leu His Ser Leu Glu Gin Thr Ser Pro Gly Leu Asn Gin Gin Pro Gin 385 390 395 400 Asn Leu He Met Ala Ser Leu Pro Gly Val Met Thr He Gly Pro Gly 405 410 415 Glu Pro Ala Ser Leu Gly Pro Thr Phe Thr Asn Thr Gly Ala Ser Thr 420 425 430 Leu Val He Gly Leu Ala Ser Thr Gin Ala Gin Ser Val Pro Val He 435 440 445 Asn Ser Met Gly Ser Ser Leu Thr Thr Leu Gin Pro Val Gin Phe Ser 450 455 460 Gin Pro Leu His Pro Ser Tyr Gin Gin Pro Leu Met Pro Pro Val Gin 465 470 475 480 Ser His Val Thr Gin Ser Pro Phe Met Ala Thr Met Ala Gin Leu Gin 485 490 495 Ser Pro His Ala Leu Tyr Ser His Lys Pro Glu Val Ala Gin Tyr Thr 500 505 510 His Thr Gly Leu Leu Pro Gin Thr Met Leu He Thr Asp Thr Thr Asn 515 520 525 Leu Ser Ala Leu Ala Ser Leu Thr Pro Thr Lys Gin Val Phe Thr Ser 530 535 540 Asp Thr Glu Ala Ser Ser Glu Ser Gly Leu His Thr Pro Ala Ser Gin 545 550 555 560 Ala Thr Thr Leu His Val Pro Ser Gin Asp Pro Ala Gly He Gin His 565 570 575 Leu Gin Pro Ala His Arg Leu Ser Ala Ser Pro Thr Val Ser Ser Ser 580 585 590 Ser Leu Val Leu Tyr Gin Ser Ser Asp Ser Ser Asn Gly Gin Ser His 595 600 605 Leu Leu Pro Ser Asn His Ser Val He Glu Thr Phe He Ser Thr Gin 610 615 620 Met Ala Ser Ser Ser Gin 625 630 ( 2 ) INFORMATION FOR SEQ ID NO : 5 : (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 3239 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ix) FEATURE: (A) NAME/KEY: modified base (B) LOCATION: 989 (D) OTHER INFORMATION : /mod_base= OTHER /note= "N = A, C, G, or T" (ix) FEATURE: (A) NAME/KEY: CDS (B) LOCATION: 24..965 (xi) SEQUENCE DESCRIPTION: SEQ ID NO : 5: CGTGGCCCTG TGGCAGCCGA GCC ATG GTT TCT AAA CTG AGC CAG CTG CAG 50 Met Val Ser Lys Leu Ser Gin Leu Gin 1 5 ACG GAG CTC CTG GCG GCC CTG CTC GAG TCA GGG CTG AGC AAA GAG GCA 98 Thr Glu Leu Leu Ala Ala Leu Leu Glu Ser Gly Leu Ser Lys Glu Ala 10 15 20 25 CTG ATC CAG GCA CTG GGT GAG CCG GGG CCC TAC CTC CTG GCT GGA GAA 146 Leu He Gin Ala Leu Gly Glu Pro Gly Pro Tyr Leu Leu Ala Gly Glu 30 35 40 GGC CCC CTG GAC AAG GGG GAG TCC TGC GGC GGC GGT CGA GGG GAG CTG 194 Gly Pro Leu Asp Lys Gly Glu Ser Cys Gly Gly Gly Arg Gly Glu Leu 45 50 55 GCT GAG CTG CCC AAT GGG CTG GGG GAG ACT CGG GGC TCC GAG GAC GAG 242 Ala Glu Leu Pro Asn Gly Leu Gly Glu Thr Arg Gly Ser Glu Asp Glu 60 65 70 ACG GAC GAC GAT GGG GAA GAC TTC ACG CCA CCC ATC CTC AAA GAG CTG 290 Thr Asp Asp Asp Gly Glu Asp Phe Thr Pro Pro He Leu Lys Glu Leu 75 80 85 GAG AAC CTC AGC CCT GAG GAG GCG GCC CAC CAG AAA GCC GTG GTG GAG 338 Glu Asn Leu Ser Pro Glu Glu Ala Ala His Gin Lys Ala Val Val Glu 90 95 100 105 ACC CTT CTG CAG GAG GAC CCG TGG CGT GTG GCG AAG ATG GTC AAG TCC 386 Thr Leu Leu Gin Glu Asp Pro Trp Arg Val Ala Lys Met Val Lys Ser 110 115 120 TAC CTG CAG CAG CAC AAC ATC CCA CAG CGG GAG GTG GTC GAT ACC ACT 434 Tyr Leu Gin Gin His Asn He Pro Gin Arg Glu Val Val Asp Thr Thr 125 130 135 GGC CTC AAC CAG TCC CAC CTG TCC CAA CAC CTC AAC AAG GGC ACT CCC 482 Gly Leu Asn Gin Ser His Leu Ser Gin His Leu Asn Lys Gly Thr Pro 140 145 150 ATG AAG ACG CAG AAG CGG GCC GCC CTG TAC ACC TGG TAC GTC CGC AAG 530 Met Lys Thr Gin Lys Arg Ala Ala Leu Tyr Thr Trp Tyr Val Arg Lys 155 160 165 CAG CGA GAG GTG GCG CAG CAG TTC ACC CAT GCA GGG CAG GGA GGG CTG 578 Gin Arg Glu Val Ala Gin Gin Phe Thr His Ala Gly Gin Gly Gly Leu 170 175 180 185 ATT GAA GAG CCC ACA GGT GAT GAG CTA CCA ACC AAG AAG GGG CGG AGG 626 He Glu Glu Pro Thr Gly Asp Glu Leu Pro Thr Lys Lys Gly Arg Arg 190 195 200 AAC CGT TTC AAG TGG GGC CCA GCA TCC CAG CAG ATC CTG TTC CAG GCC 674 Asn Arg Phe Lys Trp Gly Pro Ala Ser Gin Gin He Leu Phe Gin Ala 205 210 215 TAT GAG AGG CAG AAG AAC CCT AGC AAG GAG GAG CGA GAG ACG CTA GTG 722 Tyr Glu Arg Gin Lys Asn Pro Ser Lys Glu Glu Arg Glu Thr Leu Val 220 225 230 GAG GAG TGC AAT AGG GCG GAA TGC ATC CAG AGA GGG GTG TCC CCA TCA 770 Glu Glu Cys Asn Arg Ala Glu Cys He Gin Arg Gly Val Ser Pro Ser 235 240 245 CAG GCA CAG GGG CTG GGC TCC AAC CTC GTC ACG GAG GTG CGT GTC TAC 818 Gin Ala Gin Gly Leu Gly Ser Asn Leu Val Thr Glu Val Arg Val Tyr 250 255 260 265 AAC TGG TTT GCC AAC CGG CGC AAA GAA GAA GCC TTC CGG CAC AAG CTG 866 Asn Trp Phe Ala Asn Arg Arg Lys Glu Glu Ala Phe Arg His Lys Leu 270 275 280 GCC ATG GAC ACG TAC AGC GGG CCC CCC CCC AGG GCC AGG CCC GGG ACC 914 Ala Met Asp Thr Tyr Ser Gly Pro Pro Pro Arg Ala Arg Pro Gly Thr 285 290 295 TGC GCT GCC CGC TCA CAG CTC CCC TGG CCT GCC TCC ACC TGC CCT CTC 962 Cys Ala Ala Arg Ser Gin Leu Pro Trp Pro Ala Ser Thr Cys Pro Leu 300 305 310 CCC CAGTAAGGTC CACGGTGTGC GCTNTGGACA GCCTGCGACC AGTGAGACTG 1015 Pro CAGAAGTACC CTCAAGCAGC GGCGGTCCCT TAGTGACAGT GTCTACACCC CTCCACCAAG 1075 TGTCCCCCAC GGGCCTGGAG CCCAGCCACA GCCTGCTGAG TACAGAAGCC AAGCTGGTCT 1135 CAGCAGCTGG GGGCCCCCTC CCCCCTGTCA GCACCCTGAC AGCACTGCAC AGCTTGGAGC 1195 AGACATCCCC AGGCCTCAAC CAGCAGCCCC AGAACCTCAT CATGGCCTCA CTTCCTGGGG 1255 TCATGACCAT CGGGCCTGGT GAGCCTGCCT CCCTGGGTCC TACGTTCACC AACACAGGTG 1315 CCTCCACCCT GGTCATCGGC CTGGCCTCCA CGCAGGCACA GAGTGTGCCG GTCATCAACA 1375 GCATGGGCAG CAGCCTGACC ACCCTGCAGC CCGTCCAGTT CTCCCAGCCG CTGCACCCCT 1435 CCTACCAGCA GCCGCTCATG CCACCTGTGC AGAGCCATGT GACCCAGAGC CCCTTCATGG 1495 CCACCATGGC TCAGCTGCAG AGCCCCCACG CCCTCTACAG CCACAAGCCC GAGGTGGCCC 1555 AGTACACCCA CACGGGCCTG CTCCCGCAGA CTATGCTCAT CACCGACACC ACCAACCTGA 1615 GCGCCCTGGC CAGCCTCACG CCCACCAAGC AGGTCTTCAC CTCAGACACT GAGGCCTCCA 1675 GTGAGTCCGG GCTTCACACG CCGGCATCTC AGGCCACCAC CCTCCACGTC CCCAGCCAGG 1735 ACCCTGCCGG CATCCAGCAC CTGCAGCCGG CCCACCGGCT CAGCGCCAGC CCCACAGTGT 1795 CCTCCAGCAG CCTGGTGCTG TACCAGAGCT CAGACTCCAG CAATGGCCAG AGCCACCTGC 1855 TGCCATCCAA CCACAGCGTC ATCGAGACCT TCATCTCCAC CCAGATGGCC TCTTCCTCCC 1915 AGTAACCACG GCACCTGGGC CCTGGGGCCT GTACTGCCTG CTTGGGGGGT GATGAGGGCA 1975 GCAGCCAGCC CTGCCTGGAG GACCTGAGCC TGCCGAGCAA CCGTGGCCCT TCCTGGACAG 2035 CTGTGCCTCG CTCCCCACTC TGCTCTGATG CATCAGAAAG GGAGGGCTCT GAGGCGCCCC 2095 AACCCGTGGA GGCTGCTCGG GGTGCACAGG AGGGGGTCGT GGAGAGCTAG GAGCAAAGCC 2155 TGTTCATGGC AGATGTAGGA GGGACTGTCG CTGCTTCGTG GGATACAGTC TTCTTACTTG 2215 GAACTGAAGG GGGCGGCCTA TGACTTGGGC ACCCCCAGCC TGGGCCTATG GAGAGCCCTG 2275 GGACCGCTAC ACCACTCTGG CAGCCACACT TCTCAGGACA CAGGCCTGTG TAGCTGTGAC 2335 CTGCTGAGCT CTGAGAGGCC CTGGATCAGC GTGGCCTTGT TCTGTCACCA ATGTACCCAC 2395 CGGGCCACTC CTTCCTGCCC CAACTCCTTC CAGCTAGTGA CCCACATGCC ATTTGTACTG 2455 ACCCCATCAC CTACTCACAC AGGCATTTCC TGGGTGGCTA CTCTGTGCCA GAGCCTGGGG 2515 CTCTAACTGC CTGAGCCCAG GGAGGCCGAA GCTAACAGGG AAGGCAGGCA GGGCTCTCCT 2575 GGTCTTCCCA TCCCCAGCGA TTCCCTCTCC CAGGCCCCAT GACCTCCAGC TTTCCTGTAT 2635 TTCTTCCCAA GAGCATGATG CCTCTGAGGC CAGCCTGGCC TCCTGCCTCT ACTGGGAAGG 2695 CTACTTCGGG GCTGGGAAGT CGTCCTTACT CCTGTGGGAG CCTCGCAACC CGTGCCAAGT 2755 CCAGGTCCTG GTGGGGCAGC TCCTCTGTCT CGAGCGCCCT GCAGACCCTG CCCTTGTTTG 2815 GGGCAGGAGT AGCTGAGCTC ACAAGGCAGC AAGGCCCGAG CAGCTGAGCA GGGCCGGGGA 2875 ACTGGCCAAG CTG«GGTGCC CAGGAGAAGA AAGAGGTGAC CCCAGGGCAC AGGA CTACC 2935 TGTGTGGACA GGACTAACAC TCAGAAGCCT GGGTGCCTGG CTGGCTGAGG GCAGTTCGCA 2995 GCCACCCTGA GGAGTCTGAG GTCCTGAGCA CTGCCAGGAG GGACAAAGGA GCCTGTGAAC 3055 CCAGGACAAG CATGGTCCCA CATCCCTGGG CCTGCTGCTG AGAACCTGGC CTTCAGTGTA 3115 CCGCGTCTAC CCTGGGATTC AGGAAAAGGC CTGGGGTGAC CCGGCACCCC CTGCAGCTTG 3175 TAGCCAGCCG GGGCGAGTGG CACGTTTATT TAACTTTTAG TAAAGTCAAG GAGAAATGCG 3235 GTGA 3239 (2) INFORMATION FOR SEQ ID NO: 6: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 314 amino acids (B) TYPE: amino acid (D) TOPOLOGY: linear (ii) MOLECULE TYPE: protein (xi) SEQUENCE DESCRIPTION: SEQ ID NO : 6: Met Val Ser Lys Leu Ser Gin Leu Gin Thr Glu Leu Leu Ala Ala Leu 1 5 10 15 Leu Glu Ser Gly Leu Ser Lys Glu Ala Leu He Gin Ala Leu Gly Glu 20 25 30 Pro Gly Pro Tyr Leu Leu Ala Gly Glu Gly Pro Leu Asp Lys Gly Glu 35 40 45 Ser Cys Gly Gly Gly Arg Gly Glu Leu Ala Glu Leu Pro Asn Gly Leu 50 55 60 Gly Glu Thr Arg Gly Ser Glu Asp Glu Thr Asp Asp Asp Gly Glu Asp 65 70 75 80 Phe Thr Pro Pro He Leu Lys Glu Leu Glu Asn Leu Ser Pro Glu Glu 85 90 95 Ala Ala His Gin Lys Ala Val Val Glu Thr Leu Leu Gin Glu Asp Pro 100 105 110 Trp Arg Val Ala Lys Met Val Lys Ser Tyr Leu Gin Gin His Asn He 115 120 125 Pro Gin Arg Glu Val Val Asp Thr Thr Gly Leu Asn Gin Ser His Leu 130 135 140 Ser Gin His Leu Asn Lys Gly Thr Pro Met Lys Thr Gin Lys Arg Ala 145 150 155 160 Ala Leu Tyr Thr Trp Tyr Val Arg Lys Gin Arg Glu Val Ala Gin Gin 165 170 175 Phe Thr His Ala Gly Gin Gly Gly Leu He Glu Glu Pro Thr Gly Asp 180 185 190 Glu Leu Pro Thr Lys Lys Gly Arg Arg Asn Arg Phe Lys Trp Gly Pro 195 200 205 Ala Ser Gin Gin He Leu Phe Gin Ala Tyr Glu Arg Gin Lys Asn Pro 210 215 220 Ser Lys Glu Glu Arg Glu Thr Leu Val Glu Glu Cys Asn Arg Ala Glu 225 230 235 240 Cys He Gin Arg Gly Val Ser Pro Ser Gin Ala Gin Gly Leu Gly Ser 245 250 255 Asn Leu Val Thr Glu Val Arg Val Tyr Asn Trp Phe Ala Asn Arg Arg 260 265 270 Lys Glu Glu Ala Phe Arg His Lys Leu Ala Met Asp Thr Tyr Ser Gly 275 280 285 Pro Pro Pro Arg Ala Arg Pro Gly Thr Cys Ala Ala Arg Ser Gin Leu 290 295 300 Pro Trp Pro Ala Ser Thr Cys Pro Leu Pro 305 310 (2) INFORMATION FOR SEQ ID NO : 7: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 3236 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ix) FEATURE: (A) NAME/KEY: modified_base (B) LOCATION: 988 (D) OTHER INFORMATION: /mod_base= OTHER /note= "N = A, C, G, or T" (ix) FEATURE: (A) NAME/KEY: CDS (B) LOCATION: joi (24..986, 990..1271) (xi) SEQUENCE DESCRIPTION: SEQ ID NO : 7: CGTGGCCCTG TGGCAGCCGA GCC ATG GTT TCT AAA CTG AGC CAG CTG CAG 50 Met Val Ser Lys Leu Ser Gin Leu Gin 1 5 ACG GAG CTC CTG GCG GCC CTG CTC GAG TCA GGG CTG AGC AAA GAG GCA 98 Thr Glu Leu Leu Ala Ala Leu Leu Glu Ser Gly Leu Ser Lys Glu Ala 10 15 20 25 CTG ATC CAG GCA CTG GGT GAG CCG GGG CCC TAC CTC CTG GCT GGA GAA 146 Leu He Gin Ala Leu Gly Glu Pro Gly Pro Tyr Leu Leu Ala Gly Glu 30 35 40 GGC CCC CTG GAC AAG GGG GAG TCC TGC GGC GGC GGT CGA GGG GAG CTG 194 Gly Pro Leu Asp Lys Gly Glu Ser Cys Gly Gly Gly Arg Gly Glu Leu 45 50 55 GCT GAG CTG CCC AAT GGG CTG GGG GAG ACT CGG GGC TCC GAG GAC GAG 242 Ala Glu Leu Pro Asn Gly Leu Gly Glu Thr Arg Gly Ser Glu Asp Glu 60 65 70 ACG GAC GAC GAT GGG GAA GAC TTC ACG CCA CCC ATC CTC AAA GAG CTG 290 Thr Asp Asp Asp Gly Glu Asp Phe Thr Pro Pro He Leu Lys Glu Leu 75 80 85 GAG AAC CTC AGC CCT GAG GAG GCG GCC CAC CAG AAA GCC GTG GTG GAG 338 Glu Asn Leu Ser Pro Glu Glu Ala Ala His Gin Lys Ala Val Val Glu 90 95 100 105 ACC CTT CTG CAG GAG GAC CCG TGG CGT GTG GCG AAG ATG GTC AAG TCC 386 Thr Leu Leu Gin Glu Asp Pro Trp Arg Val Ala Lys Met Val Lys Ser 110 115 120 TAC CTG CAG CAG CAC AAC ATC CCA CAG CGG GAG GTG GTC GAT ACC ACT 434 Tyr Leu Gin Gin His Asn He Pro Gin Arg Glu Val Val Asp Thr Thr 125 130 135 GGC CTC AAC CAG TCC CAC CTG TCC CAA CAC CTC AAC AAG GGC ACT CCC 482 Gly Leu Asn Gin Ser His Leu Ser Gin His Leu Asn Lys Gly Thr Pro 140 145 150 ATG AAG ACG CAG AAG CGG GCC GCC CTG TAC ACC TGG TAC GTC CGC AAG 530 Met Lys Thr Gin Lys Arg Ala Ala Leu Tyr Thr Trp Tyr Val Arg Lys 155 160 165 CAG CGA GAG GTG GCG CAG CAG TTC ACC CAT GCA GGG CAG GGA GGG CTG 578 Gin Arg Glu Val Ala Gin Gin Phe Thr His Ala Gly Gin Gly Gly Leu 170 175 180 185 ATT GAA GAG CCC ACA GGT GAT GAG CTA CCA ACC AAG AAG GGG CGG AGG 626 He Glu Glu Pro Thr Gly Asp Glu Leu Pro Thr Lys Lys Gly Arg Arg 190 195 200 AAC CGT TTC AAG TGG GGC CCA GCA TCC CAG CAG ATC CTG TTC CAG GCC 674 Asn Arg Phe Lys Trp Gly Pro Ala Ser Gin Gin He Leu Phe Gin Ala 205 210 215 TAT GAG AGG CAG AAG AAC CCT AGC AAG GAG GAG CGA GAG ACG CTA GTG 722 Tyr Glu Arg Gin Lys Asn Pro Ser Lys Glu Glu Arg Glu Thr Leu Val 220 225 230 GAG GAG TGC AAT AGG GCG GAA TGC ATC CAG AGA GGG GTG TCC CCA TCA 770 Glu Glu Cys Asn Arg Ala Glu Cys He Gin Arg Gly Val Ser Pro Ser 235 240 245 CAG GCA CAG GGG CTG GGC TCC AAC CTC GTC ACG GAG GTG CGT GTC TAC 818 Gin Ala Gin Gly Leu Gly Ser Asn Leu Val Thr Glu Val Arg Val Tyr 250 255 260 265 AAC TGG TTT GCC AAC CGG CGC AAA GAA GAA GCC TTC CGG CAC AAG CTG 866 Asn Trp Phe Ala Asn Arg Arg Lys Glu Glu Ala Phe Arg His Lys Leu 270 275 280 GCC ATG GAC ACG TAC AGC GGG CCC CCC CCA GGG CCA GGC CCG GGA CCT 914 Ala Met Asp Thr Tyr Ser Gly Pro Pro Pro Gly Pro Gly Pro Gly Pro 285 290 295 GCG CTG CCC GCT CAC AGC TCC CCT GGC CTG CCT CCA CCT GCC CTC TCC 962 Ala Leu Pro Ala His Ser Ser Pro Gly Leu Pro Pro Pro Ala Leu Ser 300 305 310 CCC AGT AAG GTC CAC GGT GTG CGC TNT GGA CAG CCT GCG ACC AGT GAG 1010 Pro Ser Lys Val His Gly Val Arg Gly Gin Pro Ala Thr Ser Glu 315 320 325 ACT GCA GAA GTA CCC TCA AGC AGC GGC GGT CCC TTA GTG ACA GTG TCT 1058 Thr Ala Glu Val Pro Ser Ser Ser Gly Gly Pro Leu Val Thr Val Ser 330 335 340 ACA CCC CTC CAC CAA GTG TCC CCC ACG GGC CTG GAG CCC AGC CAC AGC 1106 Thr Pro Leu His Gin Val Ser Pro Thr Gly Leu Glu Pro Ser His Ser 345 350 355 360 CTG CTG AGT ACA GAA GCC AAG CTG GTC TCA GCA GCT GGG GGC CCC CTC 1154 Leu Leu Ser Thr Glu Ala Lys Leu Val Ser Ala Ala Gly Gly Pro Leu 365 370 375 CCC CGT CAG CAC CCT GAC AGC ACT GCA CAG CTT GGA GCA GAC ATC CCC 1202 Pro Arg Gin His Pro Asp Ser Thr Ala Gin Leu Gly Ala Asp He Pro 380 385 390 AGG CCT CAA CCA GCA GCC CCA GAA CCT CAT CAT GGC CTC ACT TCC TGG 1250 Arg Pro Gin Pro Ala Ala Pro Glu Pro His His Gly Leu Thr Ser Trp 395 400 405 GGT CAT GAC CAT CGG GCC TGG TGAGCCTGCC TCCCTGGGTC CTACGTTCAC 1301 Gly His Asp His Arg Ala Trp 410 415 CAACACAGGT GCCTCCACCC TGGTCATCGG CCTGGCCTCC ACGCAGGCAC AGAGTGTGCC 1361 GGTCATCAAC AGCATGGGCA GCAGCCTGAC CACCCTGCAG CCCGTCCAGT TCTCCCAGCC 1421 GCTGCACCCC TCCTACCAGC AGCCGCTCAT GCCACCTGTG CAGAGCCATG TGACCCAGAG 1481 CCCCTTCATG GCCACCATGG CTCAGCTGCA GAGCCCCCAC GCCCTCTACA GCCACAAGCC 1541 CGAGGTGGCC CAGTACACCC ACACGGGCCT GCTCCCGCAG ACTATGCTCA TCACCGACAC 1601 CACCAACCTG AGCGCCCTGG CCAGCCTCAC GCCCACCAAG CAGGTCTTCA CCTCAGACAC 1661 TGAGGCCTCC AGTGAGTCCG GGCTTCACAC GCCGGCATCT CAGGCCACCA CCCTCCACGT 1721 CCCCAGCCAG GACCCTGCCG GCATCCAGCA CCTGCAGCCG GCCCACCGGC TCAGCGCCAG 1781 CCCCACAGTG TCCTCCAGCA GCCTGGTGCT GTACCAGAGC TCAGACTCCA GCAATGGCCA 1841 GAGCCACCTG CTGCCATCCA ACCACAGCGT CATCGAGACC TTCATCTCCA CCCAGATGGC 1901 CTCTTCCTCC CAGTAACCAC GGCACCTGGG CCCTGGGGCC TGTACTGCCT GCTTGGGGGG 1961 TGATGAGGGC AGCAGCCAGC CCTGCCTGGA GGACCTGAGC CTGCCGAGCA ACCGTGGCCC 2021 TTCCTGGACA GCTGTGCCTC GCTCCCCACT CTGCTCTGAT GCATCAGAAA GGGAGGGCTC 2081 TGAGGCGCCC CAACCCGTGG AGGCTGCTCG GGGTGCACAG GAGGGGGTCG TGGAGAGCTA 2141 GGAGCAAAGC CTGTTCATGG CAGATGTAGG AGGGACTGTC GCTGCTTCGT GGGATACAGT 2201 CTTCTTACTT GGAACTGAAG GGGGCGGCCT ATGACTTGGG CACCCCCAGC CTGGGCCTAT 2261 GGAGAGCCCT GGGACCGCTA CACCACTCTG GCAGCCACAC TTCTCAGGAC ACAGGCCTGT 2321 GTAGCTGTGA CCTGCTGAGC TCTGAGAGGC CCTGGATCAG CGTGGCCTTG TTCTGTCACC 2381 AATGTACCCA CCGGGCCACT CCTTCCTGCC CCAACTCCTT CCAGCTAGTG ACCCACATGC 2441 CATTTGTACT GACCCCATCA CCTACTCACA CAGGCATTTC CTGGGTGGCT ACTCTGTGCC 2501 AGAGCCTGGG GCTCTAACTG CCTGAGCCCA GGGAGGCCGA AGCTAACAGG GAAGGCAGGC 2561 AGGGCTCTCC TGGTCTTCCC ATCCCCAGCG ATTCCCTCTC CCAGGCCCCA TGACCTCCAG 2621 CTTTCCTGTA TTTCTTCCCA AGAGCATGAT GCCTCTGAGG CCAGCCTGGC CTCCTGCCTC 2681 TACTGGGAAG GCTACTTCGG GGCTGGGAAG TCGTCCTTAC TCCTGTGGGA GCCTCGCAAC 2741 CCGTGCCAAG TCCAGGTCCT GGTGGGGCAG CTCCTCTGTC TCGAGCGCCC TGCAGACCCT 2801 GCCCTTGTTT GGGGCAGGAG TAGCTGAGCT CACAAGGCAG CAAGGCCCGA GCAGCTGAGC 2861 AGGGCCGGGG AACTGGCCAA GCTGAGGTGC CCAGGAGAAG AAAGAGGTGA CCCCAGGGCA 2921 CAGGAGCTAC CTGTGTGGAC AGGACTAACA CTCAGAAGCC TGGGTGCCTG GCTGGCTGAG 2981 GGCAGTTCGC AGCCACCCTG AGGAGTCTGA GGTCCTGAGC ACTGCCAGGA GGGACAAAGG 3041 AGCCTGTGAA CCCAGGACAA GCATGGTCCC ACATCCCTGG GCCTGCTGCT GAGAACCTGG 3101 CCTTCAGTGT ACCGCGTCTA CCCTGGGATT CAGGAAAAGG CCTGGGGTGA CCCGGCACCC 3161 CCTGCAGCTT GTAGCCAGCC GGGGCGAGTG GCACGTTTAT TTAACTTTTA GTAAAGTCAA 3221 GGAGAAATGC GGTGG 3236 (2) INFORMATION FOR SEQ ID NO : 8: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 415 amino acids (B) TYPE: amino acid (D) TOPOLOGY: linear (ii) MOLECULE TYPE: protein (xi) SEQUENCE DESCRIPTION: SEQ ID NO : 8: Met Val Ser Lys Leu Ser Gin Leu Gin Thr Glu Leu Leu Ala Ala Leu 1 5 10 15 Leu Glu Ser Gly Leu Ser Lys Glu Ala Leu He Gin Ala Leu Gly Glu 20 25 30 Pro Gly Pro Tyr Leu Leu Ala Gly Glu Gly Pro Leu Asp Lys Gly Glu 35 40 45 Ser Cys Gly Gly Gly Arg Gly Glu Leu Ala Glu Leu Pro Asn Gly Leu 50 55 60 Gly Glu Thr Arg Gly Ser Glu Asp Glu Thr Asp Asp Asp Gly Glu Asp 65 70 75 80 Phe Thr Pro Pro He Leu Lys Glu Leu Glu Asn Leu Ser Pro Glu Glu 85 90 95 Ala Ala His Gin Lys Ala Val Val Glu Thr Leu Leu Gin Glu Asp Pro 100 105 110 Trp Arg Val Ala Lys Met Val Lys Ser Tyr Leu Gin Gin His Asn He 115 120 125 Pro Gin Arg Glu Val Val Asp Thr Thr Gly Leu Asn Gin Ser His Leu 130 135 140 Ser Gin His Leu Asn Lys Gly Thr Pro Met Lys Thr Gin Lys Arg Ala 145 150 155 160 Ala Leu Tyr Thr Trp Tyr Val Arg Lys Gin Arg Glu Val Ala Gin Gin 165 170 175 Phe Thr His Ala Gly Gin Gly Gly Leu He Glu Glu Pro Thr Gly Asp 180 185 190 Glu Leu Pro Thr Lys Lys Gly Arg Arg Asn Arg Phe