CHIMERIC ADENOVIRAL VECTORS

Abstract: A chimeric adenoviral vector is provided that comprises nucleotide sequence of a first adenovirus, wherein all or part of at least one gene of said first adenovirus encoding a protein that facilitates binding of said vector to a target mammalian cell, or internalization thereof within said cell, is replaced by all or part of the corresponding gene from a second adenovirus belonging to subgroup D, said vector further comprising a transgene operably linked to a eucaryotic promoter to allow for expression therefrom in a mammalian cell. Compositions comprising such vectors and methods of using such vectors to deliver transgenes to target mammalian cells, particularly airway epithelial cells, are also provided.

Description: Description Chimeric Adenoviral Vectors Introduction The present invention relates to chimeric adenoviral vectors, that is, vectors comprising DNA from more than one serotype of adenovirus, which offer enhanced infection efficiency of target cells in order to deliver one or more therapeutically useful nucleotide sequences, including transgenes, therein. Such a nucleotide sequence may comprise a gene not otherwise present in the target cell that codes for a therapeutic and/or biologically active protein, or may represent, for example, an active copy of a gene that is already present in the target cell, but in a defective or deficient form. Background of the Invention One of the fundamental challenges now facing medical practicioners is that although the defective genes that are associated with numerous inherited diseases (or that represent disease risk factors including for various cancers) have been isolated and characterized, methods to correct the disease states themselves by providing patients with normal copies of such genes (the technique of gene therapy) are substantially lacking. Accordingly, the development of improved methods of intracellular delivery therefor is of great medical importance. Examples of diseases that it is hoped can be treated by gene therapy include inherited disorders such as cystic fibrosis, Gaucher's disease, Fabry's disease, and muscular dystrophy. Representative of acquired disorders that can be treated are: (1) for cancers: multiple myeloma, leukemias, melanomas, ovarian carcinoma and small cell lung cancer; (2) for cardiovascular conditions: progressive heart failure, restenosis, and hemophilias; and (3) for neurological conditions: traumatic brain injury. Gene therapy requires successful transfer of nucleic acid to the target cells of a patient. Gene transfer may generally be defined as the process of introducing an expressible polynucleotide (for example a gene, a cDNA, or an mRNA patterned thereon) into a cell. In a particular application of this approach, successful expression of an encoding polynucleotide leads to production in the cells of a normal protein and leads to correction of a disease state associated with an abnormal gene. Therapies based on providing such proteins directly to target cells (protein replacement therapy) have generally proved ineffective since, for example, the cell membrane presents a selectively permeable barrier to entry. Thus there is great interest in alternative methods to cause delivery of therapeutic proteins, especially by transfer of the relevant polynucleotide, often referred to as a transgene. Viral vectors have been used with increasing frequency to date to deliver transgenes to target cells. Most attempts to use viral vectors for gene therapy have relied on retrovirus-based vectors, chiefly because of their ability to integrate into the cellular genome. However, the disadvantages of retroviral vectors are becoming increasingly clear, including their tropism for dividing cells only, the possibility of insertional mutagenesis upon integration into the cell genome, decreased expression of the transgene over time, rapid inactivation by serum complement, and the possibility of generation of replication-competent retroviruses. See, for example, D. Jolly, et al., Cancer Gene Therapy, 1, 1994, pp. 51-64, and C.P. Hodgson, et al., Bio Technology , 13, 1995, pp. 222-225. Such disadvantages have led to the development of other viral-based vector systems, including those derived from adenoviruses. Adenovirus (Ad) is a nuclear DNA virus with a genome of about 36 kb, which has been well-characterized through studies in classical genetics and molecular biology. A detailed discussion of adenovirus is found in Thomas Shenk, "Adenoviridae and their Replication", and M. S. Horwitz, "Adenoviruses" , Chapters 67 and 68, respectively, in Virology, B.N. Fields et al., eds., 2nd edition, Raven Press, Ltd., New York, 1996, and reference therein is found to numerous aspects of adenovirus pathology, epidemiology, structure, replication, genetics and classification. In a simplified form, the adenoviral genome is classified into early (known as E1-E4) and late (known as L1-L5) transcriptional units, referring to the generation of two temporal classes of viral proteins. The demarcation between these events is viral DNA replication. The human adenoviruses are divided into numerous serotypes (approximately 47, numbered accordingly and classified into 6 subgroups: A, B, C, D, E and F), based upon properties including hemagglutination of red blood cells, oncogenicity, DNA base and protein amino acid compositions and homologies, and antigenic relationships. Additional background information concerning Ad serotype classification, including that for subgroup D, can be found, for example, in F. Deryckere et al., Journal of Virology, 70, 1996, pp. 2832-2841; and A. Bailey et al., Virology, 205, 1994, pp. 438-452, and in other art-recognized references. Adenoviruses are nonenveloped, regular icosahedrons (having 20 triangular surfaces and 12 vertices) that are about 65-80 nm in diameter. A protein called fiber projects from each of these vertices. The fiber protein is itself generally composed of 3 identical polypeptide chains, although the length thereof varies between serotypes. The protein coat (capsid) is composed of 252 subunits (capsomeres), of which 240 are hexons, and 12 are pentons. Each penton comprises a penton base, on the surface of the capsid, and a fiber protein projecting from the base. The Ad 2 penton base protein, for example, has been determined to be a 8 x 9 nm ring shaped complex composed of 5 identical protein subunits of 571 amino acids each. Current understanding of adenovirus-cell interactions suggests that adenovirus utilizes two cellular receptors to attach to, and then infect a target cell. It has been further suggested that the fiber protein of an infecting adenovirus first attaches to a receptor, the identity of which is still unknown, and then penton base attaches to a further receptor, often a protein of the alpha integrin family. It has been determined that alpha-integrins often recognize short amino acid sequences on other cellular proteins for attachment purposes including the tripeptide sequence Arg-Gly-Asp (abbreviated RGD). An RGD sequence is also found in the penton base protein of adenovirus and is currently understood in the art to mediate attachment of Ad to alpha integrins. Recombinant adenoviruses have several advantages for use as gene transfer vectors, including tropism for both dividing and non-dividing cells, minimal pathogenic potential, ability to replicate to high titer for preparation of vector stocks, and the potential to carry large inserts (Berkner, K.L., Curr. Top. Micro. Immunol. 