METHODS AND COMPOSITIONS FOR IDENTIFYING OSTEOGENIC AGENTS

Abstract: Methods and compositions for identifying osteogenic agents are disclosed, wherein a bone morphogenetic protein promoter is utilized in an assay system to modulate the production of an assayable product of a reporter gene.

Description: METHODS AND COMPOSITIONS FOR IDENTIFYING OSTEOGENIC AGENTS Technical Field The present invention relates to assay techniques for identifying agents which modulate bone growth. Background of the Invention Although there is a great deal of information available on the factors which influence the breakdown and resorption of bone, information on growth factors which stimulate the formation on growth factors which stimulate the formation of new bone is more limited. Investigators have searched for sources of such activities and have found that bone tissue itself is a storehouse for factors which have the capacity for stimulating bone cells. Thus, extracts of bovine tissue obtained from slaughterhouses contain not only structural proteins which are responsible for maintaining the structural integrity of bone, but also biologically active bone growth factors which can stimulate bone cells to proliferate. Among these latter factors are transforming growth factor β, the heparin- binding growth factors (acidic and basic fibroblast growth factor), the insulin-like growth factors (insulin-like growth factor I and insulin-like growth factor II) and a recently described family of proteins called bone morphogenetic proteins (BMPs). All of these growth factors have effects on other types of cells as well as on bone cells. The BMPs are novel factors in the extended transforming growth factor β family. They were first identified in extracts of demineralized bone (Urist 1965, Wozney et al., 1988). Recombinant BMP-2 and BMP-4 can induce new bone formation when they are injected locally into the subcutaneous tissues of rats (Wozney 1992, Wozney & Rosen 1993). These factors are expressed by normal osteoblasts as they differentiate, and have been shown to stimulate osteoblast differentiation and bone nodule formation in vitro as well as bone formation in vivo (Harris et al., 1994). This latter property suggests potential usefulness as therapeutic agents in diseases which result in bone loss. The cells which are responsible for forming bone are osteoblasts. As osteoblasts differentiate from precursors to mature bone-forming cells, they express and secrete a number of the structural proteins of the bone matrix including Type-1 collagen, osteocalcin, osteopontin and alkaline phosphates (Stein et al., 1990, Harris et al, 1994). They also SUBSTITUTE SHEET (RULE 26} synthesize a number of growth regulatory peptides which are stored in the bone matrix and -ire presumably responsible for normal bone formation. These growth regulatory peptides include the BMPs (Harris et al, 1994). In studies of primary cultures of fetal rat calvarial osteoblasts, BMPs 1, 2, 3, 4, and 6 are expressed by cultured cells prior to the formation of mineralized bone nodules (Harris et al, 1994). Expression of the BMPs coincides with expression of alkaline phosphatase, osteocalcin and osteopontin. Although the BMPs have powerful effects to stimulate bone formation in vitro and in vivo, there are disadvantages to their use as therapeutic agents to enhance bone healing. Receptors for the bone morphogenetic proteins have been identified in many tissues, and the BMPs themselves are expressed in a large variety of tissues in specific temporal and spatial patterns. This suggests that they may have effects on many tissues other than bone, potentially limiting their usefulness a therapeutic agents when administered systematically. Moreover, since they are peptides, they would have to be administered by injection. These disadvantages are severe limitations to the development of BMPs as therapeutic agents. It is an object of the present invention to overcome the limitations inherent in known osteogenic agents by providing a method to identify potential drugs which would stimulate production of BMPs locally in bone. Prior Art Sequence data on small fragments of the 5' -flanking region of the BMP-4 gene have been published (Chen et al, 1993; Kurihara et al, 1993), but the promoter has not been previously functionally identified or isolated. Disclosure of the Invention A cell-based assay technique for identifying and evaluating compounds which stimulate the growth of bone is provided, comprising culturing a host cell line comprising an expression vector comprising a DNA sequence encoding a promoter region of at least one bone morphogenetic protein, operatively linked to a reporter gene encoding an assayable product under conditions which permit expression of said assayable product, contacting the cultured cell line with at least one compound suspected of possessing osteogenic activity, and identifying osteogenic agents by their ability to modulate the expression of the reporter gene and thereby increase the production of the assayable product. This assay technique specifically identifies osteogenic agents which stimulate bone cells to produce bone growth factors in the bone morphogenetic protein family. These osteogenic agents display the capacity to increase the activity of the promoters of genes of members of the BMP family and other bone growth factors normally produced by e.g. bone cells. Also provided in accordance with the present invention are isolated DNA sequences encoding a promoter region of at least one bone morphogenetic protein, and a system for identifying osteogenic agents comprising an expression vector comprising such promoter sequences operatively linked to a reporter gene encoding an assayable product, and means for detecting the assayable product produced a response to exposure to an osteogenic compound. Brief Description of the Drawings Figure 1 A graphically depicts a restriction enzyme map of mouse genomic BMP-4 and a diagram of two transcripts. The mouse BMP-4 gene transcription unit is -7kb and contains 2 coding exons (closed boxes) and 3 non-encoding exons, labeled exons 1A, IB and 2. This 19kb clone has an -6kb 5' -flanking region and an -7kb 3 ' -flanking region. The diagram shows approximately 2.4kb of the 5 ' -flanking region, and a small region of the 3 ' -flanking region. The lower panel shows two alternative transcripts of BMP-4. Both have the same exons 2, 3 and 4 but a different exon 1. Transcript A has exon 1A and transcript B has exon IB whose size was estimated according to RT-PCR and primer extension analysis in FRC cells; Figure IB depicts the DNA sequence of selected portions of mouse genomic BMP- 4 (SEQ. ID NO. 1) and the predicted amino acid sequences of the identified coding exons (SEQ. ID NO. 2). The numbers on the right show the position of the nucleotide sequence and the bold numbers indicate the location of the amino acid sequence of the coding region. Most of the coding sequence is in exon 4. The end of the transcription unit was estimated based on a 1.8kb transcript. Primer 1 in exon 1A was used in RT-PCR analysis with Primer 3 in exon 3. Primer 2 in exon IB was used in RT-PCR analysis with Primer 3. Primer Bl and B2 were used in primer extension reactions; Figure 1C portrays the sequence of the BMP-4 exon 1A 5'-flanking region and potential response elements in the mouse BMP-4 1 A promoter (SEQ. ID NO. 3). The sequences of 2688 bp of the mouse BMP-4 gene are shown. Nucleotides are numbered on the left with +1 corresponding to the major transcription start site of the 1 A promoter. The response elements of DR-1 A Proximal and DR-1 A Distal oligonucleotides are indicated. The other potential response DNA elements in the boxes are p53, RB (retinoblastoma), SP- 1, AP-1, and AP-2. Primer A, indicated by the line above the DNA sequence at +114 to +96, was used for primer extension analysis of exon lA-containing transcripts; Figure 2 depicts the results of a primer extension assay. Total RNAs prepared from FRC cells (on the left frame) and mouse embryo 9.5 days (on the right) were used with primer A or the complement of primer 2. Two major extended fragments, 67 and 115 bp, indicated a lane A were obtained from primer A. Two IB primers, primer Bl and primer B2, also gave negative results with both FRC and mouse embryo total RNA as template. Transcript B is not detectable with this assay. By RT-PCR, transcript B can be detected and quantified; Figure 3 A is a photographic representation of gel electrophoresis of 1 A-3 and 1B-3 RT-PCR products of the BMP-4 gene. RT-PCR was performed with two pairs of primers using FRC cell poly A + mRNA as the template. The products were verified by the DNA sequence; Figure 3B is a schematic diagram of spliced BMP-4 RT-PCR products with 1A and IB exons in FRC cells. RT-PCR was performed with two pairs of primers using FRC cell poly A + mRNA as the template. The diagram shows where the primers are located in the BMP-4 genomic DNA. RT-PCR product 1 A-2-3 which contains exon 1 A, exon 2 and the 5' region of exon 3, was produced with primer 1 and primer 3. Primer 2 and primer 3 generated two RT-PCR products with the exon 1B-2-3 pattern. The heterogeneity in size of exon IB is indicated. The 1A promoter is predominantly utilized in bone cells; Figure 4 A provides a map of the BMP-4 1A 5' -flanking-CAT plasmid and promoter activity in FRC cells. The 2.6kb EcoRl and Xba fragment, 1.3 kb Pst fragment, 0.5kb Sphl and Pst fragment, and 0.25kb PCR fragment were inserted into pBLCAT3. The closed box indicates the non-coding exon 1 A. The CAT box represents the CAT reporter gene. The values represent percentages of CAT activity expressed by pCAT-2.6 set at 100%. The values represent the average of four independent assays; Figure 4B provides an autoradiogram of CAT assays using FRC cells transfected with BMP-4 1A 5 '-flanking-C AT plasmids identified in Figure 4 A; Figure 5 portrays the nucleotid sequence of the mouse BMP-2 gene 5 ' -flanking region from -2736 to +139 (SEQ. ID NO. 4). The transcription start site is denoted by +1; Figure 6A depicts an autoradiogram showing products of a primer extension assay for determination of the transcription start site of the BMP2 gene, separated on a 8% denaturing urea-polyacrylamide gel, in which Lane 1 : Total RNA from fetal rat calvarial osteoblast cells, and Lane 2: Control lane with lOμg of yeast tRNA. All RNA samples were primed with a 3 p-labeled oligonucleotide from exon 1 to the mouser BMP2 gene, as indicated in Figure 6B. Lane M: 32 p-labeled Mspl digested λ phage DNA, containing DNA fragments spanning from 623 bp to 15 bp (size marker); Figure 6B provides a schematic representation of the primer extension assay. The primer used is a 18mer synthetic oligonucleotide, 5 '-CCCGGCAAGTTCAAGAAG-3 ' (SEQ. ID NO. 5); Figure 7 provides a diagram of selected BMP-2 promoter - luciferase reporter constructs. BMP-2 5 ' -flanking sequences are designated by hatched boxes (D) and luciferase cDNA is designated by the filled box (I). Base +114 denotes the 3 ' end of the BMP-2 gene in all the constructs; Figure 8 displays the luciferase enzyme activity for the BMP-2 gene-LUC constructs (shown in Figure 7) transfected in primary fetal rat calvarial osteoblasts (A), HeLa cells (B) and ROS 17/2.8 osteoblasts (C). The luciferase activity has been normalized to β-galactosidase activity in the cell lysates; Figure 9A-F depicts the DNA sequence of the mouse BMP-2 promoter and gene (SEQ. ID NO. 6); and Figure 10A-D depicts the DNA sequence of the mouse BMP-4 promoter and gene (SEQ. ID NO. 7). Figure 11 depicts the resequencing of the BMP-2 5' flanking region. Detailed Description of the Preferred Embodiments A cell-based assay technique for identifying and evaluating compounds which stimulate the growth of bone is provided, comprising culturing a host cell line comprising an expression vector comprising a DNA sequence encoding a promoter region of at least one bone morphogenetic protein operatively linked to a reporter gene encoding an assayable product under conditions which permit expression of said assayable product, contacting the cultured cell line with at least one compound suspected of possessing osteogenic activity, and identifying osteogenic agents by their ability to modulate the expression of the reporter gene and thereby increase the production of the assayable product. The present invention is distinguished from other techniques for identifying bone- active compounds, as it specifically identifies chemical compounds, agents, factors or other substances which stimulate bone cells