Lys Trp Gly Pro 195 200 205 Ala Ser Gin Gin He Leu Phe Gin Ala Tyr Glu Arg Gin Lys Asn Pro 210 215 220 Ser Lys Glu Glu Arg Glu Thr Leu Val Glu Glu Cys Asn Arg Ala Glu 225 230 235 240 Cys He Gin Arg Gly Val Ser Pro Ser Gin Ala Gin Gly Leu Gly Ser 245 250 255 Asn Leu Val Thr Glu Val Arg Val Tyr Asn Trp Phe Ala Asn Arg Arg 260 265 270 Lys Glu Glu Ala Phe Arg His Lys Leu Ala Met Asp Thr Tyr Ser Gly 275 280 285 Pro Pro Pro Gly Pro Gly Pro Gly Pro Ala Leu Pro Ala His Ser Ser 290 295 300 Pro Gly Leu Pro Pro Pro Ala Leu Ser Pro Ser Lys Val His Gly Val 305 310 315 320 Arg Gly Gin Pro Ala Thr Ser Glu Thr Ala Glu Val Pro Ser Ser Ser 325 330 335 Gly Gly Pro Leu Val Thr Val Ser Thr Pro Leu His Gin Val Ser Pro 340 345 350 Thr Gly Leu Glu Pro Ser His Ser Leu Leu Ser Thr Glu Ala Lys Leu 355 360 365 Val Ser Ala Ala Gly Gly Pro Leu Pro Arg Gin His Pro Asp Ser Thr 370 375 380 Ala Gin Leu Gly Ala Asp He Pro Arg Pro Gin Pro Ala Ala Pro Glu 385 390 395 400 Pro His His Gly Leu Thr Ser Trp Gly His Asp His Arg Ala Trp 405 410 415 (2) INFORMATION FOR SEQ ID NO : 9: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 13 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ix) FEATURE: (A) NAME/KEY: modified_base (B) LOCATION: 7 (D) OTHER INFORMATION :/mod_base= OTHER /note= "N = A, C, G, or T" (xi) SEQUENCE DESCRIPTION: SEQ ID NO : 9: GTTAATNATT ACC 13 (2) INFORMATION FOR SEQ ID NO: 10: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 23 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 10: TACACCACTC TGGCAGCCAC ACT 23 (2) INFORMATION FOR SEQ ID NO. 11 (l) SEQUENCE CHARACTERISTICS (A) LENGTH 24 base pairs (B) TYPE nucleic acid (C) STRANDEDNESS. single (D) TOPOLOGY linear ( l) SEQUENCE DESCRIPTION SEQ ID NO 11 CGGTGGGTAC ATTGGTGACA GAAC 24 (2) INFORMATION FOR SEQ ID NO 12 (l) SEQUENCE CHARACTERISTICS- (A) LENGTH 21 base pairs (B) TYPE nucleic acid (C) STRANDEDNESS. single (D) TOPOLOGY linear ( i ) SEQUENCE DESCRIPTION SEQ ID NO 12 GGCAGGCAAA CGCAACCCAC G 21 (2) INFORMATION FOR SEQ ID NO 13 (l) SEQUENCE CHARACTERISTICS (A) LENGTH: 21 base pairs (B) TYPE, nucleic acid (C) STRANDEDNESS: Single (D) TOPOLOGY: linear (Xl ) SEQUENCE DESCRIPTION: SEQ ID NO 13 GAAGGGGGGC TCGTTAGGAG C 21 (2) INFORMATION FOR SEQ ID NO 14. (l) SEQUENCE CHARACTERISTICS (A) LENGTH: 21 base pairs (B) TYPE nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY linear ( l) SEQUENCE DESCRIPTION: SEQ ID NO 14 CATGCACAGT CCCCACCCTC A 21 (2) INFORMATION FOR SEQ ID NO: 15 (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 21 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 15: CTTCCAGCCC CCACCTATGA G 21 (2) INFORMATION FOR SEQ ID NO: 16: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 21 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 16: GGGCAAGGTC AGGGGAATGG A 21 (2) INFORMATION FOR SEQ ID NO: 17: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 21 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 17: CAGCCCAGAC CAAACCAGCA C 21 (2) INFORMATION FOR SEQ ID NO: 18: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 21 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 18: CAGAACCCTC CCCTTCATGC C 21 (2) INFORMATION FOR SEQ ID NO: 19: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 21 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO : 19: GGTGACTGCT GTCAATGGGA C 21 (2) INFORMATION FOR SEQ ID NO: 20: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 21 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS : single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO : 20: GGCAGACAGG CAGATGGCCT A 21 (2) INFORMATION FOR SEQ ID NO: 21: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 21 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 21: GCCTCCCTAG GGACTGCTCC A 21 (2) INFORMATION FOR SEQ ID NO: 22: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 21 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 22: TGGAGCAGTC CCTAGGGAGG C 21 (2) INFORMATION FOR SEQ ID NO: 23: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 21 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 23: GTTGCCCCAT GAGCCTCCCA C 21 185 (2) INFORMATION FOR SEQ ID NO: 24: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 21 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 24: GGTCTTGGGC AGGGGTGGGA T 21 (2) INFORMATION FOR SEQ ID NO : 25: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 21 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO : 25: CTGCAATGCC TGCCAGGCAC C 21 (2) INFORMATION FOR SEQ ID NO: 26: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 21 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 26: 21 CCCCTGCATC CATTGACAGC C (2) INFORMATION FOR SEQ ID NO : 27: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 21 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO : 27 : GAGGCCTGGG ACTAGGGCTG T 21 (2) INFORMATION FOR SEQ ID NO : 28: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 21 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 28: CTCTGTCACA GGCCGAGGGA G 21 (2) INFORMATION FOR SEQ ID NO : 29: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 21 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO : 29: CCTGTGACAG AGCCCCTCAC C 21 (2) INFORMATION FOR SEQ ID NO: 30: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 21 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 30: CGGACAGCAA CAGAAGGGGT G 21 (2) INFORMATION FOR SEQ ID NO: 31: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 21 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 31: CAGAGCCCCT CACCCCCACA T 21 (2) INFORMATION FOR SEQ ID NO: 32: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 21 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION- SEQ ID NO 32 GTACCCCTAG GGACAGGCAG G 21 (2) INFORMATION FOR SEQ ID NO 33. (l) SEQUENCE CHARACTERISTICS- (A) LENGTH 21 base pairs (B) TYPE nucleic acid (C) STRANDEDNESS single (D) TOPOLOGY linear (xi) SEQUENCE DESCRIPTION- SEQ ID NO 33 ACCCCCCAAG CAGGCAGTAC A 21 (2) INFORMATION FOR SEQ ID NO 34 (l) SEQUENCE CHARACTERISTICS (A) LENGTH 671 base pairs (B) TYPE nucleic acid (C) STRANDEDNESS single (D) TOPOLOGY linear ( x) FEATURE (A) NAME/KEY CDS (B) LOCATION 104 .217 (xi) SEQUENCE DESCRIPTION: SEQ ID NO 34 GCAGAGAGGG CACTGGGAGG AGGCAGTGGG AGGGCGGAGG GCGGGGGCCT TCGGGGTGGG 60 CGCCCAGGGT AGGGCAGGTG GCCGCGGCGT GGAGGCAGGG AGA ATG CGA CTC TCC 115 Met Arg Leu Ser 1 AAA ACC CTC GTC GAC ATG GAC ATG GCC GAC TAC AGT GCT GCA CTG GAC 163 Lys Thr Leu Val Asp Met Asp Met Ala Asp Tyr Ser Ala Ala Leu Asp 5 10 15 20 CCA GCC TAC ACC ACC CTG GAA TTT GAG AAT GTG CAG GTG TTG ACG ATG 211 Pro Ala Tyr Thr Thr Leu Glu Phe Glu Asn Val Gin Val Leu Thr Met 25 30 35 GGC AAT GGTAGGTGGG GGCAGATGTG CCCAGGTGTG CCAGTGGGGG CAGGTGTGCC 267 Gly Asn TGGGTCCAGG AGCAGATCTT TGGCACTCAA CTTTGGGGTG GGAGGAGAAT GATACAAAAT 327 GGTAGGTTGG TCCTACAGGC CAGCACAGGT GTTGCCAAGT GAAGCCCATG TGCCCAGGCA 387 CAGTGATCAC AGGCATTCTG GGTGAAGGGA GGCCTGCAAG GGCCAATTTC CAGCAAAAGT 447 CGATCCCGGC TATTCCTCCC AGGCCCTTCC AGTCCTCACT GCCTCACAGT GGCTCTGCTT 507 GGCGCTTGGC ACAGTGACAT GATGGTGAGC TCCCCCTTGG TGCCCAGCTC CAGCGATTCA 567 GCCCAGCACG GCCCCTTCGT GAACCCCTTG GGCCTAGGTT CAGAGAGACG GCAAGGGATG 627 TTGTATCCCT GGAGATGGTG GTTGGAGACA TAACCGCATT TCTC 671 (2) INFORMATION FOR SEQ ID NO: 35: (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 38 amino acids (B) TYPE: amino acid (D) TOPOLOGY: linear (ii) MOLECULE TYPE: protein (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 35: Met Arg Leu Ser Lys Thr Leu Val Asp Met Asp Met Ala Asp Tyr Ser 1 5 10 15 Ala Ala Leu Asp Pro Ala Tyr Thr Thr Leu Glu Phe Glu Asn Val Gin 20 25 30 Val Leu Thr Met Gly Asn 35 (2) INFORMATION FOR SEQ ID NO: 36: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 796 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ix) FEATURE: (A) NAME/KEY: CDS (B) LOCATION: join (286..312, 316..375) (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 36: TGGATGTTTG TACATGTGTG CTGTGTGTGC GGGTCATAGA GCACATGTGT TTGTGCATGC 60 GGACCTGTTG GAGTGCCCTG TTCTTCCTGC ATCTTTATCC TGTATGGGCG TTTTGTCGTG 120 TGCCCATATT TGTACCTGCT GTGTATATAT GCAGTTCCCT GTGCTGCGGG CGGGGGTCAG 180 CGGTCTCTGG TGTGCACGAC TGCACAGACC CAAATGCAGG ACTCTGTTGT TGCCACTCAC 240 CAAGTGAGAT TCATATCAGC AACATGTCCG TTTGTCTCTG AGCAG ATT TGT TGC 294 lie Cys Cys 1 CGC TGC GTC TCG CCA GAT TGA GGC ATC CCC TCC GAC ATC ACT GGA GCA 342 Arg Cys Val Ser Pro Asp Gly lie Pro Ser Asp lie Thr Gly Ala 5 10 15 TAT CTG GAG GGG TGG ACA GTT CTC CAC AGG GAG GTAGGGGAAA AGAGGAGGCC 395 Tyr Leu Glu Gly Trp Thr Val Leu His Arg Glu 20 25 CGGAAACCCC TCCTGGAGGG AAGAGCCCCA TCGGTCCCAG GCCAGCCTCA GAGGAGAGGG 455 GGCAGGCAGC TGGCTGAGGT CAGCCTGCCA CCCTGCTTCC TTCTGTGTCT TGGAGCCACT 515 CAGCCAGTAT GAGGCTGCAG CTCCAGCTGA GGTCTGGAAT CTTGTGGTCA GCTCAGCTAG 575 GGTGAGGAGG CAGCTGCTGG GCACTGCTTG TTGTCAGCTC AGCAGGTGCT CACCTGCCCC 635 TGCCGTCCAG TCACGTGTGA CCTTGGGCAT GTCACCTCCC CTATCCTGGC TTCTGTATCT 695 TCTACAAAAC AGGCTTCATT CCCCCAGGCC TGCTGGCTGG ACGGCTTTTA GGCCTGTCTG 755 AGGACCACGC CAGGAGCGCA AGGCAAAAAC ACACCAGAGA T 796 (2) INFORMATION FOR SEQ ID NO: 37: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 29 amino acids (B) TYPE: amino acid (D) TOPOLOGY: linear (ii) MOLECULE TYPE: protein (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 37: lie Cys Cys Arg Cys Val Ser Pro Asp Gly lie Pro Ser Asp lie Thr 1 5 10 15 Gly Ala Tyr Leu Glu Gly Trp Thr Val Leu His Arg Glu 20 25 (2) INFORMATION FOR SEQ ID NO: 38: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 634 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ix) FEATURE: (A) NAME/KEY: CDS (B) LOCATION: 326..499 (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 38: CCCCTTGCGA GTTAGGAGGC CGGCTCCCAC CCCAGAAGGT GGCCAGGTTT TCATGCCTTC 60 CTAGAGAAAG CTGGGGCTGG TGGCCTCCAC CACAGGGAGA CGCAGACCCT CAGAAACAAG 120 TCTGTGAAGT CACAACCAGC CCCAGTTTAC AGATGTGAAA CTGAAGCTCC AAAAAGTCAG 180 GAGGTCACTG AGTGGGGAGG TGATGGAGTG GAACAGCCCC CAGATCTGGC TGAGGCCGAA 240 GCCCTGGAGA GATCCCCGCA AGGCTCCCTT AGATGCCTGA CATTCTGTTC TTCCTGAAGC 300 CTCACTCCCT TCTCTCCTGG CGCAG ACA CGT CCC CAT CAG AAG GCA CCA ACC 352 Thr Arg Pro His Gin Lys Ala Pro Thr 1 5 TCA ACG CGC CCA ACA GCC TGG GTG TCA GCG CCC TGT GTG CCA TCT GCG 400 Ser Thr Arg Pro Thr Ala Trp Val Ser Ala Pro Cys Val Pro Ser Ala 10 15 20 25 GGG ACC GGG CCA CGG GCA AAC ACT ACG GTG CCT CGA GCT GTG ACG GCT 448 Gly Thr Gly Pro Arg Ala Asn Thr Thr Val Pro Arg Ala Val Thr Ala 30 35 40 GCA AGG GCT TCT TCC GGA GGA GCG TGC GGA AGA ACC ACA TGT ACT CCT 496 Ala Arg Ala Ser Ser Gly Gly Ala Cys Gly Arg Thr Thr Cys Thr Pro 45 50 55 GCA GGTGAGGAGC CTCAATTTCT TCAGCTGGGA AATGGGCACA CTTGGGCTCA 549 Ala TGGCCCCAAG GTCTGTCTTC TCCCTGAGTG GGTAGGTCCC AGAGACAGCT GCCCTTCAGG 609 GCCTTCAAGG CTCTTCTGGT TTTGT 634 (2) INFORMATION FOR SEQ ID NO : 39: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 58 amino acids (B) TYPE: amino acid (D) TOPOLOGY: linear (ii) MOLECULE TYPE: protein (xi) SEQUENCE DESCRIPTION: SEQ ID NO : 39: Thr Arg Pro His Gin Lys Ala Pro Thr Ser Thr Arg Pro Thr Ala Trp 1 5 10 15 Val Ser Ala Pro Cys Val Pro Ser Ala Gly Thr Gly Pro Arg Ala Asn 20 25 30 Thr Thr Val Pro Arg Ala Val Thr Ala Ala Arg Ala Ser Ser Gly Gly 35 40 45 Ala Cys Gly Arg Thr Thr Cys Thr Pro Ala 50 55 (2) INFORMATION FOR SEQ ID NO : 40: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 458 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ix) FEATURE: (A) NAME/KEY: CDS (B) LOCATION: join (171..173, 177..265) (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 40: AGAGAGTTCA TAGCACCTTT CCAGCTCCTG GTGGGTTCAA GAGAGAACTC CCGGGATGAA 60 GAGATGAGAG CACTGAGGTT GGGGGGTCAA CTGGATAGCC AGGGCCCTAG TTCTGTCCTA 120 AGAGGAGGAA GTTGTGTCTT CTCCATCCAA CCATCCAAAG CCCTCCCCAG ATT 173 He 1 TAG CCG GCA GTG CGT GGT GGA CAA AGA CAA GAG GAA CCA GTG C*CG CTA 221 Pro Ala Val Arg Gly Gly Gin Arg Gin Glu Glu Pro Val Pro Leu 5 10 15 CTG CAG GCT CAA GAA ATG CTT CCG GGC TGG CAT GAA GAA GGA 263 Leu Gin Ala Gin Glu Met Leu Pro Gly Trp His Glu Glu Gly 20 25 30 AGGTGAGCCT CGGCCCTCCC CGCCCCACCA CCACTGCCCC ACCTGCACCC ACAGCTCCCC 323 GACAGTCATT TACAACTGTA GCCACACTTT ATGACTCAGT GGCAGGCCCC AGGGTGACTG 383 GCTAATGGCT GAGAAGAGGG AGGGCCTGGA AATCTGACCA TAGGGAGCGG CTGGGCTTGG 443 TCTTGAGAAA GATTC 458 (2) INFORMATION FOR SEQ ID NO: 41: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 30 amino acids (B) TYPE: amino acid (D) TOPOLOGY: linear (ii) MOLECULE TYPE: protein (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 41: He Pro Ala Val Arg Gly Gly Gin Arg Gin Glu Glu Pro Val Pro Leu 1 5 10 15 Leu Gin Ala Gin Glu Met Leu Pro Gly Trp His Glu Glu Gly 20 25 30 (2) INFORMATION FOR SEQ ID NO: 42: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 662 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ix) FEATURE: (A) NAME/KEY: CDS (B) LOCATION: 84..188 ( i) SEQUENCE DESCRIPTION: SEQ ID NO: 42: TCCCACTCCT CATCAGTCAC AGACACCCCC ACCCCCTACT CCATCCCTGT TCTCCCTCCT 60 CACCTCTCTG TGCCTCCTCA CAG CCG TCC AGA ATG AGC GGG ACC GGA TCA 110 Pro Ser Arg Met Ser Gly Thr Gly Ser 1 5 GCA CTC GAA GGT CAA GCT ATG AGG ACA GCA GCC TGC CCT CCA TCA ATG 158 Ala Leu Glu Gly Gin Ala Met Arg Thr Ala Ala Cys Pro Pro Ser Met 10 15 20 25 CGC TCC TGC AGG CGG AGG TCC TGT CCC GAC AGGTACCGGG GTGATCCTGC 208 Arg Ser Cys Arg Arg Arg Ser Cys Pro Asp 30 35 CACCCACCCA GGGGATCCCC CACACTACAG AGGAGCTCAC CTCCTCCACC TCCATTCTCC 268 CCAGCCAGGC CCTGGAGCAG CTGACGGGAG GGGCCTCAGA TATTACAGAA GGGACACTGA 328 GTGCGGTTTC ACATGGCCCA GTTTGCAGCA AGGGCAGGAA TCGAACCTGG CGCCCTGGGG 388 CACTTTCTAA TTCATCCTAC TGCCTGCATC CCACAGGCCA AGCAGAGTCT TCACCTTCAC 448 TGAGGGCCTG CGATCAGCTC AGCTCCGAGA GAACAGAGCA GTGGCTCAGT GGAGAGAGGT 508 GGCAAAGTGG GGCCCAGCCC TTCCCTTGCT GAGTGACCTT GGGCAAGTCA CAGCACCTCT 568 CTGAGCCATG GTTGCCTCAT TGTCAGAAAA GGATGATGAT TTTTTGCCCT GCTTCTCCTC 628 TAAGGCTGAC AGACTCCTTG GGGCTCTAAA GCTG 662 (2) INFORMATION FOR SEQ ID NO: 43: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 35 amino acids (B) TYPE: amino acid (D) TOPOLOGY: linear (ii) MOLECULE TYPE: protein (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 43: Pro Ser Arg Met Ser Gly Thr Gly Ser Ala Leu Glu Gly Gin Ala Met 1 5 10 15 Arg Thr Ala Ala Cys Pro Pro Ser Met Arg Ser Cys Arg Arg Arg Ser 20 25 30 Cys Pro Asp 35 (2) INFORMATION FOR SEQ ID NO : 44 (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 647 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY, linear (ix) FEATURE: (A) NAME/KEY: CDS (B) LOCATION: 185 .340 (xi) SEQUENCE DESCRIPTION: SEQ ID NO- 44: TTCTCCCTCA TCCCTGCCTC CTCCCTCCCT CCGTTTTTAC CCTGAGCTTC CTTCAGAGCT 60 GGAGGGCACC CACTATCCAG CCCCCTCCCC ACATCTGATT CCAGGGAGGG GGCTCTGTGC 120 AGGGGACAGA GAATGCGGGA GGGCCCGGAC ATCTCCAGCA TTTTCTTCCC TGTATCTCTC 180 GAAG ATC ACC TCC CCC GTC TCC GGG ATC AAC GGC GAC ATT CGG GCG AAG 229 He Thr Ser Pro Val Ser Gly He Asn Gly Asp He Arg Ala Lys 1 5 10 15 AAG ATT GCC AGC ATC GCA GAT GTG TGT GAG TCC ATG AAG GAG CAG CTG 277 Lys He Ala Ser He Ala Asp Val Cys Glu Ser Met Lys Glu Gin Leu 20 25 30 CTG GTT CTC GTT GAG TGG GCC AAG TAC ATC CCA GCT TTC TGC GAG CTC 325 Leu Val Leu Val Glu Trp Ala Lys Tyr He Pro Ala Phe Cys Glu Leu 35 40 45 CCC CTG GAC GAC CAG GTGAGGATGG GCGTGGATGG TGGGCAGTAG TGGGCAGTGG 380 Pro Leu Asp Asp Gin 50 GCGGGGCAGC CAGGGGGCTG CTGGCCCACC TGGGATATAG CCGTGGACTG GCTTGATTTT 440 ATTTTATTTA ACAAAATATG TAGTGCACAC ACGTGTCTGA AACTTTAAAT CACCTTACAA 500 ATATTAACTC AGTTAGCTCC TCCAACAACT CTATGAGGTA GGTACTAAGG TACTATTATT 560 ACTGCCATCT CATAGGTGAG AGATTGGGGC ACAGAGAGGT TAAGTAACCT GCTCAAGGTC 620 ACATAGCTAC TATCCAGCAT AGCTGGG 647 (2) INFORMATION FOR SEQ ID NO . 