158:39-66, 1992; Jolly, D., Cancer Gene Therapy 1 :51-64, 1994). The carrying capacity of an adenovirus vector is proportional to the size of the adenovirus genome present in the vector. For example, a capacity of about 8 kb can be created from the deletion of certain regions of the virus genome dispensable for virus growth, e.g., E3, and the deletion of a genomic region such as El whose function may be restored in trans from 293 cells (Graham, F.L., J. Gen. Virol. 36:59-72, 1977) or A549 cells (Imler et al., Gene Therapy 3:75-84, 1996). Such El-deleted vectors are rendered replication-defective, which is desirable for the engineering of adenoviruses for gene transfer. The upper limit of vector DNA capacity for optimal carrying capacity is about 105%-108% of the length of the wild-type genome. Further adenovirus genomic modifications are possible in vector design using cell lines which supply other viral gene products in trans, e.g., complementation of E2a (Zhou et al., J. Virol. 70:7030-7038, 1996), complementation of E4 (Krougliak et al., Hum. Gene Ther. 6:1575-1586, 1995; Wang et al., Gene Ther. 2:775-783, 1995), or complementation of protein IX (Caravokyri et al., J. Virol. 69:6627-6633, 1995; Krougliak et al., Hum. Gene Ther. 6:1575-1586, 1995). Maximal carrying capacity can be achieved using adenoviral vectors deleted for all viral coding sequences (Kochanek et al., Proc. Natl. Acad. Sci. USA 93:5731-5736, 1996; Fisher et al., Virology 217:11-22, 1996). Transgenes that have been expressed to date by adenoviral vectors include p53 (Wills et al., Human Gene Therapy 5:1079-188, 1994); dystrophin (Vincent et al., Nature Genetics 5:130-134, 1993; erythropoietin (Descamps et al., Human Gene Therapy 5:979-985, 1994; ornithine transcarbamylase (Stratford-Perricaudet et al., Human Gene Therapy 1 :241-256, 1990; We et al., J. Biol. Chem. 271;3639-3646, 1996;); adenosine deaminase (Mitani et al., Human Gene Therapy 5:941-948, 1994); interleukin-2 (Haddada et al., Human Gene Therapy 4:703-71 1, 1993); and l-antitrypsin (Jaffe et al., Nature Genetics 1 :372-378, 1992); thrombopoietin (Ohwada et al, Blood 88:778-784, 1996); and cytosine deaminase (Ohwada et al., Hum. Gene Ther. 7:1567-1576, 1996). The particular tropism of adenoviruses for cells of the respiratory tract has particular relevance to the use of adenovirus in gene therapy for cystic fibrosis (CF), which is the most common autosomal recessive disease in Caucasians. The disease is caused by the presence of one or more mutations in the gene that encodes a protein known as cystic fibrosis transmembrane conductance regulator (CFTR), and which regulates the movement of ions (and therefore fluid) across the cell membrane of epithelial cells, including lung epithelial cells. Abnormal ion transport in airway cells leads to abnormal mucous secretion, infiammmation and infection, tisssue damage, and eventually death. Mutations in the CFTR gene that disturb the cAMP-regulated Cl " channel in airway epithelia result in pulmonary dysfunction (Zabner et al., Nature Genetics 6:75-83, 1994). Adenovirus vectors engineered to carry the CFTR gene have been developed (Rich et al., Human Gene Therapy 4:461-476, 1993) and studies have shown the ability of these vectors to deliver CFTR to nasal epithelia of CF patients (Zabner et al., Cell 75:207-216, 1993), the airway epithelia of cotton rats and primates (Zabner et al., Nature Genetics 6:75-83, 1994), and the respiratory epithelium of CF patients (Crystal et al., Nature Genetics 8:42-51, 1994). Recent studies have shown that administering an adenoviral vector containing a DNA sequence encoding CFTR to airway epithelial cells of CF patients can restore a functioning chloride ion channel in the treated epithelial cells (Zabner et al., J. Clin. Invest. 97:1504-1511, 1996; U.S. Patent No. 5,670,488 issued September 23, 1997). Serotype classification is partly based on viral surface protein sequence variation. Because the infectious capabilities of the virus are associated with the surface protein interactions of the virus with cellular proteins, the serotype is an important determinant of viral entry into target cells, and can account for the infectious heterogeneity of adenovirus serotypes. Most adenoviral vectors have been constructed using adenovirus serotypes from the well-studied group C adenoviruses, especially Ad 2 and Ad 5. However, other adenovirus serotypes display infectious properties that are relevant to the further design of improved adenoviral vectors, for example, those derived from subgroup D, which display enhanced tropism for human airway epithelial cells. It is widely hoped that gene therapy will provide a long lasting and predictable form of therapy for certain disease states, and it is likely the only form of therapy suitable for many inherited diseases. Although adenoviral vectors are currently in clinical use and have shown therapeutic promise, a need remains to improve the infection efficiency of these vectors in order to further improve their gene transfer capabilities. The present invention addresses this goal. Summary Of The Invention The present invention provides for chimeric adenoviral vectors which offer enhanced infection efficiency of target cells for the delivery of one or more transgenes. In a representative aspect of the invention, the vectors comprise nucleotide sequences coding for therapeutically useful proteins and have enhanced tropism for airway epithelial cells. Accordingly, there are provided chimeric adenoviral vectors comprising nucleotide sequence of a first adenovirus, wherein at least one gene of said first adenovirus encoding a protein that facilitates binding of said vector to a target mammalian cell, or intemalization thereof within said cell, is replaced by the corresponding gene from a second adenovirus belonging to subgroup D. These vectors may further comprising a transgene operably linked to a eucaryotic promoter or other regulatory elements to allow for expression therefrom in a mammalian cell. In a representative aspect thereof, the replaced encoding sequence codes for Ad fiber, hexon or penton base. In a further preferred embodiment of the invention, there are provided chimeric adenoviral vectors comprising nucleotide sequence of a first adenovirus, wherein a portion of a gene thereof encoding a protein that facilitates binding of said vector to a target mammalian cell, or intemalization thereof within said cell, is replaced by a portion of the corresponding gene from a second adenovirus belonging to subgroup D. These vectors may further comprising a transgene operably linked to a eucaryotic promoter or other regulatory elements to allow for expression therefrom in a mammalian cell. In a representative aspect thereof, the replaced encoding sequence codes for a portion of Ad fiber, hexon or penton base. Preferably, the second adenovirus is a member of subgroup D, and the replaced nucleotide sequence encodes a polypeptide selected from the group consisting of Ad fiber, a fragment of Ad fiber, Ad hexon, a fragment of Ad hexon, Ad penton