to produce the bone growth factors in the bone morphogenetic protein (BMP) family (hereinafter "osteogenic agents"). These osteogenic agents are identified by their capacity to increase the activity of the promoters of genes of members of the BMP family and other bone growth factors which are normally produced by bone cells, and other cells including cartilage cells, tumor cells and prostatic cells. When patients are treated with such chemical compounds, the relevant BMP will be produced by bone cells and then be available locally in bone to enhance bone growth or bone healing. Such compounds identified by this assay technique will be used for the treatment of osteoporosis, segmental bone defects, fracture repair, prosthesis fixation or any disease associated with bone loss. Compounds that inhibit bone morphogenetic protein expression in bone or cartilage may also be useful in clinical situations of excess bone formation which occurs in such diseases as osteoblastic metastases or osteosclerosis of any cause. Such compounds can also be identified in accordance with the present invention. Also provided in accordance with the present invention are isolated DNA sequences encoding a promoter region of at least one bone morphogenetic protein, and a system for identifying osteogenic agents comprising an expression vector comprising such promoter sequences operatively linked to a reporter gene encoding an assayable product, and means for detecting the assayable product produced in response to exposure to an osteogenic compound. The promoters of the genes for BMP-4 and BMP-2 are complex promoters which can be linked to reporter genes, such as e.g. the firefly luciferase gene. When the hybrid genes (for example, bone cell BMP-4 promoter or bone cell BMP-2 promoter and firefly luciferases, chloramphenicol acetyl transferase (CAT) cDNAs, or cDNA's for other reporter genes such as β-galactosidase, green fluorescent protein, human growth hormone, alkaline phosphatase, β-glucuronidase, and the like) are transfected into bone cells, osteogenic agents which activate the BMP-4 or BMP-2 promoters can be identified by their capacity in vitro to increase luciferase activity in cell lysates after cell culture with the agent. Sequence data on small fragments of the 5 '-flanking region of the BMP-4 gene have been published (Chen et al, 1993; Kurihara et al, 1993), but the promoter has not been previously identified or isolated, and methods for regulating transcription have not been shown. The present invention isolates the promoters for the BMP genes and utilizes these promoters in cultured bone cells so that agents could be identified which specifically increase BMP-2 or BMP-4 production locally in bone. Since it is known that the BMPs are produced by bone cells, a method for enhancing their production specifically in bone should avoid systemic toxicity. This benefit is obtained by utilizing the unique tissue specific promoters for the BMPs which are provided herein, and then using these gene promoters to identify agents which enhance their activity in bone cells. By utilizing the disclosure provided herein, other promoters can be obtained from additional bone morphogenetic proteins such as BMP-3, BMP-5, BMP-6, and BMP-7, to provide comparable benefits to the promoters herein specifically described. In addition, the present invention contemplates the use of promoters from additional growth factors in osteoblastic cells. Included are additional bone morphogenetic proteins, as well as fibroblast growth factors (e.g. FGF-1, FGF-2, and FGF-7), transforming growth factors β-1, β-2, and β-3, insulin-like growth factor- 1, insulin-like growth factor-2, platelet-derived growth factor, and the like. Such promoters will readily be utilized in the present invention to provide comparable benefits. The cells which can be utilized in the present invention include primary cultures of fetal rat calvarial osteoblasts, established bone cell lines available commercially (MC3T3-E1 cells, MG-63 cells, U2OS cells, UMR106 cells, ROS 17/2.8 cells, SaOS2 cells, and the like as provided in the catalog from the American Type Culture Collection (ATCC)), and bone cell lines established from transgenic mice, as well as other cell lines capable of serving as hosts for the present vectors and systems. In addition, a number of tumor cell lines also express BMPs, including the prostate cancer cell lines PC3, LNCAP, and DUI145, as well as the human cancer cell line HeLa. Thus, any of a number of cell lines will find use in the present invention and the choice of an appropriate cell line will be a matter of choice for a particular embodiment. The following examples serve to illustrate certain preferred embodiments and aspects of the present invention and are not to be construed as limiting the scope thereof. EXPERIMENTAL In the experimental disclosure which follows, the following abbreviations apply: eq (equivalents); M (Molar); mM (millimolar); μM (micromolar); N (Normal); mol (moles); mmol (millimoles); μmol (micromoles); nmol (nanomoles); kg (kilograms); gm (grams); mg (milligrams); μg (micrograms); ng (nanograms); L (liters); ml (milliliters); μl (microliters); vol (volumes); and °C (degrees Centigrade). Example 1 : DESCRIPTION AND CHARACTERIZATION OF MURINE BMP-4 GENE PROMOTER (a) Library Screening, Cloning and Sequencing of Gene A mouse genomic lambda fix II spleen library (Stratagene, La Jolla, CA) was screened with a mouse embryo BMP-4 cDNA kindly provided by Dr. B.L.M. Hogan (Vanderbilt University School of Medicine, Nashville, TN). The probe was labeled with [α- 32 PjdCTP using a random-primer labeling kit from Boehringer-Mannheim (Indianapolis, IN). Plaque lift filters were hybridized overnight in 6X SSC, 5X Denhardt's. 0.5% SDS containing 200μg ml sonicated salmon sperm DNA, lOμg/ml Poly A and lOμg/ml t-RNA at 68° C. The filters were washed at 55° C for 20 min, twice in 2X SSC, 0.1% SDS buffer, once in 0.5X SSC, 0.1% SDS. The isolated phage DNA clones were analyzed according to standard procedures (Sambrook et al., 1989). Fragments from positive clones were subcloned into pBluescrpt vectors (Stratagene, La Jolla, CA) and sequenced in both directions using the Sequenase dideoxynucleotide chain termination sequencing kit (U.S. Biochemical Corp., Cleveland, OH). Three clones were isolated from 2xl0 6 plaques of mouse spleen 129 genomic library using full length coding region mouse embryo BMP-4 cDNA probe (B. Hogan, Vanderbilt University, Nashville, TN). One 19kb clone contained 5 exons and ~6kb 5 ' -flanking region and a ~7kb 3 ' -flanking region, as shown in Figure 1 A. The 7kb transcription unit and the 5 '-flanking region of the mouse BMP-4 gene were sequenced (Figure 10). The nucleotide sequence of selected portions of mouse BMP-4 and the deduced amino acid sequence of the coding exons (408 residues; SEQ. ID NO. 2) is shown in Figure IB. Primers used in the RT-PCR experiments described below are indicated in this Figure. Figure 1C shows the DNA sequence of 2372bp of the 5' -flanking region and the candidate DNA response elements upstream of exon 1A. Primers used in primer extensions are also shown in Figures IB and lC. (b) Primer Extension Mapping of the Transcriptional Start- Site of the Mouse BMP-4 Gene The transcriptional start-sites were mapped by primer extension using the synthetic oligonucleotide primer A 5 ' -CGGATGCCGAACTCACCTA-3' (SEQ. ID NO. 8), corresponding to the complement of nucleotides +114 to +96 in the exon 1 A sequence and the oligonucleotide primer Bl 5'-CTACAAACCCGAGAACAG-3' (SEQ. ID NO. 9), corresponding to the complement of nucleotides +30 to +13 of the exon IB sequence. Total RNA from fetal rat calvarial (FRC) cells and 9.5 day mouse embryo (gift of B. Hogan, Vanderbilt University) was used with both primers. The primer extension assay was carried out using the primer extension kit from Promega (Madison, WI). The annealing reactions were, however, carried out at 60°C in a water bath for 1 hr. The products were then electrophoresed on 8% denaturing-urea polyacrylamide gels and autoradiographed. One additional oligonucleotide primer B2 5' -CCCGGCACGAAAGGAGAC-3 ' (SEQ. ID NO. 10), corresponding to the complement of nucleotide sequence +69 to +52 of exon IB, was also utilized in primer extension reactions with FRC and mouse embryo RNAs. 1. Evidence for utilization of two alternate exon 1 sequences for the BMP-4 gene. Several BMP-4 cDNAs were sequenced from prostate cancer cell in PC-3 and from primary FRC cells. Four independent FRC cell BMP-4 cDNAs all contained exon 1 A. However, the human prostate carcinoma cell line (PC-3) cDNA contained an apparently unique exon IB sequence spliced to exon 2 (Chem et al, 1993). A doubt-stranded oligonucleotide roble (70bp) to exon IB was synthesized based on the human PC-3 exon IB sequence. This exon IB probe was then used to identify the exon IB region in the mouse genomic BMP-4 clone. The candidate exon IB is 1696bp downstream from the 3' end of exon 1A. 2. Primer extension analysis Primer extension analysis was performed to map the mouse BMP-4 gene transcription start sites. Primer A, an oligonucleotide from exon 1A, was used and two oligonucleotides from exon IB. Total RNA was utilized both from mouse embryo and FRC cells. As shown in Figure 2, a major extended fragment from primer A was obtained in both mouse embryo and FRC cell total RNAs, which migrates at 115bp. The extended 5 '-end of the 115bp fragment represents the major transcription start site for 1 A-containing transcripts. The site of this 5' non-coding exon 1 A is 306bp. A major extended fragment from the complement of primer Bl (exon IB) was not detected using both mouse embryo and FRC cell total RNAs. One other primer from exon IB also gave negative results, suggesting that in 9.5 day mouse embryo and FRC cells, the exon IB-containing transcripts were not detectable, which suggests that transcripts containing exon IB are less abundant in these cells and tissues than transcripts containing exon 1 A. All primer extensions were carried out after annealing of primers at high stringency. Lower stringency annealing with IB primers gave extended products not associated with BMP-4 mRNA. (c) BMP-4 Gene 5 ' Flanking Region for Exon 1 A and IB Transcripts. Four FRC BMP-4 cDNA were sequenced and found to contain exon 1 A sequences spliced to exon 2. The human U20S BMP-4 cDNA sequence also contains exon 1 A (Wozney et al, 1988). This suggests the BMP-4 gene sequences upstream or exon 1 A are used primarily in bone cells. To test whether the BMP-4 IB promoter is utilized at all in FRC cells, oligonucleotide primers were designed to ascertain whether spliced 1B-2-3 exon products and 1 A-2-3 exon (control) products could be obtained by more sensitive RT-PCR technique using FRC poly (A^-RNA. The 3' primer was in exon 3 (Figure IB - Primer 3) and the 5' primers were either in exon 1 A (primer 1) or exon IB (primer 2). The RT-PCR products were cloned and sequenced. A photograph and diagram of the products obtained are presented in Figure 3A and B. Both 1 A-2-3 and 1B-2-3 products were obtained. The results indicate FRC osteoblasts produce transcripts with either 1A exon or a IB exon, but not both. This suggests that the intron region between 1A and IB exons could contain regulatory response elements under certain conditions. Of the 1B-2-3 RT-PCR products obtained from FRC osteoblasts, two products were obtained with different 3 ' splice sites for the exon IB. By comparison with the genomic DNA, both 3' ends of the two exon IBs have reasonable 5 ' splice consensus sequences, consistent with an alternate splicing pattern obtained for the 1B-2-3 RT-FCR products. Most importantly, no 1 A-1B-2-3 RT-PCR splice products of the BMP-4 gene were obtained. Thus, IB does not appear to be alternatively spliced 5 '-non-encoding exon. By quantitative RT-PCR, it was shown that 1 A transcripts are 10 to 15X more abundant in primary bone cells. The technique of performing RT-PCR will be described. First-strand cDNA was synthesized from lμg FRC cell poly (A + )-RNA with an 18mer dT primer using Superscript™ reverse transcriptase (Gibco BRL) in a total volume of 20μl. The cDNA was then used as a template for PCR with two sets of synthesized primers. As shown in Figure IB, primer 1 (5 '-GAAGGCAAGAGCGCGAGG-3) (SEQ. ID No. 11), corresponding to a 3 ' region of exon 1A and primer 3 ( 5 ' -CCGGTCTCAGGTATCA-3') (SEQ. ID No. 12), corresponding to a 5' region of exon 3 were used to generate exon 1 A- 2-3 spliced PCR product. Primer 2 (5 ' -CAGGCGGAAAGCTGTTC-3') (SEQ. ID NO. 