45. (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 52 ammo acids (B) TYPE: amino acid (D) TOPOLOGY: linear i) MOLECULE TYPE: protein (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 45: He Thr Ser Pro Val Ser Gly He Asn Gly Asp He Arg Ala Lys Lys 1 5 10 15 He Ala Ser He Ala Asp Val Cys Glu Ser Met Lys Glu Gin Leu Leu 20 25 30 Val Leu Val Glu Trp Ala Lys Tyr He Pro Ala Phe Cys Glu Leu Pro 35 40 45 Leu Asp Asp Gin 50 (2) INFORMATION FOR SEQ ID NO: 46: (i ) SEQUENCE CHARACTERISTICS : (A) LENGTH: 844 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ix) FEATURE: (A) NAME/KEY: CDS (B) LOCATION: 429..515 (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 46: ATTTTTACAA AGCACCCTTC ATAATTCTCC ATAGCTGGTC CATGGGTGGG AATTTGGGAC 60 CCACAGTTTT GGAACTTTTT GGGATCATAG ACCTTTTTGA GAATCTCAAA AAAGAAAAAA 120 AAGCACACAG AATGTTGCTT ACAGTTTCAT CAGGCACACA GAAGAGGCCC AGCACGAAGC 180 AGTTTCTTGC CCAAGGACAC AGCAGTTCAA GGACAGAGTC AGCGCGAGGT CTCTCAGCTC 240 TGAGCACATG TTCTTTCCCC TTCCAGGTTT CTAGTTTTAT GGGTAGTAGT TTTATGATGC 300 CCATTTCACA GTTCAGGCAG GTAGAGGCAG AGGGGAGCAT TAAGCTGACT TGCCCAGCGT 360 CACTGAGTTG GCTACGGGCA GCCTTCCCAA GGGTACAGAT GGCAAACACT GTTCCTTATC 420 TCTTTCAG GTG GCC CTG CTC AGA GCC CAT GCT GGC GAG CAC CTG CTG CTC 470 Val Ala Leu Leu Arg Ala His Ala Gly Glu His Leu Leu Leu 1 5 10 GGA GCC ACC AAG AGA TCC ATG GTG TTC AAG GAC GTG CTG CTC CTA 515 Gly Ala Thr Lys Arg Ser Met Val Phe Lys Asp Val Leu Leu Leu 15 20 25 GGTGAGGCGG CTGCCTGCCC TGGCCAGGGC TCCAGGGAGG GTATGCCTAG CATGGCACTC 575 ACCCAGGCAA GGAGATTCAC ATGGTGGCAT GCAAGGGTGA GGGAGACTAG TCAGGAGTGG 635 CCCTGTCCTC AGGCTTGCAT TGGAGGGCTC CAGGACTCAG TTTTCAACTG GGTACCCCAC 695 TCAGATGCAA GGAAATGTGG ATGCAAGTCA CCAAATTCCC AGCATTGAAG TCAGAGCACG 755 ATCAGGGTTA TCCCTGGAAT TACCTGTGCA TCCTTTTTTC TTTTGACAGA GTCTTGCTCT 815 GTCACTCAGG CTGGAGTGCA ATGATGTGA 844 (2) INFORMATION FOR SEQ ID NO : 47: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 29 amino acids (B) TYPE: amino acid (D) TOPOLOGY: linear (ii) MOLECULE TYPE: protein (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 47: Val Ala Leu Leu Arg Ala His Ala Gly Glu His Leu Leu Leu Gly Ala 1 5 10 15 Thr Lys Arg Ser Met Val Phe Lys Asp Val Leu Leu Leu 20 25 (2) INFORMATION FOR SEQ ID NO : 48: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 937 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ix) FEATURE: (A) NAME/KEY: CDS (B) LOCATION: join (485..529, 533..640) (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 48: GCAACACTAG TATTTTAATA TAACAATGCT ATGAGGGAGC TCGATTATTT ATCCTCATCT 60 TATAGATAAG AAAACTGAGG CACAGAGAGG TTAAGTAACT TATCCAACTA TAACCAGCTA 120 TCAGGGGCAG AGCCATTTAA GCAGGGCAGT GCAGTTCCAG AATCTGGTCC TTTAACCTTG 180 ATGCTTTGGT GCCTATCAGG TGACCTTTGA ATGTCATCGA TCTTGTGAGT CATGTTGGTA 240 AATGGAGCTT GGGTCATGTG AAAGAGGTCC TAGAAAGCCA AGTTCCAAGC TCAGCCGGAT 300 GACTCAAGGC AGCTTATCTT CTGAATCTGG GCCTCAGCTT CCTTACCTGT GAAATGGGAG 360 TCACCATCCC TGCAGGTCCT CCTCCCACAG GCACCAGCTA TCTTGCCAAC TTAAAAGCCA 420 AAACTAGAGG AGAGGGGTCA ACCCAAAGTG ACTTCCCATC CTCCCTCCCT CCCAACCCTT 480 CCAG GCA ATG ACT ACA TTG TCC CTC GGC ACT GCC CGG AGC TGG CGG AGA 529 Ala Met Thr Thr Leu Ser Leu Gly Thr Ala Arg Ser Trp Arg Arg 1 5 10 15 TGA GCC GGG TGT CCA TAC GCA TCC TTG ACG AGC TGG TGC TGC CCT TCC 577 Ala Gly Cys Pro Tyr Ala Ser Leu Thr Ser Trp Cys Cys Pro Ser 20 25 30 AGG AGC TGC AGA TCG ATG ACA ATG AGT ATG CCT ACC TCA AAG CCA TCA 625 Arg Ser Cys Arg Ser Met Thr Met Ser Met Pro Thr Ser Lys Pro Ser 35 40 45 TCT TCT TTG ACC CAG GTACAGTGCA CACCTCCTAA GCCATCCCTG ACTCTCTCTC 680 Ser Ser Leu Thr Gin 50 CAGAACGCTC TGCCAGACTT CTCCTATTGG GTTCTGTACA CTGAGTTCAC AGCCTCATCT 740 CATGTTAACG ACAGCCAGGA GAGGCCGTTT TCATTTAACA GATGAGGCAA GTCAAGATTT 800 GAAGAGACAA TATGGCCGGG CGCAGTGGCT CACACCTGTA ATCCCATCAC TTTGGGAGGC 860 TGAGGCGGGC GGATCACCTG AGGTCAGGGG TCAAGATGAG CCTGGCTAAC ATGGAGAAAC 920 CCCATCTCTA CTTAAAA 937 (2) INFORMATION FOR SEQ ID NO: 49: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 51 amino acids (B) TYPE: amino acid (D) TOPOLOGY: linear (ii) MOLECULE TYPE: protein (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 49: Ala Met Thr Thr Leu Ser Leu Gly Thr Ala Arg Ser Trp Arg Arg Ala 1 5 10 15 Gly Cys Pro Tyr Ala Ser Leu Thr Ser Trp Cys Cys Pro Ser Arg Ser 20 25 30 Cys Arg Ser Met Thr Met Ser Met Pro Thr Ser Lys Pro Ser Ser Ser 35 40 45 Leu Thr Gin 50 (2) INFORMATION FOR SEQ ID NO: 50: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 978 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ix) FEATURE: (A) NAME/KEY: CDS (B) LOCATION: join(376..387, 391..432, 436..534, 538..610) (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 50: GTGGCTCTGC CAACAACTGG CTGTGCGACC CAGGACAAGT CCTATCTTTG CACTGTGTCT 60 GGGTTTCCCC GTGTGTAAGA TGAGGCGGTT GCTAGGTGCT TATTGGATGC ATTCCTCAAG 120 TCCCGCCCTC CATCTCCTAT TCCCCTCTCT TCTGGTTTAG TGCTTTAGGA AATGTGGCAG 180 AAATCTTTTT CTGCCTGTGT CTAGGAAATC ATAATTCATG CTGGCGTACC CTGGTTGTTG 240 AGGTCCCTGA ATCCTTGTGC CCACACTGCT GAAGACTCCT TGTGTGACAC AAGTCAGGGG 300 ACATCTGGGT CTTGACTCCC CAGATGCTCC AGGTGGACCC TGCTGCCCTC CCTTGCCCAC 360 CCTCTTCCAT TGTAG ATG CCA AGG GGC TGA GCG ATC CAG GGA AGA TCA AGC 411 Met Pro Arg Gly Ala He Gin Gly Arg Ser Ser 1 5 10 GGC TGC GTT CCC AGG TGC AGG TGA GCT TGG AGG ACT ACA TCA ACG ACC 459 Gly Cys Val Pro Arg Cys Arg Ala Trp Arg Thr Thr Ser Thr Thr 15 20 25 GCC AGT ATG ACT CGC GTG GCC GCT TTG GAG AGC TGC TGC TGC TGC TGC 507 Ala Ser Met Thr Arg Val Ala Ala Leu Glu Ser Cys Cys Cys Cys Cys 30 35 40 CCA CCT TGC AGA GCA TCA CGT GGC AGA TGA TCG AGC AGA TCC AGT TCA 555 Pro Pro Cys Arg Ala Ser Arg Gly Arg Ser Ser Arg Ser Ser Ser 45 50 55 TCA AGC TCT TCG GCA TGG CCA AGA TTG ACA ACC TGT TGG AGG AGA TGC 603 Ser Ser Ser Ser Ala Trp Pro Arg Leu Thr Thr Cys Trp Arg Arg Cys 60 65 70 TGC TGG GAGGTCCGTG CCAAGCCCAG GAGGGGCGGG GTTGGATTGG GGACTCCCCA 659 Cys Trp 75 GGAGACAGGC CTCACACAGT GAGCTCACCC CTCAGCTCCT TGGCTTCCCC ACTGTGCCGC 719 TTTGGGCAAG TTGCTTAACC TGTCTGTGCC TCAGTTTCCT CACCAGAAAA ATGGGAACAA 779 GGCAATGGTC TATTTGTTCA GGCACCGAGA ACCTAGCACG TGCCAGTCAC TGTTCTAAGT 839 GCTGGCAATT CAGCAAAGAA CAAGATCTTT GCCCTCGGGG AGGCTGTGTG TGTGTGATAT 899 GTATGGATGC GTGGATATCT GTGTATATGC CCGTATGTGC GTGCATGTGT ATATAAAGCC 959 TCACATTTTA TGATTTTGA 978 (2) INFORMATION FOR SEQ ID NO : 51: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 75 amino acids (B) TYPE: amino acid (D) TOPOLOGY: linear (ii) MOLECULE TYPE: protein (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 51: Met Pro Arg Gly Ala He Gin Gly Arg Ser Ser Gly Cys Val Pro Arg 1 5 10 15 Cys Arg Ala Trp Arg Thr Thr Ser Thr Thr Ala Ser Met Thr Arg Val 20 25 30 Ala Ala Leu Glu Ser Cys Cys Cys Cys Cys Pro Pro Cys Arg Ala Ser 35 40 45 Arg Gly Arg Ser Ser Arg Ser Ser Ser Ser Ser Ser Ser Ala Trp Pro 50 55 60 Arg Leu Thr Thr Cys Trp Arg Arg Cys Cys Trp 65 70 75 (2) INFORMATION FOR SEQ ID NO: 52: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 984 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ix) FEATURE: (A) NAME/KEY: CDS (B) LOCATION: oin (443..490, 494..595) (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 52: GGGACACATA GATGCTATAA GTAGGTCAGT TGGCTGCAGC AGAGATGTGG GGGATGAGGC 60 TGAAAGGTGA GGCGGGACCA AATGGTTGAA GGACTTGCAC TCCAAGGAGC TTTGAGAGCC 120 ATTGATTACA TCCATTATGT TACTATGTGA CCAATACATT ACTCATTAGA ACATTTACGT 180 GATCTCAGAG CTTCCTTATA TGCACCTTGT TCCTTTCAAC TCACTTTTGT TCTCTTGGTT 240 TTTTGGGGTC CTCTTAACAC CCTCATGAAG TCTATAGATG GGAATGGTAC ACCCTAGTTT 300 ACTAACCCAG GAATAGGTAC CCAACAGGCA CTGCCAATAT TGGATGGGCT GGTTGATTGG 360 CCACGCCTGA GGAAGATGGC GTCCCAAGGC CTGAGGTCTG CATCCCAGAC TCTCCATCCT 420 GATCGACCTT CTCTACCTGC AG GGT CCC CCA GCG ATG CAC CCC ATG CCC ACC 472 Gly Pro Pro Ala Met His Pro Met Pro Thr 1 5 10 ACC CCC TGC ACC CTC ACC TGA TGC AGG AAC ATA TGG GAA CCA ACG TCA 520 Thr Pro Cys Thr Leu Thr Cys Arg Asn He Trp Glu Pro Thr Ser 15 20 25 TCG TTG CCA ACA CAA TGC CCA CTC ACC TCA GCA ACG GAC AGA TGT GTG 568 Ser Leu Pro Thr Gin Cys Pro Leu Thr Ser Ala Thr Asp Arg Cys Val 30 35 40 AGT GGC CCC GAC CCA GGG GAC AGG CAG GTGGGCAAAC TCTGGGATTT 615 Ser Gly Pro Asp Pro Gly Asp Arg Gin 45 50 TACCTTGCAA AGGGTGAGGA TGGGGCTTAA GACAGGAGGC AGGAGAAAGT GGAGTCTAGA 675 AGGTAGAACC AGGATGCAAC AGTTTTCTGG GTTCCAGGGT AGGGAATAAA GGGCAAGATT 735 GTCCATTTGT TGAGGCTGTT TATTCAGTAA GGTGACTGAC AGCCTTTACT GAATGAAGCC 795 ATTGTTGGGA TGAGGCAATC CACTGGATGA GGTAACCCAT TGGGTGAAGA TGTCTTGGGT 855 GAGAATTCCA TTAGTTGACA TTGTCCATTA AGTAAAAGTG GTCATTGAAG TAAGGCTGCA 915 CAGTTGGGTA AGGCTATCCA TTAGACATTA GATGAGACTA CCCATTGGGT CAGGATGTCT 975 GCTGGGCTA 984 (2) INFORMATION FOR SEQ ID NO: 53: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 50 amino acids (B) TYPE: amino acid (D) TOPOLOGY: linear (ii) MOLECULE TYPE: protein (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 53: Gly Pro Pro Ala Met His Pro Met Pro Thr Thr Pro Cys Thr Leu Thr 1 5 10 15 Cys Arg Asn He Trp Glu Pro Thr Ser Ser Leu Pro Thr Gin Cys Pro 20 25 30 Leu Thr Ser Ala Thr Asp Arg Cys Val Ser Gly Pro Asp Pro Gly Asp 35 40 45 Arg Gin 50 ( 2 ) INFORMATION FOR SEQ ID NO : 54 : ( i ) SEQUENCE CHARACTERISTICS : (A) LENGTH : 1103 base pairs (B ) TYPE : nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ix) FEATURE: (A) NAME/KEY: CDS (B) LOCATION: join (289..429, 433..477, 481..492, 496..603, 607 ..630, 634..750, 754..810, 814..843, 847..1023, 1027..1071, 1075..1103) (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 54: TTTGGGAGAA GCAGTCCAAG TCTGCATATC AAATAAATGA TGGAGGAGAT GGGTGGTAGG 60 ACCTTCCAGA CCTCATAAAA CTTAGGCTTT ATGATCTGGG ACTCACAGAA GGTTGAGCAA 120 TAAAAGACCT TAGGGATTAT CTGGCTTAAT TAATTCTCTC ATTTTATAGA GGAAGAAATT 180 AAGTCAAGGT GGGGCAGGGT GGGAGGGGAG AACTTTCCCG GGGCTCTTCA TTTACTCCCA 240 CAAAGGCTGG AATTTTGAGC AGCCCCTGTC TGTCTGTTTG TCCTTCCA GCC ACC CCT 297 Ala Thr Pro 1 GAG ACC CCA CAG CCC TCA CCG CCA GGT GGC TCA GGG TCT GAG CCC TAT 345 Glu Thr Pro Gin Pro Ser Pro Pro Gly Gly Ser Gly Ser Glu Pro Tyr 5 10 15 AAG CTC CTG CCG GGA GCC GTC GCC ACA ATC GTC AAG CCC CTC TCT GCC 393 Lys Leu Leu Pro Gly Ala Val Ala Thr He Val Lys Pro Leu Ser Ala 20 25 30 35 ATC CCC CAG CCG ACC ATC ACC AAG CAG GAA GTT ATC TAG CAA GCC GCT 441 He Pro Gin Pro Thr He Thr Lys Gin Glu Val He Gin Ala Ala 40 45 50 GGG GCT TGG GGG CTC CAC TGG CTC CCC CCA GCC CCC TAA GAG AGC ACC 489 Gly Ala Trp Gly Leu His Trp Leu Pro Pro Ala Pro Glu Ser Thr 55 60 65 TGG TGA TCA CGT GGT CAC GGC AAA GGA AGA CGT GAT GCC AGG ACC AGT 537 Trp Ser Arg Gly His Gly Lys Gly Arg Arg Asp Ala Arg Thr Ser 70 75 80 CCC AGA GCA GGA ATG GGA AGG ATG AAG GGC CCG AGA ACA TGG CCT AAG 585 Pro Arg Ala Gly Met Gly Arg Met Lys Gly Pro Arg Thr Trp Pro Lys 85 90 95 GCA CAT CCC ACT GCA CCC TGA CGC CCT GCT CTG ATA ACA AGA CTT 630 Ala His Pro Thr Ala Pro Arg Pro Ala Leu He Thr Arg Leu 100 105 110 TGA CTT GGG GAG ACC CTC TAC TGC CTT GGA CAA CTT TCT CAT GTT GAA 678 Leu Gly Glu Thr Leu Tyr Cys Leu Gly Gin Leu Ser His Val Glu 115 120 125 GCC ACT GCC TTC ACC TTC ACC TTC ATC CAT GTC CAA CCC CCG ACT TCA 726 Ala Thr Ala Phe Thr Phe Thr Phe He His Val Gin Pro Pro Thr Ser 130 135 140 TCC CAA AGG ACA GCC GCC TGG AGA TGA CTT GAG CCT TAC TTA AAC CCA 774 Ser Gin Arg Thr Ala Ala Trp Arg Leu Glu Pro Tyr Leu Asn Pro 145 150 155 GCT CCC TTC TTC CCT AGC CTG GTG CTT CTC CTC TCC TAG CCC CGG TCA 822 Ala Pro Phe Phe Pro Ser Leu Val Leu Leu Leu Ser Pro Arg Ser 160 165 170 TGG TGT CCA GAC AGA GCC CTG TGA GGC TGG GTC CAA TTG TGG CAC TTG 870 Trp Cys Pro Asp Arg Ala Leu Gly Trp Val Gin Leu Trp His Leu 175 180 185 GGG CAC CTT GCT CCT CCT TCT GCT GCT GCC CCC ACC TCT GCT GCC TCC 918 Gly His Leu Ala Pro Pro Ser Ala Ala Ala Pro Thr Ser Ala Ala Ser 190 195 200 CTC TGC TGT CAC CTT GCT CAG CCA TCC CGT CTT CTC CAA CAC CAC CTC 966 Leu Cys Cys His Leu Ala Gin Pro Ser Arg Leu Leu Gin His His Leu 205 210 215 TAC AGA GGC CAA GGA GGC CTT GGA AAC GAT TCC CCC AGT CAT TCT GGG 1014 Tyr Arg Gly Gin Gly Gly Leu Gly Asn Asp Ser Pro Ser H s Ser Gly 220 225 230 AAC ATG TTG TAA GCA CTG ACT GGG ACC AGG CAC CAG GCA GGG TCT AGA 1062 Asn Met Leu Ala Leu Thr Gly Thr Arg His Gin Ala Gly Ser Arg 235 240 245 AGG CTG TGG TGA GGG AAG ACG CCT TTC TCC TCC AAC CCA AC 1103 Arg Leu Trp Gly Lys Thr Pro Phe Ser Ser Asn Pro 250 255 260 (2) INFORMATION FOR SEQ ID NO: 55: (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 261 ammo acids (B) TYPE: ammo acid (D) TOPOLOGY- linear In) MOLECULE TYPE: protein (Xl) SEQUENCE DESCRIPTION: SEQ ID NO: 55- Ala Thr Pro Glu Thr Pro Gin Pro Ser Pro Pro Gly Gly Ser Gly Ser 1 5 10 15 Glu Pro Tyr Lys Leu Leu Pro Gly Ala Val Ala Thr He Val Lys Pro 20 25 30 Leu Ser Ala He Pro Gin Pro Thr He Thr Lys Gin Glu Val He Gin 35 40 45 Ala Ala Gly Ala Trp Gly Leu His Trp Leu Pro Pro Ala Pro Glu Ser 50 55 60 Thr Trp Ser Arg Gly His Gly Lys Gly Arg Arg Asp Ala Arg Thr Ser 65 70 75 80 Pro Arg Ala Gly Met Gly Arg Met Lys Gly Pro Arg Thr Trp Pro Lys 85 90 95 Ala His Pro Thr Ala Pro Arg Pro Ala Leu He Thr Arg Leu Leu Gly 100 105 110 Glu Thr Leu Tyr Cys Leu Gly Gin Leu Ser His Val Glu Ala Thr Ala 115 120 125 Phe Thr Phe Thr Phe He His Val Gin Pro Pro Thr Ser Ser Gin Arg 130 135 140 Thr Ala Ala Trp Arg Leu Glu Pro Tyr Leu Asn Pro Ala Pro Phe Phe 145 150 155 160 Pro Ser Leu Val Leu Leu Leu Ser Pro Arg Ser Trp Cys Pro Asp Arg 165 170 175 Ala Leu Gly Trp Val Gin Leu Trp His Leu Gly His Leu Ala Pro Pro 180 185 190 Ser Ala Ala Ala Pro Thr Ser Ala Ala Ser Leu Cys Cys His Leu Ala 195 200 205 Gin Pro Ser Arg Leu Leu Gin His His Leu Tyr Arg Gly Gin Gly Gly 210 215 220 Leu Gly Asn Asp Ser Pro Ser His Ser Gly Asn Met Leu Ala Leu Thr 225 230 235 240 Gly Thr Arg His Gin Ala Gly Ser Arg Arg Leu Trp Gly Lys Thr Pro 245 250 255 Phe Ser Ser Asn Pro 260 (2) INFORMATION FOR SEQ ID NO: 56: (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (Xl ) SEQUENCE DESCRIPTION: SEQ ID NO: 56: GGGCACTGGG AGGAGGCAGT 20 (2) INFORMATION FOR SEQ ID NO: 57: (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS- single (D) TOPOLOGY: linear (xi ) SEQUENCE DESCRIPTION- SEQ ID NO : 57: GCCTGTAGGA CCAACCTACC 20 (2) INFORMATION FOR SEQ ID NO: 58: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 58: TCTGGTGTGC ACGACTGCAC 20 (2) INFORMATION FOR SEQ ID NO: 59: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 59: CTGGAGCTGC AGCCTCATAC 20 (2) INFORMATION FOR SEQ ID NO : 60: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO : 60: AAGGCTCCCT TAGATGCCTG 20 (2) INFORMATION FOR SEQ ID NO : 61: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 23 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS : single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 61: CCACTCAGGG AGAAGACAGA CCT 23 (2) INFORMATION FOR SEQ ID NO: 62: (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 62: CCTAGTTCTG TCCTAAGAGG 20 (2) INFORMATION FOR SEQ ID NO: 63: (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 63: GTCATAAAGT GTGGCTACAG 20 (2) INFORMATION FOR SEQ ID NO: 64 : (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 22 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (Xl) SEQUENCE DESCRIPTION: SEQ ID NO: 64: CCACCCCCTA CTCCATCCCT GT 22 (2) INFORMATION FOR SEQ ID NO: 65: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 65: CCCTCCCGTC AGCTGCTCCA 20 (2) INFORMATION FOR SEQ ID NO: 66: (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS- single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION. SEQ ID NO: 66: GTGCAGGGGA CAGAGAATGC 20 (2) INFORMATION FOR SEQ ID NO : 67: (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 22 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION. SEQ ID NO : 67- AATCAAGCCA GTCCACGGCT AT 22 (2) INFORMATION FOR SEQ ID NO 68- (l) SEQUENCE CHARACTERISTICS (A) LENGTH: 23 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS- single (D) TOPOLOGY: linear (xi ) SEQUENCE DESCRIPTION: SEQ ID NO: 68: GCCCAGCGTC ACTGAGTTGG CTA 23 (2) INFORMATION FOR SEQ ID NO: 69- (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION. SEQ ID NO: 69: TTGCCTGGGT GAGTGCCATG 20 (2) INFORMATION FOR SEQ ID NO- 70: (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS- single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION SEQ ID NO: 70: GCACCAGCTA TCTTGCCAAC 20 (2) INFORMATION FOR SEQ ID NO : 71: (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 71: AGGAGAAGTC TGGCAGAGCG 20 (2) INFORMATION FOR SEQ ID NO: 72: (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS. single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION SEQ ID NO: 72: CTCCTTGTGT GACACAAGTC 20 (2) INFORMATION FOR SEQ ID NO. 73. (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 73: CTCACTGTGT GAGGCCTGTC 20 (2) INFORMATION FOR SEQ ID NO: 74: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: Single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 74: TGGTTGATTG GCCACGCCTG 20 (2) INFORMATION FOR SEQ ID NO: 75: (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 75: ATCCTGGTTC TACCTTCTAG 20 (2) INFORMATION FOR SEQ ID NO: 76: (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 76: CATTTACTCC CACAAAGGCT 20 (2) INFORMATION FOR SEQ ID NO: 77: (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 77: GACCACGTGA TCACCAGGTG 20 (2) INFORMATION FOR SEQ ID NO: 78: (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 1441 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ix) FEATURE: (A) NAME/KEY: CDS (B) LOCATION:20..1414 (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 78: CTCCAAAACC CTCGTCGAC ATG GAC ATG GCC GAC TAC AGT GCT GCA CTG GAC 52 Met Asp Met Ala Asp Tyr Ser Ala Ala Leu Asp 1 5 10 CCA GCC TAC ACC ACC CTG GAA TTT GAG AAT GTG CAG GTG TTG ACG ATG 100 Pro Ala Tyr Thr Thr Leu Glu Phe Glu Asn Val Gin Val Leu Thr Met 15 20 25 GGC AAT GAC ACG TCC CCA TCA GAA GGC ACC AAC C1C AAC GCG CCC AAC 148 Gly Asn Asp Thr Ser Pro Ser Glu Gly Thr Asn Leu Asn Ala Pro