base, and a fragment of Ad penton base. In a preferred embodiment, said second adenovirus is selected from the group consisting of serotypes Ad 9, Ad 15, Ad 17, Ad 19, Ad 20, Ad 22, Ad 26, Ad 27, Ad 28, Ad 30, and Ad 39. In preferred embodiments of the chimeric adenoviral vectors, the first adenovirus is selected from the group consisting of Ad 2, Ad 5, and Ad 12. The invention is also directed to compositions comprising the chimeric adenoviral vectors of the invention. Additional aspects of the invention include methods to use the chimeric adenoviral vectors of the invention to deliver transgenes to mammalian target cells, for example, to the airway epithelial cells of patients. A still further representative apsect of the invention involves a method of providing a therapeutic and/or biologically active protein to the airway epithelial cells of a patient by administering to said cells an adenoviral vector comprising elements of an Ad 17 genome, and a transgene encoding said therapeutic protein that is operably linked to a eucaryotic promoter to allow for expression therefrom in a mammalian cell, under conditions whereby the transgene encoding said therapeutic protein is expressed, and therapeutic benefit is produced in said airway epithelial cells. These and other aspects of the present invention are described in the Detailed Description of the Invention which follows directly. Brief Description of the Drawings FIGURE 1 depicts infection of NHBE cells by Ad 2. FIGURE 2 depicts infection of NHBE cells by Ad 17. FIGURE 3 plots the result of binding to human nasal polyp epithelial cell isolates by Ad 2 and Ad 17. FIGURE 4 is a map of the vector Ad2/βgal-2/fiber Ad 17. FIGURE 5 shows a comparison of the amino acid sequence of penton base from Ad 17 (top) [SEQ ID NO: 4] and Ad 2 (bottom) [SEQ ID NO: 5], and further depicts the variable RGD containing region. FIGURE 6 depicts an amino acid sequence pileup for penton base from particular Ad serotypes, including flO (from fowl) [SEQ ID NO: 6 through SEQ ID NO: 10]. FIGURE 7 shows a comparison of the amino acid sequence of fiber from Ad 17 (top) [SEQ ID NO: 11] and Ad 2 (bottom) [SEQ ID NO: 12]. FIGURE 8 depicts an amino acid sequence pileup for fiber from particular Ad serotypes [SEQ ID NO: 1 1 through SEQ ID NO: 22], including two forms of serotype 40 (40-1 and 40-2) which differ in that one variant has two (but non-identical) copies of the fiber gene. FIGURE 9 shows the infection efficiency of colon cancer cell lines by adenovirus serotypes. FIGURE 10 shows the infection efficiency of cancer cell lines by adenovirus serotypes. Provided in the Sequence Listing attached hereto are also: SEQ ID NO: 1, the complete nucleotide sequence of Ad 17; SEQ ID NO: 2, the complete encoding nucleotide sequence for Ad 17 fiber; SEQ ID NO: 3, the complete encoding nucleotide sequence for Ad 17 penton base. Detailed Description of the Invention The present invention provides for chimeric adenoviral vectors comprising nucleotide sequence of a first adenovirus, wherein at least one gene of said first adenovirus encoding a protein that facilitates binding of said vector to a target mammalian cell, or intemalization thereof within said cell, is replaced by the corresponding gene from a second adenovirus belonging to subgroup D, said vectors further comprising a transgene operably linked to a eucaryotic promoter to allow for expression therefrom in a mammalian cell. In a representative aspect thereof, the replaced encoding sequence correspond to the gene encoding the Ad fiber, hexon or penton base proteins, or combinations thereof. In a further preferred embodiment of the invention, there are provided chimeric adenoviral vectors comprising nucleotide sequence of a first adenovirus, wherein a portion of a gene thereof encoding a protein that facilitates binding of said vector to a target mammalian cell, or intemalization thereof within said cell, is replaced by a portion of the corresponding gene from a second adenovirus belonging to subgroup D, said vectors further comprising a transgene operably linked to a eucaryotic promoter to allow for expression therefrom in a mammalian cell. In a representative aspect thereof, the replaced encoding sequence codes for a portion of the Ad fiber, hexon or penton base proteins, or combinations thereof. Where a portion of a gene from a second adenovirus is used to construct a chimeric adenoviral vector, such sequence will have a length sufficient to confer a desired serotypic-specific virus-cell interaction to the vector. The present invention involves the recognition that adenoviral vectors that are either based substantially upon the genome of Ad serotypes classified in subgroup D, or that contain certain Ad-protein encoding polynucleotide sequences of subgroup D adenovirus, are particularly effective at binding to, and internalizing within, human cells, such that therapeutic transgenes included in the adenoviral vector are efficiently expressed. This discovery is particularly surprising given that adenovirus serotypes of subgroup D are not clinically associated with human respiratory disease, and that, for example association with conjunctivitis is more typical. The recognition of this tropism is of particular relevance for the treatment by gene therapy of recognized disease states such as cystic fibrosis or 1 -antitrypsin deficiency. This discovery is particularly surprising given that adenovirus serotypes of subgroup D are not clinically associated with human respiratory disease, and that, for example association with conjunctivitis is more typical. The recognition of this tropism is of particular relevance for the treatment by gene therapy of recognized disease states such as cystic fibrosis or 1 -antitrypsin deficiency. In a representative aspect of the invention, the adenoviral vectors further comprise nucleotide sequences coding for one or more transgenes and have enhanced tropism for airway epithelial cells. Preferably, the chimeric adenoviral vectors are replication-defective, a feature which contributes to the enhanced safety of adenoviral vectors administered to individuals. Preferably, the second adenovirus is a member of subgroup D, and the replaced nucleotide sequence encodes a polypeptide selected from the group consisting of Ad fiber, a fragment of Ad fiber, Ad hexon, a fragment of Ad hexon, Ad penton base, and a fragment of Ad penton base. In a preferred embodiment, said second adenovims is selected from the group consisting of serotypes Ad 9, Ad 15, Ad 17, Ad 19, Ad 20, Ad 22, Ad 26, Ad 27, Ad 28, Ad 30, and Ad 39. In a most preferred embodiment, the second adenovirus is Ad 17. In other preferred embodiments of the chimeric adenoviral vectors, the first adenovims is selected from the group consisting of Ad 2, Ad 5, and Ad 12. There is substantial evidence that any reported transforming properties of the E4 region of certain subgroup D serotypes do not extend to Ad serotypes whose use is preferred according to the practice of the present invention (see, for example, R. Javier et al., Science, 257, 1992, pp. 1267-1271). It is expected also that, for example, individual ORFs of subgroup D E4 region, such as ORF1, could be deleted. Additional aspects of the invention include methods to provide biologically active and/or therapeutic