13), corresponding to a 3' region (+2 to +18) of exon IB, and primer 3 were used to generate exon 1B-2-3 spliced PCR products. GeneAmp PCR kit was used according to the manufacturer's procedure (Perkin-Elmer/Cetus, Norwalk, CT). Each cycle consisted of a denaturation step (94°C for 1 min), an annealing step (59°C for 2 min) and an elongation step (72°C for 1 min). The PCR products were analysed by agarose gel electrophoresis for size determination. The products were subcloned into pCR II vector using TA cloning kit (InVitrogen, San Diego, CA). The inserts were sequenced in both directions with a sequencing kit from U.S. Biochemical (Cleveland, OH). Northern analysis demonstrated that the single 1.8kb BMP-4 transcript detected in FRC cells during bone cell differentiation hybridizes to both a pure 1A exon probe and a 2- 4 exons probe. The ratio of the 1 A to 2-4 signal is constant through the changing levels of BMP-4 expression during differentiation. Using a IB exon probe no detectable hybridization to the BMP-4 exon 2-4 1.8kb signal was observed. This again indicates that 1 A containing transcripts predominate in bone cells, although IB transcripts can be detected by the more sensitive PCR method. By quantitative PCR it was shown that 1A transcripts are 10-15X more abundant than IB in FRC cells. (d) BMP-4 Promoter 1 A Plasmid Construction and Transfection, and Detection of Promoter Activity in Osteoblasts. Three BMP-4 1 A promoter/plasmids were constructed by excising fragments from the 5' flanking region of the mouse BMP-4 gene and cloning into pBL3CAT expression vectors (Luckow and Schutz, 1987). The pCAT-2.6 plasmid was the pBLCAT3 vector with a 2.6kb EcoRl and Xba I fragment (-2372/+258) of the BMP-4 gene. The pCAT-1.3 plasmid was similarly generated from a 1.3kb Pst fragment (-1144/+212). The pCAT-0.5 plasmid was made from a 0.5kb Sphl and Pst fragment (-260/+212). Both the pCAT-1.3 and the pCAT-0.5 plasmids have 212bp of exon 1A non-coding region. An additional promoter/plasmid was created from a PCR amplified product, corresponding to the 240bp sequence between nucleotides -25 and +212, and referred to as the pCAT-0.24. The amplified fragment was first cloned into pCR II vector using TA cloning kit (InVitrogen, San Diego, CA) and then the fragment was released with Hind III and Xho I, and relegated into pBL3CAT. Correct orientation of all inserts with respect to the CAT vector was verified by DNA sequencing. The cells used for transient transfection studies were isolated from 19 day-old fetal rat calvariae by sequential digestion with trypsin and coUagenase, as described by Bellows et al, (1986) and Harris et al, (1994). In brief, the calvarial bone were surgically removed and cleaned by washing in α minimal essential media (αMEM) containing 10% V/V fetal calf serum (FCS) and antibiotics. The bones were minced with scissors and were transferred to 35mm tissue culture dish containing 5ml of sterile bacterial coUagenase (0.1%) and trypsin 1 (0.05%). This was then incubated at 37°C for 20 min. The cells released at this time were collected and immediately mixed with an equal volume of FCS to inactivate trypsin. This procedure is repeated 6 times to release cells at 20 min intervals. Cells released from 3rd, 4th, 5th and 6th digestion (enriched for osteoblasts) were combined and the cells are collected by centrifugation at 40 Xg for 5 min. The cells were then plated in αMEM containing 10% FCS and antibiotics and were grown to confluency (2-3 days). At this stage the cells were plated for transfection in 60mm tissue culture dishes at a cell density of 5 x 10 5 cells per dish. These primary osteoblast cultures are capable of self-organizing into bone-like structure in prolonged cultures (Bellows et al, 1986; Harris et al, 1994). HeLa, ROS 17/2.8, and CV-1 cells were purchased from the ATCC. The isolated FRC cells, enriched for the osteoblast phenotype, were used as recipient cells for transient transfection assays. BMP-4 mRNA is modulated in these cells in a transient fashion during prolonged cultured (Harris et al, 1994b). The technique of electroporation was used for DNA transfection (Potter, 1988; van den Hoff et al, 1992). After electroporation, the cells were divided into aliquots, replated in 100mm diameter culture dishes and cultured for 48 hours in modified Eagle's minimal essential media (MEM, GIBCO, Grand Island, NY) with 10% fetal calf serum (FCS). The extracts were assayed for CAT actively according to the method described by Gorman (1988) and CAT activity was normalized by β-galactosidase assay according to the method of Rouet et al (1992). After 48 hrs of transfections with various BMP-4-CAT reporter gene plasmid constructs, the cells were harvested and the CAT activity was determined. As indicated in Figure 4A and 4B, pCAT-0.24 plasmid (-25/+212) has little CAT activity. This plasmid contains -25 to +212 of the 5' non-coding exon 1A and was 3 -fold lower that the parent pBL3CAT plasmid. The pCAT-0.5 (-260/+212), pCAT-1,3 (-1144/+212), and pCAT-2.6 (-2372/+258) showed progressive increasing CAT activity when transfected into FRC cells. These data are shown in Figure 4B. With pCAT-0.5 (-260/+212) there is a 10-fold increase in CAT activity relative to ρCAT-0.24 (-25/+212). pCAT-1.3 (-1144/+212) shows a further 6-fold increase and pCAT-2.6 (-2372/+2S8) shows further 2-fold change over pCAT-1.3 (-1144/+212). Thus the net increase in CAT activity between the pCAT- 0.24 (+257/+212) and the pCAT-2.6 (-2372/+258) in FRC cells is approximately 100-fold. Example 2: DESCRIPTION AND CHARACTERIZATION OF MURINE BMP-2 GENE PROMOTER (a) Cloning of Mouse BMP-2 Genomic DNA. Genomic clones of the mouse BMP-2 gene were isolated in order to determine the transcriptional regulation of the BMP-2 gene in primary osteoblasts. 5 x 10 6 plaques were screened from a mouse genomic library, B6/CBA, (purchased from Stratagene, San Diego, CA) using BMP-2 cDNA as probe. The BMP-2 cDNA clone was isolated from a cDNA library of PC3 prostate cancer cells (Harris et al, 1994). The human BMP-2 probe was a 1.1 kb Smal fragment containing most of the coding region. The BmP-2 genomic clones were sequenced by dideoxy chain termination method (Sanger et al, 1977), using deoxyadenosine 5'-[α[ 35 S]thio] triphosphate and Sequenase (United States Biochemical, Cleveland, OH). AU fragments were sequenced at least twice and overlaps were established using the appropriate oligonucleotie primer. Primers were prepared on an Applied Biosystems Model 392 DNA Synthesizer. Approximately 16kb of one of these BMP-2 clones was completely sequenced (Figure 9). Analysis of this sequence showed that the mouse BMP-2 gene contains one encoding and two coding exons (Feng et al, 1994). Analysis of the 5' flanking sequence showed that the BMP-2 gene does not contain typical TATA oar CAAT boxes. However, a number of putative response elements and transcription factor recognition sequences were identified upstream of exon 1 (Figure 5). The 5 '-flanking region is GC rich with several SP-1, AP-1 P53, E-box, homeobox, and AP-2 candidate DNA binding elements. (b) Analysis of Transcription Start Site for BMP-2 Gene. The transcription start sites for the BMP-2 gene were identified using the primer extension technique. Primer extension was carried out as described (Hall et al, 1993). The primer used was a 32 p-labeled 18 mer oligonucleotide 5'-CCCGGCAATTCAAGAAG- 3 ' (SEQ. ID NO> 5). Total RNA obtained from primary fetal rat calvarial osteoblasts, was used for the primer extension. The results were shown in Figure 6. The major extension product was 68bp and was used to estimate the major transportation start site (+1, Figure 5). These results were confirmed by Rnase protection assays. (c) Identification of BMP-2 Promoter and Enhancer Activity Using Luciferase (LUC) Reporter Gene Constructs. The BMP-2-LUC constructs (Figure 7) were designed to contain variable 5 ' boundaries from BMP-2 5 '-flanking sequences spanning the transcription start site (+1). Each construct contained the 3' boundary at +114 9 in exon 1 (Figure 6). These constructs were individually transfected into primary cultures of fetal rat calvarial osteoblasts, ROS 17/2.8 osteosarcoma cells, HeLa cells, and CV-1 cells by the calcium-phosphate precipitation technique and the promoter activity for each of these constructs was assayed 24 hrs following transfection by measuring the luciferase enzyme activity for each individual cell lysate. The LUC (luciferase enzyme assay) technique is described below under (f). Plasmid psvβGal was co-transfected with each plasmid construct to normalize for the transfection efficiency in each sample. The experiments were repeated at least five times in independent fetal rat calvarial cultures, with each assay done in triplicate. The mean values from a representative experiment are shown in Figure 8. (d) Isolation of Primary Fetal Rat Calvarial Osteoblasts for Functional Studies of BMP-2 Gene Promoter. The cells used for transient transfection studies were isolated from 19 day-old fetal rat calvariae by sequential digestion with trypsin and coUagenase, as described by Bellow et al, (1986) and Harris et al, (1994). In brief, the calvarial bone were surgically removed and cleaned by washing in α minimal essential media (αMEM) containing 10% V/V fetal calf serum (FCS) and antibiotics. The bones were minced with scissors and was transferred to 35 mm tissue culture dish containing 5 ml of sterile bacterial coUagenase (0.1%) and trypsin (0.05%). This was then incubated at 37°C for 20 min. The cells released at this time were collected and immediately mixed with an equal volume of FCS to inactivate trypsin. This procedure was repeated 6 times to release cells at 20 min intervals. Cells released from 3rd, 4th, 5th and 6th digestion (enriched for osteoblasts) were combined and the cells were collected by centrifugation at 400 g for 5 min. The cells were then plated in αMEM containing 10% FCS and antibiotics and were grown to confluency (2-3 days). At this stage the cells were plated for transfection in 60 mm tissue culture dishes at a cell density of 5 x 10 5 cells per dish. These primary osteoblst cultures are capable f mineralized bone in prolonged cultures (Bellows et al, 1986; Harris et al, 1994). HeLa, ROS 17/2.8, and CV-1 ceUs were purchased from the ATCC. (e) Transient Transfection Assay. For transient transfection assay, the primary osteoblast cells were plated at the above mentioned cell density 18-24 hrs prior to transfection. The transfection was carried out using a modified calcium-phosphate precipitation method (Graham & van der Eb 1973; Frost & WiUiams 1978). The cells were incubated for 4 hrs. at 37°C with 500μl of a calcium phosphate precipitate of plasmid DNA containing lOμg of reporter plasmid construct and lμg of pSVβGal (for normalization of transfection efficiency) in 0.15M CaCl 2 and Hepes buffered saline (21mM Hepes, 13.5mM NaCI, 5mM KC1, 0.7mM Na 2 HPO 4 , 5.5mM dextrose, pH 7.05-7.1). After the 4 hr. incubation period of cells with precipitate, the cells were subjected to a 2 min treatment of 15% glycerol in αMEM, followed by addition of fresh αMEM containing insulin, transferrin and selenium (ITS) (Upstate Biotechnology Lake Placid, NY). The cells were harvested 24 hrs post transfection. (f) Luciferase and β-galactosidase Assay. CeUs lysates were prepared and luciferase enzyme assay was carried out using assay protocols and the assay kit from Promega (Madison, WI). Routinely 20μl of cell lysate was mixed with lOOμl of luciferase assay reagent (270μM coenzyme A, 470μM luciferin and 530μM ATP) and the luciferase activity was measured for 10 sec in a TURNER TD-20e luminometer. The values were normalized with respect to the β-galactosidase enzyme activity, obtained for each experimental sample The β-galactosidase enzyme activity was measured in the cell lysate using a 96 well microtiter plate according to Rouet et al (1992). 