Asn 30 35 40 AGC CTG GGT GTC AGC GCC CTG TGT GCC ATC TGC GGG GAC CGG GCC ACG 196 Ser Leu Gly Val Ser Ala Leu Cys Ala lie Cys Gly Asp Arg Ala Thr 45 50 55 GGC AAA CAC TAC GGT GCC TCG AGC TGT GAC GGC TGC AAG GGC TTC TTC 244 Gly Lys His Tyr Gly Ala Ser Ser Cys Asp Gly Cys Lys Gly Phe Phe 60 65 70 75 CGG AGG AGC GTG CGG AAG AAC CAC ATG TAC TCC TGC AGA TTT AGC CGG 292 Arg Arg Ser Val Arg Lys Asn His Met Tyr Ser Cys Arg Phe Ser Arg 80 85 90 CAG TGC GTG GTG GAC AAA GAC AAG AGG AAC CAG TGC CGC TAC TGC AGG 340 Gin Cys Val Val Asp Lys Asp Lys Arg Asn Gin Cys Arg Tyr Cys Arg 95 100 105 CTC AAG AAA TGC TTC CGG GCT GGC ATG AAG AAG GAA GCC GTC CAG AAT 388 Leu Lys Lys Cys Phe Arg Ala Gly Met Lys Lys Glu Ala Val Gin Asn 110 115 120 GAG CGG GAC CGG ATC AGC ACT CGA AGG TCA AGC TAT GAG GAC AGC AGC 436 Glu Arg Asp Arg lie Ser Thr Arg Arg Ser Ser Tyr Glu Asp Ser Ser 125 130 135 CTG CCC TCC ATC AAT GCG CTC CTG CAG GCG GAG GTC CTG TCC CGA CAG 484 Leu Pro Ser lie Asn Ala Leu Leu Gin Ala Glu Val Leu Ser Arg Gin 140 145 150 155 ATC ACC TCC CCC GTC TCC GGG ATC AAC GGC GAC ATT CGG GCG AAG AAG 532 lie Thr Ser Pro Val Ser Gly lie Asn Gly Asp lie Arg Ala Lys Lys 160 165 170 ATT GCC AGC ATC GCA GAT GTG TGT GAG TCC ATG AAG GAG CAG CTG CTG 580 lie Ala Ser lie Ala Asp Val Cys Glu Ser Met Lys Glu Gin Leu Leu 175 180 185 GTT CTC GTT GAG TGG GCC AAG TAC ATC CCA GCT TTC TGC GAG CTC CCC 628 Val Leu Val Glu Trp Ala Lys Tyr lie Pro Ala Phe Cys Glu Leu Pro 190 195 200 CTG GAC GAC CAG GTG GCC CTG CTC AGA GCC CAT GCT GGC GAG CAC CTG 676 Leu Asp Asp Gin Val Ala Leu Leu Arg Ala His Ala Gly Glu His Leu 205 210 215 CTG CTC GGA GCC ACC AAG AGA TCC ATG GTG TTC AAG GAC GTG CTG CTC 724 Leu Leu Gly Ala Thr Lys Arg Ser Met Val Phe Lys Asp Val Leu Leu 220 225 230 235 CTA GGC AAT GAC TAC ATT GTC CCT CGG CAC TGC CCG GAG CTG GCG GAG 772 Leu Gly Asn Asp Tyr lie Val Pro Arg His Cys Pro Glu Leu Ala Glu 240 245 250 ATG AGC CGG GTG TCC ATA CGC ATC CTT GAC GAG CTG GTG CTG CCC TTC 820 Met Ser Arg Val Ser lie Arg lie Leu Asp Glu Leu Val Leu Pro Phe 255 260 265 CAG GAG CTG CAG ATC GAT GAC AAT GAG TAT GCC TAC CTC AAA GCC ATC 868 Gin Glu Leu Gin lie Asp Asp Asn Glu Tyr Ala Tyr Leu Lys Ala lie 270 275 280 ATC TTC TTT GAC CCA GAT GCC AAG GGG CTG AGC GAT CCA GGG AAG ATC 916 lie Phe Phe Asp Pro Asp Ala Lys Gly Leu Ser Asp Pro Gly Lys lie 285 290 295 AAG CGG CTG CGT TCC CAG GTG CAG GTG AGC TTG GAG GAC TAC ATC AAC 964 Lys Arg Leu Arg Ser Gin Val Gin Val Ser Leu Glu Asp Tyr lie Asn 300 305 310 315 GAC CGC CAG TAT GAC TCG CGT GGC CGC TTT GGA GAG CTG CTG CTG CTG 1012 Asp Arg Gin Tyr Asp Ser Arg Gly Arg Phe Gly Glu Leu Leu Leu Leu 320 325 330 CTG CCC ACC TTG CAG AGC ATC ACC TGG CAG ATG ATC GAG CAG ATC CAG 1060 Leu Pro Thr Leu Gin Ser lie Thr Trp Gin Met lie Glu Gin lie Gin 335 340 345 TTC ATC AAG CTC TTC GGC ATG GCC AAG ATT GAC AAC CTG TTG CAG GAG 1108 Phe lie Lys Leu Phe Gly Met Ala Lys lie Asp Asn Leu Leu Gin Glu 350 355 360 ATG CTG CTG GGA GGG TCC CCC AGC GAT GCA CCC CAT GCC CAC CAC CCC 1156 Met Leu Leu Gly Gly Ser Pro Ser Asp Ala Pro His Ala His His Pro 365 370 375 CTG CAC CCT CAC CTG ATG CAG GAA CAT ATG GGA ACC AAC GTC ATC GTT 1204 Leu His Pro His Leu Met Gin Glu His Met Gly Thr Asn Val lie Val 380 385 390 395 GCC AAC ACA ATG CCC ACT CAC CTC AGC AAC GGA CAG ATG TGT GAG TGG 1252 Ala Asn Thr Met Pro Thr His Leu Ser Asn Gly Gin Met Cys Glu Trp 400 405 410 CCC CGA CCC AGG GGA CAG GCA GCC ACC CCT GAG ACC CCA CAG CCC TCA 1300 Pro Arg Pro Arg Gly Gin Ala Ala Thr Pro Glu Thr Pro Gin Pro Ser 415 420 425 CCG CCA GGT GCG TCA GGG TCT GAG CCC TAT AAG CTC CTG CCG GGA GCC 1348 Pro Pro Gly Ala Ser Gly Ser Glu Pro Tyr Lys Leu Leu Pro Gly Ala 430 435 440 GTC GCC ACA ATC GTC AAG CCC CTC TCT GCC ATC CCC CAG CCG ACC ATC 1396 Val Ala Thr lie Val Lys Pro Leu Ser Ala lie Pro Gin Pro Thr lie 445 450 455 ACC AAG CAG GAA GTT ATC TAGCAAGCCG CTGGGGCTTG GGGGCTC 1441 Thr Lys Gin Glu Val lie 460 465 (2) INFORMATION FOR SEQ ID NO : 79: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 465 amino acids (B) TYPE: amino acid (D) TOPOLOGY: linear (ii) MOLECULE TYPE: protein (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 79: Met Asp Met Ala Asp Tyr Ser Ala Ala Leu Asp Pro Ala Tyr Thr Thr 1 5 10 15 Leu Glu Phe Glu Asn Val Gin Val Leu Thr Met Gly Asn Asp Thr Ser 20 25 30 Pro Ser Glu Gly Thr Asn Leu Asn Ala Pro Asn Ser Leu Gly Val Ser 35 40 45 Ala Leu Cys Ala He Cys Gly Asp Arg Ala Thr Gly Lys His Tyr Gly 50 55 60 Ala Ser Ser Cys Asp Gly Cys Lys Gly Phe Phe Arg Arg Ser Val Arg 65 70 75 80 Lys Asn His Met Tyr Ser Cys Arg Phe Ser Arg Gin Cys Val Val Asp 85 90 95 Lys Asp Lys Arg Asn Gin Cys Arg Tyr Cys Arg Leu Lys Lys Cys Phe 100 105 110 Arg Ala Gly Met Lys Lys Glu Ala Val Gin Asn Glu Arg Asp Arg He 115 120 125 Ser Thr Arg Arg Ser Ser Tyr Glu Asp Ser Ser Leu Pro Ser He Asn 130 135 140 Ala Leu Leu Gin Ala Glu Val Leu Ser Arg Gin He Thr Ser Pro Val 145 150 155 160 Ser Gly He Asn Gly Asp He Arg Ala Lys Lys He Ala Ser He Ala 165 170 175 Asp Val Cys Glu Ser Met Lys Glu Gin Leu Leu Val Leu Val Glu Trp 180 185 190 Ala Lys Tyr He Pro Ala Phe Cys Glu Leu Pro Leu Asp Asp Gin Val 195 200 205 Ala Leu Leu Arg Ala His Ala Gly Glu His Leu Leu Leu Gly Ala Thr 210 215 220 Lys Arg Ser Met Val Phe Lys Asp Val Leu Leu Leu Gly Asn Asp Tyr 225 230 235 240 He Val Pro Arg His Cys Pro Glu Leu Ala Glu Met Ser Arg Val Ser 245 250 255 He Arg He Leu Asp Glu Leu Val Leu Pro Phe Gin Glu Leu Gin He 260 265 270 Asp Asp Asn Glu Tyr Ala Tyr Leu Lys Ala He He Phe Phe Asp Pro 275 280 285 Asp Ala Lys Gly Leu Ser Asp Pro Gly Lys He Lys Arg Leu Arg Ser 290 295 300 Gin Val Gin Val Ser Leu Glu Asp Tyr He Asn Asp Arg Gin Tyr Asp 305 310 315 320 Ser Arg Gly Arg Phe Gly Glu Leu Leu Leu Leu Leu Pro Thr Leu Gin 325 330 335 Ser He Thr Trp Gin Met He Glu Gin He Gin Phe He Lys Leu Phe 340 345 350 Gly Met Ala Lys He Asp Asn Leu Leu Gin Glu Met Leu Leu Gly Gly 355 360 365 Ser Pro Ser Asp Ala Pro His Ala His His Pro Leu His Pro His Leu 370 375 380 Met Gin Glu His Met Gly Thr Asn Val He Val Ala Asn Thr Met Pro 385 390 395 400 Thr His Leu Ser Asn Gly Gin Met Cys Glu Trp Pro Arg Pro Arg Gly 405 410 415 Gin Ala Ala Thr Pro Glu Thr Pro Gin Pro Ser Pro Pro Gly Ala Ser 420 425 430 Gly Ser Glu Pro Tyr Lys Leu Leu Pro Gly Ala Val Ala Thr He Val 435 440 445 Lys Pro Leu Ser Ala He Pro Gin Pro Thr He Thr Lys Gin Glu Val 450 455 460 He 465 (2) INFORMATION FOR SEQ ID NO : 80: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 2329 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 80: GGGGCCCTGA TTCACGGGCC GCTGGGGCAG GGTTGGGGGT TGGGGGTGCC CACAGGGTTG 60 GCTAGTGGGG TTTTGGGGGG GCAGTGGGTG CAAGGAGTTT GGTTTGTGTC TGCCGGCCGG 120 CAGGCAAACG CAACCACGCG GTGGGGGAGG CGGCTAGCGT GGTGGACGGC CCGCGTGGCC 180 CTGTGGCAGC CGAGCCATGG TTTCTAAACT GAGCCAGCTG CAGACGGAGC TCCTGGCGGC 240 CCTGCTCGAG TCAGGGCTGA GCAAAGAGGC ACTGATCCAG GCACTGGGTG AGCCGGGGCC 300 CTACCTCCTG GCTGGAGAAG GCCCCCTGGA CAAGGGGGAG TCCTGCGGCG GCGGTCGAGG 360 GGAGCTGGCT GAGCTGCCCA ATGGGCTGGG GGAGACTCGG GGCTCCGAGG ACGAGACGGA 420 CGACGATGGG GAAGACTTCA CGCCACCCAT CCTCAAAGAG CTGGAGAACC TCAGCCCTGA 480 GGAGGCGGCC CACCAGAAAG CCGTGGTGGA GACCCTTCTG CAGGAGGACC CGTGGCGTGT 540 GGCGAAGATG GTCAAGTCCT ACCTGCAGCA GCACAACATC CCACAGCGGG AGGTGGTCGA 600 TACCACTGGC CTCAACCAGT CCCACCTGTC CCAACACCTC AACAAGGGCA CTCCCATGAA 660 GACGCAGAAG CGGGCCGCCC TGTACACCTG GTACGTCCGC AAGCAGCGAG AGGTGGCGCA 720 GCAGTTCACC CATGCAGGGC AGGGAGGGCT GATTGAAGAG CCCACAGGTG ATGAGCTACC 780 AACCAAGAAG GGGCGGAGGA ACCGTTTCAA GTGGGGCCCA GCATCCCAGC AGATCCTGTT 840 CCAGGCCTAT GAGAGGCAGA AGAACCCTAG CAAGGAGGAG CGAGAGACGC TAGTGGAGGA 900 GTGCAATAGG GCGGAATGCA TCCAGAGAGG GGTGTCCCCA TCACAGGCAC AGGGGCTGGG 960 CTCCAACCTC GTCACGGAGG TGCGTGTCTA CAACTGGTTT GCCAACCGGC GCAAAGAAGA 1020 AGCCTTCCGG CACAAGCTGG CCATGGACAC GTACAGCGGG CCCCCCCCAG GGCCAGGCCC 1080 GGGACCTGCG CTGCCCGCTC ACAGCTCCCC TGGCCTGCCT CCACCTGCCC TCTCCCCCAG 1140 TAAGGTCCAC GGTGTGCGCT ATGGACAGCC TGCGACCAGT GAGACTGCAG AAGTACCCTC 1200 AAGCAGCGGC GGTCCCTTAG TGACAGTGTC TACACCCCTC CACCAAGTGT CCCCCACGGG 1260 CCTGGAGCCC AGCCACAGCC TGCTGAGTAC AGAAGCCAAG CTGGTCTCAG CAGCTGGGGG 1320 CCCCCTCCCC CCTGTCAGCA CCCTGACAGC ACTGCACAGC TTGGAGCAGA CATCCCCAGG 1380 CCTCAACCAG CAGCCCCAGA ACCTCATCAT GGCCTCACTT CCTGGGGTCA TGACCATCGG 1440 GCCTGGTGAG CCTGCCTCCC TGGGTCCTAC GTTCACCAAC ACAGGTGCCT CCACCCTGGT 1500 CATCGGCCTG GCCTCCACGC AGGCACAGAG TGTGCCGGTC ATCAACAGCA TGGGCAGCAG 1560 CCTGACCACC CTGCAGCCCG TCCAGTTCTC CCAGCCGCTG CACCCCTCCT ACCAGCAGCC 1620 GCTCATGCCA CCTGTGCAGA GCCATGTGAC CCAGAGCCCC TTCATGGCCA CCATGGCTCA 1680 GCTGCAGAGC CCCCACGGTG AGCACCCTGT GCCCCACACA GCAGGAGATG ATGATAGAGG 1740 TTGGCTGTCA ATGGATGCAG GGGAAAGGGG TGCCTGGCAG GCATTGCAGT CTGCATGTGT 1800 CTCTGGGACA AGTGTTTTTC CGTGATTGAG GGTGTCTGCA GGCCAGTGTG TTCCCATGTG 1860 AATGCACGTA TCTGTGTGTG TGCACGACTG CTTGTGTGAG CAGATCCCTA GTCGTGTCTG 1920 GGTGTGTATC GGTTGTGCAT GCATTTGTGT GCATCCTGTG TTTCTCTGAA ACTCTTAGGG 1980 CCATATGAAT TTCTAAAATC TATTCAGATT TTAGAAAGGT AATCTGGGGC CAGGCGTGGT 2040 GGCTCATGCC TGTAATCCCA GCACTTTGGA AGGCCGAGGT GGGCAGATCA CTTGAGGTCA 2100 GGAGTTCAAG ACCAGCCTGG CCAACACGGT GAAACCCCGT CTCTACTAAA AGTACAAAAA 2160 TTAGCCAGGC GTGGAGCACG TGCCTGTAGT CCCAGCTACT TGGGAGGCTG AGGCAGAATC 2220 GCTTGAACCT GGGAGGCGGA GGTTGCAGTG AGCTGAGATT TGGCCACTGC ACTGCACTCC 2280 AGCCTGGGCA ACAGAGTGAG TACTCTGCCA AAAAAAAAAA AAAAAAAAA 2329 (2) INFORMATION FOR SEQ ID NO : 81: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO : 81: CACCTGGTGA TCACGTGGTC 20 (2) INFORMATION FOR SEQ ID NO: 82: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 82: GTAAGGCTCA AGTCATCTCC 20 (2) INFORMATION FOR SEQ ID NO: 83: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 5 amino acids (B) TYPE: amino acid (C) STRANDEDNESS: (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 83: Glu Gly Cys Lys Gly 1 5 (2) INFORMATION FOR SEQ ID NO: 84: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 5 ammo acids (B) TYPE: amino acid (C) STRANDEDNESS: (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 84 Glu Gly Cys Lys Ala 1 5 (2) INFORMATION FOR SEQ ID NO : 85: (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 5 ammo acids (B) TYPE: amino acid (C) STRANDEDNESS: (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 85 Asp Gly Cys Lys Gly 1 5 (2) INFORMATION FOR SEQ ID NO: 86: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 36 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ix) FEATURE: (A) NAME/KEY: CDS (B) LOCATION :1..36 (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 86: GAC ACG TAC AGC GGC CCC CCC CCA GGG CCA GGC CCG 36 Asp Thr Tyr Ser Gly Pro Pro Pro Gly Pro Gly Pro 1 5 10 (2) INFORMATION FOR SEQ ID NO : 87: (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 12 amino acids (B) TYPE: amino acid (D) TOPOLOGY: linear (u) MOLECULE TYPE: protein (xi) SEQUENCE DESCRIPTION SEQ ID NO 87 Asp Thr Tyr Ser Gly Pro Pro Pro Gly Pro Gly Pro 1 5 10 (2) INFORMATION FOR SEQ ID NO 88 (l) SEQUENCE CHARACTERISTICS (A) LENGTH 36 base pairs (B) TYPE nucleic acid (C) STRANDEDNESS single (D) TOPOLOGY linear (ix) FEATURE (A) NAME/KEY CDS (B) LOCATION 1 36 (xi) SEQUENCE DESCRIPTION SEQ ID NO 88 GAC ACG TAC AGC GGC CCC CCC CCC AGG GCC AGG CCC 36 Asp Thr Tyr Ser Gly Pro Pro Pro Arg Ala Arg Pro 1 5 10 (2) INFORMATION FOR SEQ ID NO 89 (l) SEQUENCE CHARACTERISTICS (A) LENGTH 12 ammo acids (D) TOPOLOGY linear (n) MOLECULE TYPE protein (xi) SEQUENCE DESCRIPTION SEQ ID NO 89 Asp Thr Tyr Ser Gly Pro Pro Pro Arg Ala Arg Pro 1 5 10 (2) INFORMATION FOR SEQ ID NO- 90 (l) SEQUENCE CHARACTERISTICS- (A) LENGTH. 21 base pairs (B) TYPE nucleic acid (C) STRANDEDNESS single (D) TOPOLOGY linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO 90 CATGAACCCC GAAGAGTGGT G 21 (2) INFORMATION FOR SEQ ID NO: 91 (l) SEQUENCE CHARACTERISTICS (A) LENGTH 20 base pairs (B) TYPE nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 91: GCCTCCAGAC ACCTGTTACT 20 (2) INFORMATION FOR SEQ ID NO: 92: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 22 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 92: GGCGATCATG GCAAGTTAGA AG 22 (2) INFORMATION FOR SEQ ID NO: 93: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 21 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 93: TTGGTGAGAG TATGGAAGAC C 21 (2) INFORMATION FOR SEQ ID NO: 94: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 21 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 94: GGGGTTTGCT TGTGAAACTC C 21 (2) INFORMATION FOR SEQ ID NO: 95: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 95: TTGGTGGGAA ACGGGCTTGG 20 (2) INFORMATION FOR SEQ ID NO: 96: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: Single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 96. CTCCCACTAG TACCCTAACC 20 (2) INFORMATION FOR SEQ ID NO: 97: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 22 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 97: GAGAGGGCAA AGGTCACTTC AG 22 (2) INFORMATION FOR SEQ ID NO: 98: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 22 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear <xι) SEQUENCE DESCRIPTION: SEQ ID NO: 98: AGTGAAGGCT ACAGACCCTA TC 22 (2) INFORMATION FOR SEQ ID NO: 99: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 21 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 99: TTCCTGGGTC TGTGTACTTG C 21 (2) INFORMATION FOR SEQ ID NO: 100: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 21 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 100: TGTGTTTTGG GCCAAGCACC A 21 (2) INFORMATION FOR SEQ ID NO: 101: ( i ) SEQUENCE CHARACTERISTICS : (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 101: AACCAGATAA GATCCGTGGC 20 (2) INFORMATION FOR SEQ ID NO: 102: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 22 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 102: AACCAGACTC ACAGCCTGAA CC 22 (2) INFORMATION FOR SEQ ID NO: 103: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 103: TCACAGGGCA ATGGCTGAAC 20 (2) INFORMATION FOR SEQ ID NO: 104: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: S Q ID NO: 104: TGCCGAGTCA TTGTTCCAGG 20 (2) INFORMATION FOR SEQ ID NO: 105: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 22 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO : 105: CCTCTTATCT TATCAGCTCC AG 22 (2) INFORMATION FOR SEQ ID NO: 106: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 22 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 106: CTGCTCTTTG TGGTCCAAGT CC 22 (2) INFORMATION FOR SEQ ID NO : 107: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 21 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 107: GAGTTTGAAG GAGACCTACA G 21 (2) INFORMATION FOR SEQ ID NO: 108: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 21 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 108: ATCCACCTCT CCTTATCCCA G 21 (2) INFORMATION FOR SEQ ID NO: 109: (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 21 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY, linear (Xl) SEQUENCE DESCRIPTION: SEQ ID NO: 109: ACTTCCGAGA AAGTTCAGAC C 21 (2) INFORMATION FOR SEQ ID NO: 110: (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 21 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS- single (D) TOPOLOGY: linear (Xi) SEQUENCE DESCRIPTION: SEQ ID NO: 110: TTTGCCTGTG TATGCACCTT G 21 (2) INFORMATION FOR SEQ ID NO: 111: (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS. single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 111 • GCCGAGTCCA TGCTTGCCAC 20 (2) INFORMATION FOR SEQ ID NO: 112: (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear ( i) SEQUENCE DESCRIPTION: SEQ ID NO: 112- CTTTGCTGGT TGAGTTGGGC 20 (2) INFORMATION FOR SEQ ID NO: 113: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 21 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 113: TTCCATGACA GCTGCCCAGA G 21 (2) INFORMATION FOR SEQ ID NO : 114: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 114: TAAAGGTTGG AGCCCCTCTG 20 (2) INFORMATION FOR SEQ ID NO: 115: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 115: TTGTAAGGTG ACCCCATCAG 20 (2) INFORMATION FOR SEQ ID NO: 116: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 116: TTGGTGATGT CCAGAAGTCC 20 (2) INFORMATION FOR SEQ ID NO: 117: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 117: CAGAATGTGT CAGAGTT GC 20 (2) INFORMATION FOR SEQ ID NO: 118: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 118: CTCCCTCCTG TTCTTAAGTG 20 (2) INFORMATION FOR SEQ ID NO : 119: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 119: CTGGACTCCC AGTTCAGTCA 20 (2) INFORMATION FOR SEQ ID NO: 120: (i) SEQUENCE CHARACTE ISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 120: CAAGGATCCA