proteins to mammalian cells, including, but not limited to, the airway epithelial cells of individuals, in order to provide phenotypic benefit. According to this aspect of the invention, chimeric adenoviral vectors are used in which a nucleotide sequence of a first adenovims is replaced by the corresponding nucleotide sequence of a second adenovirus. Preferably, the second adenovims is a member of subgroup D, and the replaced nucleotide sequence encodes a polypeptide encoding all or part of Ad fiber, Ad hexon, or Ad penton base, or combinations thereof. A still further representative aspect of the invention involves providing a biologically active and/or therapeutic protein in the airway epithelial cells of a patient by administering to said cells an adenoviral vector comprising elements of an Ad 17 genome, and a transgene encoding said protein that is operably linked to a eucaryotic promoter to allow for expression therefrom in a mammalian cell, under conditions whereby the transgene encoding said protein is expressed, and the desired phenotypic benefit is produced in said airway epithelial cells. According to the practice of the invention, it is preferred that an chimeric adenovirus vector utilized to deliver a transgene to the respiratory epithelium (including that of the nasal airway, trachea, and bronchi and alveoli of the lung), or to other tissues of the body, comprise serotypes within subgroup D, as such classification is recognized in the art. In order to constmct the chimeric adenoviral vectors of the invention, reference may be made to the substantial body of literature on how such vectors may be designed, constmcted and propagated using techniques from molecular biology and microbiology that are well-known to the skilled artisan. Specific examples of adenoviral vector genomes which can be used as the backbone for a chimeric adenoviral vector of the invention include, for example, Ad2/CFTR-1 and Ad2/CFTR- 2 and others described in U. S. Patent No. 5,670,488, issued September 23, 1997 (incorporated herein by reference). Such vectors may include deletion of the El region, partial or complete deletion of the E4 region, and deletions within, for example, the E2 and E3 regions. Within the scope of the invention are, for example, chimeric vectors which contain an Ad 2 backbone with one or more Ad 17 capsid proteins or fragments thereof in the vims. Other adenoviral vector genomic designs which can be used in the chimeric adenoviral vectors of the invention include those derived from allowed U.S. Patent Application Serial No. 08/409,874, filed March 24, 1995, and allowed U.S. Patent Application Serial No. 08/540,077, filed October 6, 1995 (both incorporated herein by reference). To constmct the recombinant chimeric adenoviral vectors of the invention which contain a transcription unit, the skilled artisan can use the standard techniques of molecular biology to engineer a transgene or a capsid protein into a backbone vector genome (Berkner, K.L., Curr. Top. Micro. Immunol. 158:39-66, 1992). For example, a plasmid containing a transgene and any operably linked regulatory elements inserted into an adenovirus genomic fragment can be co-transfected with a linearized viral genome derived from an adenoviral vector of interest into a recipient cell under conditions whereby homologous recombination occurs between the genomic fragment and the virus. Preferably, a transgene is engineered into the site of an El deletion. As a result, the transgene is inserted into the adenoviral genome at the site in which it was cloned into the plasmid, creating a recombinant adenoviral vector. The chimeric adenoviral vectors can also be constmcted using standard ligation techniques, for example, removing a restriction fragment containing a fiber gene from a first adenovims and ligating into that site a restriction fragment containing a fiber gene from a second adenovirus. A representative example of a chimeric adenoviral vector of the invention is Ad2/βgal-2 fiber 17 (exemplified in Example 6). Construction of the chimeric adenoviral vectors can be based on adenovims DNA sequence information widely available in the field, e.g., nucleic acid sequence databases such as GenBank. Preparation of replication-defective chimeric adenoviral vector stocks can be accomplished using cell lines that complement viral genes deleted from the vector, e.g., 293 or A549 cells containing the deleted adenovirus El genomic sequences. The use of HER3 cells (human embryonic retinoblasts transformed by Ad 12), as a complementing cell line is of note. After amplification of plaques in suitable complementing cell lines, the viruses can be recovered by freeze-thawing and subsequently purified using cesium chloride centrifugation. Alternatively, virus purification can be performed using chromatographic techniques, e.g., as set forth in International Application No. PCT/US96/13872, filed August 30, 1996, incorporated herein by reference. Titers of replication-defective chimeric adenoviral vector stocks can be determined by plaque formation in a complementing cell line, e.g., 293 cells. End- point dilution using an antibody to the adenoviral hexon protein may be used to quantitate virus production or infection efficiency of target cells (Armentano et al., Hum. Gene Ther. 6: 1343-1353, 1995, incorporated herein by reference). Transgenes which can be delivered and expressed from a chimeric adenoviral vector of the invention include, but are not limited to, those encoding enzymes, blood derivatives, hormones, lymphokines such as the interleukins and interferons, coagulants, growth factors, neurotransmitters, tumor suppressors, apoliproteins, antigens, and antibodies, and other biologically active proteins. Specific transgenes which may be encoded by the chimeric adenoviral vectors of the invention include, but are not limited to, cystic fibrosis transmembrane regulator (CFTR), dystrophin, glucocerebrosidase, tumor necrosis factor, p53, p21, herpes simplex thymidine kinase and gancyclovir, retinoblastoma (Rb), and adenosine deaminase (ADA). Transgenes encoding antisense molecules or ribozymes are also within the scope of the invention. The vectors may contain one or more transgenes under the control of one or more regulatory elements. In addition to containing the DNA sequences encoding one or more transgenes, the chimeric adenoviral vectors of the invention may contain any expression control sequences such as a promoter or enhancer, a polyadenylation element, and any other regulatory elements that may be used to modulate or increase expression, all of which are operably linked in order to allow expression of the transgene. The use of any expression control sequences, or regulatory elements, which facilitate expression of the transgene is within the scope of the invention. Such sequences or elements may be capable of generating tissue-specific expression or be susceptible to induction by exogenous agents or stimuli. Infection of target cell by the chimeric adenoviral vectors of the invention may also be facilitated by the use of cationic molecules, such as cationic lipids as disclosed in PCT Publication No. WO96/18372, published June 20, 1996, incorporated herein by reference. Cationic amphiphiles have a chemical stmcture which encompasses both polar