10-20μl cell lysate was added to 90- 80μl β-galactosidase reaction buffer containing 88mM phosphate buffer, PH 7.3, 1 ImM KCL, ImM MgCl 2 , 55mM β mercaptoethanol, 4.4mM chlorophenol red β-D-galactopyranoside (Boehringer-Mannheim Corp., Indianapolis, IN). The reaction mixture was incubated at 37°C for 30-60 min, depending on transfection efficiency, and the samples were read with an ELIS A plate reader at 600nm. (g) Plasmid Construction The luciferase basic plasmid (pGL basic) was the vector used for all constructs (purchased from Promega, Madison, WI). Different lengths of DNA fragments from the BmP-2 5 ' -flanking region were cloned at the multiple cloning sites of this plasmid, which is upstream of the firefly luciferase cDNA. The BMP-2 DNA fragments were isolated either by using available restriction enzyme sites (constructs -196/+114, -876/+ 114, -1995/+114, - 2483/+114, and -2736/+114) or by polymerase chain reaction using specific oligonucleotide primers (constructs -23/+114, -123/+114 and +29/+114. The minimal promoter activity for the BMP-2 gene was identified in the shortest construct containing 23bp upstream of the transcription start site (-23/+114). No luciferase activity was noted in the construct and did not include the transcription start site (+29/+ 114). Two other constructs containing increasing lengths of 5' sequences up to - 196bp showed reproducible decreases in promoter activity in fetal rat calvarial osteoblasts and HeLa cells (Figure 8). The -876/+114 construct showed a 5-fold increase in activity in HeLa cells. The -1995/+114, -2483/+114 and -2736/+114 constructs showed decreased promoter activity when compared to the -876/+114 construct only in HeLa cells (Figure 8). In the primary fetal rat calvarial osteoblasts, the 2.6kb construct (-2483/+114) demonstrated a 2-3-fold increase in luciferase activity over that of the -1995/+114 construct (Figure 8). These results suggest that one or more positive response regions are present between -196 and -1995 and that the DNA sequence between -1995 and -2483bp was other positive regulatory elements that could modulate BMP-2 transcription. The largest 2.9kb construct (-2836/+114) repeatedly demonstrated a 20-50% decrease in promoter activity compared to the -2483/+ 114 construct, in these primary fetal rat calvarial osteoblasts (Figure 8). In ROS 17/2.8 osteosarcoma cells, the BMP-2 promoter activity was consistently higher than either the primary fetal rat calvarial osteoblasts or HeLa cells (Figure 8). AU of the deletion constructs showed similar promoter activity in ROS 17/2.8 osteosrcoma cells. The transformed state in ROS 17/2.8 cells may be responsible for the marked expression of the BMP-2 gene. ROS 17/2.8 cells represent a well differentiated osteosrcoma and they produce high levels of BMP-2 mRNA. They form tumors in nude mice with bone-like material in the tumor (Majeska et al, 1978; Majeska et al, 1980). (h) Specificity of the BMP-2 Promoter. To analyze the activity of the BMP-2 promoter in cell types not expressing BMP-2 mRNA, BMP-2 promoter constructs were transfected into CV-1 cells (monkey kidney ceUs). The BMP-2 promoter activity was found to be very low for all constructs. This suggests that this region of the BMP-2 promoter is functional only in cells such as primary fetal rat calvarial osteoblasts, HeLa and ROS 17/2.8 that express endogenous BMP-2 mRNA (Anderson & Coulter 1968). CV-1 cells do not express BMP-2 mRNA. The BMP-2 promoter is likely active in other cell types that express BMP-2, such as prostate cells and chondrocytes, although regulation of transcription may be different in these cells. Example 3: USE OF PLASMID CONSTRUCTS CONTAINING BMP PROMOTERS WITH REPORTER GENES TO IDENTIFY OSTEOGENIC AGENTS Plasmid constructs containing BMP promoters with reporter genes have been transfected into osteoblastic cells. The cells which have been utilized include primary cultures of fetal rat calvarial osteoblasts, cell lines obtained as gifts or commercially (MC3T3-E12 cells, MG-63 cells, U2OS cells, UMR106 cells, ROS 17/2.8 cells, Sa)S2 cells, and the like as provided in the catalog from the ATCC) and bone and cartilage cell lines established from transgenic mice. The bone cells are transfected transiently or stably with the plasmid constructs, exposed to the chemical compound, agent or factor to be tested for 48 hours, and then luciferase or CAT activity is measure in the cell lysates. Regulation of expression of the growth factor is assessed by culturing bone cells in αMEM medium with 10% fetal calf serum and 1% penicillin/streptomycin and 1% glutamine. The cells are placed in microtiter plates at a cell density of 5x10 3 cells /100μl/well. The cells are allowed to adhere and then incubated at 37°C at 5% CO 2 for 24 hours and then the media is removed and replaced with 50μl αMEM and 4% fetal calf serum, 50μl aliquots containing the compound or factor to be tested in 0.1% BSA solution is added to each well. The final volume is lOOμl and the final serum concentration is 2% fetal calf serum. Recombinant rat BMP-2 expressed in Chinese hamster ovarian cells is used as a positive control. The treated cells are incubated at 37°C at 5% CO 2 for 48 hours. The media is then removed and the cells are rinsed 3 times with phosphate buffered saline (PBS). Excess PBS is removed from the wells and lOOμl of cell culture lysing reagent (Promega #E153A) is added to each well. After 10 minutes, lOμl of the cell lysate is added to a 96-weU white luminometric plate (Dynatech Labs #07100) containing lOOμl luciferase assay buffer with substrate (Promega #E152A). The luciferase activity is read using a Dynatech ML2250 automated 96-weU luminometer. The data is expressed as either picograms of luciferase activity per well or picograms of luciferase per μg protein. Example 4: DEMONSTRATION THAT BONE CELLS TRANSFECTED WITH BMP PROMOTERS CAN BE USED TO SCREEN FOR OSTEOGENIC AGENTS To demonstrate that the present invention is useful in evaluating potential osteogenic agents, a random array of chemical compounds from a chemical library obtained commercially was screened. It was found that approximately 1 in 100 such compounds screened produces a positive response in the present assay system compared with the positive control, recombinant BMP-2, which is known to enhance BMP-2 transcription. Compounds identified from the random library were subjected to detailed dose-response curves, to demonstrate that they enhance BMP messenger RNA expression, and that they enhance other biological effects in vitro, such as expression of structural proteins including osteocalcin, osteopontin and alkaline phosphase, and enhance bone nodule formation in prolonged primary cultures of calvarial rodent osteoblasts. Compounds identified in this way can be tested for their capacity to stimulate bone formation in vitro in mice. To demonstrate this, the compound can be injected locally into subcutaneous tissue over the calvarium of normal mice and then the bone changes are foUowed histologically. It has been found that certain compounds identified by the present invention stimulate the formation of new bone in this in vivo assay system. The effects of compounds are tested in ICR Swiss mice, aged 4-6 weeks and weighing 13-26g. The compound at 20mg/kg or vehicle along (lOOμl of 5% DMSO and phosphate-buffered 0.9% saline) are injected three times daily for 7 days. The injections are given into the subcutaneous tissues overlying the right side of the calvaria of five mice in each treatment group in each experiment. Mice are killed by either inhalation on day 14, i.e. 7 days after the last injection of compound. After fixation in 10% phosphate-buffered formalin, the calvariae are examined. The occipital bone is removed by cutting immediately behind and parallel to the lambdoid suture, and the frontal bone is removed by cutting anterior to the coronal suture using a scalpel blade. The bones are then bisected through the coronal plane and the 3- to 4mm strips of bone are decalcified in 14% EDTA, dehydrated in graded alcohols, and embedded in paraffin. Four 3μm thick nonconsecutive step sections are cut from each specimen and stained using hematoxylin and eosin. Two representative sections from the posterior calvarial strips are used. Histological measurements are carried out using a digitizing tablet and the Osteomeasure image analysis system (Osteometrics Inc., Atlanta, GA) on the injected and noninjected sides of the calvariae in a standard length of bone between the sagittal suture and the muscle insertion of the lateral border of each bone. Measurements consist of (1) Total bone area (i.e., bone and marrow between inner and outer periosteal surfaces); (2) Area of new woven bone formed on the outer calvarial surface; (3) The extent of osteoblast lined surface on the outer calvarial surface; (4) The area of the outer periosteum; and (5) The length of calvarial surface. From these measurements, the mean width of new bone and periosteum and the percentage of surface lined by osteoblasts on the outer calvarial surface, can be determined. By reference to the above disclosure and examples, it is seen that the present invention provides a new cell-based assay for identifying and evaluating compounds which stimulate the growth of bone. Also provided in accordance with the present invention are promoter regions of bone morphogenetic protein genes, and a system for identifying osteogenic agents utilizing such promoters operatively linked to reporter genes in expression vectors. The present invention provides the means to specifically identify osteogenic agents which stimulate bone cells to produce bone growth factors in the bone morphogenetic protein family. These osteogenic agents are shown to be useful to increase the activity of the promoters of genes of members of the BMP family and other bone growth factors normally produced by bone cells. Example 5: RESEQUENCING OF THE BMP-2 5 'FLANKING REGION The BMP-2 5 ' flanking region described in Example 2 was resequenced. The nucleotide sequence of the 5' flanking region of the mouse BMP-2 gene is provided in Figure 11. The sequence information in Figure 11 corrects sequencing errors that are present in Figures 5 and 9. The nucleotide sequence of Figure 11 replaces bases -2736 to +119 provided in Figure 5 and bases 1 to 2855 provided in Figure 9. The non-nucleotide sequence information provided in Figure 5 is applicable to the corresponding bases in Figure 11 where such bases are present. AU publications and patent applications cited in this specification are herein incorporated by reference as if each individual publication or patent application are [is] specifically and individually indicated to be incorporated by reference. Although the foregoing invention has been described in some detail by way of illustration and example for purposes of clarity and understanding, it will be apparent to those of ordinary skill in the art in light of the teaching of this invention that certain changes and modifications may be made thereto without departing from the spirit or scope of the appended claims. Anderson, H.C. and P.R. Coulter (1968) Fed. Proc. 27, 475. Bellows, C.G., J.E. Aubin, J.N.M. Heersche and M.E. Antosz (1986) Mineralized bone nodules formed in vitro from enzymatically released rat calvarial cell populations. Calcif. Tissue Int. 38, 143-154. Chen, D., J.Q. Feng, M. Feng, M.A. Harris, G.R. Mundy and S.E. Harris (1993) Biochim BiophysActa 1174, 289-292. Feng, J.Q., M.A. Harris, N. Ghosh-Choudhury, M. Feng, G.R. Mundy and S.E. Harris (1994) Biochem. Biophys. Acta 1218, 221-224. Frost, E. and J. Williams (1978) Virology 91, 39-50. Gorman, C. (1988) in DNA Cloning, A Practical Approach (Gover, D.M., ed) Vol. II, pp. 157-158, IRL Press, Oxford, England. Graham, F.L., and A.J. van der Eb (1973) Virology 52, 456-467. Hall, J.A., M.A. Harris, R. Intres, and S.E. Harris (1993) J Cell Biochem 51, 116-127. Harris, S.E., L.F. Bonewald, M.A. Harris, M. Sabatini, S. Dallas, J. Feng, N. Ghosh- Choudhury, J. Wozney and G.R. Mundy (1994) Effects of TGFβ on bone nodule formation and expression of bone morphogenetic protein-2, osteocalcin, osteopontin, alkaline phosphatase and Type I collagen mRNA in prolonged cultures of fetal rat calvarial osteoblasts. J Bone Miner Res 9, 855-863. Harris, S.E., M. Sabatini, M.A. Harris, J.Q. Feng, J. Wozney and G.R. Mundy (1994) Expression of bone morphogenetic protein messenger RNA in prolonged cultures of fetal rat calvarial cells. JBone Min Res 9, 389-394. Harris, S.E., M. Hams, M. Mahy, J. Wozney, J. Feng and G.R. Mundy (1994) Expression of bone morphogenetic proteins by normal rat and human prostate and prostate cancer ceUs. the Prostate 24, 204-211. Kurihara, T., K. Kitamura, K. Takaoka, H. Nakazato (1993) Murine bone morphogenetic protein-4 gene: existence of multiple promoters and exons for the 5 '-untranslated region. Biochem Biophys Res Commun 1992, 1049-1056. Luckow, B. and G. Schutz (1987) Nucleic Acids Res. 15, 5490. Majeska, R.J., S.B. Rodan and G.A. Rodan (1978) Maintenance of parathyroid hormone response in clonal rat osteosarcoma lines. Exp Cell Res 111, 465-468. Majeska, R.J., S.B. Rodan and G.A. Rodan (1980) Parathyroid hormone responsive clonal ceU