GAAGATTGGC 20 (2) INFORMATION FOR SEQ ID NO: 121: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 20 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 121: CGTCCTCTGG GAAGATCTGC 20 (2) INFORMATION FOR SEQ ID NO: 122: (l) SEQUENCE CHARACTERISTICS : (A) LENGTH: 24 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 122: GCAACAGAGC AAGACTCCAT CTCA 24 (2) INFORMATION FOR SEQ ID NO: 123: (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 22 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 123: GAGTTTAATG GAAGAACTAA CC 22 (2) INFORMATION FOR SEQ ID NO: 124: (l) SEQUENCE CHARACTERISTICS: (A) LENGTH: 23 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (Xl) SEQUENCE DESCRIPTION: SEQ ID NO: 124: CCTCATGGAG AAACATCCTA AGT 23 (2) INFORMATION FOR SEQ ID NO: 125: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 24 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 125: AGGGAGTGCA CGGCTGAGCT CCTG 24 (2) INFORMATION FOR SEQ ID NO: 126: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 6254 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ix) FEATURE: (A) NAME/KEY: modified_base (B) LOCATION: 1287..4273 (D) OTHER INFORMATION: /note--. "N = A or G or C or T" (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 126: AGCCAGCACT GTTCTTGGCA CATGGTAATC TTAACATATT TTTTCCTACA GGGAGGCCTG 60 GTGTCAGGCC GGGAGTGGGG TGGAAGGGTC CCAAAATGGA TGGAAGGGCC CCAAAATGGC 120 CGTGAGCATC CTCTGCCCTT GAGAAGAGCT AGCCCAGCTG TCTAGAGCTC CCTGCTGCTG 180 CCGCTCTCGT AAGCAGCAAG CATTTTTGGC TCTCCTGTCT CAGCATGATG CCCCTACAAG 240 GTTCTTTCGG GGGTGGGACC CAACGCTGCT CTCCTGATGG CCTCCCTGGC TCCCAGCACC 300 TTCCATCCCA GCTGCTCAGG GCCCCTCACC TGCGCCTCCC CCACCCTCCC CTCTGCCCAC 360 TCCCATCGCA GGCCATAGCT CCCTGTCCCT CTCCGCTGCC ATGAGGCCTG CACTTTGCAG 420 GGCTGAAGTC CAAAGTTCAG TCCCTTCGCT AAGCACACGG ATAAATATGA ACCTTGGAGA 480 ATTTCCCCAG CTCCAATGTA AACAGAACAG GCAGGGGCCC TGATTCACGG GCCGCTGGGG 540 CCAGGGTTGG GGGTTGGGGG TGCCCACAGG GCTTGGCTAG TGGGGTTTTG GGGGGGCAGT 600 GGGTGCAAGG AGTTTGGTTT GTGTCTGCCG GCCGGCAGGC AAACGCAACC CACGCGGTGG 660 GGGAGGCGGC TAGCGTGGTG GACCCGGGCC GCGTGGCCCT GTGGCAGCCG AGCCATGGTT 720 TCTAAACTGA GCCAGCTGCA GACGGAGCTC CTGGCGGCCC TGCTCGAGTC AGGGCTGAGC 780 AAAGAGGCAC TGATCCAGGC ACTGGGTGAG CCGGGGCCCT ACCTCCTGGC TGGAGAAGGC 840 CCCCTGGACA AGGGGGAGTC CTGCGGCGGC GGTCGAGGGG AGCTGGCTGA GCTGCCCAAT 900 GGGCTGGGGG AGACTCGGGG CTCCGAGGAC GAGACGGACG ACGATGGGGA AGACTTCACG 960 CCACCCATCC TCAAAGAGCT GGAGAACCTC AGCCCTGAGG AGGCGGCCCA CCAGAAAGCC 1020 GTGGTGGAGA CCCTTCTGCA GTAAGGAGCC CTGCCCCGTC CCCGCTCCCA GGAGAGCCTA 1080 GAGGGGCCCC CCTCAGCTCC TAACGAGCCC CCCTTCTGAG TTGAGTCCCC ATGACCTTCA 1140 GCCTTTAGCC TAGTTGCTGG GAAGGGGGAC AGGGCCCATG AGAGCCCAGG GGTCCTTGCT 1200 TGGAGGTTTG AGCCTCCAGC CCCTGAACTG CTCCTCTGCA GAGTCCCAAA TCCCATGAGC 1260 CCAGGCCTTT AGCCCAGTCC TTGGGCNAGG GGGACATTTC CCAGGGGGTC CAAGATGGGA 1320 GAAAAAGCAG TGAATTCACA ACTCAAATGC CCACCCACCC ATCCATCCAT CCGTCCATCC 1380 ACCCATTCAT CCATTCATCC ATTCACCCAT CCATCCATCC ACATATCTTC ATCTGTGTTG 1440 TGTGTCTGTG TATCCATGTT TCTAAACCTT TATCTGTTCC AGTGTCTGTA TCCATAGGCC 1500 TGTGTCCACG TTTGTCATGT GTGTGCGTCN ACAAGTCTCT GTCCTCATGA CCATGTGTCT 1560 GTGTCCCTGT GTCCTGGCAT AAATGACCAT ACCTCACCGT CCCTGAGTCT ATGTGTAGGC 1620 CCCTGGGCTC CATAACTGCT TTCATGCACA GTCCCCACCC TCAGAGTTGA CAAGGTTCCA 1680 GCACCCAGGA CCGCAGCCCC ACCTATGGGG AGAGACAGCC CTTGCTGAGC AGATCCCGTC 1740 CTTGCCCTCT CCCAGGGAGG ACCCGTGGCG TGTGGCGAAG ATGGTCAAGT CCTACCTGCA 1800 GCAGCACAAC ATCCCACAGC GGGAGGTGGT CGATACCACT GGCCTCAACC AGTCCCACCT 1860 GTCCCAACAC CTCAACAAGG GCACTCCCAT GAAGACGCAG AAGCGGGCCG CCCTGTACAC 1920 CTGGTACGTC CGCAAGCAGC GAGAGGTGGC GCAGCGTAAG TAATGACCCT ACCCCGCATC 1980 TTCCCTGGGA GGGCCCAGGA CTCTCCCCTA ACTCATAGGT GGGGGCTGGA AGCTTCACCA 2040 TCCCCATT C ACAGACAGGT AGATGGAAAG GAAGTCAGTG GGATTCAACC TGCATTTATT 2100 ACCTATTCTG CGCCAGGCAC TCTGTGGGAC GGGAGTANAC TTGGTCCTGA ACATCCAAAG 2160 ATGAATGAAA TGGGTCCCTG CTTTCTTTTT CTTTTTTTAG ATACGTGACT CTGGAAAAAT 2220 ATGTAAGCTC TCTGAGCCTC AGCTTCTTCA TCTGTACAAT GGGGATAGTA AATGTGCCAA 2280 ATCAGAACAA ATGCTAATGC TTACCTGCAG TCTTGTACTG AGAAGGATGG TGAGATCATA 2340 TCTTGGGTTG GTAGGAAAGC ATTCAGGGAT TGATTAGTGA TGTTTGCCTT GAACACAGGT 2400 TAAGAAAGTG ATGGCATGTG TGCTGTGTGT TTGTCATCAG TAGATTAGAT GATTTCTAAG 2460 TTCTAGCTGT AAGCTCCTCT GGTTCAGCGC CATGGCAATG AGAAAGAATC AAGGGCAAGG 2520 TCAGGGGAAT GGACGAGGGA AGGTGAGAGT GGCCAGTACC CCACTCACGG CTTTCTGTGC 2580 CTGCAGAGTT CACCCATGCA GGGCAGGGAG GGCTGATTGA AGAGCCCACA GGTGATGAGC 2640 TACCAACCAA GAAGGGGCGG AGGAACCGTT TCAAGTGGGG CCCAGCATCC CAGCAGATCC 2700 TGTTCCAGGC CTATGAGAGG CAGAAGAACC CTAGCAAGGA GGAGCGAGAG GTACAACGGC 2760 GGGCGGGAAA CAGTGCTGGT TTGGTCTGGG CTGCGGCAAG GCCAGGGGAA GGGGAAGGTG 2820 ACTCTAGGTC CTGTAAAAGG CTGTCCAGTT GCCGAGAACT CCTGATATTG GCTTAGCCTG 2880 GCCCAGAAAA TTGAGAATAC TTGAACCTAA GCCCATTCCT CGCAGCCCCC CTGCACCNTG 2940 GACACCAAGC AACCCCTTCC ATGGATGCTC ACCCAATTCG ATTCTCTCTA CAATCCTATG 3000 GCTCTTTTGC TCACTTTATG AATGGAGAGA CTGAGGTCAG ACAGACTGTC AATTGCCCAA 3060 GGTCACACAG CAGACCTGGC ATTGGAACCC AGATCTGCCA GCCTCAAACC CTCCGGCAGA 3120 GNTCAGCTTC TCAGAACCCT CCCCTTCATG CCCAGGACAG GGTTCCTCTG AGCCTGGCCT 3180 GGAGGCTCAT GGGTGGCTAT TTCTGCAGGG CGGAATGCAT CCAGAGAGGG GTGTCCCCA1 3240 CACAGGCACA GGGGCTGGGC TCCAACCTCG TCACGGAGGT GCGTGTCTAC AACTGGTTTG 3300 CCAACCGGCG CAAAGAAGAA GCCTTCCGGC ACAAGCTGGC CATGGACACG TACAGCGGGC 3360 CCCCCCCAGG GCCAGGCCCG GGACCTGCGC TGCCCGCTCA CAGCTCCCCT GGCCTGCCTC 3420 CACCTGCCCT CTCCCCCAGT AAGGTCCACG GTAAGTGGTA TGTGGGGACA AGGGACACGT 3480 GGGAAGGTGG GAGGGTTGGG GAGGACTGTC CCATTGACAG CAGTCACCTA AACCTCTTTG 3540 CACGTCAGTT TGGTTCCATT CGCAGCTGAC CCAGGGATTG GCAAAAGGTA GAAACAAAGG 3600 CAGATTTGCT GGCTGCATAA AGGCAGACAG GCAGATGGCC TAAGCAAACC AATGGAGTTT 3660 GAAGTGCTGA GGGCTGTGGA GGCAGGGGAG GGCAGGGAAG TGGGGTGCTG AGGCAGGACA 3720 CTGCTTCCCT CTCCAGGTGT GCGCTATGGA CAGCCTGCGA CCAGTGAGAC TGCAGAAGTA 3780 CCCTCAAGCA GCGGCGGTCC CTTAGTGACA GTGTCTACAC CCCTCCACCA AGTGTCCCCC 3840 ACGGGCCTGG AGCCCAGCCA CAGCCTGCTG AGTACAGAAG CCAAGCTGGT GAGTGTCCTT 3900 GCTTGTAAGG AAAACCCAAC CTCATCTTTC CTTGGCAGGG AGATTCTGGA GCAGTCCCTA 3960 GGGAGGCCCT GTGGGGACCC CGGCCCCCCG GACACAGCTT GGCTTCCCCT CGTAGGTCTC 4020 AGCAGCTGGG GGCCCCCTCC CCCCTGTCAG CACCCTGACA GCACTGCACA GCTTGGAGCA 4080 GACATCCCCA GGCCTCAACC AGCAGCCCCA GAACCTCATC ATGGCCTCAC TTCCTGGGGT 4140 CATGACCATC GGGCCTGGTG AGCCTGCCTC CCTGGGTCCT ACGTTCACCA ACACAGGTGC 4200 CTCCACCCTG GTCATCGGTA AGCTGGTGGG GATGGGTGGG CACCTGGGTG GGAGGCTCAT 4260 GGGGCAACCG CANAATCCAG GAGCTGGAAA AGCCACTGGG ACTCATTCAT TCATTCATTC 4320 ATTCATACAA CATGTTAGGA GAGGGGAGCA GAGAACTGAC CCCATGGCCT TTGCACTGCT 4380 GTGGTACCCC AGGGCTCCAG GGAACCGCAG TTTGACAACT TTTGAACAAG TCACCGCTTG 4440 CTTTTCCCAT TAGCTTAGAC AAAGAGCTAA AGGCTCAGAG AGGGGGAATG ACTTGCCAGA 4500 GCCACTTAAA TTAGTGGCAG GTCCCAGTGG AGGGCTGTTT CCTGACCACC TTGCCCCTTC 4560 TTCCAAACCA CGGGCTCTGG GAAGGAGAGG TGGTGCCCTT GGGAGGTCTT GGGCAGGGGT 4620 GGGATATAAC TGGGGGGCCC AGCTGATTCC CTCCCCTTCC ACTCCAGGCC TGGCCTCCAC 4680 GCAGGCACAG AGTGTGCCGG TCATCAACAG CATGGGCAGC AGCCTGACCA CCCTGCAGCC 4740 CGTCCAGTTC TCCCAGCCGC TGCACCCCTC CTACCAGCAG CCGCTCATGC CACCTGTGCA 4800 GAGCCATGTG ACCCAGAACC CCTTCATGGC CACCATGGCT CAGCTGCAGA GCCCCCACGG 4860 TGAGCACCCT GTGCCCCACA CAGCAGGAGA TGATGATAGA GGTTGGCTGT CAATGGATGC 4920 AGGGGAAAGG GGTGCCTGGC AGGCATTGCA GTCTGCATGT GTCTCTGGGA CAAGTGTGTT 4980 TCCGTGATTG AGGGTGTCTG CAGGCCAGTG TGTTCCCATG TGAATGCACG TATCTGTGTG 5040 TGTGCACGAC TGCTTGTGTG AGCAGATCCC TAGTGCGTGT CTGGGTGTGT ATCGGTTGTG 5100 CATGCATTTG TGTGCATGCC TGTGTTTCTC TGAAACTCTT AGGGCCATAT GAATTTCTAA 5160 AATCTATTCA GACCAGTTTT GAAAATCAGC CTTGGATCTC CAACTGCTGC CCAGTCTGGC 5220 TGTTCAGCAG GCCCCATGCC CCCCTTTCCC CAGTCTTGAG GCCTGGGACT AGGGCTGTCA 5280 GGCACGTTTG CCACGTCTGC CCCTCTCTCC CCTGCGGCCA GCCCTCTACA GCCACAAGCC 5340 CGAGGTGGCC CAGTACACCC ACACGGGCCT GCTCCCGCAG ACTATGCTCA TCACCGACAC 5400 CACCAACCTG AGCGCCCTGG CCAGCCTCAC GCCCACCAAG CAGGTAAGGT CCAGGCCTGC 5460 TGGCCCTCCC TCGGCCTGTG ACAGAGCCCC TCACCCCCAC ATCCCCCGGG CTCAGGAGGC 5520 TGCTCTGCTC CCCCAGGTCT TCACCTCAGA CACTGAGGCC TCCAGTGAGT CCGGGCTTCA 5580 CACGCCGGCA TCTCAGGCCA CCACCCTCCA CGTCCCCAGC CAGGACCCTG CCGGCATCCA 5640 GCACCTGCAG CCGGCCCACC GGCTCAGCGC CAGCCCCACA GGTGAGAGGC CCTGGCTCCA 5700 CCCCCTCCCT TACTGTCCCT GCCCCCTTCC ATGTTGGTCC CACCCCTTCT GTTGCTGTCC 5760 GTCACTGTGG GGCTGTGCAT GCAGCAGGCC TAGGGCTGCT GTGAGGAAGC ACTGGCAGGC 5820 GTGGAAGGGT GGGGTGGCTT CCATGAATCC AGTGTTCACA GTAAGATGTA CTCAGGCCAG 5880 TCCATGGGCG GCCGTGGACC CTGGCTGGGA GGCTCCCTTT GTTAAGAACC GAGGGTAGAG 5940 GTGTGACTTT GGGGTTCCTG TTATGTGCTG TGATCCAGGA GGTGTGGCCC TGCCTCCCCA 6000 TCCTGAGTAC CCCTAGGGAC AGGCAGGTGG GGTGGGTGTG GGTGCCTGGT GGGTGGCTAG 6060 CAGCCTTGTT TGCCTCTGCA GTGTCCTCCA GCAGCCTGGT GCTGTACCAG AGCTCAGACT 6120 CCAGCAATGG CCAGAGCCAC CTGCTGCCAT CCAACCACAG CGTCATCGAG ACCTTCATCT 6180 CCACCCAGAT GGCCTCTTCC TCCCAGTAAC CACGGCACCT GGGCCCTGGG GCCTGTACTG 6240 CCTGCTTGGG GGGT 6254 (2) INFORMATION FOR SEQ ID NO: 127: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 631 amino acids (B) TYPE: amino acid (C) STRANDEDNESS: (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 127: Met Val Ser Lys Leu Ser Gin Leu Gin Thr Glu Leu Leu Ala Ala Leu 1 5 10 15 Leu Glu Ser Gly Leu Ser Lys Glu Ala Leu He Gin Ala Leu Gly Glu 20 25 30 Pro Gly Pro Tyr Leu Leu Ala Gly Glu Gly Pro Leu Asp Lys Gly Glu 35 40 45 Ser Cys Gly Gly Gly Arg Gly Glu Leu Ala Glu Leu Pro Asn Gly Leu 50 55 60 Gly Glu Thr Arg Gly Ser Glu Asp Glu Thr Asp Asp Asp Gly Glu Asp 65 70 75 80 Phe Thr Pro Pro He Leu Lys Glu Leu Glu Asn Leu Ser Pro Glu Glu 85 90 95 Ala Ala His Gin Lys Ala Val Val Glu Thr Leu Leu Gin Glu Asp Pro 100 105 110 Trp Arg Val Ala Lys Met Val Lys Ser Tyr Leu Gin Gin His Asn He 115 120 125 Pro Gin Arg Glu Val Val Asp Thr Thr Gly Leu Asn Gin Ser His Leu 130 135 140 Ser Gin His Leu Asn Lys Gly Thr Pro Met Lys Thr Gin Lys Arg Ala 145 150 155 160 Ala Leu Tyr Thr Trp Tyr Val Arg Lys Gin Arg Glu Val Ala Gin Gin 165 170 175 Phe Thr His Ala Gly Gin Gly Gly Leu He Glu Glu Pro Thr Gly Asp 180 185 190 Glu Leu Pro Thr Lys Lys Gly Arg Arg Asn Arg Phe Lys Trp Gly Pro 195 200 205 Ala Ser Gin Gin He Leu Phe Gin Ala Tyr Glu Arg Gin Lys Asn Pro 210 215 220 Ser Lys Glu Glu Arg Glu Thr Leu Val Glu Glu Cys Asn Arg Ala Glu 225 230 235 240 Cys He Gin Arg Gly Val Ser Pro Ser Gin Ala Gin Gly Leu Gly Ser 245 250 255 Asn Leu Val Thr Glu Val Arg Val Tyr Asn Trp Phe Ala Asn Arg Arg 260 265 270 Lys Glu Glu Ala Phe Arg His Lys Leu Ala Met Asp Thr Tyr Ser Gly 275 280 285 Pro Pro Pro Gly Pro Gly Pro Gly Pro Ala Leu Pro Ala His Ser Ser 290 295 300 Pro Gly Leu Pro Pro Pro Ala Leu Ser Pro Ser Lys Val His Gly Val 305 310 315 320 Arg Tyr Gly Gin Pro Ala Thr Ser Glu Thr Ala Glu Val Pro Ser Ser 325 330 335 Ser Gly Gly Pro Leu Val Thr Val Ser Thr Pro Leu His Gin Val Ser 340 345 350 Pro Thr Gly Leu Glu Pro Ser His Ser Leu Leu Ser Thr Glu Ala Lys 355 360 365 Leu Val Ser Ala Ala Gly Gly Pro Leu Pro Pro Val Ser Thr Leu Thr 370 375 380 Ala Leu His Ser Leu Glu Gin Thr Ser Pro Gly Leu Asn Gin Gin Pro 385 390 395 400 Gin Asn Leu He Met Ala Ser Leu Pro Gly Val Met Thr He Gly Pro 405 410 415 Gly Glu Pro Ala Ser Leu Gly Pro Thr Phe Thr Asn Thr Gly Ala Ser 420 425 430 Thr Leu Val He Gly Leu Ala Ser Thr Gin Ala Gin Ser Val Pro Val 435 440 445 He Asn Ser Met Gly Ser Ser Leu Thr Thr Leu Gin Pro Val Gin Phe 450 455 460 Ser Gin Pro Leu His Pro Ser Tyr Gin Gin Pro Leu Met Pro Pro Val 465 470 475 480 Gin Ser His Val Thr Gin Asn Pro Phe Met Ala Thr Met Ala Gin Leu 485 490 495 Gin Ser Pro His Ala Leu Tyr Ser His Lys Pro Glu Val Ala Gin Tyr 500 505 510 Thr His Thr Gly Leu Leu Pro Gin Thr Met Leu He Thr Asp Thr Thr 515 520 525 Asn Leu Ser Ala Leu Ala Ser Leu Thr Pro Thr Lys Gin Val Phe Thr 530 535 540 Ser Asp Thr Glu Ala Ser Ser Glu Ser Gly Leu His Thr Pro Ala Ser 545 550 555 560 Gin Ala Thr Thr Leu His Val Pro Ser Gin Asp Pro Ala Gly He Gin 565 570 575 His Leu Gin Pro Ala His Arg Leu Ser Ala Ser Pro Thr Val Ser Ser 580 585 590 Ser Ser Leu Val Leu Tyr Gin Ser Ser Asp Ser Ser Asn Gly Gin Ser 595 600 605 His Leu Leu Pro Ser Asn His Ser Val He Glu Thr Phe He Ser Thr 610 615 620 Gin Met Ala Ser Ser Ser Gin 625 630 (2) INFORMATION FOR SEQ ID NO: 128: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 6433 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 128: CATGAACCCC GAAGAGTAGT GTCTTCTCTC TGGACTAAAG CGGAACTGAG AACCGGTGGA 60 AAAGCCCCGC GCCTAGGCTG CAAGGCACTG GCTTAACAAG TCCAAAGGTT AGGTGAAGTT 120 TGGCTGATAA GCAGAACCAG TAAAAGAAGG TCTCTAGCCC CCCAGCGTGA GTACAATGGA 180 CCCTGGCAAA GCCCCGCTCC CGGCCCAGGT CTTCTGCTCT CCAGGTCTGC CCCTCCGGCT 240 CTCCCTCTCT CCGGGTTTCC CCCTCCCCAC CATCATTTGC ATCCAGCCGA AAGCTGGGCC 300 CTTCCCACTA ATTTGCATAT CTTATATGGC CTAATGGTGG CGATCATGGC AAGTTAGAAG 360 TTTTCTGACT CCTTTCGGAG GAGCCTCCGG GACCCCGGGG AGTAACAGGT GTCTGGAGGC 420 TGAAGGGTGG AGGGGTTCCT GGATTTGGGG TTTGCTTGTG AAACTCCCCT CCACCCTCCT 480 CTCTCGCACC CACCCACCCC CTCACCCCCT TCTTTTTCCG TCCTTGGAAA ATGGTGTCCA 540 AGCTCACGTC GCTCCAGCAA GAACTCCTGA GCGCCCTGCT GAGCTCCGGG GTCACCAAGG 600 AGGTGCTGGT TCAGGCCTTG GAGGAGTTGC TGCCATCCCC GAACTTCGGG GTGAAGCTGG 660 AGACGCTGCC CCTGTCCCCT GGCAGCGGGG CCGAGCCCGA CACCAAGCCG GTCTTCCATA 720 CTCTCACCAA CGGCCACGCC AAGGGCCGCT TGTCCGGCGA CGAGGGCTCC GAGGACGGCG 780 ACGACTATGA CACACCTCCC ATCCTCAAGG AGCTGCAGGC GCTCAACACC GAGGAGGCGG 840 CGGAGCAGCG GGCGGAGGTG GACCGGATGC TCAGGTAGGC GCAGAGCCAG GTGGAGGGGA 900 CCCACCCGAA CCCCTGGAGC CCCGGCCCCG GGCCTGAGTG ACACTGCGCC CGACCACACT 960 CGCCAAGCCC GTTTCCCACC AAAAAATTCC CCCGGGGGGC GCTCTGCTTC TCTCCCAACA 1020 CCCGGACCCT TCCCAATCCC TTAGCGGGAC AACCCTGCGG CCCACCGGGC TTCTTCTCCC 1080 CAGGCCCAGG CCATCGTCCT CAGAAGAAAG GGATGAGGTG TACCGTACAG GGGCAGTCAC 1140 CTTCTCCTCT GTTTAGCTTC CATTTTGGCC TCATGTCTAC CCCAAAGTTG TAGCTTAGAT 1200 GGGGGGAAAA TTCAGAATTT TGCATAGACC ATAGGTAGCA CCCCCTAGAA AAAGAATGTT 1260 TCTCCCCAGA TGTCTCCCAC TAGTACCCTA ACCATCTGCT TGTCTGTCTA GTGAGGACCC 1320 TTGGAGGGCT GCTAAAATGA TCAAGGGTTA CATGCAGCAA CACAACATCC CCCAGAGGGA 1380 GGTGGTCGAT GTCACCGGCC TGAACCAGTC GCACCTCTCC CAGCATCTCA ACAAGGGCAC 1440 CCCTATGAAG ACCCAGAAGC GTGCCGCTCT GTACACCTGG TACGTCAGAA AGCAACGAGA 1500 GATCCTCCGA CGTAAGTGTT TTCATCCTGC CTCTGCCTCA ACCTGAAGTG ACCTTTGCCC 1560 TCTCACCCCA TTGGCTGCCT CAGTTTCCCT TTCATCGACA AGGCCTTGTG AGCACTTGGC 1620 AGATATGAGG AAGGTGGCAA GTAGATTTGG CCTTGGTGGT TGCTGTACAA TGGATTGGCT 1680 TCTGTCATGT TCTTCAGTCA CAGCCCCCTT GCTACCCAGC CAGTTGCTCT GAGGAGCCTG 1740 TCAGTGTGAT TGAGCTCACC CACTTGACAT CAAATACAGG AGTTCAGGAT GCAGAGTGTT 1800 GCTTCATCTC TGAAGGCCAG TGAGCCAAAG GGGAAAAAAT AATAATTTTC TTAAAACTAT 1860 AGCTGGCTAT GTTTGAGCTC CTTCAAAGAA AGGAAAAGGG TGGCTTTGCT GGAGCAACTG 1920 AGGTGGGCAG TAAGGGCCTG TGCTGAGGGC TCCCCATCTC CAGCTCCACA TGCAGTGAGA 1980 GAAGGTTGCA AAGCTTAGTT AGACGAGGGG AATAAACCTG TCTTCGTCCG TTGTCTGTCT 2040 GTCTGTCTGT CTGTCTGCTG AGTGAAGGCT ACAGACCCTA TCAAATCTAC TCCTTTCTCT 2100 TTTCAGAATT CAACCAGACA GTCCAGAGTT CTGGAAATAT GACAGACAAA AGCAGTCAGG 2160 ATCAGCTGCT GTTTCTCTTT CCAGAGTTCA GTCAACAGAG CCATGGGCCT GGGCAGTCCG 2220 ATGATGCCTG CTCTGAGCCC ACCAACAAGA AGATGCGCCG CAACCGGTTC AAATGGGGGC 2280 CCGCGTCCCA GCAAATCTTG TACCAGGCCT ACGATCGGCA AAAGAACCCC AGCAAGGAAG 2340 AGAGAGAGGC CTTAGTGGAG GAATGCAACA GGTAACACCA CCAGAAGCTC AGGTGGGCAG 2400 GTGGGCAAGT ACACAGACCC AGGAACCCTC CCCTCGGTCC TGGGATATTG AGACACTAGT 2460 TATACAGATA AGTGTGGCTA AATCAGAGCT TCTCAAAGTA TGTTCCACAG TGATTGTGTG 2520 TTTTGGGCCA AGCACCAACA AGTCCCCCCG CCCCCCTTCA CTCACCATCT CCCCTCCATC 2580 CATTCCCAGG GCAGAATGTT TGCAGCGAGG GGTGTCCCCC TCCAAAGCCC ACGGCCTGGG 2640 CTCCAACTTG GTCACTGAGG TCCGTGTCTA CAACTGGTTT GCAAACCGCA GGAAGGAGGA 2700 GGCATTCCGG CAAAAGCTGG CCATGGACGC CTATAGCTCC AACCAGACTC ACAGCCTGAA 2760 CCCTCTGCTC TCCCACGGCT CCCCCCACCA CCAGCCCAGC TCCTCTCCTC CAAACAAGCT 2820 GTCAGGTAAG CAAAGGTTGG GCCTCACTGC CTCGGCAACC CAACCATCCT GGTTCTTGCC 2880 ACGGATCTTA TCTGGTTTAA GGGTTTTCAG AGGAGCAAAC GCTTTTGAGA TGATCCTAGG 2940 GCCGCTCTCT CATTGCCAGA ATATACTCCC CTGGAAATAA TGTGTGGCTC TGATCAGTTC 3000 CAAGGCACTG GGGATACATC AGTGAACAAA ACAAACGAGA TAAAAATTTC CTGCCCTCGT 3060 GGCGCTTACA TTCTAGAATT AAATAGAGAA CATGCCATAT TTACCCTGGA GAAAAGCAGC 3120 CGATATTTCT TGTGGGTGGA CAGGGGAGGA GAAAGCAACT TTATTTTCTT ATTACCCACC 3180 CTTGAAAACA AGAGGTGCCG AGTCATTGTT CCAGGACCCT GGTGGCACTA ATGTTCCCTA 3240 CTGGGTTTGT GTTGTTTTGC AGGAGTGCGC TACAGCCAGC AGGGAAACAA TGAGATCACT 3300 TCCTCCTCAA CAATCAGTCA CCATGGCAAC AGCGCCATGG TGACCAGCCA GTCGGTTTTA 3360 CAGCAAGTCT CCCCAGCCAG CCTGGACCCA GGCCACAATC TCCTCTCACC TGATGGTAAA 3420 ATGGTGAGTA CACCTGGGCC ATTGTCGCTC TGGAGCTGAT AAGATAAGAG GCAAAACAAA 3480 CACAACTTCT CACAAGGCCT GCCTCAAACA ATGAACCATT GTAGCCCCAT AGGGGAAAAT 3540 GAGGGCTGTC CAGAGTCGGA AAGGAGAGGT AGTGCTGGTG ACCCACCCTT TGGCGGGTAG 3600 AAAACCCAAA GTGATGGGAT TACAGGGGTG AAGCACCATG CCCAGCCAAT AATTGTTATT 3660 GAGTGAATGA AGGAATGAAT TTGAGAACTA GTCATGCCAA GGAATCGCTA AGTCACATCG 3720 TGTTGGAAAC TGCTCTTTGT GGTCCAAGTC CACCCATGTT