and non-polar domains so that the molecule can simultaneously facilitate entry across a lipid membrane with its non-polar domain while its cationic polar domain attaches to a biologically useful molecule to be transported across the membrane. Cationic amphiphiles which may be used to form complexes with the chimeric adenoviral vectors of the invention include, but are not limited to, cationic lipids, such as DOTMA (Feigner et al., Proc. Natl. Acad. Sci. USA 84:7413-7417, 1987) (N-[l- (2,3-dioletloxy)propyl]-N,N,N - trimethylammonium chloride); DOGS (dioctadecylamidoglycylspermine) (Behr et al., Proc. Natl. Acad. Sci. USA 86:6982- 6986, 1989); DMRIE (l,2-dimyristyloxypropyl-3-dimethyl-hydroxy ethyl ammonium bromide) (Feigner et al., J. Biol. Chem. 269:2550-2561, 1994; and DC-chol (3B [N- N', N'-dimethylaminoethane) -carbamoyl] cholesterol) (U.S. Patent No. 5, 283,185 to Epand et al.). The use of other cationic amphiphiles recognized in the art or which come to be discovered is within the scope of the invention. In preferred embodiments of the invention, the cationic amphiphiles useful to complex with and facilitate transfer of the vectors of the invention are those lipids which are described in PCT Publication No. WO96/18372, published June 20, 1996, which is incorporated herein by reference. Preferred cationic amphiphiles described herein to be used in the delivery of the plasmids and/or viruses are GL-53, GL-67, GL-75, GL-87, GL-89, and GL-120, including protonated, partially protonated, and deprotonated forms thereof. Further embodiments include the use of non-T-shaped amphiphiles as described on pp. 22-23 of the aforementioned PCT application, including protonated, partially protonated and deprotonated forms thereof. Most preferably, the cationic amphiphile which can be used to deliver the vectors of the invention is spermine cholesterol carbamate (GL-67). In the formulation of compositions comprising the chimeric adenoviral vectors of the invention, one or more cationic amphiphiles may be formulated with neutral co- lipids such as dileoylphosphatidylethanolamine (DOPE) to facilitate delivery of the vectors into a cell. Other co-lipids which may be used in these complexes include, but are not limited to, diphytanoylphosphatidylethanolamine, lyso- phosphatidylethanolamines, other phosphatidylethanolamines, phosphatidylcholines, lyso-phosphatidylcholines and cholesterol. A preferred molar ratio of cationic amphiphile to colipid is 1 :1. However, it is within the scope of the invention to vary this ratio, including also over a considerable range. In a preferred embodiment of the invention, the cationic amphiphile GL-67 and the neutral co-lipid DOPE are combined in a 1 :2 molar ratio, respectively, before complexing with a chimeric adenoviral vector for delivery to a cell. In the formulation of complexes containing a cationic amphiphile with a chimeric adenoviral vector, a preferred range of 10 7 - 10 10 infectious units of virus may be combined with a range of 10 4 - 10 6 cationic amphiphile molecules/viral particle. The infection efficiency of the chimeric adenoviral vectors of the invention may be assayed by standard techniques to determine the infection of target cells. Such methods include, but are not limited to, plaque formation, end-point dilution using, for example, an antibody to the adenoviral hexon protein, and cell binding assays using radiolabelled vims. Improved infection efficiency may be characterized as an increase in infection of at least an order of magnitude with reference to a control vims. Where a chimeric adenoviral vector encodes a marker or other transgene, relevant molecular assays to determine expression include the measurement of transgene mRNA, by, for example, Northern blot, S 1 analysis or reverse transcription-polymerase chain reaction (RT-PCR). The presence of a protein encoded by a transgene may be detected by Western blot, immunoprecipitation, immunocytochemistry, or other techniques known to those skilled in the art. Marker-specific assays can also be used, such as X-gal staining of cells infected with a chimeric adenoviral vector encoding β-galactosidase. In order to determine transgene expression and infection efficiency in vivo using the constructs and compositions of the invention, animal models may be particularly relevant in order to assess transgene persistence against a background of potential host immune response. Such a model may be chosen with reference to such parameters as ease of delivery, identity of transgene, relevant molecular assays, and assessment of clinical status. Where the transgene encodes a protein whose lack is associated with a particular disease state, an animal model which is representative of the disease state may optimally be used in order to assess a specific phenotypic result and clinical improvement. However, it is also possible that particular chimeric adenoviral vectors of the invention display enhanced infection efficiency only in human model systems, e.g., using primary cell cultures, tissue explants, or permanent cell lines. In such circumstances where there is no animal model system available in which to model the infection efficiency of a chimeric adenoviral vector with respect to human cells, reference to art-recognized human cell culture models will be most relevant and definitive. Relevant animals in which the chimeric adenoviral vectors may be assayed include, but are not limited to, mice, rats, monkeys, and rabbits. Suitable mouse strains in which the vectors may be tested include, but are not limited to, C3H, C57B1/6 (wild-type and nude) and Balb/c (available from Taconic Farms, Germantown, New York). Where it is desirable to assess the host immune response to vector administration, testing in immune-competent and immune-deficient animals may be compared in order to define specific adverse responses generated by the immune system. The use of immune-deficient animals, e.g., nude mice, may be used to characterize vector performance and persistence of transgene expression, independent of an acquired host response. In a particular embodiment where the transgene is the gene encoding cystic fibrosis transmembrane regulator protein (CFTR) which is administered to the respiratory epithelium of test animals, expression of CFTR may be assayed in the lungs of relevant animal models, for example, C57B1/6 or Balb/c mice, cotton rats, or Rhesus monkeys. Molecular markers which may used to determine expression include the measurement of CFTR mRNA, by, for example, Northern blot, S 1 analysis or RT-PCR. The presence of the CFTR protein may be detected by Western blot, immunoprecipitation, immunocytochemistry, or other techniques known to those skilled in the art. Such assays may also be used in tissue culture where cells deficient in a functional CFTR protein and into which the chimeric adenoviral vectors have been introduced may be assessed to determine the presence of functional chloride ion channels - indicative of the presence of a functional CFTR molecule. The chimeric adenoviral vectors of the invention have a number of in vivo and in vitro utilities. The vectors can be used to transfer a normal copy of a transgene encoding a biologically active protein to target cells in order to remedy a deficient or dysfunctional protein. The