lines from rat osteosarcoma. Endocrinology 107, 1494-1503. Potter, H. (1988) Anal Biochem 174, 361-373. Rouet, P., G. Raguenez and J-P Salier (1992) Biotechniques 13, 700-701. Sambrook, J., E.F. Fritsch and T. Maniatis (1989) in Molecular Cloning: A Laboratory Manual, Cold Spring Harbor Laboratory Press, Cold Spring Harbor, NY Sanger, F., S.G. Nicklen and A.R. Coulson (1977) Proc. Natl Acad Sci. USA 74, 5463- 5467. Stein, G.S., J.B. Lian and T.A. Owen (1990) Relationship of cell growth to the regulation of tissue-specific gene expression during osteoblast differentiation. FASEB JΛ, 3111- 3123. Urist, M.R. (1965) Bone: Formation by autoinduction. Science 150, 893. van den Hoff, M.J.B., A.F.M. Moorman, and W.H. Lamers (1992) Nucleic Acids Res., 20 2902. Wozney, J.M., V. Rosen, A.J. Celeste, L.M. Mitsock, M.J. Whitters, R.W. Kriz, R.M. Hewick and E.A. Wange (1988) Novel regulators of bone formation: Molecular clones and activities. Science 242, 1528-1534. Wozney, J.M. (1992) The bone morphogenetic protein family and osteogenesis. Mol ReprodDev 32, 160-167. Wozney, J.M. and V. Rosen (1993) Bone morphogenetic proteins. In: Physiology and Pharmacology of Bone (edited by Mundy GR, Martin TJ). Springer- Verlag, Chapter 20, 725-743. SEQTJENCE LISTING (1) GENERAL INFORMATION: (i) APPLICANT: Harris Ph.D., Stephen E. Mundy M.D. , Gregory R. Gosh-Choudhury Ph.D. , Nandini Feng Ph.D. , Jian Q. (ii) TITLE OF INVENTION: METHODS AND COMPOSITIONS FOR IDENTIFYING OSTEOGENIC AGENTS (iii) NUMBER OF SEQUENCES: 13 (iv) CORRESPONDENCE ADDRESS: (A) ADDRESSEE: James C. Weseman, Esq. (B) STREET: 401 B. Street, Suite 1700 (C) CITY: San Diego (D) STATE: CA (E) COUNTRY: USA (F) ZIP: 92101 (v) COMPUTER READABLE FORM: (A) MEDIUM TYPE: Floppy disk (B) COMPUTER: IBM PC compatible (C) OPERATING SYSTEM: PC-DOS/MS-DOS (D) SOFTWARE: Patentln Release #1.0, Version #1.25 (vi) CURRENT APPLICATION DATA: (A) APPLICATION NUMBER: US (B) FILING DATE: (C) CLASSIFICATION: (viii) ATTORNEY/AGENT INFORMATION: (A) NAME: Weseman, James C. (B) REGISTRATION NUMBER: 30,507 (C) REFERENCE/DOCKET NUMBER: P00060US0 (ix) TELECOMMUNICATION INFORMATION: (A) TELEPHONE: (619) 699-3604 (B) TELEFAX: 619-236-1048 (2) INFORMATION FOR SEQ ID Nθ:l: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 2310 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: DNA (genomic) (ix) FEATURE: (A) NAME/KEY: CDS (B) LOCATION: 768..1991 (xi) SEQUENCE DESCRIPTION: SEQ ID Nθ:l: GGGAGGAAGG GAAGAAAGAG AGGGAGGGAA AAGAGAAGGA AGGAGTAGAT GTGAGAGGGT 60 GGTGCTGAGG GTGGGAAGGC AAGAGCGCGA GGCCTGGCCC GGAAGCTAGG TGAGTTCGGC 120 ATCCGAGCTG AGAGACCCCA GCCTAAGACG CCTGCGCTGC AACCCAGCCT GAGTATCTGG 180 TCTCCGTCCC TGATGGGATT CTCGTCTAAA CCGTCTTGGA GCCTGCAGCG ATCCAGTCTC 240 TGGCCCTCGA CCAGGTTCAT TGCAGCTTTC TAGAGGTCCC CAGAAGCAGC TGCTGGCGAG 300 CCCGCTTCTG CAGGAACCAA TGGTGAGCTC GAGTGCAGGC CGAAAGCTGT TCTCGGGTTT 360 GTAGACGCTT GGGATCGCGC TTGGGGTCTC CTTTCGTGCC GGGTAGGAGT TGTAAAGCCT 420 TTGCAACTCT GAGATCGTAA AAAAAATGTG ATGCGCTCTT TCTTTGGCGA CGCCTGTTTT 480 GGAATCTGTC CGGAGTTAGA AGCTCAGACG TCCACCCCCC ACCCCCCGCC CACCCCCTCT 540 GCCTTGAATG GCACCGCCGA CCGGTTTCTG AAGGATCTGC TTGGCTGGAG CGGACGCTGA 600 GGTTGGCAGA CACGGTGTGG ATTTTAGGAG CCATTCCGTA GTGCCATTCG GAGCGACGCA 660 CTGCCGCAGC TTCTCTGAGC CTTTCCAGCA AGTTTGTTCA AGATTGGCTC CCAAGAATCA 720 TGGACTGTTA TTATGCCTTG TTTTCTGTCA GTGAGTCCAG AGACACC ATG ATT CCT 776 Met lie Pro 1 GGT AAC CGA ATG CTG ATG GTC GTT TTA TTA TGC CAA GTC CTG CTA GGA 824 Gly Asn Arg Met Leu Met Val Val Leu Leu Cys Gin Val Leu Leu Gly 5 10 15 GGC GCG AGC CAT GCT AGT TTG ATA CCT GAG ACC GGG AAG AAA AAA GTC 872 Gly Ala Ser His Ala Ser Leu lie Pro Glu Thr Gly Lys Lys Lys Val 20 25 30 35 GCC GAG ATT CAG GGC CAC GCG GGA GGA CGC CGC TCA GGG CAG AGC CAT 920 Ala Glu lie Gin Gly His Ala Gly Gly Arg Arg Ser Gly Gin Ser His 40 45 50 GAG CTC CTG CGG GAC TTC GAG GCG ACA CTT CTA CAG ATG TTT GGG CTG 968 Glu Leu Leu Arg Asp Phe Glu Ala Thr Leu Leu Gin Met Phe Gly Leu 55 60 65 CGC CGC CGT CCG CAG CCT AGC AAG AGC GCC GTC ATT CCG GAT TAC ATG 1016 Arg Arg Arg Pro Gin Pro Ser Lys Ser Ala Val lie Pro Asp Tyr Met 70 75 80 AGG GAT CTT TAC CGG CTC CAG TCT GGG GAG GAG GAG GAG GAA GAG CAG 1064 Arg Asp Leu Tyr Arg Leu Gin Ser Gly Glu Glu Glu Glu Glu Glu Gin 85 90 95 AGC CAG GGA ACC GGG CTT GAG TAC CCG GAG CGT CCC GCC AGC CGA GCC 1112 Ser Gin Gly Thr Gly Leu Glu Tyr Pro Glu Arg Pro Ala Ser Arg Ala 100 105 110 115 AAC ACT GTG AGG AGT TTC CAT CAC GAA GAA CAT CTG GAG AAC ATC CCA 1160 Asn Thr Val Arg Ser Phe His His Glu Glu His Leu Glu Asn lie Pro 120 125 130 GGG ACC AGT GAG AGC TCT GCT TTT CGT TTC CTC TTC AAC CTC AGC AGC 1208 Gly Thr Ser Glu Ser Ser Ala Phe Arg Phe Leu Phe Asn Leu Ser Ser 135 140 145 ATC CCA GAA AAT GAG GTG ATC TCC TCG GCA GAG CTC CGG CTC TTT CGG 1256 lie Pro Glu Asn Glu Val lie Ser Ser Ala Glu Leu Arg Leu Phe Arg 150 155 160 GAG CAG GTG GAC CAG GGC CCT GAC TGG GAA CAG GGC TTC CAC CGT ATA 1304 Glu Gin Val Asp Gin Gly Pro Asp Trp Glu Gin Gly Phe His Arg lie 165 170 175 AAC ATT TAT GAG GTT ATG AAG CCC CCA GCA GAA ATG GTT CCT GGA CAC 1352 Asn lie Tyr Glu Val Met Lys Pro Pro Ala Glu Met Val Pro Gly His 180 185 190 195 CTC ATC ACA CGA CTA CTG GAC ACC AGA CTA GTC CAT CAC AAT GTG ACA 1400 Leu lie Thr Arg Leu Leu Asp Thr Arg Leu Val His His Asn Val Thr 200 205 210 CGG TGG GAA ACT TTC GAT GTG AGC CCT GCA GTC CTT CGC TGG ACC CGG 1448 Arg Trp Glu Thr Phe Asp Val Ser Pro Ala Val Leu Arg Trp Thr Arg 215 220 225 GAA AAG CAA CCC AAT TAT GGG CTG GCC ATT GAG GTG ACT CAC CTC CAC 1496 Glu Lys Gin Pro Asn Tyr Gly Leu Ala lie Glu Val Thr His Leu His 230 235 240 CAG ACA CGG ACC CAC CAG GGC CAG CAT GTC AGA ATC AGC CGA TCG TTA 1544 Gin Thr Arg Thr His Gin Gly Gin His Val Arg lie Ser Arg Ser Leu 245 250 255 CCT CAA GGG AGT GGA GAT TGG GCC CAA CTC CGC CCC CTC CTG GTC ACT 1592 Pro Gin Gly Ser Gly Asp Trp Ala Gin Leu Arg Pro Leu Leu Val Thr 260 265 270 275 TTT GGC CAT GAT GGC CGG GGC CAT ACC TTG ACC CGC AGG AGG GCC AAA 1640 Phe Gly His Asp Gly Arg Gly His Thr Leu Thr Arg Arg Arg Ala Lys 280 285 290 CGT AGT CCC AAG CAT CAC CCA CAG CGG TCC AGG AAG AAG AAT AAG AAC 1688 Arg Ser Pro Lys His His Pro Gin Arg Ser Arg Lys Lys Asn Lys Asn 295 300 305 TGC CGT CGC CAT TCA CTA TAC GTG GAC TTC AGT GAC GTG GGC TGG AAT 1736 Cys Arg Arg His Ser Leu Tyr Val Asp Phe Ser Asp Val Gly Trp Asn 310 315 320 GAT TGG ATT GTG GCC CCA CCC GGC TAC CAG GCC TTC TAC TGC CAT GGG 1784 Asp Trp lie Val Ala Pro Pro Gly Tyr Gin Ala Phe Tyr Cys His Gly 325 330 335 GAC TGT CCC TTT CCA CTG GCT GAT CAC CTC AAC TCA ACC AAC CAT GCC 1832 Asp Cys Pro Phe Pro Leu Ala Asp His Leu Asn Ser Thr Asn His Ala 340 345 350 355 ATT GTG CAG ACC CTA GTC AAC TCT GTT AAT TCT AGT ATC CCT AAG GCC 1880 lie Val Gin Thr Leu Val Asn Ser Val Asn Ser Ser lie Pro Lys Ala 360 365 370 TGT TGT GTC CCC ACT GAA CTG AGT GCC ATT TCC ATG TTG TAC CTG GAT 1928 Cys Cys Val Pro Thr Glu Leu Ser Ala lie Ser Met Leu Tyr Leu Asp 375 380 385 GAG TAT GAC AAG GTG GTG TTG AAA AAT TAT CAG GAG ATG GTG GTA GAG 1976 Glu Tyr Asp Lys Val Val Leu Lys Asn Tyr Gin Glu Met Val Val Glu 390 395 400 GGG TGT GGA TGC CGC TGAGATCAGA CAGTCCGGAG GGCGGACACA CACACACACA 2031 Gly Cys Gly Cys Arg 405 CACACACACA CACACACACA CACACACACA CGTTCCCATT CAACCACCTA CACATACCAC 2091 ACAAACTGCT TCCCTATAGC TGGACTTTTA TCTTAAAAAA AAAAAAAAGA AAGAAAGAAA 2151 GAAAGAAAGA AAAAAAATGA AAGACAGAAA AGAAAAAAAA AACCCTAAAC AACTCACCTT 2211 GACCTTATTT ATGACTTTAC GTGCAAATGT TTTGACCATA TTGATCATAT TTTGACAAAT 2271 ATATTTATAA AACTACATAT TAAAAGAAAA TAAAATGAG 2310 (2) INFORMATION FOR SEQ ID NO:2: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 408 amino acids (B) TYPE: amino acid (D) TOPOLOGY: linear (ii) MOLECULE TYPE: protein (xi) SEQUENCE DESCRIPTION: SEQ ID NO:2: Met ie Pro Gly Asn Arg Met Leu Met Val Val Leu Leu Cys Gin Val 1 5 10 15 Leu Leu Gly Gly Ala Ser His Ala Ser Leu lie Pro Glu Thr Gly Lys 20 25 30 Lys Lys Val Ala Glu lie Gin Gly His Ala Gly Gly Arg Arg Ser Gly 35 40 45 Gin Ser His Glu Leu Leu Arg Asp Phe Glu Ala Thr Leu Leu Gin Met 50 55 60 Phe Gly Leu Arg Arg Arg Pro Gin Pro Ser Lys Ser Ala Val lie Pro 65 70 75 80 Asp Tyr Met Arg Asp Leu Tyr Arg Leu Gin Ser Gly Glu Glu Glu Glu 85 90 95 Glu Glu Gin Ser Gin Gly Thr Gly Leu Glu Tyr Pro Glu Arg Pro Ala 100 105 110 Ser Arg Ala Asn Thr Val Arg Ser Phe His His Glu Glu His Leu Glu 115 120 125 Asn lie Pro Gly Thr Ser Glu Ser Ser Ala Phe Arg Phe Leu Phe Asn 130 135 140 Leu Ser Ser lie Pro Glu Asn Glu Val lie Ser Ser Ala Glu Leu Arg 145 150 155 160 Leu Phe Arg Glu Gin Val Asp Gin Gly Pro Asp Trp Glu Gin Gly Phe 165 170 175 His Arg lie Asn lie Tyr Glu Val Met Lys Pro Pro Ala Glu Met Val 180 185 190 Pro Gly His Leu lie Thr Arg Leu Leu Asp Thr Arg Leu Val His His 195 200 205 Asn Val Thr Arg Trp Glu Thr Phe Asp Val Ser Pro Ala Val Leu Arg 210 215 220 Trp Thr Arg Glu Lys Gin Pro Asn Tyr Gly Leu Ala lie Glu Val Thr 225 230 235 240 His Leu His Gin Thr Arg Thr His Gin Gly Gin His Val Arg lie Ser 245 250 255 Arg Ser Leu Pro Gin Gly Ser Gly Asp Trp Ala Gin Leu Arg Pro Leu 260 265 270 Leu Val Thr Phe Gly His Asp Gly Arg Gly His Thr Leu Thr Arg Arg 275 280 285 Arg Ala Lys Arg Ser Pro Lys His His Pro Gin Arg Ser Arg Lys Lys 290 295 300 Asn Lys Asn Cys Arg Arg His Ser Leu Tyr Val Asp Phe Ser Asp Val 305 310 315 320 Gly Trp Asn Asp Trp lie Val Ala Pro Pro Gly Tyr Gin Ala Phe Tyr 325 330 335 Cys His Gly Asp Cys Pro Phe Pro Leu Ala Asp His Leu Asn Ser Thr 340 345 350 Asn His Ala lie Val Gin Thr Leu Val Asn Ser Val Asn Ser Ser lie 355 360 365 Pro Lys Ala Cys Cys Val Pro Thr Glu Leu Ser Ala lie Ser Met Leu 370 375 380 Tyr Leu Asp Glu Tyr Asp Lys Val Val Leu Lys Asn Tyr Gin Glu Met 385 390 395 400 Val Val Glu Gly Cys Gly Cys Arg 405 (2) INFORMATION FOR SEQ ID NO:3: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 2688 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: DNA (genomic) (xi) SEQUENCE DESCRIPTION: SEQ ID NO:3: GAATTCGCTA GGTAGACCAG GCTGGCCCAG AACACCTAGA GATCATCTGG CTGCCTCTGT 60 CTCTTGAGTT CTGGGGCTAA AGCATGCACC ACTCTACCTG GCTAGTTTGT ATCCATCTAA 120 ATTGGGGAAG AAAGAAGTAC AGCTGTCCCC AGAGATAACA GCTGGGTTTT CCCATCAAAC 180 ACCTAGAAAT CCATTTTAGA TTCTAAATAG GGTTTGTCAG GTAGCTTAAT TAGAACTTTC 240 AGACTGGGTT TCACAGACTG GTTGGGCCAA AGGTCACTTT ATTGTCTGGG TTTCAGCAAA 300 ATGAGACAAT AGCTGTTATT CAAACAACAT TTGGGTAAGG AAGAAAAATG AACAAACACC 360 ACTCTCCCTC CCCCCGCTCC GTGCCTCCAA ATCCATTAAA GGCAAAGCTG CACCCCTAAG 420 GACAACGAAT CGCTGCTGTT TGTGAGTTTA AATATTAAGG AACACATTGT GTTAATGATT 480 GGAGCAGCAG TGATTGATGT AGTGGCATTG GTGAGCACTG AATCCGTCCT TCAACCTGCT 540 ATGGGAGCAC AGAGCCTGAT GCCCCAGGAG TAATGTAATA GAGTAATGTA ATGTAATGGA 600 GTTTTAATTT TGTGTTGTTG TTTTAAATAA TTAATTGTAA TTTTGGCTGT GTTAGAAGCT 660 GTGGGTACGT TTCTCAGTCA TCTTTTCGGT CTGGTGTTAT TGCCATACCT TGATTAATCG 720 GAGATTAAAA GAGAAGGTGT ACTTAGAAAC GATTTCAAAT GAAAGAAGGT ATGTTTCCAA 780 TGTGACTTCA CTAAAGTGAC AGTGACGCAG GGAATCAATC GTCTTCTAAT AGAAAGGGCT 840 CATGGAGACC TGAGCTGAAT CTTTCTGTTC TGGATGAGAG AGGTGGTACC CATTGGAATG 900 AAAGGACTTA GTCAGGGGCA ATACAGTGTG CTCCAAGGCT GGGGATGGTC AGGATGTTGT 960 GCTCAGCCTC TAACACTCCT TCCAACCTGA CATTCCTTCT CACCCTTTGT CTCTGGCCAG 1020 TAGAATACAG GAACTCGTTC CTGTTTTTTT TTTTTTAAAT TCTGAAGGTG TGTAAGTACA 1080 AAGGTCAGAT GAGCGGCCCT AGGTCAAGAC TGCTTTGTGG TGACAAGGGA GTATAACACC 1140 CACCCCAGAA ACCAAGAACC GGAAATTGCT ATCTTCCAGC CCTTTGAGAG CTACCTGAAG 1200 CTCTGGGCTG CTGGCCTCAC CCCTTCCCTG CAGCTTTCCC TTTAGCAGAG GCTGTGATTT 1260 CCTTCAGCGC TTGGGCAAAT ACTCTTAGCC TGGCTCACCT TCCCCATCCT CGTTTGTAAA 1320 AACAAAGATG AAGCTGATAG TTCCTTCCCA GCTCCATCAG AGGCAGGGTG TGAAATTAGC 1380 TCCTGTTTGG GAAGGTTTAA AAGCCGGCCA CATTCCACCT CCCAGCTAGC ATGATTACCA 1440 ACTCTTGTTT CTTACTGTTG TTATGAAAGA CTCAATTCCT CATCTCCCTT TCCCTTCTTT 1500 TAAAAAGGGG CCAAAGGGCA CTTTGTTTTT TTCTCTACAT GGCCTAAAAG GCACTGTGTT 1560 ACCTTCCTGG AAGGTCCCAA ACAAACAAAC AAACAAACAA AATAACCATC TGGCAGTTAA 1620 GAAGGCTTCA GAGATATAAA TAGGATTTTC TAATTGTCTT ACAAGGCCTA GGCTGTTTGC 1680 CTGCCAAGTG CCTGCAAACT ACCTCTGTGC ACTTGAAATG TTAGACCTGG GGGATCGATG 1740 GAGGGCACCC AGTTTAAGGG GGGTTGGTGC AATTCTCAAA TGTCCACAAG AAACATCTCA 1800 CAAAAACTTT TTTGGGGGGA AAGTCACCTC CTAATAGTTG AAGAGGTATC TCCTTCGGGC 1860 ACACAGCCCT GCTCACAGCC TGTTTCAACG TTTGGGAATC CTTTAACAGT TTACGGAAGG 1920 CCACCCTTTA AACCAATCCA ACAGCTCCCT TCTCCATAAC CTGATTTTAG AGGTGTTTCA 1980 TTATCTCTAA TTACTCGGGG TAAATGGTGA TTACTCAGTG TTTTAATCAT CAGTTTGGGC 2040 AGCAGTTATT CTAAACTCAG GGAAGCCCAG ACTCCCATGG GTATTTTTGG AAGGTACAGA 2100 GACTAGTTGG TGCATGCTTT CTAGTACCTC TTGCATGTGG TCCCCAGGTG AGCCCCGGCT 2160 GCTTCCCGAG CTGGAGGCAT CGGTCCCAGC CAAGGTGGCA ACTGAGGGCT GGGGAGCTGT 2220 GCAATCTTCC GGACCCGGCC TTGCCAGGCG AGGCGAGGCC CCGTGGCTGG ATGGGAGGAT 2280 GTGGGCGGGG CTCCCCATCC CAGAAGGGGA GGCGATTAAG GGAGGAGGGA AGAAGGGAGG 2340 GGCCGCTGGG GGGAAAGACT GGGGAGGAAG GGAAGAAAGA GAGGGAGGGA AAAGAGAAGG 2400 AAGGAGTAGA TGTGAGAGGG TGGTGCTGAG GGTGGGAAGG CAAGAGCGCG AGGCCTGGCC 2460 