TCTCTTGTTT TTTTCTCTCC 3780 ATCAGATCTC AGTCTCAGGA GGAGGTTTGC CCCCAGTCAG CACCTTGACG AATATCCACA 3840 GCCTCTCCCA CCATAATCCC CAGCAATCTC AAAACCTCAT CATGACACCC CTCTCTGGAG 3900 TCATGGCAAT TGCACAAAGT AAGTTCTATT CTTGGTTGGA AAACCTGGGG GCAGGGAGAA 3960 GAAGAATGGG AAGCAAATTA ATGTGGTGAA AAATAACTGT AGGTCTCCTT CAAACTCACC 4020 CACAACTAGT AAATTTGGTT TAACTTCTTT AGTTTCTCAT CTGTCTCCTT AAATCCAATA 4080 TTTGGATTGT TTAGCCTAAA ACAAGAAAAA ATTGTGGAAT GGATTTGGAT CCTGGTCACA 4140 GTTTAGCAGC TGTGCATCCT GGGTCAAATC ATTGAACCTA TGACTCTGGG AGACTCTCAG 4200 GCTTTAATCA GATCTGTTTA ATGCCCATCT CCAACCCACA ACTCATTGTG GAACTTGAGC 4260 AAGTAAATTA ATATCTCCAA GTCTCCGTTT CTTTACACTT GCCTCCCATG GAATCTCCTA 4320 TGTAACAGGC TCAGCCCGGT GACTGGGACA TTGAGCGGGG GCTCAAATGA TGGCATCCAT 4380 CCACCTCTCC TTATCCCAGG AGCTGTCTGT GTCTTTTCCT CTTGCTCCCA CAGGCCTCAA 4440 CACCTCCCAA GCACAGAGTG TCCCTGTCAT CAACAGTGTG GCCGGCAGCC TGGCAGCCCT 4500 GCAGCCCGTC CAGTTCTCCC AGCAGCTGCA CAGCCCTCAC CAGCAGCCCC TCATGCAGCA 4560 GAGCCCAGGC AGCCACATGG CCCAGCAGCC CTTCATGGCA GCTGTGACTC AGCTGCAGAA 4620 CTCACACAGT AAGGACACGG GCATGTGGAG GGAGGGAGCA CTCAGGACCC TCAGTGGCCA 4680 ACCACTTTCC CTCTCTGGGT CTGAACTTTC TCGGAAGTTT ATTGGCTTGG TCACTTTTCC 4740 CTGCCTATGA TCAACCGACT AAGACAATTT CTCAAGCATA ACTCTTGAGT GTTGCTGTAC 4800 CTTTTCTAGT CCTCTTCTCT ACCCCTGAGA TTCCCAGGGA AGGGTTTGAA TGACCTTTGC 4860 TCCCGTTCCG TACCGGAGGC CTCCCTGGTA GGAAATGTGT TCTGAGAGCA GGTGGTTTCT 4920 CCCTCACAGC CAAGCATCCA CATGCTTTCG GGAGTTGGTT ATGTGACTTG GAATTTACAT 4980 GAATCTTATG GATAACTAAT ATGAGAAATC CCCACTATAA CCACCAGCCC TTTTATCTAC 5040 CTGAGGAGAT GGGAGCTATG GTGTGGGATG GGGGCTCTGT ACCTGTGTCT TTGCCTGTGT 5100 ATGCACCTTG ATTCTGTCTT CACTCTGTCT CTCCAGTGTA CGCACACAAG CAGGAACCCC 5160 CCCAGTATTC CCACACCTCC CGGTTTCCAT CTGCAATGGT GGTCACAGAT ACCAGCAGCA 5220 TCAGTACACT CACCAACATG TCTTCAAGTA AACAGGTAAT GCCAGCAGGA TATGCGGGGG 5280 TTGGGGTGTG GGCAGGGTGT GATAAGGCCA TGGATGTGCA AAGGTTGTGG CAAGCATGGA 5340 CTCGGCCAGA AATTATATCC TCTTTGCTGG TTGAGTTGGG CATCATCTCC CTTAGAGAAG 5400 CCAAACTAAT GGCCCATGAC CCTGCCAAAT GACACAGCTG AGCACCCTCT CTCCTCTCTC 5460 TCTGCAGTGT CCTCTACAAG CCTGGTGATG CCCACACACC ACTTACTTCG TGCGCAACAA 5520 CAAGGACCCT GTTTTCCACA CCATCACCCT CTGGGCAGCT GTCATGGAAA AGCCCAGTGA 5580 CCTGACCAGC ACCTGCGAGA GGTCCCTGCT ACCTGACGGA CGTCCTGCTG GCACCTCAGA 5640 CAATCCACTC TCAGGAGGCG CAGCCCGAAG CCCAGTTTCC CTTCTATGCA GTATTGCCAC 5700 AATGCCTCTC CCACGATGTC AAGGACTCCT GTCTGTCCTG GAGGTGGGAG ACAAGGAACC 5760 ACCGAAGAGG AAGCAAGAAA GCCGTACTGT CTATGTTGTG ATCCTTCATC GAACAAACTG 5820 ATGCGAAAAC TTGAATCTGT TACTGAAATG AGGAGAGAAG GACATGTGCT ATTGAACTGA 5880 GCCAAACACA CTGTAAATAT CCACAGACTC CCTCCCCTGC CCCCATCCCA CATGATCTTG 5940 AGATTTCTTT TAAAGAAGTA AATTTGTCCA ATGGCTGTAA ACTATAAACT ACTGTAATTA 6000 AGTGCAATTT CCCCTCTGTG TCCTCTCCCC TCTGCCCTGT ATATAATACT AAAGTGTCTA 6060 TTAGTTTTCT TTGTAAAGGT CAGAGTCAAA ATTTCAAAAG TGATCTGTCC CCTCTCCCCT 6120 CATGGAGAAA CATCCTAAGT GGGAAGTGAA GCCCCTTGTC CTCTCCCGCG GGCCTGGACA 6180 CTTATGGGGA CAGCATACCT TGGACTGACT ACCAGCTAAC TCCAGTCTCC TGACATTAAG 6240 ACACACCTCT GGATCCCTGG AGGGGCTGAA TGTAGTGTGT CAGAGTAACA TGCCAGCTTC 6300 CTGTGGGCCA GGAGCTCAGC CTGCACTCCC TAAGAAACCC CAGGGCAGGG AA CTGGCTG 6360 TTTGATAGCA GAAGAAAAAG TTGCAGTCTC AAAAGCCTTC CATTAAAACA ATTTATTTTA 6420 TCACTAAAAA AAA 6433 (2) INFORMATION FOR SEQ ID NO: 129: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 609 amino acids (B) TYPE: amino acid (C) STRANDEDNESS: (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 129: Met Val Ser Lys Leu Thr Ser Leu Gin Gin Glu Leu Leu Ser Ala Leu 1 5 10 15 Leu Ser Ser Gly Val Thr Lys Glu Val Leu Val Gin Ala Leu Glu Glu 20 25 30 Leu Leu Pro Ser Pro Asn Phe Gly Val Lys Leu Glu Thr Leu Pro Leu 35 40 45 Ser Pro Gly Ser Gly Ala Glu Pro Asp Thr Lys Pro Val Phe His Thr 50 55 60 Leu Thr Asn Gly His Ala Lys Gly Arg Leu Ser Gly Asp Glu Gly Ser 65 70 75 80 Glu Asp Gly Asp Asp Tyr Asp Thr Pro Pro He Leu Lys Glu Leu Gin 85 90 95 Ala Leu Asn Thr Glu Glu Ala Ala Glu Gin Arg Ala Glu Val Asp Arg 100 105 110 Met Leu Ser Glu Asp Pro Trp Arg Ala Ala Lys Met He Lys Gly Tyr 115 120 125 Met Gin Gin His Asn He Pro Gin Arg Glu Val Val Asp Val Thr Gly 130 135 140 Leu Asn Gin Ser His Leu Ser Gin His Leu Asn Lys Gly Thr Pro Met 145 150 155 160 Lys Thr Gin Lys Arg Ala Ala Leu Tyr Thr Trp Tyr Val Arg Lys Gin 165 170 175 Arg Glu He Leu Arg Gin Phe Asn Gin Thr Val Gin Ser Ser Gly Asn 180 185 190 Met Thr Asp Lys Ser Ser Gin Asp Gin Leu Leu Phe Leu Phe Pro Glu 195 200 205 Phe Ser Gin Gin Ser His Gly Pro Gly Gin Ser Asp Asp Ala Cys Ser 210 215 220 Glu Pro Thr Asn Lys Lys Met Arg Arg Asn Arg Phe Lys Trp Gly Pro 225 230 235 240 Ala Ser Gin Gin He Leu Tyr Gin Ala Tyr Asp Arg Gin Lys Asn Pro 245 250 255 Ser Lys Glu Glu Arg Glu Ala Leu Val Glu Glu Cys Asn Arg Ala Glu 260 265 270 Cys Leu Gin Arg Gly Val Ser Pro Ser Lys Ala His Gly Leu Gly Ser 275 280 285 Asn Leu Val Thr Glu Val Arg Val Tyr Asn Trp Phe Ala Asn Arg Arg 290 295 300 Lys Glu Glu Ala Phe Arg Gin Lys Leu Ala Met Asp Ala Tyr Ser Ser 305 310 315 320 Asn Gin Thr His Ser Leu Asn Pro Leu Leu Ser His Gly Ser Pro His 325 330 335 His Gin Pro Ser Ser Ser Pro Pro Asn Lys Leu Ser Gly Gly Lys Gin 340 345 350 Arg Leu Gly Leu Thr Ala Ser Ala Thr Gin Pro Ser Trp Phe Leu Pro 355 360 365 Arg He Leu Ser Gly Leu Arg Val Phe Arg Gly Ala Asn Ala Phe Glu 370 375 380 Met He Leu Gly Pro Leu Ser His Cys Gin Asn He Leu Pro Trp Lys 385 390 395 400 Gly Val Arg Tyr Ser Gin Gin Gly Asn Asn Glu He Thr Ser Ser Ser 405 410 415 Thr He Ser His His Gly Asn Ser Ala Met Val Thr Ser Gin Ser Val 420 425 430 Leu Gin Gin Val Ser Pro Ala Ser Leu Asp Pro Gly His Asn Leu Leu 435 440 445 Ser Pro Asp Gly Lys Met He Ser Val Ser Gly Gly Gly Leu Pro Pro 450 455 460 Val Ser Thr Leu Thr Asn He His Ser Leu Ser His His Asn Pro Gin 465 470 475 480 Gin Ser Gin Asn Leu He Met Thr Pro Leu Ser Gly Val Met Ala He 485 490 495 Ala Gin Ser Leu Asn Thr Ser Gin Ala Gin Ser Val Pro Val He Asn 500 505 510 Ser Val Ala Gly Ser Leu Ala Ala Leu Gin Pro Val Gin Phe Ser Gin 515 5 * 0 525 Gin Leu His Ser Pro His Gin Gin Pro Leu Met Gin Gin Ser Pro Gly 530 535 540 Ser His Met Ala Gin Gin Pro Phe Met Ala Ala Val Thr Gin Leu Gin 545 550 555 560 Asn Ser His Met Tyr Ala His Lys Gin Glu Pro Pro Gin Tyr Ser His 565 570 575 Thr Ser Arg Phe Pro Ser Ala Met Val Val Thr Asp Thr Ser Ser He 580 585 590 Ser Thr Leu Thr Asn Met Ser Ser Ser Lys Gin Cys Pro Leu Gin Ala 595 600 605 Trp (2) INFORMATION FOR SEQ ID NO: 130: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 10014 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS : single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 130: TGGGTTGCCT GTGACTGCAC TGGCGATACC CCCACAAAGC CCACTCTGAA GGTAGGAGAC 60 GGGTGGAGAG AAACAGGGGG ATGGCAAGGG GGATACGAAA CAGGGAGAGG GAGGAGGGGG 120 AAGAGGATGG ACGTCTACCA GGCCCCACTT GGTGCTTGAT TTATGCCATC TCATTTCCTT 180 CTCAAACCAC CCTTTGAAGT TGATTGTACA TTTTACAGAA AAGGAAACTG AGGCTCGGAG 240 AGGAGAATCA TTTACCCAAG GTCCCAGTTA GTAGACGGTA GGTGCCTGAA TGTAAATCCA 300 GGTCTCTGCC TGCTCCGGGA GGGGGTGGGG GTGAGGGAAA CAGGAGAATG TGATGGGAAA 360 ATCCGAGATG GAGCCAGCCT GGGCCAGAAA CACTGGGAGC TGTOGGAGAC GGAGAGGGGC 420 AGGGTGGGAT CACAGGGAGC AGGAGCGGGG AATTGGAGGT GAATCTGGCC CTCCCAAACT 480 TCCAGTCCAT TCTGCTCCCA GGGGAACCGG GAAACTGCGG GGGAACTGGA AGGGAGCTCC 540 CAGAACAAGG ATCCAGAAGA TTGGCATCTG GGGCCTGGGA TTTAGGTTTC TAAATCGTGG 600 GCCATGGGGC AGCCTTATCT CTGCAAAAGC ATTGAGGGTA GAAGTCAATG ATTTGGGAAG 660 TTATTGAATT AGGGGATCTC GGAGGTAGGC TGTCAGTGCC TGATAGTATC AGTTAGAATG 720 CCTGACTTGG GGTGACAATG GCTTGGAGGG GTGGGTGAGT CAAGGGTCAA ATGAGTGCCC 780 GVGAGTCATG ATGCCTGCCT TGTACAATTG ATAACTGAAC ATCGGTGAGT TAGGGCCCCA 840 GCAGTTGTAA TTAGCACCCC GGGTGTCAGC CAGAAACCAA CAAACAGCCA AATCCCTGCA 900 GCCCCGCCCA GCCTATCCAC CGGCGGGGGA CCGATTAACC ATTAACCCCC ACCCCTCCCC 960 GGCAGAGCCT CCACCCCTTC ACAGAGGCTA GGCCAAGACT CCCAGCAGAT CTTCCCAGAG 1020 GACGGTTTGA AAGGAAGGCA GAGAGGGCAC TGGGAGGAGG CAGTGGGAGG GCGGAGGGCG 1080 GGGGCCTTCG GGGTGGGCGC CCAGGGTAGG GCAGGTGGCC GCGGCGTGGA GGCAGGGAGA 1140 ATGCGACTCT CCAAAACCCT CGTCGACATG GACATGGCCG ACTACAGTGC TGCACTGGAC 1200 CCAGCCTACA CCACCCTGGA ATTTGAGAAT GTGCAGGTGT TGACGATGGG CAATGGTAGG 1260 TGGGGGCAGA TGTGCCCAGG TGTGCCAGTG GGGGCAGGTG TGCCTGGGTC CAGGAGCAGA 1320 TCTTTGGCAC TCAACTTTGG GGTGGGAGGA GAATGATACA AAATGGTAGG TTGGTCCTAC 1380 AGGCCAGCAC AGGTGTTGCC AAGTGAAGCC CATGTGCCCA GGCACAGTGA TCACAGGCAT 1440 TCTGGGTGAA GGGAGGCCTG CAAGGGCCAA TTTCCAGCAA AAGTCGATCC CGGCTATTCC 1500 TCCCAGGCCC TTCCAGTCCT CACTGCCTCA CAGTGGCTCT GCTTGGCGCT TGGCACAGTG 1560 ACATGATGGT GAGCTCCCCC TTGGTGCCCA GCTCCAGCGA TTCAGCCCAG CACGGCCCCT 1620 TCGTGAACCC CTTGGGCCTA GGTTCAGAGA GACGGCAAGG GATGTTGTAT CCCTGGAGAT 1680 GGTGGTTGGA GACATAACCG CATTTCTCGG TGTCTTTGGG ACTTTCCTAG GGAAATGAAA 1740 TTGGCACTTA GGGAAAATGG AGCTCTCAGG GAAGTTTTGC TAACTACGAA GCCAACTCAG 1800 CACTGTGTGT GTTGTGTGTG CGTTCGTGTG TGATAGTGAG TTTCCATGTA GGTTGTATGG 1860 GTGGGGTGAT GCCTTCAGGA ACCCATTTGC ATATGTGTGT TCATTTGTCT CTGTGTGTGA 1920 GTTCTGGGTC TATTTTCCTT TGTATTCATT GAGTGGGTCT GTGTTTGTGT CTTAGGAGTT 1980 GCCCGTGTTG ATCTTGCTTA TGTATGTAAG TGTGTATGTG TGTGTACTTG TGTCTGTGGA 2040 TGTTTGTACA TGTGTGCTGT GTGTGCGGGT CATAGAGCAC ATGCGTTTGT GCATGCGGAC 2100 CTGTTGGAGT GCCCTGTTCT TCCTGCATCT TTATCCTGTA TGGGCGTTTT GTCGTGTGCC 2160 CATATTTGTA CCTGCTGTGT ATATATGCAG TTCCCTGTGC TGCGGGCGGG GGTCAGCGGT 2220 CTCTGGTGTG CACGACTGCA CAGACCCAAA TGCAGGACTC TGTTGTTGCC ACTCACCAAG 2280 TGAGATTCAT ATCAGCAACA TGTCCGTTTG TCTCTGAGCA GATTTTGTTG CCGCTGCGTC 2340 TCGCCAGATT GAGGCATCCC CTCCGACATC ACTGGAGCAT ATCTGGAGGG GTGGACAGTT 2400 CTCCACAGGG AGGTAGGGGA AAAGAGGAGG CCCGGAAACC CCTCCTGGAG GGAAGAGCCC 2460 CATCGGTCCC AGGCCAGCCT CAGAGGAGAG GGGGCAGGCA GCTGGCTGAG GTCAGCCTGC 2520 CACCCTGCTT CCTTCTGTGT CTTGGAGCCA CTCAGCCAGT ATGAGGCTGC AGCTCCAGCT 2580 GAGGTCTGGA ATCTTGTGGT CAGCTCAGCT AGGGTGAGGA GGCAGCTGCT GGGCACTGCT 2640 TGTTGTCAGC TCAGCAGGTG CTCACCTGCC CCTGCCGTCC AGTCACGTGT GACCTTGGGC 2700 ATGTCACCTC CCCTATCCTG GCTTCTGTAT CTTCTACAAA ACAGGCTTCA TTCCCCCAGG 2760 CCTGCTGGCT GGACGGCTTT TAGGCCTGTC TGAGGACCAC GCCAGGAGCG CAAGGCAAAA 2820 ACACACCAGA GATCCCCTTG CGAGTTAGGA GGCCGGCTCC CACCCCAGAA GGTGGCCAGG 2880 TTTTCATGCC TTCCTAGAGA AAGCTGGGGC TGGTGGCCTC CACCACAGGG AGACGCAGAC 2940 CCTCAGAAAC AAGTCTGTGA AGTCACAACC AGCCCCAGTT TACAGATGTG AAACTGAAGC 3000 TCCAAAAAGT CAGGAGGTCA CTGAGTGGGG AGGTGATGGA GTGGGAACAG CCCCCAGATC 3060 TGGCTGAGGC CGAAGCCCTG GAGAGATCCC CGCAAGGCTC CCTTAGATGC CTGACATTCT 3120 GCTCTTCCTG AAGCCTCACT CCCTTCTCTC CTGGCGCAGA CACGTCCCCA TCAGAAGGCA 3180 CCAACCTCAA CGCGCCCAAC AGCCTGGGTG TCAGCGCCCT GTGTGCCATC TGCGGGGACC 3240 GGGCCACGGG CAAACACTAC GGTGCCTCGA GCTGTGACGG CTGCAAGGGC TTCTTCCGGA 3300 GGAGCGTGCG GAAGAACCAC ATGTACTCCT GCAGGTGAGG AGCCTCAATT TCTTCAGCTG 3360 GGAAATGGGC ACACTTGGGC TCATGGCCCC AAGGTCTGTC TTCTCCCTGA GTGGGTAGGT 3420 CCCAGAGACA GCTGCCCTTC AGGGCCTTCA AGGCTCTTCT GGTTTTGTAA AAGACTTTGT 3480 GAATCCAAGA AGAGCATCTA TTCTAGGAAC CACATTTACT GATCATCAAG CTACTGGCTG 3540 CCGTTTATTG AGCTCTTATC ATATGCCAGG CACAATACTA AGTCTTTGTG TGTATTTACG 3600 TACTCCAGAG GTCAAGGTTC CCAACTCAGC TCTAACACCA ACCAGCAGAG CGACCCAGGA 3660 CCACATGTTG CCTCTCTGAG CCTCAGTTTT CCCATGTTTA GCAGGACAGG ACTGGGCTCT 3720 TAGAGAGTTC ATAGCACCTT TCCAGCTCCT GGTGGGTTCA AGAGAGAACT CCCGGGATGA 3780 AGAGATGAGA GCACTGAGGT TGGGGGGTCA ACTGGATAGC CAGGGCCCTA GTTCTGTCCT 3840 AAGAGGAGGA AGTTGTGTCT TCTCCATCCA ACCATCCAAA GCCCTCCCCA GATTTAGCCG 3900 GCAGTGCGTG GTGGACAAAG ACAAGAGGAA CCAGTGCCGC TACTGCAGGC TCAAGAAATG 3960 CTTCCGGGCT GGCATGAAGA AGGAAGGTGA GCCTCGGCCC TCCCCGCCCC ACCACCACTG 4020 CCCCACCTGC ACCCACAGCT CCCCGACAGT CATTTACAAC TGTAGCCACA CTTTATGACT 4080 CAGTGGCAGG CCCCAGGGTG ACTGGCTAAT GGCTGAGAAG AGGGAGGGCC TGGAAATCTG 4140 ACCATAGGGA GCGGCTGGGC TTGGTCTTGA GAAAGATTCT CCCACTCCTC ATCAGTCACA 4200 GACACCCCCA CCCCCTACTC CATCCCTGTT CTCCCTCCTC ACCTCTCTGT GCCTCCTCAC 4250 CCGTCCAGAA TGAGCGGGAC CGGATCAGCA CTCGAAGGTC AAGCTATGAG GACAGCAGCC 4320 TGCCCTCCAT CAATGCGCTC CTGCAGGCGG AGGTCCTGTC CCGACAGGTA CCGGGGTGAT 4380 CCTGCCACCC ACCCAGGGAT CCCCCACACT ACAGAGGAGC TCACCTCCTC CACCTCCATT 4440 CTCCCCAGCC AGGCCCTGGA GCAGCTGACG GGAGGGGCCT CAGATATTAC AGAAGGGACA 4500 CTGAGTGCGG TTTCACATGG CCCAGTTTGC AGCAAGGGCA GGAATCGAAC CTGGCGCCCT 4560 GGGGCACTTT CTAATTCATC CTACTGCCTG CATCCCACAG GCCAAGCAGA GTCTTCACCT 4620 TCACTGAGGG CCTGCGATCA GCTCAGCTCC GAGAGAACAG AGCAGTGGCT CAGTGGAGAG 4680 AGGTGGCAAA GTGGGGCCCA GCCCTTCCCT TGCTGAGTGA CCTTGGGCAA GTCACAGCAC 4740 CTCTCTGAGC CATGGTTGCC TCATTGTCAG AAAAGGATGA TGATTTTTTG CCCTGCTTCT 4800 CCTCTAAGGC TGACAGACTC CTTGGGGCTC TAAAGCTGTT CTCCCTCATC CCTGCCTCCT 4860 CCCTCCCTCC GTTTTTACCC TGAGCTTCCT TCAGAGCTGG AGGGCACCCA CTATCCAGCC 4920 CCCTCCCCAC ATCTGATTCC AGGGAGGGGG CTCTGTGCAG GGGACAGAGA ATGCGGGAGG 4980 GCCCGGACAT CTCCAGCATT TTCTTCCCTG TATCTCTCGA AGATCACCTC CCCCGTCTCC 5040 GGGATCAACG GCGACATTCG GGCGAAGAAG ATTGCCAGCA TCGCAGATGT GTGTGAGTCC 5100 ATGAAGGAGC AGCTGCTGGT TCTCGTTGAG TGGGCCAAGT ACATCCCAGC TTTCTGCGAG 5160 CTCCCCCTGG ACGACCAGGT GAGGATGGGC GTGGATGGTG GGCAGTAGTG GGCAGTGGGC 5220 GGGGCAGCCA GGGGGCTGCT GGCCCACCTG GGATATAGCC GTGGACTGGC TTGATTTTAT 5280 TTTATTTAAC AAAATATGTA GTGCACACAC GTGTCTGAAA CTTTAAATCA CCTTACAAAT 5340 ATTAACTCAG TTAGCTCCTC CAACAACTCT ATGAGGTAGG TACTAAGGTA CTATTATTAC 5400 TGCCATCTCA TAGGTGAGGA GATTGGGGCA CAGAGAGGTT AAGTAACCTG CTCAAGGTCA 5460 CATAGCTACT ATCCAGCATA GCTGGGATTT TTACAAAGCA CCCTTCATAA TTCTCCATAG 5520 CTGGTCCATG GGTGGGAATT TGGGACCCAC AGTTTTGGAA CTTTTTGGGA TCATAGACCT 5580 TTTTGAGAAT CTCAAAAAAG AAAAAAAAAG CACACAGAAT GTTGCTTACA GTTTCATCAG 5640 GCACACAGAA GAGGCCCAGC ACGAAGCAGT TTCTTGCCCA AGGACACAGC AGTTCAAGGA 5700 CAGAGTCAGC GCGAGGTCTC TCAGCTCTGA GCACATGTTC TTTCCCCTTC CAGGTTTCTA 5760 GTTTTATGGG TAGTAGTTTT ATGATGCCCA TTTCACAGTT CAGGCAGGTA GAGGCAGAGG 5820 GGAGCATTAA GCTGACTTGC CCAGCGTCAC TGAGTTGGCT ACGGGCAGCC TTCCCAAGGG 5880 TACAGATGGC AAACACTGTT CCTTCTCTCT TTCAGGTGGC CCTGCTCAGA GCCCATGCTG 5940 GCGAGCACCT GCTGCTCGGA GCCACCAAGA GATCCATGGT GTTCAAGGAC GTGCTGCTCC 6000 TAGGTGAGGC GGCTGCCTGC CCTGGCCAGG GCTCCAGGGA GGGTATGCCT AGCATGGCAC 6060 TCACCCAGGC AAGGAGATTC ACATGGTGGC ATGCAAGGGT GAGGGAGACT AGTCAGGAGT 6120 GGCCCTGTCC TCAGGCTTGC ATTGGAGGGC TCCAGGACTC AGTTTTCAAC TGGGTACCCC 6180 ACTCAGATGC AAGGAAATGT GGATGCAAGT CACCAAATTC CCAGCATTGA AGTCAGAGCA 6240 CGATCAGGGT TATCCCTGGA ATTACCTGTG CATCCTTTTT TCTTTTGACA GAGTCTTGCT 6300 CTGTCACTCA GGCTGGAGTG CAATGATGTG AGCAAACACT ACCTATTTTA ATATAACAAT 6360 GCTATGAGGG AGCTCGATTA TTTATCCTCA TCTTATAGAT AAGAAAACTG AGGCACAGAG 6420 AGGTTAAGTA ACTTATCCAA CTATAACCAG CTATCAGGGG CAGAGCCATT TAAGCAGGGC 6480 AGTGCAGTTC CAGAATCTGG TCCTTTAACC TTGATGCTTT GGTGCCTATC AGGTGACCTT 6540 TGAATGTCAT CGATCTTGTG AGTCATGTTG GTAAATGGAG CTTGGGTCAT GTGAAAGAGG 6600 TCCTAGAAAG CCAAGTTCCA AGCTCAGCCG GATGACTCAA GGCAGCTTAT CTTCTGAATC 6660 TGGGCCTCAG CTTCCTTACC TGTGAAATGG GAGTCACCAT CCCTGCAGGT CCTCCTCCCA 6720 CAGGCACCAG CTATCTTGCC AACTTAAAAG CCAAAACTAG AGGAGAGGGG TCAACCCAAG 6780 GTGACTTCCC ATCCTCCCTC CCTCCCAACC CTTCCAGGCA ATGACTACAT TGTCCCTCGG 6840 CACTGCCCGG AGCTGGCGGA GATGAGCCGG GTGTCCATAC GCATCCTTGA CGAGCTGGTG 6900 CTGCCCTTCC AGGAGCTGCA GATCGATGAC AATGAGTATG CCTACCTCAA AGCCATCATC 6960 TTCTTTGACC CAGGTACAGT GCACACCTCC TAAGCCATCC CTGACTCTCT CTCCAGAACG 7020 CTCTGCCAGA CTTCTCCTAT TGGGTTCTGT ACACTGAGTT CACAGCCTCA TCTCATGTTA 7080 ACGACAGCCA GGAGAGGCCG TTTTCATTTA ACAGATGAGG CAAGTCAAGA TTTGAAGAGA 7140 CAATATGGCC GGGCGCAGTG GCTCACACCT GTAATCCCAT CACTTTGGGA GGCTGAGGCG 7200 GGCGGATCAC CTGAGGTCAG GGGTCAAGAT GAGCCTGGCT AACATGGAGA AACCCCATCT 7260 CTACTTAAAA GTGGCTCTGC CAACAACTGG CTGTGCGACC CAGGACAAGT CCTATCTTTG 7320 CACTGTGTCT GGGTTTCCCC GTGTGTAAGA TGAGGCGGTT GCTAGGTGCT TATTGGATGC 7380 ATTCCTCAAG TCCCGCCCTC CATCTCCTAT TCCCCTCTCT TCTGGTTTAG TGCTTTAGGA 7440 AATGTGGCAG AAATCTTTTT CTGCCTGTGT CTAGGAAATC ATAATTCATG CTGGCGTACC 7500 CTGGTTGTTG AGGTCCCTGA ATCCTTGTGC CCACACTGCT GAAGACTCCT TGTGTGACAC 7560 AAGTCAGGGG ACATCTGGGT CTTGACTCCC CAGATGCTCC AGCTGGACCC TGCTGCCCTC 7620 CC1TGCCCAC CCTCTTCCAT TGTAGATGCC AAGGGGCTGA GCGATCCAGG GAAGATCAAG 7680 CGGCTGCGTT CCCAGGTGCA GGTGAGCTTG GAGGACTACA TCAACGACCG CCAGTATGAC 7740 TCGCGTGGCC GCTTTGGAGA GCTGCTGCTG CTGCTGCCCA CCTTGCAGAG CATCACCTGG 7800 CAGATGATCG AGCAGATCCA GTTCATCAAG CTCTTCGGCA TGGCCAAGAT TGACAACCTG 7860 TTGCAGGAGA TGCTGCTGGG AGGTCCGTGC CAAGCCCAGG AGGGGCGGGG TTGGAGTGGG 7920 GACTCCCCAG GAGACAGGCC TCACACAGTG AGCTCACCCC TCAGCTCCTT GGCTTCCCCA 7980 CTGTGCCGCT TTGGGCAAGT TGCTTAACCT GTCTGTGCCT CAGTTTCCTC ACCAGAAAAA 8040 TGGGAACAAG GCAATGGTCT ATTTGTTCAG GCACCGAGAA CCTAGCACGT GCCAGTCACT 8100 GTTCTAAGTG CTGGCAATTC AGCAAAGAAC AAGATCTTTG CCCTCGGGGA GGCTGTGTGT 8160 GTGTGAGTAT GTATGGATGC GTGGATATCT GTGTATATGC CCGTATGTGC GTGCATGTGT 8220 ATATAAAGCC TCACATTTTA TGATTTTGAA ATAAACAGGT AATATGAGGG ACACATAGAT 8280 GCTATAAGTA GGTCAGTTGG CTGCAGCAGA GATGTGGGGG ATGAGGCTGA AAGGTGAGGC 8340 GGGACCAAAT GGTTGAAGGA CTTGCACTCC AAGGAGCTTT GAGAGCCATT GATTACATCC 8400 ATTATGTTAC TATGTGACCA