vectors can be used to transfer marked transgenes (e.g., containing nucleotide alterations) which allow for distinguishing expression levels of a transduced gene from the levels of an endogenous gene. The chimeric adenoviral vectors can also be used to define the mechanism of specific viral protein-cellular protein interactions that are mediated by specific virus surface protein sequences. The vectors can also be used to optimize infection efficiency of specific target cells by adenoviral vectors, for example, using a chimeric adenoviral vector containing Ad 17 fiber protein to infect human nasal polyp cells. Where it is desirable to use an adenoviral vector for gene transfer to cancer cells in an individual, a chimeric adenoviral vector can be chosen which selectively infects the specific type of target cancer cell and avoids promiscuous infection. Where primary cells are isolated from a tumor in an individual requiring gene transfer, the cells may be tested against a panel of chimeric adenoviral vectors to select a vector with optimal infection efficiency for gene delivery. The vectors can further be used to transfer tumor antigens to dendritic cells which can then be delivered to an individual to elicit an anti-tumor immune response. Chimeric adenoviral vectors can also be used to evade undesirable immune responses to particular adenovims serotypes which compromise the gene transfer capability of adenoviral vectors. The present invention is further directed to compositions containing the chimeric adenoviral vectors of the invention which can be administered in an amount effective to deliver one or more desired transgenes to the cells of an individual in need of such molecules and cause expression of a transgene encoding a biologically active protein to achieve a specific phenotypic result. The cationic amphiphile-plasmid complexes or cationic amphiphile-virus complexes may be formulated into compositions for administration to an individual in need of the delivery of the transgenes. The compositions can include physiologically acceptable carriers, including any relevant solvents. As used herein, "physiologically acceptable carrier" includes any and all solvents, dispersion media, coatings, antibacterial and antifungal agents, isotonic and absorption delaying agents, and the like. Except insofar as any conventional media or agent is incompatible with the active ingredient, its use in the compositions is contemplated. Routes of administration for the compositions containing the chimeric adenoviral vectors of the invention include conventional and physiologically acceptable routes such as direct delivery to a target organ or tissue, intranasal, intravenous, intramuscular, subcutaneous, intradermal, oral and other parenteral routes of administration. The invention is further directed to methods for using the compositions of the invention in vivo or ex vivo applications in which it is desirable to deliver one or more transgenes into cells such that the transgene produces a biologically active protein for a normal biological or phenotypic effect. In vivo applications involve the direct administration of one ore more chimeric adenoviral vectors formulated into a composition to the cells of an individual. Ex vivo applications involve the transfer of a composition containing the chimeric adenoviral vectors directly to autologous cells which are maintained in vitro, followed by readministration of the transduced cells to a recipient. Dosage of the chimeric adenoviral vector to be administered to an individual for expression of a transgene encoding a biologically active protein and to achieve a specific phenotypic result is determined with reference to various parameters, including the condition to be treated, the age, weight and clinical status of the individual, and the particular molecular defect requiring the provision of a biologically active protein. The dosage is preferably chosen so that administration causes a specific phenotypic result, as measured by molecular assays or clinical markers. For example, determination of the infection efficiency of a chimeric adenoviral vector containing the CFTR transgene which is administered to an individual can be performed by molecular assays including the measurement of CFTR mRNA, by, for example, Northern blot, SI or RT-PCR analysis or the measurement of the CFTR protein as detected by Western blot, immunoprecipitation, immunocytochemistry, or other techniques known to those skilled in the art. Relevant clinical studies which could be used to assess phenotypic results from delivery of the CFTR transgene include PFT assessment of lung function and radiological evaluation of the lung. Demonstration of the delivery of a transgene encoding CFTR can also be demonstrated by detecting the presence of a functional chloride channel in cells of an individual with cystic fibrosis to whom the vector containing the transgene has been administered (Zabner et al., J. Clin. Invest. 97:1504-1511, 1996). Transgene expression in other disease states can be assayed analogously, using the specific clinical parameters most relevant to the condition. Dosages of a chimeric adenoviral vector which are effective to provide expression of a transgene encoding a biologically active protein and achieve a specific phenotypic result range from approximately 10 8 infectious units (LU.) to 10" LU. for humans. It is especially advantageous to formulate parenteral compositions in dosage unit form for ease of administration and uniformity of dosage. Dosage unit form as used herein refers to physically discrete units suited as unitary dosages for the subjects to be treated, each unit containing a predetermined quantity of active ingredient calculated to produce the specific phenotypic effect in association with the required physiologically acceptable carrier. The specification for the novel dosage unit forms of the invention are dictated by and directly depend on the unique characteristics of the chimeric adenoviral vector and the limitations inherent in the art of compounding. The principal active ingredient (the chimeric adenoviral vector) is compounded for convenient and effective administration in effective amounts with the physiologically acceptable carrier in dosage unit form as discussed above. Maximum benefit and achievement of a specific phenotypic result from administration of the chimeric adenoviral vectors of the invention may require repeated administration. Such repeated administration may involve the use of the same chimeric adenoviral vector, or, alternatively, may involve the use of different chimeric adenoviral vectors which are rotated in order to alter viral antigen expression and decrease host immune response. The practice of the invention employs, unless otherwise indicated, conventional techniques of protein chemistry, molecular virology, microbiology, recombinant DNA technology, and pharmacology, which are within the skill of the art. Such techniques are explained fully in the literature. See, e.g., Current Protocols in Molecular Biology, Ausubel et al., eds., John Wiley & Sons, Inc., New York, 1995, and Remington's Pharmaceutical Sciences, 17th ed., Mack Publishing Co., Easton, PA, 1985. The invention is further illustrated by the following specific examples which are not