CGGAAGCTAG GTGAGTTCGG CATCCGAGCT GAGAGACCCC AGCCTAAGAC GCCTGCGCTG 2520 CAACCCAGCC TGAGTATCTG GTCTCCGTCC CTGATGGGAT TCTCGTCTAA ACCGTCTTGG 2580 AGCCTGCAGC GATCCAGTCT CTGGCCCTCG ACCAGGTTCA TTGCAGCTTT CTAGAGGTCC 2640 CCAGAAGCAG CTGCTGGCGA GCCCGCTTCT GCAGGAACCA ATGGTGAG 2688 (2) INFORMATION FOR SEQ ID Nθ:4: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 2875 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: DNA (genomic) (xi) SEQUENCE DESCRIPTION: SEQ ID Nθ:4: GAATTCATTT AAGCTGGATT CACTTCTAGG TCCCATGCGT TTACACTCAT TTCCACCACA 60 AGAGGGCAGC CATCTCTAAA AAAACAACAG TCGAGTGCTC TTCAGAGAAA TTGGGCCAAA 120 CTTGAGGAAA GTTCCTGGGA AAGGCTTTTT AGCAGCACCT CTCTGGGCTA CAAAAAAGAA 180 GCCAGCAGGC ACCACCAAGG TGGAGTAACT GTCCAGAGGC ATCCATTTTA CCTCAGAGAC 240 TTGATTACTA AGGATATCCT AAACGGCCAA ACTCTCTCTT CTGGTGTTCC AGAGGCCCAA 300 AGCTGCAAGG CATTGTTGAT GTCATCACCA AAGGTTTCAT TTTCATCTTT TCTTGGGGTT 360 GGTCCAACAG CTGTCAGCTT TCTCTTCCTC ATTAAAGGCA ACTTTCTCAT TTAAATCTCA 420 TATAGGTTCG GAGTTTCTTG CTTTGCTCCT TCCGCCTCCG CGATGACAGA AGCAATGGTT 480 AACTTCTCAA TTAAACTTGA TAGGGAAGGA AATGGCTTCA GAGGCGATCA GCCCTTTTGA 540 CTTACACACT TACACGTCTG AGTGGAGTGT TTTATTGCCG CCTTGTTTGG TGTCTCATGA 600 TTCAGAGTGA CAACTTCTGC AACACGTTTT AAAAAGGAAT ACAGTAGCTG ATCGCAAATT 660 GCTGGATCTA TCCCTTCCTC TCCTTTAATT TCCCTTGTAG ACAGCCTTCC TTCAAAAATA 720 CCTTATTTGA CCTCTACAGC TCTAGAAACA GCCAGGGCCT AATTTCCCTC TGTGGGTTGC 780 TAATCCGATT TAGGTGAACG AACCTAGAGT TATTTTAGCT AAAAGACTGA AAAGCTAGCA 840 CACGTGGGTA AAAAAATCAT TAAAGCCCCT GCTTCTGGTC TTTCTCGGTC TTTGCTTTGC 900 AAACTGGAAA GATCTGGTTC ACAACGTAAC GTTATCACTC TGGTCTTCTA CAGGAATGCT 960 CAGCCCATAG TTTTGGGGGT CCTGTGGGTA GCCAGTGGTG GTACTATAAG GCTCCTGAAT 1020 GTAGGGAGAA ATGGAAAGAT TCAAAAAAGA ATCCTGGCTC AGCAGCTTGG GGACATTTCC 1080 AGCTGAGGAA GAAAACTGGC TTGGCCACAG CCAGAGCCTT CTGCTGGAGA CCCAGTGGAG 1140 AGAGAGGACC AGGCAGAAAA TTCAAAGGTC TCAAACCGGA ATTGTCTTGT TACCTGACTC 1200 TGGAGTAGGT GGGTGTGGAA GGGAAGATAA ATATCACAAG TATCGAAGTG ATCGCTTCTA 1260 TAAAGAGAAT TTCTATTAAC TCTCATTGTC CCTCACATGG ACACACACAC ACACACACAC 1320 ACACACACAC ACACATCACT AGAAGGGATG TCACTTTACA AGTGTGTATC TATGTTCAGA 1380 AACCTGTACC CGTATTTTTA TAATTTACAT AAATAAATAC ATATAAAATA TATGCATCTT 1440 TTTATTAGAT TCATTTATTT GAATATAAAT GTATGAATAT TTATAAAATG TAATAATGCA 1500 CTCAGATGTG TATCGGCTAT TTCTCGACAT TTTCTTCTCA CCATTCAAAA CAGAAGCGTT 1560 TGCTCACATT TTTGCCAAAA TGTCTAATAA CTTGTAAGTT CTGTTCTTCT TTTTAATGTG 1620 CTCTTACCTA AAAACTTCAA ACTCAAGTTG ATATTGGCCC AATGAGGGAA CTCAGAGGCC 1680 AGTGGACTCT GGATTTGCCC TAGTCTCCCG CAGCTGTGGG CGCGGATCCA GGTCCCGGGG 1740 GTCGGCTTCA CACTCATCCG GGACGCGACC CCTTAGCGGC CGCGCGCTCG CCCCGCCCCG 1800 CTCCACCGCG GCCCCGTACG CGCCGTCCAC ACCCCTGCGC GCCCGTCCCG CCCGCCCGGG 1860 GGATCCCGGC CGTGCTGCCT CCGAGGGGGA GGTGTTCGCC ACGGCCGGGA GGGAGCCGGC 1920 AGGCGGCGTC TCCTTTAAAA GCCGCGAGCG CGCGCCAGCG CGGCTCGTCG CCGCCGGAGT 1980 CCTCGCCCTG CCGCGCAGAG CCCTGCTCGC ACTGCGCCCG CCGCGTGCGC TTCCCACAGC 2040 CCGCCCGGGA TTGGCAGCCC CGGACGTAGC CTCCCCAGGC GACACCAGGC ACCGGGACGC 2100 CCTCCCGGCG AAAGACGCGA GGGTCACCCG CGGCTTCGAG GGACTGGCAC GACACGGGTT 2160 GGAACTCCAG ACTGTGCGCG CCTGGCGCTG TGGCCTCGGC TGTCCGGGAG AAGCTAGAGT 2220 CGCGGACCGA CGCTAAGAAC CGGGAGTCCG GAGCACAGTC TTACCCTCAA TGCGGGGCCA 2280 CTCTGACCCA GGAGTGAGCG CCCAAGGCGA TCGGGCGGAA GAGTGAGTGG ACCCCAGGCT 2340 GCCACAAAAG ACACTTGGCC CGAGGGCTCG GAGCGCGAGG TCACCCGGTT TGGCAACCCG 2400 AGACGCGCGG CTGGACTGTC TCGAGAATGA GCCCCAGGAC GCCGGGGCGC CGCAGCCGTG 2460 CGGGCTCTGC TGGCGAGCGC TGATGGGGGT GCGCCAGAGT CAGGCTGAGG GAGTGCAGAG 2520 TGCGGCCCGC CCGCCACCCA AGATCTTCGC TGCGCCCTTG CCCGGACACG GCATCGCCCA 2580 CGATGGCTGC CCCGAGCCAT GGGTCGCGGC CCACGTAACG CAGAACGTCC GTCCTCCGCC 2640 CGGCGAGTCC CGGAGCCAGC CCCGCGCCCC GCCAGCGCTG GTCCCTGAGG CCGACGACAG 2700 CAGCAGCCTT GCCTCAGCCT TCCCTTCCGT CCCGGCCCCG CACTCCTCCC CCTGCTCGAG 2760 GCTGTGTGTC AGCACTTGGC TGGAGACTTC TTGAACTTGC CGGGAGAGTG ACTTGGGCTC 2820 CCCACTTCGC GCCGGTGTCC TCGCCCGGCG GATCCAGTCT TGCCGCCTCC AGCCC 2875 (2) INFORMATION FOR SEQ ID NO:5: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 18 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS : single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: CDNA (xi) SEQUENCE DESCRIPTION: SEQ ID NO:5: CCCGGCAAGT TCAAGAAG 18 (2) INFORMATION FOR SEQ ID NO:6: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 15144 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: DNA (genomic) (xi) SEQUENCE DESCRIPTION: SEQ ID Nθ:6: GAATTCATTT AAGCTGGATT CACTTCTAGG TCCCATGCGT TTACACTCAT TTCCACCACA 60 AGAGGGCAGC CATCTCTAAA AAAACAACAG TCGAGTGCTC TTCAGAGAAA TTGGGCCAAA 120 CTTGAGGAAA GTTCCTGGGA AAGGCTTTTT AGCAGCACCT CTCTGGGCTA CAAAAAAGAA 180 GCCAGCAGGC ACCACCAAGG TGGAGTAACT GTCCAGAGGC ATCCATTTTA CCTCAGAGAC 240 TTGATTACTA AGGATATCCT AAACGGCCAA ACTCTCTCTT CTGGTGTTCC AGAGGCCCAA 300 AGCTGCAAGG CATTGTTGAT GTCATCACCA AAGGTTTCAT TTTCATCTTT TCTTGGGGTT 360 GGTCCAACAG CTGTCAGCTT TCTCTTCCTC ATTAAAGGCA ACTTTCTCAT TTAAATCTCA 420 TATAGGTTCG GAGTTTCTTG CTTTGCTCCT TCCGCCTCCG CGATGACAGA AGCAATGGTT 480 AACTTCTCAA TTAAACTTGA TAGGGAAGGA AATGGCTTCA GAGGCGATCA GCCCTTTTGA 540 CTTACACACT TACACGTCTG AGTGGAGTGT TTTATTGCCG CCTTGTTTGG TGTCTCATGA 600 TTCAGAGTGA CAACTTCTGC AACACGTTTT AAAAAGGAAT ACAGTAGCTG ATCGCAAATT 660 GCTGGATCTA TCCCTTCCTC TCCTTTAATT TCCCTTGTAG ACAGCCTTCC TTCAAAAATA 720 CCTTATTTGA CCTCTACAGC TCTAGAAACA GCCAGGGCCT AATTTCCCTC TGTGGGTTGC 780 TAATCCGATT TAGGTGAACG AACCTAGAGT TATTTTAGCT AAAAGACTGA AAAGCTAGCA 840 CACGTGGGTA AAAAAATCAT TAAAGCCCCT GCTTCTGGTC TTTCTCGGTC TTTGCTTTGC 900 AAACTGGAAA GATCTGGTTC ACAACGTAAC GTTATCACTC TGGTCTTCTA CAGGAATGCT 960 CAGCCCATAG TTTTGGGGGT CCTGTGGGTA GCCAGTGGTG GTACTATAAG GCTCCTGAAT 1020 GTAGGGAGAA ATGGAAAGAT TCAAAAAAGA ATCCTGGCTC AGCAGCTTGG GGACATTTCC 1080 AGCTGAGGAA GAAAACTGGC TTGGCCACAG CCAGAGCCTT CTGCTGGAGA CCCAGTGGAG 1140 AGAGAGGACC AGGCAGAAAA TTCAAAGGTC TCAAACCGGA ATTGTCTTGT TACCTGACTC 1200 TGGAGTAGGT GGGTGTGGAA GGGAAGATAA ATATCACAAG TATCGAAGTG ATCGCTTCTA 1260 TAAAGAGAAT TTCTATTAAC TCTCATTGTC CCTCACATGG ACACACACAC ACACACACAC 1320 ACACACACAC ACACATCACT AGAAGGGATG TCACTTTACA AGTGTGTATC TATGTTCAGA 1380 AACCTGTACC CGTATTTTTA TAATTTACAT AAATAAATAC ATATAAAATA TATGCATCTT 1440 TTTATTAGAT TCATTTATTT GAATATAAAT GTATGAATAT TTATAAAATG TAATAATGCA 1500 CTCAGATGTG TATCGGCTAT TTCTCGACAT TTTCTTCTCA CCATTCAAAA CAGAAGCGTT 1560 TGCTCACATT TTTGCCAAAA TGTCTAATAA CTTGTAAGTT CTGTTCTTCT TTTTAATGTG 1620 CTCTTACCTA AAAACTTCAA ACTCAAGTTG ATATTGGCCC AATGAGGGAA CTCAGAGGCC 1680 AGTGGACTCT GGATTTGCCC TAGTCTCCCG CAGCTGTGGG CGCGGATCCA GGTCCCGGGG 1740 GTCGGCTTCA CACTCATCCG GGACGCGACC CCTTAGCGGC CGCGCGCTCG CCCCGCCCCG 1800 CTCCACCGCG GCCCCGTACG CGCCGTCCAC ACCCCTGCGC GCCCGTCCCG CCCGCCCGGG 1860 GGATCCCGGC CGTGCTGCCT CCGAGGGGGA GGTGTTCGCC ACGGCCGGGA GGGAGCCGGC 1920 AGGCGGCGTC TCCTTTAAAA GCCGCGAGCG CGCGCCAGCG CGGCGTCGTC GCCGCCGGAG 1980 TCCTCGCCCT GCCGCGCAGA GCCCTGCTCG CACTGCGCCC GCCGCGTGCG CTTCCCACAG 2040 CCCGCCCGGG ATTGGCAGCC CCGGACGTAG CCTCCCCAGG CGACACCAGG CACCGGAGCC 2100 CCTCCCGGCG AAAGACGCGA GGGTCACCCG CGGCTTCGAG GGACTGGCAC GACACGGGTT 2160 GGAACTCCAG ACTGTGCGCG CCTGGCGCTG TGGCCTCGGC TGTCCGGGAG AAGCTAGAGT 22 0 CGCGGACCGA CGCTAAGAAC CGGGAGTCCG GAGCACAGTC TTACCCTCAA TGCGGGGCCA 2280 CTCTGACCCA GGAGTGAGCG CCCAAGGCGA TCGGGCGGAA GAGTGAGTGG ACCCCAGGCT 2340 GCCACAAAAG ACACTTGGCC CGAGGGCTCG GAGCGCGAGG TCACCCGGTT TGGCAACCCG 2400 AGACGCGCGG CTGGACTGTC TCGAGAATGA GCCCCAGGAC GCCGGGGCGC CGCAGCCGTG 2460 CGGGCTCTGC TGGCGAGCGC TGATGGGGGT GCGCCAGAGT CAGGCTGAGG GAGTGCAGAG 2520 TGCGGCCCGC CCGCCACCCA AGATCTTCGC TGCGCCCTTG CCCGGACACG GCATCGCCCA 2580 CGATGGCTGC CCCGAGCCAT GGGTCGCGGC CCACGTAACG CAGAACGTCC GTCCTCCGCC 2640 CGGCGAGTCC CGGAGCCAGC CCCGCGCCCC GCCAGCGCTG GTCCCTGAGG CCGACGACAG 2700 CAGCAGCCTT GCCTCAGCCT TCCCTTCCGT CCCGGCCCCG CACTCCTCCC CCTGCTCGAG 2760 GCTGTGTGTC AGCACTTGGC TGGAGACTTC TTGAACTTGC CGGGAGAGTG ACTTGGGCTC 2820 CCCACTTCGC GCCGGTGTCC TCGCCCGGCG GATCCAGTCT TGCCGCCTCC AGCCCGATCA 2880 CCTCTCTTCC TCAGCCCGCT GGCCCACCCC AAGACACAGT TCCCTACAGG GAGAACACCC 2940 GGAGAAGGAG GAGGAGGCGA AGAAAAGCAA CAGAAGCCCA GTTGCTGCTC CAGGTCCCTC 3000 GGACAGAGCT TTTTCCATGT GGAGACTCTC TCAATGGACG TGCCCCCTAG TGCTTCTTAG 3060 ACGGACTGCG GTCTCCTAAA GGTAGAGGAC ACGGGCCGGG GACCCGGGGT TGGCTGGCGG 3120 GTGACACCGC TTCCCGCCCA ACGCAGGGCG CCTGGGAGGA CTGGTGGAGT GGAGTGGACG 3180 TAAACATACC CTCACCCGGT GCACGTGCAG CGGATCCCTA GAGGGGTTAG GCATTCCAAA 3240 CCCCAGATCC CTCTGCCTTG CCCACTGGCC TCCTTCCTCC AGCCGGTTCC TCCTCCCCAA 3300 GTTTTCGATA CATTATAAGG GCTGTTTTGG GCTTTCAAAA AAAAAAATGC AGAAATCCAT 3360 TTAAGAGTAT GGCCAGTAGA TTTTACTAGT TCATTGCTGA CCAGTAAGTA CTCCAAGCCT 3420 TAGAGATCCT TGGCTATCCT TAAGAAGTAG GTCCATTTAG GAAGATACTA AAAGTTGGGG 3480 TTCTCCATGT GTGTTTACTG ACTATGCGAA TGTGTCATAG CTTACACGTG CATTCATAAA 3540 CACTATCTAT TTAGTTAATT GCAGGAAGGT GCATGGATTT CTTGACTGCA CAGGAGTCTT 3600 GGGGAAGGGG GAACAGGGTT GCCTGTGGGT CAACCTTAAA TAGTTAGGGC GAGGCCACAA 3660 CTTGCAAGTG GCGTCATTAG CAGTAATCTT GAGTTTAGCG CTTACTGAAT CTACAAGTTT 3720 GATATGCTCA ACTACCAGGA AATTGTATAC AGCGCCTCTA AGGAAGTCAC TTGTGCATTT 3780 GTGTCTGTTA ATATGCACAT GAGGCTGCAC TGTATAAGTT TGTCAGGGAT GCAGTGTCCG 3840 ACCAACCTAT GGCTTCCCAG CTTCCTGACA CCCGCATTCC CAGCTAGTGT CACAAGAAAA 3900 GGGTACAGAC GGTCAAGCTC TTTTTAATTG GGAGTTAAGA CCAAGCCCCA AGTAAGAAGT 3960 CCGGCTGGGA CTTGGGGGTC CTCCATCGGC CAGCGAGCTC TATGGGAGCC GAGGCGCGGG 4020 GGCGGCGGAG GACTGGGCGG GGAACGTGGG TGACTCACGT CGGCCCTGTC CGCAGGTCGA 4080 CCATGGTGGC CGGGACCCGC TGTCTTCTAG TGTTGCTGCT TCCCCAGGTC CTCCTGGGCG 4140 GCGCGGCCGG CCTCATTCCA GAGCTGGGCC GCAAGAAGTT CGCCGCGGCA TCCAGCCGAC 4200 CCTTGTCCCG GCCTTCGGAA GACGTCCTCA GCGAATTTGA GTTGAGGCTG CTCAGCATGT 4260 TTGGCCTGAA GCAGAGACCC ACCCCCAGCA AGGACGTCGT GGTGCCCCCC TATATGCTAG 4320 ATCTGTACCG CAGGCACTCA GGCCAGCCAG GAGCGCCCGC CCCAGACCAC CGGCTGGAGA 4380 GGGCAGCCAG CCGCGCCAAC ACCGTGCGCA CGTTCCATCA CGAAGGTGAG CGGGCGGCGG 4440 GTGGCGGGGC GGGGACGGCG GGCGGGCGGA GACTAGGCGG GCAGCCCGGG CCTCCACTAG 4500 CACAGTAGAA GGCCTTTCGG CTTCTGTACG GTCCCCTCTG TGGCCCCAGC CAGGGATTCC 4560 CCGCTTGTGA GTCCTCACCC TTTCCTGGCA AGTAGCCAAA AGACAGGCTC CTCCCCCTAG 4620 AACTGGAGGG AAATCGAGTG ATGGGGAAGA GGGTGAGAGA CTGACTAGCC CCTAGTCAGC 4680 ACAGCATGCG AGATTTCCAC AGAAGGTAGA GAGTTGGAGC TCCTTAAATC TGCTTGGAAG 4740 CTCAGATCTG TGACTTGTGT TCACGCTGTA GTTTTAAGCT AGGCAGAGCA AGGGCAGAAT 4800 GTTCGGAGAT AGTATTAGCA AATCAAATCC AGGGCCTCAA AGCATTCAAA TTTACTGTTC 4860 ATCTGGGCCT AGTTTGAAAG ATTTCTGAAT CCCTATCTAA TCCCCGTGGG AGATCAATTC 4920 CACAATTCGT CATATTGTTT CCACAATGAC CTTCGATTCT TTGCTTAAAT CTTAAATCTC 4980 CAAGTGGAGA CAGCGCAACG CTTCAGATAA AAGCCTTTCT CCCACTGCCT GCTACCTTCC 5040 TAGGCAAGGC AATGGGGTTT TTAAACAAAT ATATGAATAT GATTTCCCAA GATAGAATAA 5100 TGTTGTTTAT TTCAGCTGAA ATTTCCTGGA TTAGAAAGGC TGTAGAGGCC TATTGAAGTC 5160 TCTTGCACCG ATGTTCTGAA AGCAGTTAGT AAAAAATCAT GACCTAGCTC AATTCTGTGT 5220 GTGCCACTTT CAATGTGCTT TTGACTTAAT GTATTCTCCA TAGAACATCA GTTCCTTCAA 5280 GTTCTAGAAG AATTCAGATT TAAAGTTTTG CTTTGCCTTG CTGAGGGGAT AAATTTTAAG 5340 TAGAAATCTA GGCTCTGAAA TGATAGCCCA ACCCCATCTC CAGTAAGGGA TGACTGACTC 5400 AAACCTTGAG AAGTCTGGGT GATAATAGGA AAAGTCCACA AGCAGGTCAC AGAGCGCGAG 5460 ATGGATCTGT CTTGAGGCAG CCAATGGTTA TGAAGGGCAC TGGAAATCCA TCTCTTTCAA 5520 ACTGGTGTCT AGGGCTTTCT GGGAGCAAAG CTTAGACCAC ATTCTGCTCC TCAAGGTTTG 5580 CCTACTGAAA GCAGGGAGAT TCTGGGTGTT CACCCCCATC CTTCACCCCC AGGTGATTCT 5640 GGGCTTAGCT AATCTCTCCT GGTTAATATT CATTGGAAAG TTTTTATAGA TCAAAACAAA 5700 CAAACCTACT ATCCAGCACA GGTGTTTTTC CCACTGCCTC TGGAGATATA GCAAGAAAAC 5760 CATATATTCA TGTATTTCCT TATTAGTCTT TTCTAACGTG AAAATTATTC CTGACCTATA 5820 AAAAATGAAG GAGGTATTTT ATCTTAACTA AGCTAAAAGA ATCGCTTAAG TCAATTGAAA 5880 CTCAAAAATC CAATTGAATG AAAGGTTCGT CAATAAAAAT CTACATTTTT CTTACTCTTC 5940 CTTTGGAAAT AGCTTGATAA AAACACAGAC AAAACAAAGT CTGTGTGCTT ATTTGAAAAC 6000 TTAGTGAGCT TCAGTTCATA AGCAAAAAAT GTAGTTTAAA AGTGATTTTT CTGTTGTAAA 6060 ACGTGATAGA AGTTATTGAC TTGTTTAAAA TAAACTTGCA CTAACTTTAT ACCTTGGTGC 6120 AATTAGATGT AATGTTTACT GTAAATTTCA GGAAAACCAT TTTTTTTTTT TGGTCATGAT 6180 CAGGTACACA TGGCATTTGG GAAGACTTTT CACATTGTTG AGTAACCTAG AGTTTGTTTG 6240 TTTGTTTGTT TGTTTTTAAG CATTCTTGTG CCACTAGAAA AACCTTAATA AGCCATGTGT 6300 TACTTGGTAG ACTTCTTCCT AAGTTCTAGA AAGTGGCTTA ATGCCACGAT GAGACAAAAC 6360 ATACCATAGT AGTCTTTCAA CCAGTGGCAG AGTCTTCCAG ACAAAATCTC CTGTTGAACA 6420 TTAAGACCAT GGATTTTTAT CCAGGAGAGC CCAGGCTTTG CTGAATCACC ACCCTCCAAC 6480 CCCACTCCAA GGTCACCGAA GGCCTCCCCA ACTGGCTGCC ATTGAGAAAC TGTTTGAAAT 6540 TGATTGACTC CATTGGCCCT ACAGAGACTT CTCCTTTAGT GGCAGATCAT ATACTGAAGG 6600 ATCCAAGCTT GCTCTTCTGA CTATGAAGAG CACAGTCTTT CTTTTTCTTT ATGGAATAAA 6660 CAAACTATGT GGCCCTGTGA CTAAAGTTTT CAAAGAGGGA GAGATCCTGT TAGCAGAAGT 6720 GCAACTGCCC AGAAACTAGC CACAGGCTAG GATATTCCAA AGTACAACTC TAAAGTATGG 6780 TCCATCCTAA ATTCTAGCAT GGGGTTGAAT ACCGGCATCC AGGAATACTT CTCTCTACCT 6840 CTGGCTATTG CAGTGAGATT ACGAAGACCC TGGGGGGAAA AACAGTTGCT TAGTTTACAG 6900 ATGTTCCTTG CCACAGATGT TCTCAGTATC TCTTGTTTGT CAGAGGATCC TTTCAATCCC 6960 TCTTGACATT TCCAATCTGC TTTTGTCCTC TCTACATGTG CCTTGTGGCA TTTCGCTTGG 7020 TCTTTAGAGA ATCCCTTTCT GGAGCTGCAG