ATACATTACT CATTAGAACA TTTACGTGAT CTCAGAGCTT 8460 CCTTATATGC ACCTTGTTCC TTTCAACTCA CTTTTGTTCT CTTGGTTTTT TGGGGTCCTC 8520 TTAACACCCT CATGAAGTCT ATAGATGGGA ATGGTACACC CTAGTTTACT AACCCAGGAA 8580 TAGGTACCCA ACAGGCACTG CCAATATTGG ATGGGCTGGT TGATTGGCCA CGCCTGAGGA 8640 AGATGGCGTC CCAAGGCCTG AGGTCTGCAT CCCAGACTCT CCATCCTGAT CGACCTTCTC 8700 TACCTGCAGG GTCCCCCAGC GATGCACCCC ATGCCCACCA CCCCCTGCAC CCTCACCTGA 8760 TGCAGGAACA TATGGGAACC AACGTCATCG TTGCCAACAC AATGCCCACT CACCTCAGCA 8820 ACGGACAGAT GTGTGAGTGG CCCCGACCCA GGGGACAGGC AGGTGGGCAA ACTCTGGGAT 8880 TTTACCTTGC AAAGGGTGAG GATGGGGCTT AAGACAGGAG GCAGGAGAAA GTGGAGTCTA 8940 GAAGGTAGAA CCAGGATGCA ACAGTTTTCT GGGTTCCAGG GTAGGGAATA AAGGGCAAGA 9000 TTGTCCATTT GTTGAGGCTG TTTATTCAGT AAGGTGACTG ACAGCCTTTA CTGAATGAAG 9060 CCATTGTTGG GATGAGGCAA TCCACTGGAT GAGGTAACCC ATTGGGTGAA GATGTCTTGG 9120 GTGAGAATTC CATTAGTTGA CATTGTCCAT TAAGTAAAAG TGGTCATTGA AGTAAGGCTG 9180 CACAGTTGGG TAAGGCTATC CATTAGACAT TAGATGAGAC TACCCATTGG GTCAGGATGT 9240 CTGCTGGGCT ATTTGGGAGA AGCAGTCCAA GTCTGCATAT CAAATAAATG ATGGAGGAGA 9300 TGGGTGGTAG GACCTTCCAG ACCTCATAAA ACTTAGGCTT TATGATCTGG GACTCACAGA 9360 AGGTTGAGCA ATAAAAGACC TTAGGGATTA TCTGGCTTAA TTAATTCTCT CATTTTATAG 9420 AGGAAGAAAT TAAGTCAAGG TGGGGCAGGG TGGGAGGGGA GAACTTTCCC GGGGCTCTTC 9480 ATTTACTCCC ACAAAGGCTG GAATTTTGAG CAGCCCCTGT CTGTCTGTTT GTCCTTCCCC 9540 ACCCCTGAGA CCCCACAGCC CTCACCGCCA GGTGGCTCAG GGTCTGAGCC CTATAAGCTC 9600 CTGCCGGGAG CCGTCGCCAC AATCGTCAAG CCCCTCTCTG CCATCCCCCA GCCGACCATC 9660 ACCAAGCAGG AAGTTATCTA GCAAGCCGCT GGGGCTTGGG GGCTCCACTG GCTCCCCCCA 9720 GCCCCCTAAG AGAGCACCTG GTGATCACGT GGTCACGGCA AAGGAAGACG TGATGCCAGG 9780 ACCAGTCCCA GAGCAGGAAT GGGAAGGATG AAGGGCCCGA GAACATGGCC TAAGGCACAT 9840 CCCACTGCAC CCTGACGCCC TGCTCTGATA ACAAGACTTT GACTTGGGGA GACCCTCTAC 9900 TGCCTTGGAC AACTTTCTCA TGTTGAAGCC ACTGCCTTCA CCTTCACCTT CATCCATGTC 9960 CAACCCCCGA CTTCATCCCA AAGGACAGCC GCCTGGAGAT GACTTGAGCC TTAC 10014 (2) INFORMATION FOR SEQ ID NO: 131: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 567 amino acids (B) TYPE: amino acid (C) STRANDEDNESS: (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 131: Met Arg Leu Ser Lys Thr Leu Val Asp Met Asp Met Ala Asp Tyr Ser 1 5 10 15 Ala Ala Leu Asp Pro Ala Tyr Thr Thr Leu Glu Phe Glu Asn Val Gin 20 25 30 Val Leu Thr Met Gly Asn Gly Pro Ser Ser Pro His Cys Leu Thr Val 35 40 45 Ala Leu Leu Gly Ala Trp His Ser Asp Met Met He Leu Leu Pro Leu 50 55 60 Arg Leu Ala Arg Leu Arg His Pro Leu Arg His His Trp Ser He Ser 65 70 75 80 Gly Gly Val Asp Ser Ser Pro Gin Gly Asp Thr Ser Pro Ser Glu Gly 85 90 95 Thr Asn Leu Asn Ala Pro Asn Ser Leu Gly Val Ser Ala Leu Cys Ala 100 105 110 He Cys Gly Asp Arg Ala Thr Gly Lys His Tyr Gly Ala Ser Ser Cys 115 120 125 Asp Gly Cys Lys Gly Phe Phe Arg Arg Ser Val Arg Lys Asn His Met 130 135 140 Tyr Ser Cys Arg Phe Ser Arg Gin Cys Val Val Asp Lys Asp Lys Arg 145 150 155 160 Asn Gin Cys Arg Tyr Cys Arg Leu Lys Lys Cys Phe Arg Ala Gly Met 165 170 175 Lys Lys Glu Ala Val Gin Asn Glu Arg Asp Arg He Ser Thr Arg Arg 180 185 190 Ser Ser Tyr Glu Asp Ser Ser Leu Phe Ser He Asn Ala Leu Leu Gin 195 200 205 Ala Glu Val Leu Ser Arg Gin He Thr Ser Pro Val Ser Gly He Asn 210 215 220 Gly Asp He Arg Ala Lys Lys He Ala Ser He Ala Asp Val Cys Glu 225 230 235 240 Ser Met Lys Glu Gin Leu Leu Val Leu Val Glu Trp Ala Lys Tyr He 245 250 255 Pro Ala Phe Cys Glu Leu Pro Leu Asp Asp Gin Val Ala Leu Leu Arg 260 265 270 Ala His Ala Gly Glu His Leu Leu Leu Gly Ala Thr Lys Arg Ser Met 275 280 285 Val Phe Lys Asp Val Leu Leu Leu Gly Asn Asp Tyr He Val Pro Arg 290 295 300 His Cys Pro Glu Leu Ala Glu Met Ser Arg Val Ser He Arg He Leu 305 310 315 320 Asp Glu Leu Val Leu Pro Phe Gin Glu Leu Gin He Asp Asp Asn Glu 325 330 335 Tyr Ala Tyr Leu Lys Ala He He Phe Phe Asp Pro Asp Ala Lys Gly 340 345 350 Leu Ser Asp Pro Gly Lys He Lys Arg Leu Arg Ser Gin Val Gin Val 355 360 365 Ser Leu Glu Asp Tyr He Asn Asp Arg Gin Tyr Asp Ser Arg Gly Arg 370 375 380 Phe Gly Glu Leu Leu Leu Leu Leu Pro Thr Leu Glu Ser He Thr Trp 385 390 395 400 Gin Met He Glu Gin He Gin Phe He Lys Leu Phe Gly Met Ala Lys 405 410 415 He Asp Asn Leu Leu Gin Glu Met Leu Leu Gly Gly Gly Pro Cys Gin 420 425 430 Ala Gin Glu Gly Arg Gly Trp Ser Gly Asp Ser Pro Gly Asp Arg Pro 435 440 445 His Thr Val Ser Ser Pro Leu Ser Ser Leu Ala Ser Pro Leu Cys Arg 450 455 460 Phe Gly Gin Val Ala Gly Ser Pro Ser Asp Ala Pro His Ala His His 465 470 475 480 Pro Leu His Pro His Leu Met Gin Glu His Met Gly Thr Asn Val He 485 490 495 Val Ala Asn Thr Met Pro Thr His Leu Ser Asn Gly Gin Met Cys Glu 500 505 510 Trp Pro Arg Pro Arg Gly Gin Ala Ala Thr Pro Glu Thr Pro Gin Pro 515 520 525 Ser Pro Pro Gly Gly Ser Gly Ser Glu Pro Tyr Lys Leu Leu Pro Gly 530 535 540 Ala Val Ala Thr He Val Lys Pro Leu Ser Ala He Pro Gin Pro Thr 545 550 555 560 He Thr Lys Gin Glu Val He 565 (2) INFORMATION FOR SEQ ID NO: 132: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 470 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 132: AAGTAAGCCT TGTTTTTCCA CACTCATTCT CCCAGGTTTT CTTTGGATAG GCTTACTTTT 60 CCATGCTGGA GGAGGGGCTA TCCCTTCATT TTGCCTCTCC CGCTTCCCTC CCTCTCCCCC 120 TCCCCCTGCT TTCTCTCCCT CTGCACTTTG TGAACTGCTG CTGCAGTGCT GAAGTCCAAA 180 GTTCAGTAAC TTGCTAAGCA CACAGATAAA TATGAACCTT GGAGAATTTA CCAATGTAAA 240 CAGATAGCCA AGGGTCCCTT TATCAGCACT GGCTCAGGAC AGTCGTGGGG GGTCTGAAGT 300 GGCTCAATTT TGTATTTTGT TTTTTTTGGG GGGGTGTAAA GGCGGGAGGC TGCGCTGTGC 360 CCGCTGCTGA CAGTCGGGCG TGTTACCTCG GGAACATGGT GTAGGGAAGC TGGAAGCAGG 420 ATAACGTGGA ACTCAACCCA AGAAACGCCA GCCTGAAGAC CATGGTCTCG 470 (2) INFORMATION FOR SEQ ID NO : 133: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 467 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 133: TCACAGCTAT TAGCTCATCG CTGCCAAATT GCCCCTTTAC CTAGGCTTGT GTCACTTTCA 60 CCTTCTCATT CTCTTACTTT TACATTCTTC CTTGATATTT TGCTTTTTCA ACTTTTGGAA 120 ATTTCTTTCT CTCTTCTACC CCTCCTCATA TTCCTCTGCA CTCCCCCCTC TCTAACTCAT 180 GCACTTTGTG GGGTCCAAAG TTCAGTAACT TGCAAAGCAC AGGGATAAAG ATGAACCTTG 240 GAAGATTTAC TCTGCTCTGA TGTAAACAGA GAGTGACAAG GGTCCCTTAT CTATGTCTCA 300 GAGAAGCCTG TCCGGGGGGT GACCACTTGC TGGTTGTGGC TGCACAGTGT GTTTTTTTGG 360 GGGGGAGGAG GAAACAGAAG GTGGGTAGAG CATGGACTCC CGCCCGCTGA TCCGTGTTAC 420 AGCCGCAGAT GGTGAGGCAG TAGAAGGCAA CAGACAGGAT GGCGTCT 467 (2) INFORMATION FOR SEQ ID NO: 134: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 479 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 134: TTTCGGGGGT GGGACCCAAC GCTGCTCTCC TGATGGCCTC CCTGGCTCCC AGCACCTTCC 60 ATCCCAGCTG CTCAGGGCCC CTCACCTGCG CCTCCCCCAC CCTCCCCTCT GCCCACTCCC 120 ATCGCAGGCC ATAGCTCCCT GTCCCTCTCC GCTGCCATGA GGCCTGCACT TTGCAGGGCT 180 GAAGTCCAAA GTTCAGTCCC TTCGCTAAGC ACACGGATAA ATATGAACCT TGGAGAATTT 240 CCCCAGCTCC AATGTAAACA GAACAGGCAG GGGCCCTGAT TCACGGGCCG CTGGGGCCAG 300 GGTTGGGGGT TGGGGGTGCC CACAGGGCTT GGCTAGTGGG GTTTTGGGGG GGCAGTGGGT 360 GCAAGGAGTT TGGTTTGTGT CTGCCGGCCG GCAGGCAAAC GCAACCCACG CGGTGGGGGA 420 GGCGGCTAGC GTGGTGGACC CGGGCCGCGT GGCCCTGTGG CAGCCGAGCC ATGGTTTCT 479 (2) INFORMATION FOR SEQ ID NO: 135: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 605 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 135: TGGGGCCTGG GATTTAGGTT TCTAAATCGT GGGCCATGGG GCAGCCTTAT CTCTGCAAAA 60 GCATTGAGGG TAGAAGTCAA TGATTTGGGA AGTTATTGAA TTAGGGGATC TCGGAGGTAG 120 GCTGTCAGTG CCTGATAGTA TCAGTTAGAA TGCCTGACTT GGGGTGACAA TGGCTTGGAG 180 GGGTGGGTGA GTCAAGGGTC AAATGAGTGC CCGTGAGTCA TGATGCCTGC CTTGTACAAT 240 TGATAACTGA ACATCGGTGA GTTAGGGCCC CAGCAGTTGT AATTAGCACC CCGGGTGTCA 300 GCCAGAAACC AACAAACAGC CAAATCCCTG CAGCCCCGCC CAGCCTATCC ACCGGCGGGG 360 GACCGATTAA CCATTAACCC CCACCCCTCC CCGGCAGAGC CTCCACCCCT TCACAGAGGC 420 TAGGCCAAGA CTCCCAGCAG ATCTTCCCAG AGGACGGTTT GAAAGGAAGG CAGAGAGGGC 480 ACTGGGAGGA GGCAGTGGGA GGGCGGAGGG CGGGGGCCTT CGGGGTGGGC GCCCAGGGTA 540 GGGCAGGTGG CCGCGGCGTG GAGGCAGGGA GAATGCGACT CTCCAAAACC CTCGTCGACG 600 ACATG 605 (2) INFORMATION FOR SEQ ID NO: 136: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 478 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 136: TCCTGGAGAG TGGGACCCAG CGCCGCACCC AGAGGCCTCC TGGCTCCTGC TGCCTCTAGC 60 CCTGCGCCCC TGGCCCCTCT CCACCTCCCC CACCCTCCCT TCTGCTCACT CCCAATTGCA 120 GGCCATGACT CCGGTCCGCG TCCCTCTCAC CCCCATGAGG CCTGCACTTG CAAGGCTGAA 180 GTCCAAAGTT CAGTCCCTTC GCTAAGCGCA CGGATAAATA TGAACCTTGG AGAATTTCCC 240 CAGCTCCAAT GTAAACAGAG CAGGCAGGGG CCCTGATTCA CTGGCCGCTG GGGCCAGGGT 300 TGGGGGCTGG GGGTGCCCAC AGAGCTTGAC TAGTGGGATT TGGGGGGGCA GTGGGTGCAG 360 CGAGCCCGGT CCGTTGACTG CCAGCCTGCC GGCAGGTAGA CACCGGCCGT GGGTGGGGGA 420 GGCGGCTAGC TCAGTGGCCT TGGGCCGCGT GGCTGGTGGC AGCGGAGCCA TGGTTTCT 478 (2) INFORMATION FOR SEQ ID NO: 137: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 622 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 137: TGGGCTTGGG TGTTAGGTTT CCAGTTCAAG CGACCCAGGA CAGCTTTATC TCAAATTGAG 60 GATAGAAGTC AATGATCTGG GACGTGATTG GCTTAGGGCT TCATAGTGGT AGGCTTGCCA 120 GTGTCTAAAC ATGTCAGCTG GGTTGTCCAC CTTGGTGAGA CTTGGGGGCT GCTGAGGCAA 180 GGGGTCCAAC CAATGCCAGT CCTGTTGGGT GCCTGCCTTG GAAGATTGGT AAGTGACTAT 240 TAATGAGCGG GAGGTGGGGG GGGGGCAACA GTTGTAATTA GCACCCCAGG TGTCAGTCAG 300 AAACCAACAA ACAGCCAAAT CCTCGTGGCT CCACCCAGCC TACCCAGCAA CGGGGGTGAT 360 TAACCATTAA CTCCTACCCC TCCCCACAGA GCCTCCACCC TCTGCAGAGG CTAGGCCAGG 420 ACGCCAGGCT GAGTCTCCCA GAGGACAGTT TGAAAGAGAG GAAGGCAGAG AAGGGACCTG 480 GGAGGAGGCA GGAGGAGGGC GGGGACGGGG GGGGCTGGGG CTCAGCCCAG GGGCTTGGGT 540 GGCATCCTGG GCCGGGCAGG ACAGGGGGCT AAGGCGTGGG TAGGGGAGAA TGCGACTCTC 600 TAAAACCCTT GCCGGCGATA TG 622 (2) INFORMATION FOR SEQ ID NO: 138: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 470 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 138: TCTTGGGCAG TGGGACCAGC GCTGCTCCCA GAGGCCTCCT GGCTCCTGGT GCCTCTCTCC 60 CTGCGCCCCT GGTTCCCGCT CCACCTCCCC CACCCGCCCT TCTGCTCACT CCCAATTGCA 120 AGCCATGGCT CCCGGTCCGG TCCCTCTCGC TGCTGTGAGG CCTGCACTTG CAAGGCTGAA 180 GTCCAAAGTT CAGTCCCTTC GCTAAGCACA CGGATAAATA TGAACCTTGG AGAATTTCCC 240 CAGCTCCAAT GTAAACAGAG CAGCAGGGGG CCCTGATTCA CTAGCCGCTG GGGCCAGGGT 300 TGGGGGTTGG GGGTGCCCAC AGGGCTTGAC TAGTGGGATT TGGGGGAGCA GTGGGTGCAG 360 CGAGCCTGGT CCGTTGACTG CCAGCAGTAG ACACCGGCCG TGTGTGGGGG AGGCGGCTAG 420 CTCAGTGGCC TTGGGCCGCG TGGCCTGGCG GTAGAGGAGC CATGGTTTCT 470 (2) INFORMATION FOR SEQ ID NO: 139- (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 557 amino acids (B) TYPE: amino acid (C) STRANDEDNESS: (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO : 139: Met Val Ser Lys Leu Thr Ser Leu Gin Gin Glu Leu Leu Ser Ala Leu 1 5 10 15 Leu Ser Ser Gly Val Thr Lys Glu Val Leu Val Gin Ala Leu Glu Glu 20 25 30 Leu Leu Pro Ser Pro Asn Phe Gly Val Lys Leu Glu Thr Leu Pro Leu 35 40 45 Ser Pro Gly Ser Gly Ala Glu Pro Asp Thr Lys Pro Val Phe His Thr 50 55 60 Leu Thr Asn Gly His Ala Lys Gly Arg Leu Ser Gly Asp Glu Gly Ser 65 70 75 80 Glu Asp Gly Asp Asp Tyr Asp Thr Pro Pro He Leu Lys Glu Leu Gin 85 90 95 Ala Leu Asn Thr Glu Glu Ala Ala Glu Gin Arg Ala Glu Val Asp Arg 100 105 110 Met Leu Ser Glu Asp Pro Trp Arg Ala Ala Lys Met He Lys Gly Tyr 115 120 125 Met Gin Gin His Asn He Pro Gin Arg Glu Val Val Asp Val Thr Gly 130 135 140 Leu Asn Gin Ser His Leu Ser Gin His Leu Asn Lys Gly Thr Pro Met 145 150 155 160 Lys Thr Gin Lys Arg Ala Ala Leu Tyr Thr Trp Tyr Val Arg Lys Gin 165 170 175 Arg Glu He Leu Arg Gin Phe Asn Gin Thr Val Gin Ser Ser Gly Asn 180 185 190 Met Thr Asp Lys Ser Ser Gin Asp Gin Leu Leu Phe Leu Phe Pro Glu 195 200 205 Phe Ser Gin Gin Ser His Gly Pro Gly Gin Ser Asp Asp Ala Cys Ser 210 215 220 Glu Pro Thr Asn Lys Lys Met Arg Arg Asn Arg Phe Lys Trp Gly Pro 225 230 235 240 Ala Ser Gin Gin He Leu Tyr Gin Ala Tyr Asp Arg Gin Lys Asn Pro 245 250 255 Ser Lys Glu Glu Arg Glu Ala Leu Val Glu Glu Cys Asn Arg Ala Glu 260 265 270 Cys Leu Gin Arg Gly Val Ser Pro Ser Lys Ala His Gly Leu Gly Ser 275 280 285 Asn Leu Val Thr Glu Val Arg Val Tyr Asn Trp Phe Ala Asn Arg Arg 290 295 300 Lys Glu Glu Ala Phe Arg Gin Lys Leu Ala Met Asp Ala Tyr Ser Ser 305 310 315 320 Asn Gin Thr His Ser Leu Asn Pro Leu Leu Ser His Gly Ser Pro His 325 330 335 His Gin Pro Ser Ser Ser Pro Pro Asn Lys Leu Ser Gly Val Arg Tyr 340 345 350 Ser Gin Gin Gly Asn Asn Glu He Thr Ser Ser Ser Thr He Ser His 355 360 365 His Gly Asn Ser Ala Met Val Thr Ser Gin Ser Val Leu Gin Gin Val 370 375 380 Ser Pro Ala Ser Leu Asp Pro Gly His Asn Leu Leu Ser Pro Asp Gly 385 390 395 400 Lys Met He Ser Val Ser Gly Gly Gly Leu Pro Pro Val Ser Thr Leu 405 410 415 Thr Asn He His Ser Leu Ser His His Asn Pro Gin Gin Ser Gin Asn 420 425 430 Leu He Met Thr Pro Leu Ser Gly Val Met Ala He Ala Gin Ser Leu 435 440 445 Asn Thr Ser Gin Ala Gin Ser Val Pro Val He Asn Ser Val Ala Gly 450 455 460 Ser Leu Ala Ala Leu Gin Pro Val Gin Phe Ser Gin Gin Leu His Ser 465 470 475 480 Pro His Gin Gin Pro Leu Met Gin Gin Ser Pro Gly Ser His Met Ala 485 490 495 Gin Gin Pro Phe Met Ala Ala Val Thr Gin Leu Gin Asn Ser His Met 500 505 510 Tyr Ala His Lys Gin Glu Pro Pro Gin Tyr Ser His Thr Ser Arg Phe 515 520 525 Pro Ser Ala Met Val Val Thr Asp Thr Ser Ser He Ser Thr Leu Thr 530 535 540 Asn Met Ser Ser Ser Lys Gin Cys Pro Leu Gin Ala Trp 545 550 555 (2) INFORMATION FOR SEQ ID NO: 140: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 516 amino acids (B) TYPE: amino acid (C) STRANDEDNESS: (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO : 140: Met Asp Met Ala Asp Tyr Ser Ala Ala Leu Asp Pro Ala Tyr Thr Thr 1 5 10 15 Leu Glu Phe Glu Asn Val Gin Val Leu Thr Met Gly Asn Gly Pro Ser 20 25 30 Ser Pro His Cys Leu Thr Val Ala Leu Leu Gly Ala Trp His Ser Asp 35 40 45 Met Met He Leu Leu Pro Leu Arg Leu Ala Arg Leu Arg His Pro Leu 50 55 60 Arg His His Trp Ser He Ser Gly Gly Val Asp Ser Ser Pro Gin Gly 65 70 75 80 Asp Thr Ser Pro Ser Glu Gly Thr Asn Leu Asn Ala Pro Asn Ser Leu 85 90 95 Gly Val Ser Ala Leu Cys Ala He Cys Gly Asp Arg Ala Thr Gly Lys 100 105 110 His Tyr Gly Ala Ser Ser Cys Asp Gly Cys Lys Gly Phe Phe Arg Arg 115 120 125 Ser Val Arg Lys Asn His Met Tyr Ser Cys Arg Phe Ser Arg Gin Cys 130 135 140 Val Val Asp Lys Asp Lys Arg Asn Gin Cys Arg Tyr Cys Arg Leu Lys 145 150 155 160 Lys Cys Phe Arg Ala Gly Met Lys Lys Glu Ala Val Gin Asn Glu Arg 165 170 175 Asp Arg He Ser Thr Arg Arg Ser Ser Tyr Glu Asp Ser Ser Leu Phe 180 185 190 Ser He Asn Ala Leu Leu Gin Ala Glu Val Leu Ser Arg Gin He Thr 195 200 205 Ser Pro Val Ser Gly He Asn Gly Asp He Arg Ala Lys Lys He Ala 210 215 220 Ser He Ala Asp Val Cys Glu Ser Met Lys Glu Gin Leu Leu Val Leu 225 230 235 240 Val Glu Trp Ala Lys Tyr He Pro Ala Phe Cys Glu Leu Pro Leu Asp 245 250 255 Asp Gin Val Ala Leu Leu Arg Ala His Ala Gly Glu His Leu Leu Leu 260 265 270 Gly Ala Thr Lys Arg Ser Met Val Phe Lys Asp Val Leu Leu Leu Gly 275 280 285 Asn Asp Tyr He Val Pro Arg His Cys Pro Glu Leu Ala Glu Met Ser 290 295 300 Arg Val Ser He Arg He Leu Asp Glu Leu Val Leu Pro Phe Gin Glu 305 310 315 320 Leu Gin He Asp Asp Asn Glu Tyr Ala Tyr Leu Lys Ala He He Phe 325 330 335 Phe Asp Pro Asp Ala Lys Gly Leu Ser Asp Pro Gly Lys He Lys Arg 340 345 350 Leu Arg Ser Gin Val Gin Val Ser Leu Glu Asp Tyr He Asn Asp Arg 355 360 365 Gin Tyr Asp Ser Arg Gly Arg Phe Gly Glu Leu Leu Leu Leu Leu Pro 370 375 380 Thr Leu Glu Ser He Thr Trp Gin Met He Glu Gin He Gin Phe He 385 390 395 400 Lys Leu Phe Gly Met Ala Lys He Asp Asn Leu Leu Gin Glu Met Leu 405 410 415 Leu Gly Gly Ser Pro Ser Asp Ala Pro His Ala His His Pro Leu His 420 425 430 Pro His Leu Met Gin Glu His Met Gly Thr Asn Val He Val Ala Asn 435 440 445 Thr Met Pro Thr His Leu Ser Asn Gly Gin Met Cys Glu Trp Pro Arg 450 455 460 Pro Arg Gly Gin Ala Ala Thr Pro Glu Thr Pro Gin Pro Ser Pro Pro 465 470 475 480 Gly Gly Ser Gly Ser Glu Pro Tyr Lys Leu Leu Pro Gly Ala Val Ala 485 490 495 Thr He Val Lys Pro Leu Ser Ala He Pro Gin Pro Thr He Thr Lys 500 505 510 Gin Glu Val He 515 (2) INFORMATION FOR SEQ ID NO: 141: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 17 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 141: GCGGGACCGG ATCAGCA 17 (2) INFORMATION FOR SEQ ID NO: 142: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 5 amino acids (B) TYPE: amino acid (C) STRANDEDNESS: (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 142 Arg Asp Arg He Ser 1 5 (2) INFORMATION FOR SEQ ID NO: 143: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 17 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 143: GCGGGACTGG ATCAGCA 17 (2) INFORMATION FOR SEQ ID NO: 144: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 7 amino acids (B) TYPE: amino acid (C) STRANDEDNESS: (D) TOPOLOGY: linear (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 144: Ala Glu Val Leu Ser Arg Gin 1 5 (2) INFORMATION FOR SEQ ID NO: 145: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 30 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ix) FEATURE: (A) NAME/KEY: modified_base (B) LOCATION: 16 (D) OTHER INFORMATION: /note= "N = C or T" (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 145: GCGGAGGTCC TGTCCNGACA GGTACCGGGG 30 (2) INFORMATION FOR SEQ ID NO: 146: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 15 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ix) FEATURE: (A) NAME/KEY: modified_base (B) LOCATIONS (D) OTHER INFORMATIO :/note= "N = C or T" (xi) SEQUENCE DESCRIPTION: SEQ ID NO: 146: AAAGCAANGA GAGAT 15 (2) INFORMATION FOR SEQ ID NO : 147: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 4 amino acids (B) TYPE: amino acid (C) STRANDEDNESS: (D) TOPOLOGY: linear (ix) FEATURE: (A) NAME/KEY: Modified-site (B) LOCATIONS (D) OTHER INFORMATION : /note= "X = R or any amino acid" (xi) SEQUENCE DESCRIPTION: SEQ ID NO : 147: Lys Gin Xaa Glu 1