intended in any way to limit the scope of the invention. Examples Example 1 Infection of NHBE cells by adenovims serotypes of subgroup D Normal human bronchial epithelial ("NHBE") cells were obtained from Clonetics (San Diego, CA), and plated on Costar (Cambridge, MA) Transwell-Clear polyester membranes that were pre-coated with human placental collagen. The wells were placed in a cluster plate and cells were fed every day for one week by changing the medium in both the well and the plate. After one week the media was removed from the wells to create an air-liquid interface, and the cells were then fed only by changing the medium in the cluster plate, every other day for one week. Cells were infected at an moi of 1 by adding virus (see below) to the transwell, followed by an incubation time of 1.5-2 hours. At the end of the incubation period, the medium was removed and the cells were gently rinsed with fresh medium. Thirty-six hours post- infection the cells were fixed with 1 :1 acetone:methanol, permeablized with a solution of 0.05% Tween 20 in PBS, and stained with FITC labeled anti-hexon antibody (Chemicon, Temecula, CA) to visualize cells that had been productively infected (i.e. to visualize vims replication). Cells were also subjected to the DAPI staining procedure in order to visualize the total number of nuclei. The results could be readily determined upon simple inspection. Wild type Ad serotypes within subgroup D that were tested included 9, 15, 17, 19, 20, 22, 26, 27, 28, 30, and 39 (all from the American Type Culture Collelction, Rockville, MD). An Ad 2 (obtained as DNA from BRL, Gaithersburg, MD, and used to transfect 293 cells in order to generate virus stock) was used as a control. Infection observed with all of the subgroup D serotypes was superior to that observed with Ad 2, with the best results being achieved with Ad 9, Ad 17, Ad 20, Ad 22, and Ad 30. Additionally, it was determined that each of the above-mentioned serotypes of subgroup D was more effective in the NHBE cell assay under similar circumstances than any other serotype tested than belongs to a subgroup other than D. In this regard, the following serotypes were also tested: 31 (subgroup A); 3(subgroup B); 7(subgroup B); 7a( subgroup B); 14(subgroup B); 4(subgroup E); and 41 (subgroup F). In a further experiment, serotype 35 (subgroup A) may have performed as well as the least effective members of subgroup D that were tested. Example 2 Infection of clinical isolate bronchial epithelial cells Following generally the procedures of Example 1, human bronchial epithelial cells recovered from healthy human volunteers were infected with either Ad 2 (as above, Ad 2 DNA was obtained from BRL, and this DNA was used to transfect 293 cells to generate virus) (Figure 1), or Ad 17 (from ATCC) (Figure 2), all at an moi of 50. Cells were left in contact with vims for 30 minutes, 3 hours, or 12 hours. The increased tropism of Ad 17 for human bronchial epithelial cells, compared with Ad 2, is readily apparent upon inspection of Figures 1 and 2. In the Figures, the right hand columns (panels D, E, and F, stained in blue) show total numbers of cells present (from DAPI staining as above), whereas the left hand columns (panels A, B, and C, stained in green) quantify adenovirus hexon protein present in the infected cells (from FITC-labeled anti-hexon anitbody, as above). Panels A and D result from 30 minute incubation times, panels B and E result from 3 hour incubation times, and panels C and F result from 12 hour incubation times. As measured by the technique employed, infection of airway epithelia by Ad 17 is at least 50 fold greater than by Ad 2 for the thirty minute incubation time. Example 3 Binding of Ad 2 and Ad 17 to human nasal polyp cell isolates 293 cells, a complementing cell line developed by Graham et al. (see Gen. Virol. , 36, 1977, pp. 59-72), were infected with either wild type Ad 2 or wild type Ad 17. Five hours post-infection the media was removed and replaced with methionine free media containing S 35 metabolic label (Amersham). After an additional six hours, fresh media was added and the labeling was allowed to proceed for a total of 18 hours, after which the S 35 media was removed and replaced with fresh media. Thirty hours post-infection the cells were harvested and lysed and the labeled Ad 2 or Ad 17 vimses were purified by CsCl gradient centrifugation. The recovered vimses were then used in an assay to determine their relative binding efficiency on human nasal polyp cells. In order to perform the assay, ciliated human airway epitehlial cells were recovered from nasal polyps of healthy volunteers. The results from two such isolates, NP-14 and NP-15, are reported here (see Figure 3). Radiolabeled virus was then incubated with the isolated cells in wells for specified times ( 5 or 30 minutes, see Figure 3). The cells were then rinsed and measured for radioactivity. Binding as reported in Figure 3 indicates the percent of input radioactivity that is cell associated. It was determined that for both cell isolate populations, using either 5 or 30 minute incubations, cell associated radioactivity was 10-fold enhanced if Ad 17 rather than Ad 2 was used. Example 4 Fiber competition A549 cells (a human lung carcinoma line, obtained from the American Type Culture Collection as ATCC CCL-185) were plated at 3 x 10 4 cells per well in 96-well dishes. Since the number of receptor sites for adenovims fiber on the cell surface has been estimated to be approximately 10 5 receptors per cell, the receptors in the plated cells were saturated, in this example, with 0.1 μg of purified full length Ad 2 fiber protein (obtained from Paul Freimuth, Brookhaven National Laboratory, Upton, NY), which corresponds to approximately 100 molecules of fiber per receptor. Cells were incubated with Ad 2 fiber in PBS for two hours at 37 °C. The cells were subsequently infected at an moi of 1 (using either Ad 2 provided as above, or wild type Ad 17) for one hour, after which the cells were rinsed, and fresh mediium was added. Control cultures were incubated with PBS with no added protein for two hours and then subsequently infected as described above. Forty hours post-infection the cells were fixed with 1 : 1 acetone:methanol, permeablized with 0.05% Tween 20 in PBS and stained with FITC labeled anti- Ad 2 hexon antibody, as described in Example 1. As determined by this assay, the number of cells infected (stained) with Ad 2 was reduced by approximately 90% in cultures that were pre-incubated with Ad 2 fiber as compared to control cultures. However, no effect on Ad 17 infection was observed by the pre-incubation of A549 cells with full length Ad 2 fiber. Example 5 Use of Ad 2 fiber knob in a binding competition experiment with Ad 2 Further competition experiments were performed with Ad 2 and Ad 17 fiber knobs that had been expressed and purified from E. coli. DNA sequences encoding both protein fragments were designed so that the fiber knobs expressed therefrom would contain histidine tags in order to permit nickel- column purification. The yield of soluble fiber knob trimer, purified by the Ni-NTA method (Qiagen, Chatsworth, CA) , was ~25μg/50ml culture. A significant portion of the total knob protein expressed appeared to remain in a monomeric (and insoluble) form. The