GTTCCCTTGT AGGATCTGTG TTCAGGAGAA 7080 CAGGGACCTT GGCAGGTTAG TGACAACTAC CAAACCCTGC TTTCCTTCCC TGCCACTTCC 7140 TTTGTTGCCT TAAAAATTAA ACCTTAACTC TCTGTGTCTA AACCTTTTCT TCTTCCTCTT 7200 TGTCATTTAC TTTATTTATT TGTCATGTAC TTTATCCTGT AGAAAATCAC AGTGTGGCCC 7260 AAAGCCCCTT GAATCTTGTT GCAGCGGTGA GATGCAGCTG CTGATCTGGA ATAGCCTTAG 7320 GCTGTGTGTT TGATCACAAT GCTTTCTGTC CAAAAGTGTG CAAATCCTCC AAGCTTAATG 7380 ATAACTTTTG AAATGAAACT CACCCTACTT TAGGGCAAAC AAGTAGCCAC AGAGAGCAGG 7440 ATCTAAACAA GGTCTGGTGT CCCATTTGGC TGTGTCCCTT CAATTTTCTG TTCATTTAGC 7500 TCTGTCTGCA TCTAAAGGGT GCTGGGCAAT AAGTTTTGAT CTTCAGGGCA AAACTCAATC 7560 TTCAGTTACC ATGGTATCAG GTACCAATTC CTAGTGATTT GTGCTATGGC TTAGGATTTG 7620 ATTTCTCTCC TACATTAGGT AATATCTTTC AATGGCTAGA ACTTGGGCAT TGCAGTACAC 7680 TCAAGTTAAC AGTTCTGTGA CCTAAGGAAG TCACATAACC TCTCTGAATT CTCTACTGTT 7740 TCATTCACAA AATGGAGAAA ATCATGGCTC TTTCTTAATG TGCGAATTCA TAGAAAGGTG 7800 ATGACACCAG ATTTGGCAGA AGGAAGGAAA GGAAGGAAGG AAGAAAGAAA GAAAGAAAGA 7860 AAGAAAGAAA GAAAGAAAGA AAGAAAGAAA GGAAGGAAGG GAGAGAGAGA GAAGGGAAGG 7920 GAAAGGGAAA GGGAAAGGAA AGAAAAGAAA GGAAGGAAGA AAAGGAAGGA AGGAAGGAAA 7980 GAAGGAAGGA AGGAAAAGAA AGAGAAGAAA GCATTCAGCA TATGAACTAA TGTTTCCTGG 8040 TGACTTTTTA TATCATATCC TTGTTCTAGG AAGTGGCCCT AGCCATATCT TTTGGGTTAT 8100 TTTGAGGTAG AGGATAATCA ACATAGTGTA GAACATTAAA TCTGGGTTTT GTTTCTAGAA 8160 GAGGCTAGAA TGGCATGGCT GTCCCACTTG CTCCTCTTTC AGGCAGTATG GCAGCCACCA 8220 TTCTCTCTGT AAGATCTAGG AGGCTGACAC TCAGGTTGGA GACAGGTCAG AATCCTGAAA 8280 TCACTTAGCA AGTTCAGCTG ATTCAACAAG GGATATTTAC AGAGAATTAA CAGCTATTCC 8340 AGCTTCCAAA AAGTGTACAT TACCTACTCT GTATTTTCAG AACCCCAGGT TTGCTGTGAT 8400 AATTTGGTAG AAGCCTTTTC CTGTAATTTT CTTTATTTAA AAGATATTTT CATTTTCCAC 8460 CCTCAAGAAG AGGTTGAAAC TTGTCCCTTG AAGTAGAAGA GGTGTTGTGT GTCCTGACCC 8520 TGAGGAAGTT GGCCTTGTTG AGGTCTTCTG TAAATTCTTG AATTCTCTGT ATAATTTCAA 8580 TGAATAGTCA TGTTTGATAC CTTGGTATAA AGGATGGGAT AAGATCTTTC AAGGCTTAGG 8640 CTGATGGAAA CGCTGCTGAA AGACTAGAGA TTGCTCTTTC CTTTGGCATC TGTCTTGGGT 8700 AGTAATATTG TTCTCTGTGA AGGCCCACTT ATTCTGTCTT GAAAATTCTT CTTACCTCCA 8760 GAGTGATAGG CCACAGGGAG TACTGTTTCT ATGTTTGCAG TTGAAAGATG ACAATTTCAT 8820 ATGGTCCAAA CTTGGCTTTA TTTCTTGGTG AGATATTATT CTGTTACTTC AATGACCTGT 8880 CTCCATTATT TATCTTGAGG CTCACCTCTT CCCTTTTGTT GACTGTTGTG CAATTTGTGG 8940 AAGGCCCTGG GTAGTCAGCC TTTATACTCT GTCTGTACAG GAAATAAAGT GCATGTCACC 9000 ATGCCAAAGT CAGGAGATGC CGGTGTGATT AGGGTCCACG GGATTTTGCT ACTGTTTTTA 9060 TTTCTATCGA TGAATTGCCT TAGGCAGAAA CATTAAGGGA CACCAGAATG GTGATGAAAG 9120 GCTTTTTATA ACAGAAGCTA AATGCAGTCC TTCATACTTC ATGGAATGCC CCTGTCCTAA 9180 AGTACCATTA ACCGATAGTG GAGTCAGAAC ATAAATGGCT CCCCAAAGGT ATCACCAAGA 9240 ACTTTTGGCA AACAGATGCA AGAGGATTAT GAAGAATCGC AGCTTGGTCT GGTAATCTTC 9300 CTGTTGCAAA GAGAAGAGCT TTAGAAGACC CCCCTTGAGT CCCTGGCTGG CTTAACATAG 9360 CATGAACCCT CATGTGTTGG CCAACATTAA GGCTTTTTCT ATAAAAGTCT CCTCCTTCAT 9420 CAGTATACGC TCGAGTATGA AAAGCATCCT TTTAAACCTT GACTCTGTGT GGTCCAGAAA 9480 CAGCAGCATC CCTTGCTTAA GAGCTTAATG GAGATGCAGG AGTGCAGGCC TCTTCCCAGA 9540 CCGGCTGATG TGCAGGTCAA AGTCTAAGCA CTGCTGGATC AACACAGAAG TTATTCCGAA 9600 TGAGGATGAG ATGGATACGA GAGAACAGGA AGTAGGAAGG GATTTCTTTA TCGTGAATTG 9660 CTACAGCAGC CTAATGTCAC CCCATACCCT TCTGAAGAAC TATGTCCCTG TGGATGCCTT 9720 TGTCTCTAGA GTTCTGAGCA AAATGGTAGG GTGTGCTTTG CAAAATGTCA TCATTGATGT 9780 TGAATTTCAA AGTCTTTAAT TAAGGGGCTG AAATCTGTAT ATTGAGATTT GTAAATCATC 9840 TAAATTGTAG AGTAATGTTT GCACAGGCTG CTTAAGGGAT TGACATTAAA GCTCGTTTTC 9900 TTAGTTAAGA AATACAGTCA TTTCCTCAAC TCCTCAGTCA TTAGCTCTCT ACTAAGTACA 9960 GTGCTGACTT TTTTAAAATT AAAGTCTGTG AATTCCAAAG AAGTGTTTCA CTATTTCCTC 10020 CATTATTATA GCTACCTAGA AGCTATGTTC ATATATTGGA TTAAAAACGT AGCAATTACA 10080 AAGTTAATGT GGCCATATAG AAAAGGGAAA AGAAACTCCG CTTTCACTTT AATATATATA 101 0 TGTGTGTGTG TATATCATAT ATATACATGT TGTGTGTGTA TATATATATA TATATATATA 10200 TATATATATA TATATATATA TATATATATA TGTTGTGTTA AGCAGTAAAC TCAGGCCATG 10260 GACAGAGGGG CAGACATTGT ATCTCTAGGC CTGACATTTT TAATTTCTGG TTGCAGGTTT 10320 TTATGTAGTT TAACTTAAAC CATGCACTGA AGTTTTAAAT GCTCGTAAGG AATTAAGTTA 10380 CCATTGGCTC TCTTACCAAA TGCGTTTCTT TTTTCTCTCC ACCCTGATCA AACTAGAAGC 10440 CGTGGAGGAA CTTCCAGAGA TGAGTGGGAA AACGGCCCGG CGCTTCTTCT TCAATTTAAG 10500 TTCTGTCCCC AGTGACGAGT TTCTCACATC TGCAGAACTC CAGATCTTCC GGGAACAGAT 10560 ACAGGAAGCT TTGGGAAACA GTAGTTTCCA GCACCGAATT AATATTTATG AAATTATAAA 10620 GCCTGCAGCA GCCAACTTGA AATTTCCTGT GACCAGACTA TTGGACACCA GGTTAGTGAA 10680 TCAGAACACA AGTCAGTGGG AGAGCTTCGA CGTCACCCCA GCTGTGATGC GGTGGACCAC 10740 ACAGGGACAC ACCAACCATG GGTTTGTGGT GGAAGTGGCC CATTTAGAGG AGAACCCAGG 10800 TGTCTCCAAG AGACATGTGA GGATTAGCAG GTCTTTGCAC CAAGATGAAC ACAGCTGGTC 10860 ACAGATAAGG CCATTGCTAG TGACTTTTGG ACATGATGGA AAAGGACATC CGCTCCACAA 10920 ACGAGAAAAG CGTCAAGCCA AACACAAACA GCGGAAGCGC CTCAAGTCCA GCTGCAAGAG 10980 ACACCCTTTG TATGTGGACT TCAGTGATGT GGGGTGGAAT GACTGGATCG TGGCACCTCC 11040 GGGCTATCAT GCCTTTTACT GCCATGGGGA GTGTCCTTTT CCCCTTGCTG ACCACCTGAA 11100 CTCCACTAAC CATGCCATAG TGCAGACTCT GGTGAACTCT GTGAATTCCA AAATCCCTAA 11160 GGCATGCTGT GTCCCCACAG AGCTCAGCGC AATCTCCATG TTGTACCTAG ATGAAAATGA 11220 AAAGGTTGTG CTAAAAAATT ATCAGGACAT GGTTGTGGAG GGCTGCGGGT GTCGTTAGCA 11280 CAGCAAGAAT AAATAAATAA ATATATATAT TTTAGAAACA GAAAAAACCC TACTCCCCCT 11340 GCCTCCCCCC CAAAAAAACC AGCTGACACT TTAATATTTC CAATGAAGAC TTTATTTATG 11400 GAATGGAATG AAAAAAACAC AGCTATTTTG AAAATATATT TATATCGTAC GAAAAGAAGT 11460 TGGGAAAACA AATATTTTAA TCAGAGAATT ATTCCTTAAA GATTTAAAAT GTATTTAGTT 11520 GTACATTTTA TATGGGTTCA ACTCCAGCAC ATGAAGTATA AGGTCAGAGT TATTTTGTAT 11580 TTATTTACTA TAATAACCAC TTTTTAGGGA AAAAAGATAG TTAATTGTAT TTATATGTAA 11640 TCAGAAGAAA TATCGGGTTT GTATATAAAT TTTCCAAAAA AGGAAATTTG TAGTTTGTTT 11700 TTCAGTTGTG TGTATTTAAG ATGCAAAGTC TACATGGAAG GTGCTGAGCA AAGTGCTTGC 11760 ACCACTTGCT GTCTGTTTCT TGCAGCACTA CTGTTAAAGT TCACAAGTTC AAGTCCAAAA 11820 AAAAAAAAAA AGGATAATCT ACTTTGCTGA CTTTCAAGAT TATATTCTTC AATTCTCAGG 11880 AATGTTGCAG AGTGGTTGTC CAATCCGTGA GAACTTTCAT TCTTATTAGG GGGATATTTG 11940 GATAAGAACC AGACATTACT GATCTGATAG AAAACGTCTC GCCACCCTCC CTGCAGCAAG 12000 AACAAAGCAG GACCAGTGGG AATAATTACC AAAACTGTGA CTATGTCAGG AAAGTGAGTG 12060 AATGGCTCTT GTTCTTTCTT AAGCCTATAA TCCTTCCAGG GGGCTGATCT GGCCAAAGTA 12120 CTAAATAAAA TATAATATTT CTTCTTTATT AACATTGTAG TCATATATGT GTACAATTGA 12180 TTATCTTGTG GGCCCTCATA AAGAAGCAGA AATTGGCTTG TATTTTGTGT TTACCCTATC 12240 AGCAATCTCT CTATTCTCCA AAGCACCCAA TTTTCTACAT TTGCCTGACA CGCAGCAAAA 12300 TTGAGCATAT GTTTCCTGCC TGCACCCTGT CTCTGACCTG TCAGCTTGCT TTTCTTTCCA 12360 GGATATGTGT TTGAACATAT TTCTCCAAAT GTTAAACCCA TTTCAGATAA TAAATATCAA 12420 AATTCTGGCA TTTTCATCCC TATAAAAACC CTAAACCCCG TGAGAGCAAA TGGTTTGTTT 12480 GTGTTTGCAG TGTCTACCTG TGTTTGCATT TTCATTTCTT GGGTGAATGA TGACAAGGTT 12540 GGGGTGGGGA CATGACTTAA ATGGTTGGAG AATTCTAAGC AAACCCCAGT TGGACCAAAG 12600 GACTTACCAA TGAGTTAGTA GTTTTCATAA GGGGGCGGGG GGAGTGAGAG AAAGCCAATG 12660 CCTAAATCAA AGCAAAGTTT GCAGAACCCA AGGTAAAGTT CCAGAGATGA TATATCATAC 12720 AACAGAGGCC ATAGTGTAAA AAAATTAAAG AATGTCTGAT CAGCGTCTCA GCACATCTAC 12780 CAATTGGCCA GATGCTCAAA CAGAGTGAAG TCAGATGAGG TTCTGGAAAG TGAGTCCTCT 12840 ATGATGGCAG AGCTTTGGTG CTCAGGTTGG AAGCAAAACC TAGGGAGGGA GGGCTTTGTG 12900 GCTGTTTGCA GATTGGGGAA TCCAGTGCTA GTTCCTGGCA GGGTTTCAGG TCAGTTTCCG 12960 GAGTGTGTGT CCTGTAGCCC TCCGTCATGG TTGAAGCCCA GGTCTCACCT CCTCTCCTGA 13020 CCCGTGCCTT AGAACTGACT TGGAAAGCGG TGTGCTTACA GCAAGACAGA CTGTTATAAT 13080 TAAATTCTTC CCAAGGACCT CCGTGCAATG ACCCCAAGCA CACTTACCTT CGGAAACCTT 13140 AAGGTTCTGA AGATCTTGTT TTAAATGACT ACCCTGGTTA GCTTTTGATG TGTTCCTTAT 13200 CCCTTTAGTT GTTGCACAGG TAGAAACGAT TAGACCCAAC TATGGGTAGC CTTGTCCTCC 13260 TGGTCCTTCA GTCATTCTCT AATGTCTCTT GCTTGCCATG GGCACTGTAA CAAACTGCAA 13320 TCTTAACATC TTATAAAATG AATGAACCAC ATATTTACAT CTCCAAGTCC TCCAGATGGG 13380 AGTGCGATCA TTCCATAAGG ATCCCACCTT CTGGCAGGTC TATCCAGTAC ATATTTTATG 13440 CTTCATTGGT CTTGATTTTC TTGGCTAAAA TTACTTGTAG CACAGCAGGC CCCATGTGAC 13500 ATATAGGTAT ATACATACAT GTATGTGCAT ATAGTGTGTA CATGTTCTAA TTTATACATA 13560 GCTATGTGAA GATTATGTTA CATATGTAGA TGGTCGCACT TCTGATTTCC ATTTAGGTTC 13620 AGAGAGAGAC GTCACAGTAA ATGGAGCTAT GTCATTGGTA TATCCCCGAG TGGTTCAGGT 13680 GTTCTCTCTA TTTTTTTAAG ATGGAGAACA CTCATCTGTA CTATCGAAAA CTGAGCCAAA 13740 TCACTTAGCA AATTTCTAGT CACTGCCTTG CTGTTAAGAT ACTGATTCAC TGGGTGCTGA 13800 CATGCTGAGC CCTGCCTACT TTTGCATGAA GGACAAGGAA GAGAGCTTGC AGTTAAGAAT 13860 GGTATATGTG GGGCTAGGGG GCGGCGTATA GACTGGCATA TATGTGAAGG AAGGTCACAA 13920 ACAGCCTGCA CTAATTTCCC TTTTCTGGTT TTATGTCTTG GCAGGGGAAA GGACAGGTAG 13980 GGTGGGGTTG AGGGGGAGGG CACACACATC TACTTGGATA AATTGCATCT CCTCTTTCCT 14040 TCACCCCGCC ACCATATCTT AAAGCCTTAT GACATCCTCT AGGGCAGAAT TTTCTCACCA 14100 GCTCCCCGCC CTACCAACTT CAAAGTGAAC TTCTAACTAA CTTGAGGGGC CAAAGTTCTA 14160 AATAAAACTT GTTAGAGTTT AGCGGGCACC TCAGTCATCA GGAATGCCTC CAGGAAAGCA 14220 AAAAGCTTGA TGTGTGTACA GCCACGTGGT GGAGTCCTGC CACCCTATGA TTCCTGTCCC 14280 AGTGGTCGTG TGGGGCCTGA GATCCTGAAT TTCTAATGAG CTCCCAGTAC GCCCTGACTC 14340 ACTGTGCCAG AGGACTGCAG TTTGAGTAGC AAGGTTGTGT GACTGTCTTC GATCATGGCT 14400 ACAGAAGCTG GCTCAAGTAC AGCCCTTCGT GTGTAAAAGC CATGTGTAAA TGAGAAGAAA 14460 CAGAAGGCAA AGCTGCGTTG CATGGCATCT GAATCAGTGC CCTGCAGTTT TGTTTTTTGT 14520 TTTTTTTTTT TCAAAGACAT TCTTTTTCCC AACAAGATGA GTGGCAATCT TATGTTCTAG 14580 CCACTCTTAG ACATGAAAAC ACTGGGTTGC TTATCTTGTA AAATCTGCTC TGCTTGCTTG 14640 CTTGGGCACG CTGCAGTCAG TTTAGTCAAA TGCGTGTCAG TACATCTATA TGTATGAGGG 14700 AGCAGGTGCA AGTCCTTAGA AATGTACTTT AAAAAACTTG AACACTTAAG TCAGTGTGCT 14760 GAGCTGCTCC TGTGTGATGT TAGGCCAAGC ACCTGAGTTA AAGGGATCTC TTTGAAGGCA 14820 GAGGGTAGAT GTCGTATGGT TGAAGCATTT GTTTATACTA AAATGATGCT TGACTTTTTT 14880 TCTAAGTTAT AAGACAGTAC ACTGTATAAG TTCATTGAAC CTAGAGGGTG GCATAGGACT 14940 CCAAATCTGG TATGGGAGGT TTGTTCTAAT GGAAGTTCGA ATCTTTTTTG CAGTTGGCTT 15000 GGAATAAAGT GCTTATGTGA ATGGGCTTAA GCTAGGGAAA AAAATGGGTT TCCCTCTGCA 15060 AAGAGGGTCA GCACAGAAAT AACTTCCTGG CTTTGCTTGC ATGAATGCCA CTTGTTAGCA 15120 GATGCCCTGT GGGGATCCGA ATTC 15144 (2) INFORMATION FOR SEQ ID NO:7: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 9299 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: DNA (genomic) (xi) SEQUENCE DESCRIPTION: SEQ ID NO:7: GAATTCGCTA GGTAGACCAG GCTGGCCCAG AACACCTAGA GATCATCTGG CTGCCTCTGT 60 CTCTTGAGTT CTGGGGCTAA AGCATGCACC ACTCTACCTG GCTAGTTTGT ATCCATCTAA 120 ATTGGGGAAG AAAGAAGTAC AGCTGTCCCC AGAGATAACA GCTGGGTTTT CCCATCAAAC 180 ACCTAGAAAT CCATTTTAGA TTCTAAATAG GGTTTGTCAG GTAGCTTAAT TAGAACTTTC 240 AGACTGGGTT TCACAGACTG GTTGGGCCAA AGGTCACTTT ATTGTCTGGG TTTCAGCAAA 300 ATGAGACAAT AGCTGTTATT CAAACAACAT TTGGGTAAGG AAGAAAAATG AACAAACACC 360 ACTCTCCCTC CCCCCGCTCC GTGCCTCCAA ATCCATTAAA GGCAAAGCTG CACCCCTAAG 420 GACAACGAAT CGCTGCTGTT TGTGAGTTTA AATATTAAGG AACACATTGT GTTAATGATT 480 GGAGCAGCAG TGATTGATGT AGTGGCATTG GTGAGCACTG AATCCGTCCT TCAACCTGCT 540 ATGGGAGCAC AGAGCCTGAT GCCCCAGGAG TAATGTAATA GAGTAATGTA ATGTAATGGA 600 GTTTTAATTT TGTGTTGTTG TTTTAAATAA TTAATTGTAA TTTTGGCTGT GTTAGAAGCT 660 GTGGGTACGT TTCTCAGTCA TCTTTTCGGT CTGGTGTTAT TGCCATACCT TGATTAATCG 720 GAGATTAAAA GAGAAGGTGT ACTTAGAAAC GATTTCAAAT GAAAGAAGGT ATGTTTCCAA 780 TGTGACTTCA CTAAAGTGAC AGTGACGCAG GGAATCAATC GTCTTCTAAT AGAAAGGGCT 840 CATGGAGACC TGAGCTGAAT CTTTCTGTTC TGGATGAGAG AGGTGGTACC CATTGGAATG 900 AAAGGACTTA GTCAGGGGCA ATACAGTGTG CTCCAAGGCT GGGGATGGTC AGGATGTTGT 960 GCTCAGCCTC TAACACTCCT TCCAACCTGA CATTCCTTCT CACCCTTTGT CTCTGGCCAG 1020 TAGAATACAG GAACTCGTTC CTGTTTTTTT TTTTTTAAAT TCTGAAGGTG TGTAAGTACA 1080 AAGGTCAGAT GAGCGGCCCT AGGTCAAGAC TGCTTTGTGG TGACAAGGGA GTATAACACC 1140 CACCCCAGAA ACCAAGAACC GGAAATTGCT ATCTTCCAGC CCTTTGAGAG CTACCTGAAG 1200 CTCTGGGCTG CTGGCCTCAC CCCTTCCCTG CAGCTTTCCC TTTAGCAGAG GCTGTGATTT 1260 CCTTCAGCGC TTGGGCAAAT ACTCTTAGCC TGGCTCACCT TCCCCATCCT CGTTTGTAAA 1320 AACAAAGATG AAGCTGATAG TTCCTTCCCA GCTCCATCAG AGGCAGGGTG TGAAATTAGC 1380 TCCTGTTTGG GAAGGTTTAA AAGCCGGCCA CATTCCACCT CCCAGCTAGC ATGATTACCA 1440 ACTCTTGTTT CTTACTGTTG TTATGAAAGA CTCAATTCCT CATCTCCCTT TCCCTTCTTT 1500 TAAAAAGGGG CCAAAGGGCA CTTTGTTTTT TTCTCTACAT GGCCTAAAAG GCACTGTGTT 1560 ACCTTCCTGG AAGGTCCCAA ACAAACAAAC AAACAAACAA AATAACCATC TGGCAGTTAA 1620 GAAGGCTTCA GAGATATAAA TAGGATTTTC TAATTGTCTT ACAAGGCCTA GGCTGTTTGC 1680 CTGCCAAGTG CCTGCAAACT ACCTCTGTGC ACTTGAAATG TTAGACCTGG GGGATCGATG 1740 GAGGGCACCC AGTTTAAGGG GGGTTGGTGC AATTCTCAAA TGTCCACAAG AAACATCTCA 1800 CAAAAACTTT TTTGGGGGGA AAGTCACCTC CTAATAGTTG AAGAGGTATC TCCTTCGGGC 1860 ACACAGCCCT GCTCACAGCC TGTTTCAACG TTTGGGAATC CTTTAACAGT TTACGGAAGG 1920 CCACCCTTTA AACCAATCCA ACAGCTCCCT TCTCCATAAC CTGATTTTAG AGGTGTTTCA 1980 TTATCTCTAA TTACTCGGGG TAAATGGTGA TTACTCAGTG TTTTAATCAT CAGTTTGGGC 2040 AGCAGTTATT CTAAACTCAG GGAAGCCCAG ACTCCCATGG GTATTTTTGG AAGGTACAGA 2100 GACTAGTTGG TGCATGCTTT CTAGTACCTC TTGCATGTGG TCCCCAGGTG AGCCCCGGCT 2160 GCTTCCCGAG CTGGAGGCAT CGGTCCCAGC CAAGGTGGCA ACTGAGGGCT GGGGAGCTGT 2220 GCAATCTTCC GGACCCGGCC TTGCCAGGCG AGGCGAGGCC CCGTGGCTGG ATGGGAGGAT 2280 GTGGGCGGGG CTCCCCATCC CAGAAGGGGA GGCGATTAAG GGAGGAGGGA AGAAGGGAGG 2340 GGCCGCTGGG GGGAAAGACT GGGGAGGAAG