Claims: CLAIMS 1. A method for screening for diabetes comprising: a) obtaining sample nucleic acid from an animal; and b) analyzing the nucleic acids to detect a mutation in an HNF-encoding nucleic segment; wherein a mutation in the HNF-encoding nucleic acid is indicative of a propensity for non-insulin dependent diabetes. 2. The method of claim 1, wherein the HNF-encoding nucleic acid is an HNFlα-encoding nucleic acid. 3. The method of claim 2, wherein the HNFlα-encoding nucleic acid is located on human chromosome 12q. 4. The method of claim 2, wherein the HNFl α-encoding nucleic acid is located at the M0DY3 locus. 5. The method of claim 1, wherein the HNF-encoding nucleic acid is an HNF4α-encoding nucleic acid. 6. The method of claim 5, wherein the HNF4α-encoding nucleic acid is located on human chromosome 20. 7. The method of claim 5, wherein the HNF4α-encoding nucleic acid is located at the MODYl locus. 8. The method of claim 1 , wherein the HNF-encoding nucleic acid is an HNF1 β-encoding nucleic acid. 9. The method of claim 8, wherein the HNF4α-encodiπg nucleic acid is located at the M0DY4 locus. 10. The method of claim 1, wherein the nucleic acid is DNA. 11. The method of claim 1, wherein the step of analyzing the HNF-encoding nucleic acid comprises sequencing of the HNF-encoding nucleic acid to obtain a sequence. 12. The method of claim 11 , wherein the sequence of the HNF encoding nucleic acid is compared to a native nucleic acid sequence of an HNF gene. 13. The method of claim 12, wherein the sequence of the HNF encoding nucleic acid is compared to a native nucleic acid sequence of HNFI α. 14. The method of claim 13, wherein the native nucleic acid sequence of HNFIα has a sequence set forth in SEQ ID NO: 2. 15. The method of claim 12, wherein the sequence of the HNF encoding nucleic acid is compared to a native nucleic acid sequence of HNF4α. 16. The method of claim 15, wherein the native nucleic acid sequence of HNF4α has a sequence set forth in SEQ ID N0:78. 17. The method of claim 12, wherein the sequence of the HNF encoding nucleic acid is compared to a native nucleic acid sequence of HNFI β. 18. The method of claim 17, wherein the native nucleic acid sequence of HNF1 β has a sequence set forth in SEQ ID N0:90. 19. The method of claim 1 , wherein the HNF-encoding nucleic acid comprises at Ieast one point mutation. 20. The method of claim 1 , wherein the HNF-encoding nucleic acid has a translocation mutation. 21. The method of claim 1, wherein the HNF-encoding nucleic acid has a deletion mutation. 22. The method of claim 1 , wherein the HNF-encoding nucleic acid has a insertion mutation. 23. The method of claim 1, wherein the HNF-encoding nucleic acid is an HNFl α-encoding nucleic acid and a mutation occurs in exon 2, exon 4, exon 6, or exon 9 of the HNFlα-encoding nucleic acid. 24. The method of claim 1, wherein a mutation occurs at codon 131 , 142, 159, 171 , 289, 291, 292, 273, 379, 401 , 447, 547, or 548 of an HNFlα-encoding nucleic acid having the sequence of SEQ ID N0:1. 25. The method of claim 1, wherein the HNF-encoding nucleic acid is an HNFl α-encoding nucleic acid and a mutation occurs at the splice acceptor of intron 5 or intron 9. 26. The method of claim 1 , wherein the HNF-encoding nucleic acid is an HNFlα-encoding nucleic acid and a mutation is a mutation defined in Table 8. 27. The method of claim 1 , wherein the HNF-encoding nucleic acid is an HNF4α-encoding nucleic acid and a mutation occurs in exon 7 of the HNF4α-encoding nucleic acid. 28. The method of claim 1 , wherein a mutation occurs at codon 268, 130 or 273 of an HNF4α- encodiπg nucleic acid having the sequence of SEQ ID N0:78. 29. The method of claim 1, wherein the HNF-encoding nucleic acid is an HNF4α-encoding nucleic acid and a mutation is a mutation defined in Table 10. 30. The method of claim 1 , wherein the HNF-encoding nucleic acid is an HNF1 β-encoding nucleic acid and a mutation occurs in exon 2, exon 7 or intron 8 of the HNFI β-encoding nucleic acid. 31. The method of claim 1, wherein a mutation occurs at codon 177, 463, at nucleotides 48 of intron 8, or at nucleotide 22 of intron 8 of an HNFI β-encoding nucleic acid having the sequence of SEQ ID N0:90. 32. The method of claim 1 , wherein the HNF-encoding nucleic acid is an HNF1 β-encoding nucleic acid and a mutation is a mutation defined in Table 15. 33. The method of claim 1, wherein the step of analyzing the HNF-encoding nucleic acid comprises PCR. 34. The method of claim 1 , wherein the step of analyzing the HNF-encoding nucleic acid comprises use of an RNase protection assay. 35. The method of claim 1 , wherein the step of analyzing the HNF-encoding nucleic acid comprises an RFLP procedure. 36. A method of regulating diabetes in an animal comprising the step of modulating HNF function in the animal. 37. The method of claim 36, further comprising the step of diagnosing an animal with diabetes via analysis of an HNFlα-encoding nucleic acid sequence for a mutation. 38. The method of claim 36, wherein the step of modulating HNF function comprises providing an HNFIα polypeptide to the animal. 39. The method of claim 38, wherein the HNF1 α polypeptide is a native HNF1 α polypeptide. 40. The method of claim 39, wherein the native HNFIα polypeptide has the sequence of SEQ ID NO: 2. 41. The method of claim 38, wherein the provision of an HNFIα polypeptide is accomplished by inducing expression of an HNFIα polypeptide. 42. The method of claim 41 , wherein the expression of an HNF 1 α polypeptide encoded in the animal's genome is induced. 43. The method of claim 41, wherein the expression of an HNFIα polypeptide encoded by a nucleic acid provided to the animal is induced. 44. The method of claim 38, wherein the provision of an HNFIα polypeptide is accomplished by a method comprising introduction of an HNFlα-encoding nucleic acid to the animal. 45. The method of claim 38, wherein the provision of an HNFIα polypeptide is accomplished bγ injecting the HNFIα polγpeptide into the animal. 46. The method of claim 36, wherein the step of modulating HNF function in the animal comprises providing a modulator of HNFIα function to the animal. 47. The method of claim 46, wherein the modulator of HNF 1 α function is an agonist of HNF1 α. 48. The method of claim 46, wherein the modulator of HNFIα function modulates transcription of an HNFl α-encoding nucleic acid. 49. The method of claim 46, wherein the modulator of HNFIα function modulates translation of an HNFlα-encoding nucleic acid. 50. The method of claim 36, further comprising the step of diagnosing an animal with diabetes via analysis of an HNF4α-encoding nucleic acid sequence for a mutation. 51. The method of claim 36, wherein the step of modulating HNF function comprises providing an HNF4α polypeptide to the animal. 52. The method of claim 51, wherein the HNF4α polypeptide is a native HNF4α polypeptide. 53. The method of claim 51 , wherein the native HNF4α polypeptide has the sequence of SEQ ID N0:79. 54. The method of claim 51, wherein the provision of an HNF4α polypeptide is accomplished by inducing expression of an HNF4α polγpeptide. 55. The method of claim 54, wherein the expression of an HNF4α polypeptide encoded in the animal's genome is induced. 56. The method of claim 54, wherein the expression of an HNF4α polγpeptide encoded bγ a nucleic acid provided to the animal is induced. 57. The method of claim 51, wherein the provision of an HNF4α polγpeptide is accomplished bγ a method comprising introduction of an HNF4α-encodiπg nucleic acid to the animal. 58. The method of claim 51, wherein the provision of an HNF4α polγpeptide is accomplished bγ injecting the HNF4α polγpeptide into the animal. 59. The method of claim 36, wherein the step of modulating HNF function in the animal comprises providing a modulator of HNF4α function to the animal. 60. The method of claim 59, wherein the modulator of HNF4α function is an agonist of HNF4α. 61. The method of claim 59, wherein the modulator of HNF4α function modulates transcription of an HNF4α-encoding nucleic acid. 62. The method of claim 59, wherein the modulator of HNF4α function modulates translation of an HNF4α encoding nucleic acid. 63. The method of claim 36, further comprising the step of diagnosing an animal with diabetes via analγsis of an HNFI β-encoding nucleic acid sequence for a mutation. 64. The method of claim 36, wherein the step of modulating HNF function comprises providing an HNFI β polypeptide to the animal. 65. The method of claim 64, wherein the HNF1 β polypeptide is a native HNF1 β polypeptide. 66. The method of claim 65, wherein the native HNF1 β polγpeptide has the sequence of SEQ ID N0:91. 67. The method of claim 64, wherein the provision of an HNF1 β polγpeptide is accomplished bγ inducing expression of an HNFIβ polγpeptide. 68. The method of claim 67, wherein the expression of an HNFIβ polγpeptide encoded in the animal's genome is induced. 69. The method of claim 67, wherein the expression of an HNF1 β polγpeptide encoded bγ a nucleic acid provided to the animal is induced. 70. The method of claim 65, wherein the provision of an HNF1 β polγpeptide is accomplished bγ a method comprising introduction of an HNFIβ-encoding nucleic acid to the animal. 71. The method of claim 65, wherein the provision of an HNF 1 β polγpeptide is accomplished bγ injecting the HNFI β polypeptide into the animal. 72. The method of claim 36, wherein the step of modulating HNF function in the animal comprises providing a modulator of HNF1 β function to the animal. 73. The method of claim 72, wherein the modulator of HNF1 β function is an agonist of HNF1 β. 74. The method of claim 72, wherein the modulator of HNF1 β function modulates transcription of an HNFIβ-encoding nucleic acid. 75. The method of claim 72, wherein the modulator of HNF1 β function modulates translation of an HNFI β-encoding nucleic acid. 76. A method of screening for modulators of HNF function comprising the steps of: a) obtaining an HNF polypeptide; b) determining a standard activity profile of the HNF polγpeptide; c) contacting the HNF polγpeptide with a putative modulator; and d) assaγing for a change in the standard activitγ profile. 77. The method of claim 76, wherein the HNF polγpeptide is an HNFIα polγpeptide. 78. The method of claim 77, wherein the standard activitγ profile of the HNFI α polγpeptide is determined bγ measuring the binding of the HNFI α polγpeptide to a nucleic acid segment comprising the sequence of SEQ ID NO: 9. 79. The method of claim 78, wherein the nucleic acid segment comprising the sequence of SEQ ID NO: 2 comprises a detectable label. 80. The method of claim 77, wherein the HNFIα polγpeptide comprises a detectable label. 81. The method of claim 77, wherein the standard activitγ profile of the HNF 1 α polγpeptide is determined bγ determining the abilitγ of the HNFIα polγpeptide to stimulate transcription of a reporter gene, the reporter gene operativelγ positioned under control of a nucleic acid segment comprising the sequence of SEQ ID NO: 1. 82. The method of claim 76, wherein the HNF polγpeptide is an HNF4α polγpeptide. 83. The method of claim 82, wherein the standard activitγ profile of the HNF4α polγpeptide is determined bγ measuring the binding of the HNF4α polγpeptide to an amino acid segment comprising the sequence of SEQ ID N0:85. 84. The method of claim 83, wherein the nucleic acid segment comprising the sequence of SEQ ID NO: 1 comprises a detectable label. 85. The method of claim 82, wherein the HNF4α polγpeptide comprises a detectable label. 86. The method of claim 82, wherein the standard activitγ profile of the HNF4α polγpeptide is determined bγ determining the abilitγ of the HNF4α polγpeptide to stimulate transcription of a reporter gene, the reporter gene operativelγ positioned under control of a nucleic acid segment comprising the sequence of SEQ ID N0.78. 87. The method of claim 76, wherein the HNF polγpeptide is an HNFI β polγpeptide. 88. The method of claim 89, wherein the HNF1 β polypeptide comprises a detectable label. 89. The method of claim 88, wherein the standard activity profile of the HNFI β polγpeptide is determined bγ determining the abilitγ of the HNFI β polγpeptide to stimulate transcription of a reporter gene, the reporter gene operativelγ positioned under control of a nucleic acid segment comprising the sequence of SEQ ID N0:128. 90. A method of screening for modulators of HNF function comprising the steps of: a) obtaining an HNF-encoding nucleic acid segment; b) determining a standard transcription and translation activitγ of the HNF nucleic acid sequence; c) contacting the HNF-encoding nucleic acid segment with a putative modulator; d) maintaining the nucleic acid segment and putative modulator under conditions that normallγ allow for HNF transcription and translation; and e) assaγing for a change in the transcription and translation activitγ. 91. An HNF modulator prepared bγ a process comprising screening for modulators of HNF function comprising: a) obtaining an HNF polγpeptide; b) determining a standard activitγ profile of the HNF polγpeptide; c) contacting the HNF polypeptide with a putative modulator; and d) assaying for a change in the standard activitγ profile. 92. An HNF modulator prepared bγ a process comprising screening for modulators of HNF function comprising: a) obtaining an HNF-encoding nucleic acid segment; b) determining a standard transcription and translation activitγ of the HNF nucleic acid sequence; c) contacting the HNF-encoding nucleic acid segment with a putative modulator; d) maintaining the nucleic acid segment and putative modulator under conditions that normallγ allow for HNF transcription and translation; and e) assaγing for a change in the transcription and translation activitγ. 93. An isolated and purified poiγnucleotide having an HNFl α-encoding nucleic acid sequence. 94. The polγnucleotide of claim 93, wherein the HNFIα encoded has an amino acid sequence as set forth in SEQ ID N0:127. 95. The polγnucleotide of claim 93, wherein the HNF1 α-encoding nucleic acid sequence has a sequence of SEQ ID NO: 126. 96. An isolated and purified polγnucieotide having an HNF1 β-encoding nucleic acid sequence. 97. The polγnucleotide of claim 96, wherein the HNF1 β encoded has an amino acid sequence as set forth in SEQ ID N0:139. 98. The polγnucleotide of claim 96, wherein the HNF1 β-encoding nucleic acid sequence has a sequence of SEQ ID N0:128. 99. An isolated and purified nucleic acid segment comprising 15 contiguous nucleic acids identical to the sequence of SEQ ID N0:128 or SEQ ID NO: 126. 100. The isolated and purified nucleic acid segment of claim 99, wherein said segment encodes a full- length HNF polγpeptide. 101. The isolated and purified nucleic acid segment of claim 100, wherein said segment encodes a promoter for the expression of an HNF polγpeptide.

Inventors: BELL GRAEME I, FURUTA HIROTO, HORIKAWA YUKIO, KAISAKI PAMELA J, MENZEL STEPHAN, ODA NAOHISA, YAMAGATA KAZUYA, BELL, GRAEME, I., FURUTA, HIROTO, HORIKAWA, YUKIO, KAISAKI, PAMELA, J., MENZEL, STEPHAN, ODA, NAOHISA, YAMAGATA, KAZUYA
Applicants: ARCH DEV CORP, BELL GRAEME I, FURUTA HIROTO, HORIKAWA YUKIO, KAISAKI PAMELA J, MENZEL STEPHAN, ODA NAOHISA, YAMAGATA KAZUYA, ARCH DEVELOPMENT CORPORATION, BELL, GRAEME, I., FURUTA, HIROTO, HORIKAWA, YUKIO, KAISAKI, PAMELA, J., MENZEL, STEPHAN, ODA, NAOHISA, YAMAGATA, KAZUYA
Application year: 1997
Main classification: C12Q1
IPC codes: C07K14, C12Q1