GGAAGAAAGA GAGGGAGGGA AAAGAGAAGG 2400 AAGGAGTAGA TGTGAGAGGG TGGTGCTGAG GGTGGGAAGG CAAGAGCGCG AGGCCTGGCC 2460 CGGAAGCTAG GTGAGTTCGG CATCCGAGCT GAGAGACCCC AGCCTAAGAC GCCTGCGCTG 2520 CAACCCAGCC TGAGTATCTG GTCTCCGTCC CTGATGGGAT TCTCGTCTAA ACCGTCTTGG 2580 AGCCTGCAGC GATCCAGTCT CTGGCCCTCG ACCAGGTTCA TTGCAGCTTT CTAGAGGTCC 2640 CCAGAAGCAG CTGCTGGCGA GCCCGCTTCT GCAGGAACCA ATGGTGAGCA GGGCAACCTG 2700 GAGAGGGGCG CTATTCTGAG GATTCGAGGT GCACCCGTAG TAGAAGCTGG GGATGGGGCT 2760 CAGGCTGTAA CCGAGGCAAA AGTTGGCCTA TTCCTCCTTC CTTCTCCAAC AGTGTTGGAG 2820 GTGGGATGAT GGAGGCTAAA AGGCACCTCC ATATATGTTA CTGCGTCTAT CAACCTACTT 2880 TAGGGAGGTG CGGGCCAGGA GAGGCGGGAA GGAGAGAAGG CCTTGGAAGA GAGGTCATTG 2940 GGAAGAACTG TGGGGTTTGG TGGGTTTGCT TCCACTTAGA CTATAAGAGT GGGAGAGGAG 3000 GGAGTCAACT CTAAGTTTCA ACACCAGTGG GGGACTGAGG ACTGCTTCAT TAGGAGAGAG 3060 AACCTAGCCA GAGCTAGCTT TGCAAAAGAG GCTGTAGTCC TGCTTTGCTC TAAAGCGCGA 3120 CCCGGGATAG AGAGGCTTCC TTGAGCGGGG TGTCACCTAA TCTTGTCCCC AACGCACCCC 3180 CTCCCAGCCC CTGAGAGCTA GCGAACTGTA GGTACACAAC TCGCTCCCAT CTCCAGGAGC 3240 TATTTTCTTA GACATGGGCA CCCATGATTC TGCCTTCTGG TACTCTCCCC TCCCTGGGAA 3300 AGGGGTGTAA GGTTCCGACG GAACCGTGGC CAGGATGCCG AAAGGCTACC TGTGCGGGTC 3360 TTCTGCCATG CTGTGTCTGT GCGGACATGC CAGCAGGGCT AATGAGGAGC TTGCGATACT 3420 CCAAAGGGTT CGGGAATTGC GGGGTCCTTA CACGCAGTGG AGTTGGGCCC CTTTTACTCA 3480 GAAGGTTTCC GCCACGGCTT TGGTTGATAG TTTTTTTAGT ATCCTGGTTT ATGAACTGAA 3540 GGTTTTGTGA GATGTTGAAT CACTAGCAGG GTCATATTTG GCAAACCGAG GCTACTATTA 3600 AATTTTGGTT TTAGAAGAAG ATTCTGGGGA GAAAGTGAAG GGTAACTGCC TCCAGGAGCT 3660 GTATCAACCC CATTAAGAAA AAAAAAAATA CCAGGAGATG AAAATTTACT TTGATCTGTA 3720 TTTTTTAATT AAAAAAAATC AGGGAAGAAA GGAGTGATTA GAAAGGGATC CTGAGCGTCG 3780 GCGGTTCCAC GGTGCCCTCG CTCCGCGTGC GCCAGTCGCT AGCATATCGC CATCTCTTTC 3840 CCCCTTAAAA GCAAATAAAC AAATCAACAA TAAGCCCTTT GCCCTTTCCA GCGCTTTCCC 3900 AGTTATTCCC AGCGGCGACG CGTGTCGGGG AATAGAGAAA TCGTCTCAGA AAGCTGCGCT 3960 GATGGTGGTG AGAGCGGACT GTCGCTCAGG GGCGCCCGCG GTCTCTGCAC CCAGGGCAGC 4020 AGTGTGGGAT GGCGCTGGGC AGCCACCGCC GCCAGGAAGG ACGTGACTCT CCATCCTTTA 4080 CACTTCTTTC TCAAAGGTTT CCCGAAAGTG CCCCCCGCCT CGAAAACTGG GGCCGGTGCG 4140 GGGGGGGGGA GAGGTTAGGT TGAAAACCAG CTGGACACGT CGAGTTCCTA AGTGAGGCAA 4200 AGAGGCGGGG TGGAGCGGGC TCTGGAGCGG GGGAGTCCTG GGACTCGGTC CTCGGATGGA 4260 CCCCGTGCAA AGACCTGTTG GAACAAGAGT TGCGCTTCCG AGGTTAGAAC AGGCCAGGCA 4320 TCTTAGGATA GTCAGGTCAC CCCCCCCCCC AACCCCACCC GAGTTGTGTT GGTGAATTTC 4380 TTGGAGGAAT CTTAGCCGCG ATTCTGTAGC TGGTGCAAAA GGAGGAAAGG GGTGGGGGAA 4440 GGAAGTGGCT GTGCGGGGGT GGCGGTGGGG GTGGAGGTGG TTTAAAAAGT AAGCCAAGCC 4500 AGAGGGAGAG GTCGAGTGCA GGCCGAAAGC TGTTCTCGGG TTTGTAGACG CTTGGGATCG 4560 CGCTTGGGGT CTCCTTTCGT GCCGGGTAGG AGTTGTAAAG CCTTTGCAAC TCTGAGATCG 4620 TAAAAAAAAT GTGATGCGCT CTTTCTTTGG CGACGCCTGT TTTGGAATCT GTCCGGAGTT 4680 AGAAGCTCAG ACGTCCACCC CCCACCCCCC GCCCACCCCC TCTGCCTTGA ATGGCACCGC 4740 CGACCGGTTT CTGAAGGATC TGCTTGGCTG GAGCGGACGC TGAGGTTGGC AGACACGGTG 4800 TGGGGACTCT GGCGGGGCTA CTAGACAGTA CTTCAGAAGC CGCTCCTTCT AACTTTCCCA 4860 CACCGCTCAA ACCCCGACAC CCCCGCGGCG GACTGAGTTG GCGACGGGGT CAGAGTCTTC 4920 TGGCTGAAAG TTAGATCCGC TAGGGGTCGG CTGCCTGTCG CTAGAAGCAT TATTTGGCCT 4980 CTCGGAGACC CGTGTGGAGG AAGTGCTGGA GTGTGCGAGT GTGTTTGCGT GTGTGTGTGT 5040 GTGTGTGTGT GTGTGTGTGT GTGTGTGTGT GTGCGCGCGC CCTTGGAGGG TCCCTATGCG 5100 CTTTCCTTTT CATGGAACGC TGTCGTGAGG CTTTGGTAAA CTGTCTTTTC GGTTCCTCTC 5160 TCGGCTGCAC TTAAGCTTTG TCGGCGCTGT AAAGAGACGC GTCTTCAAGT GCACCCTGAT 5220 CCTCAGGCTT CAGATAACCC GTCCCCGAAC CTGGCCAGAT GCATTGCACT GCGCGCCGCA 5280 GGTAGAGACG TGCCCCACGT CCCCTGCGTG CAGCGACTAC GACCGAGAGC CGCGCCAGTG 5340 TGGTGTCCCG CCGAGAGTTC CTCAGAGCAG GCGGGGACAA CTCCCAGACG GCTGGGGCTC 5400 CAGCTGCGGG CGCGGAGGTT GGCCTCGCTC GCAGGGGCTG GACCCAGCCG GGGTGGGAGG 5460 ATGGAGGAGG GGCGGGCGGG CTCTTCGGTG AGTGGGGCGG GGCCTCTGGG TCCACGTGAC 5520 TCCTAGGGGC TGGAAGAAAA ACAGAGCCTG TCTGCTCCAG AGTCTCATTA TATCAAATAT 5580 CATTTTAGGA GCCATTCCGT AGTGCCATTC GGAGCGACGC ACTGCCGCAG CTTCTCTGAG 56 0 CCTTTCCAGC AAGTTTGTTC AAGATTGGCT CCCAAGAATC ATGGACTGTT ATTATGCCTT 5700 GTTTTCTGTC AGTGAGTAGA CACCTCTTCT TTCCCTTCTT GGGATTTCAC TCTGTCCTCC 5760 CATCCCTGAC CACTGTCTGT CCCTCCCGTC GGACTTCCAT TTCAGTGCCC CGCGCCCTAC 5820 TCTCAGGCAG CGCTATGGTT CTCTTTCTGG TCCCTGCAAG GCCAGACACT CGAAATGTAC 5880 GGGCTCCTTT TAAAGCGCTC CCACTGTTTT CTCTGATCCG CTGCGTTGCA AGAAAGAGGG 5940 AGCGCGAGGG ACCAAATAGA TGAAAGGTCC TCAGGTTGGG GCTGTCCCTT GAAGGGCTAA 6000 CCACTCCCTT ACCAGTCCCG ATATATCCAC TAGCCTGGGA AGGCCAGTTC CTTGCCTCAT 6060 AAAAAAAAAA AAAAAAACAA AAAACAAACA GTCGTTTGGG AACAAGACTC TTTAGTGAGC 6120 ATTTTCAACG CAGCGACCAC AATGAAATAA ATCACAAAGT CACTGGGGCA GCCCCTTGAC 6180 TCCTTTTCCC AGTCACTGGA CCTTGCTGCC CGGTCCAAGC CCTGCCGGCA CAGCTCTGTT 6240 CTCCCCTCCT CCTGTTCTTA ACCAGCTGGA AGTTGTGGAA ATTGGGCTGG AGGGCGGAGG 6300 AAGGGCGGGG GTGGGGGGGT GGAGAAGGTG GGGGGGGGGG AGGCTGAAGG TCCGAAGTGA 6360 AGAGCGATGG CATTTTAATT CTCCCTCCGC CTCCCCCCTT TACCTCCTCA ATGTTAACTG 6420 TTTATCCTTG AAGAAGCCAC GCTGAGATCA TGGCTCAGAT AGCCGTTGGG ACAGGATGGA 6480 GGCTATCTTA TTTGGGGTTA TTTGAGTGTA AACAAGTTAG ACCAAGTAAT TACAGGGCGA 6540 TTCTTACTTT CGGGCCGTGC ATGGCTGCAG CTGGTGTGTG TGTGTGTAGG GTGTGAGGGA 6600 GAAAACACAA ACTTGATCTT TCGGACCTGT TTTACATCTT GACCGTCGGT TGCTACCCCT 6660 ATATGCATAT GCAGAGACAT CTCTATTTCT CGCTATTGAT CGGTGTTTAT TTATTCTTTA 6720 ACCTTCCACC CCAACCCCCT CCCCAGAGAC ACCATGATTC CTGGTAACCG AATGCTGATG 6780 GTCGTTTTAT TATGCCAAGT CCTGCTAGGA GGCGCGAGCC ATGCTAGTTT GATACCTGAG 6840 ACCGGGAAGA AAAAAGTCGC CGAGATTCAG GGCCACGCGG GAGGACGCCG CTCAGGGCAG 6900 AGCCATGAGC TCCTGCGGGA CTTCGAGGCG ACACTTCTAC AGATGTTTGG GCTGCGCCGC 6960 CGTCCGCAGC CTAGCAAGAG CGCCGTCATT CCGGATTACA TGAGGGATCT TTACCGGCTC 7020 CAGTCTGGGG AGGAGGAGGA GGAAGAGCAG AGCCAGGGAA CCGGGCTTGA GTACCCGGAG 7080 CGTCCCGCCA GCCGAGCCAA CACTGTGAGG AGTTTCCATC ACGAAGGTCA GTTTCTGCTC 7140 TTAGTCCTGG CGGTGTAGGG TGGGGTAGAG CACCGGGGCA GAGGGTGGGG GGTGGGCAGC 7200 TGGCAGGGCA AGCTGAAGGG GTTGTGGAAG CCCCCGGGGA AGAAGAGTTC ATGTTACATC 7260 AAAGCTCCGA GTCCTGGAGA CTGTGGAACA GGGCCTCTTA CCTTCAACTT TCCAGAGCTG 7320 CCTCTGAGGG TACTTTCTGG AGACCAAGTA GTGGTGGTGA TGGGGGAGGG GGTTACTTTG 7380 GGAGAAGCGG ACTGACACCA CTCAGACTTC TGCTACCTCC CAGTGGGTGT TCTTTAGCTA 7440 TACCAAAGTC AGGGATTCTG CCCGTTTTGT TCCAAAGCAC CTACTGAATT TAATATTACA 7500 TCTGTGTGTT TGTCAGGTTT ATCAATAGGG GCCTTGTAAT ACGATCTGAA TGTTTCCTAG 7560 CGGATGTTTC TTTTCCAAAG TAAATCTGAG TTATTAATCC TCCAGCATCA TTACTGTGTT 7620 GGAATTTATT TTCCCTTCTG TAACATGATC AACAAGGCGT GCTCTGTGTT TCTAGGATCG 7680 CTGGGGAAAT GTTTGGTAAC ATACTCAAAA GTGGAGAGGG AGAGAGGGTG GCCCCTCTTT 7740 TTCTTTACAA CCACTTGTAA AGAAAACTGT ACACAAAGCC AAGAGGGGGC TTTAAAAGGG 7800 GAGTCCAAGG GTGGTGGAGT AAAAGAGTTG ACACATGGAA ATTATTAGGC ATATAAAGGA 7860 GGTTGGGAGA TACTTTCTGT CTTTGGTGTT TGACAAATGT GAGCTAAGTT TTGCTGGTTT 7920 GCTAGCTGCT CCACAACTCT GCTCCTTCAA ATTAAAAGGC ACAGTAATTT CCTCCCCTTA 7980 GGTTTCTACT ATATAAGCAG AATTCAACCA ATTCTGCTAT TTTTTGTTTT TGTTTCTTGT 8040 TTTTGTTTTG TTTGGTTTTT TTTTTTTTTT TTTTTTTTTT GTCTCAGAAA AGCTCATGGG 8100 CCTTTTCTTT TCCCCTTTCA ACTGTGCCTA GAACATCTGG AGAACATCCC AGGGACCAGT 8160 GAGAGCTCTG CTTTTCGTTT CCTCTTCAAC CTCAGCAGCA TCCCAGAAAA TGAGGTGATC 8220 TCCTCGGCAG AGCTCCGGCT CTTTCGGGAG CAGGTGGACC AGGGCCCTGA CTGGGAACAG 8280 GGCTTCCACC GTATAAACAT TTATGAGGTT ATGAAGCCCC CAGCAGAAAT GGTTCCTGGA 8340 CACCTCATCA CACGACTACT GGACACCAGA CTAGTCCATC ACAATGTGAC ACGGTGGGAA 8400 ACTTTCGATG TGAGCCCTGC AGTCCTTCGC TGGACCCGGG AAAAGCAACC CAATTATGGG 8460 CTGGCCATTG AGGTGACTCA CCTCCACCAG ACACGGACCC ACCAGGGCCA GCATGTCAGA 8520 ATCAGCCGAT CGTTACCTCA AGGGAGTGGA GATTGGGCCC AACTCCGCCC CCTCCTGGTC 8580 ACTTTTGGCC ATGATGGCCG GGGCCATACC TTGACCCGCA GGAGGGCCAA ACGTAGTCCC 8640 AAGCATCACC CACAGCGGTC CAGGAAGAAG AATAAGAACT GCCGTCGCCA TTCACTATAC 8700 GTGGACTTCA GTGACGTGGG CTGGAATGAT TGGATTGTGG CCCCACCCGG CTACCAGGCC 8760 TTCTACTGCC ATGGGGACTG TCCCTTTCCA CTGGCTGATC ACCTCAACTC AACCAACCAT 8820 GCCATTGTGC AGACCCTAGT CAACTCTGTT AATTCTAGTA TCCCTAAGGC CTGTTGTGTC 8880 CCCACTGAAC TGAGTGCCAT TTCCATGTTG TACCTGGATG AGTATGACAA GGTGGTGTTG 8940 AAAAATTATC AGGAGATGGT GGTAGAGGGG TGTGGATGCC GCTGAGATCA GACAGTCCGG 9000 AGGGCGGACA CACACACACA CACACACACA CACACACACA CACACACACA CACGTTCCCA 9060 TTCAACCACC TACACATACC ACACAAACTG CTTCCCTATA GCTGGACTTT TATCTTAAAA 9120 AAAAAAAAAA GAAAGAAAGA AAGAAAGAAA GAAAAAAAAT GAAAGACAGA AAAGAAAAAA 9180 AAAACCCTAA ACAACTCACC TTGACCTTAT TTATGACTTT ACGTGCAAAT GTTTTGACCA 9240 TATTGATCAT ATTTTGACAA ATATATTTAT AACTACATAT TAAAAGAAAA TAAAATGAG 9299 (2) INFORMATION FOR SEQ ID NO:8: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 19 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: cDNA (xi) SEQUENCE DESCRIPTION: SEQ ID NO:8: CGGATGCCGA ACTCACCTA 19 (2) INFORMATION FOR SEQ ID NO:9: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 18 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: cDNA (xi) SEQUENCE DESCRIPTION: SEQ ID NO:9: CTACAAACCC GAGAACAG 18 (2) INFORMATION FOR SEQ ID NO:10: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 18 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: cDNA (xi) SEQUENCE DESCRIPTION: SEQ ID NO:10: CCCGGCACGA AAGGAGAC 18 (2) INFORMATION FOR SEQ ID NO:11: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 18 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: cDNA (xi) SEQUENCE DESCRIPTION: SEQ ID NO:11: GAAGGCAAGA GCGCGAGG 18

Claims: -50- Claims 1. A system for identifying osteogenic agents comprising a recombinant host cell modified to contain an expression sequence comprising a promoter derived from a gene encoding a bone morphogenic protein operatively linked to a reporter gene encoding an assayable product. 2. The system of claim 1 wherein said bone morphogenic protein is selected from the group consisting of the BMP-2 and BMP-4 proteins. 3. The system of claim 1 or 2 wherein said reporter gene comprises a gene encoding the production of an assayable product selected from the group consisting of firefly luciferase, chloramphenicol acetyl transferase, β-galactosidase, green fluorescent protein, human growth hormone, alkaline phosphatase and β-glucuronidase. 4. The system of claim 3 wherein said reporter gene comprises a gene encoding the production of firefly luciferase. 5. A method for identifying an osteogenic compound comprising the steps of: culturing the cells of any of claim 1-4 under conditions which permit expression of said assayable product from said reporter gene; contacting said cells with at least one candidate compound suspected of possessing osteogenic activity; measuring the amount of assayable product produced in the presence of said candidate compound and comparing said amount to the amount of assayable product produced in the absence of said candidate compound; and identifying, as an osteogenic compound, a candidate compound that enhances the amount of said assayable product when present. - - (2) INFORMATION FOR SEQ ID NO:12: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 17 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: cDNA (xi) SEQUENCE DESCRIPTION: SEQ ID NO:12: CCCGGTCTCA GGTATCA 17 (2) INFORMATION FOR SEQ ID NO:13: (i) SEQUENCE CHARACTERISTICS: (A) LENGTH: 17 base pairs (B) TYPE: nucleic acid (C) STRANDEDNESS: single (D) TOPOLOGY: linear (ii) MOLECULE TYPE: CDNA (xi) SEQUENCE DESCRIPTION: SEQ ID NO:13: CAGGCCGAAA GCTGTTC 17 6. An isolated nucleic acid molecule comprising a nucleotide sequence encoding the promoter region of a gene encoding bone morphogenetic protein selected from the group consisting of the BMP-2 and BMP-4 proteins. 7. The nucleic acid molecule of claim 6 which corresponds to a nucleotide sequence selected from the group consisting of positions -2372 to +316 of the BMP-4 gene depicted in Figure 1C (SEQ ID NO: 3), a portion thereof which encodes a biologically active promoter, the BMP-2 sequence depicted in Figure 11, and a portion thereof which encodes a biologically active promoter. 8. A recombinant expression vector comprising the nucleotide sequence of claim 6 or 7. 9. The recombinant expression vector of claim 8 wherein said nucleotide sequence is operatively linked to a reporter gene encoding an assayable product. 10. The recombinant expression vector of claim 9 wherein said reporter gene comprises a gene encoding the production of an assayable product selected from the group consisting of firefly luciferase, chloramphenicol acetyl transferase, β-galactosidase, green fluorescent protein, human growth hormone, alkaline phosphatase or β-glucuronidase.

Inventors: FENG JIAN Q, GHOSH-CHOUDHURY NANDINI, HARRIS STEPHEN E, MUNDY GREGORY R, FENG, JIAN, Q., GHOSH-CHOUDHURY, NANDINI, HARRIS, STEPHEN, E., MUNDY, GREGORY, R.
Applicants: FENG JIAN Q, GHOSH CHOUDHURY NANDINI, HARRIS STEPHEN E, MUNDY GREGORY R, OSTEOSCREEN INC, FENG, JIAN, Q., GHOSH-CHOUDHURY, NANDINI, HARRIS, STEPHEN, E., MUNDY, GREGORY, R., OSTEOSCREEN, INC.
Application year: 1996
Main classification: C12Q1
IPC codes: C07K14, C12N15, C12Q1