soluble trimeric material obtained was used for a preliminary competition experiment. Wild type Ad 2 and Ad 17 were used to infect A549 cells, or cells that had been pre- incubated with excess (about 100 molecules of trimer per receptor) Ad 2 fiber knob or Ad 17 fiber knob. The results indicated that Ad 2 fiber knob, but not Ad 17 knob, could block Ad 2 infection. Additionally, Ad 17 infection was not blocked by E. coli- expressed fiber knobs of either serotype, suggesting that the mechanism of Ad 2 and Ad 17 infections is different. Example 6 Construction of the chimeric vector Ad2/βgal-2/fiber Ad 17 The vector Ad2/βgal-2 was constmcted as follows. A CMV§gal expression cassette was constmcted in a pBR322-based plasmid that contained Ad 2 nucleotides 1-10,680 from which nucleotides 357-3328 were deleted. The deleted sequences were replaced with (reading from 5' to 3'): a cytomegalovirus immediate early promoter (obtained from pRC/CMV, Invitrogen), lacZ gene encoding §-galactosidase with a nuclear localization signal, and an SV40 polyadenylation signal (nucleotides 2533- 2729). The resulting plasmid was used to generate Ad2/βgal-2 by recombination with Ad2E4ORF6 (D. Armentano et al., Human Gene Therapy , 6, 1995, pp 1343 -1353). A chimeric Ad2/βgal-2/fiber Ad 17 viral vector (Figure 4) was then contmcted as follows. pAdORFό (D. Armentano et al., Human Gene Therapy , 6, 1995, pp 1343 -1353 was cut with Nde and BamHI to remove Ad 2 fiber coding and polyadenylation signal sequences (nucleotides 20624-32815). An Ndel-BamHI fragment containing Ad 17 fiber coding sequence (nucleotides 30984-32095) was generated by PCR and ligated along with an SV40 polyadenylation signal into Ndel-BamHI cut pAdORFό to generate pAdORFόfiber 17. This plasmid was cut with Pad and then ligated to Pad- cut Ad2/βgal-2 DNA to generate Ad2/βgal-2fiber 17. Any desired transgene may be substituted in this constmct for the reporter gene. A similar construct can be prepared using a DNA sequence that encodes Ad 17 penton base instead of Ad 17 fiber. Alternatively, only a subregion of the penton base of Ad 2 need be subject to replacement, such as by inserting into the vector a nucleotide encoding sequence corresponding to any amino acid subsequence of Ad 17 penton base amino acids 283-348 ( see the marked sequence in Figure 5A) in replacement for any subsequence of Ad 2 penton base amino acids 290-403. Preferrably, the replaced sequence of Ad 2 and the inserted sequence of Ad 17 includes the RGD domain of each. Use of nucleotide sequence corresponding to penton base amino acid sequence for other subgroup D serotypes is also within the practice of the invention. It is also within the scope of the invention to replace a subregion of the fiber protein in the Ad 2 vector with a subregion from another adenovims serotype, for example, Ad 17. Example 7 Ad2/βgal-2fl7 shows increased infection efficiency on human airway explants Both human and monkey trachea explants, about 1 cm 2 , were placed on top of an agar support. Each explant was infected at an moi of 200 of either Ad2/βgal-2 or Ad2/βgal-2f 17 assuming a cell density of 1 x 10 6 per cm 2 of explant. Explants were exposed to vims for three hours and were then rinsed with NHBE media. Two days post-infection explants were stained with X-gal and infection efficiency was assessed. On the monkey explants Ad2/βgal-2 gave rise to a higher infection efficiency than Ad2/βgal-2fl7. Patches of stained cells were detected in explants exposed to Ad2/βgal-2 but very few cells stained in explants exposed to Ad2/βgal-2fl7. A different result was obtained on human trachea explants. On these explants Ad2/βgal- 2fl 7 infection gave rise to a much higher infection efficiency than Ad2/βgal-2 infection. Approximately 5-10% of the cells in explants exposed to Ad2/βgal-2fl7 stained with X-gal whereas very few cells were stained in explants exposed to Ad2/βgal-2. No background staining was observed in either monkey or human explants that were not exposed to vims. The results indicate that the exchange of Ad 2 fiber for Ad 17 fiber in Ad2/βgal-2fl7 was suffficient to significantly increase infection efficiency of human tracheal airway cells by an adenovims type 2 based vector. Example 8 Adenovirus subgroup screening on human cancer cell lines Identification of adenovims subgroup that best infects a particular tumor type may be useful in designing vectors to optimally target cancer cells in vivo. In order to determine the adenovims subgroup that best infects a particular type of cancer cell, cancer cells were seeded into a 96 well plate and infected with and moi of 5. Infection efficiency was determined by staining of infected cells using an anti-hexon antibody. The adenovirus subgroups were represented by the following serotypes: A: Ad 31; B: Ad 3; C: Ad 2; D: Ad 17; E: Ad 4; and F: Ad 41. Subgroup D (Ad 17) has a significantly higher infection rate of the colon cancer cell line CaCo-2 than other cell types, with an infection rate of 70%, while Ad 2 only infected 20% of the cells (Figure 9). Subgroup D (Ad 17) was effective in infecting ovarian cancer cell line SK- OV3. Infection was measured at 90% (Figure 10). Sequence Listing Included herewith on the following pages are informal copies of SEQ ID NO: 1 through SEQ ID NO: 3. 1 CATCATCAAT AATATACCCC ACAAAGTAAA CAAAAGTTAA TATGCAAATG AGGTTTTAAA 61 TTTAGGGCGG GGCTACTGCT GATTGGCCGA GAAACGTTGA TGCAAATGAC GTCACGACGC 121 ACGGCTAACG GTCGCCGCGG AGGCGTGGCC TAGCCCGGAA GCAAGTCGCG GGGCTGATGA 181 CGTATAAAAA AGCGGACTTT AAACCCGGAA ACGGCCGATT TTCCCGCGGC CACGCCCGGA 241 TATGAGGTAA TTCTGGGCGG ATGCAAGTGA AATTAGGTCA TTTTGGCGCG AAAACTGAAT 301 GAGGAAG GA AAAG GAAAA ATACCGGTCC CGCCCAGGGC GGAATATTTA CCGAGGGCCG 361 AGAGACTT G ACCGATTACG TGTGGGTTTC GATTGCGG G TTTTTTCGCG AATTTCCGCG 421 TCCG GTCAA AGTCCGGTGT TTATGTCACA GATCAGCTGA TCCACAGGGT ATTTAAACCA 481 GTCGAGCCCG TCAAGAGGCC ACTCTTGAGT GCCAGCGAGT AGAGATTTCT CTGAGCTCCG 541 CTCCCAGAGT G GAGAAAAA TGAGACACCT GCGCCTCCTG CCTGGAAC G TGCCCTTGGA 601 CATGGCCGCA TTATTGCTGG ATGACTTTGT GAGTACAGTA TTGGAGGA G AACTGCAACC 661 AACTCCGTTC GAGC GGGAC CCACACTTCA GGACCTCTAT GATTTGGAGG TAGATGCCCA 721 GGAGGACGAC CCGAACGAAG ATGCTG GAA TTTAATATTT CCAGAATCTC TGATTCTTCA 781 GGC GACATA GCCAGCGAAG CTCTACCTAC TCCACTTCAT ACTCCAACTC TGTCACCCAT 841 ACCTGAATTG GAAGAGGAGG ACGAGTTAGA CCTCCGGTGT TA GAGGAAG GTTTTCCTCC 901 CAGCGATTCA GAGGACGAAC AGGGTGAGCA GAGCATGGCT CTAATCTCAG ACTATGCT G 961 GTGGT GTG GAAGAGCATT TTGTGTTGGA CAATCCTGAG GTGCCCGGGC AAGGCTGTAA 1021 ATCCTGCCAG TACCACCGGG ATAAGACCGG AGACACGAAC GCCTCCTG G CTCTGTGTTA 1081 CATGAAAAAG AACTTCAGCT TTATTTACAG TAAGTGGAGT GAATG GAGA GAGGCTGAGT 1141 GCTTAAGACA TAACTGGG G ATGCTTCAAC AGCTGTGCTA AGTGTGGTTT ATTTTGTTTC 1201 TAGGTCCGGT GTCAGAGGAT GGTCATCACC CTCAGAAGAA GACCACCCGT GTCCCCC GA 1261 TCTGTCAGGC GAAACGCCCC TGCAAGTGCA CAGACCCACC CCAGTCAGAC CCAGTGGCGA 1321 GAGGCGAGCA GCTGTTGAAA AAATTGAGGA CTTGTTACAT GACATGGGTG GGGATGAACC 1381 TTTGGACCTG AGCTTGAAAC GTCCCAGGAA ACTAGGCGCA GCTGCGCTTA GTCATGTGTA 1441 AATAAAGTTG TACAATAAAA ATTATATGTG ACGCATGCAA GGTGTGGTTT ATGACTCATG 1501 GGCGGGGCTT AGTTCTATAT AAGTGGCAAC ACCTGGGCAC TGGAGCACAG ACCTTCAGGG 1561 AGTTCCTGAT GGATGTGTGG ACTATCCTTG CAGACTTTAG CAAGACACGC CGGCTTGTAG 1621 AGGATAGTTC AGACGGGTGC TCCGGGTTCT GGAGACACTG GTTTGGAACT CCTCTATCTC 1681 GCCTGGTGTA CACAGTTAAA AAGGATTATA ACGAGGAATT TGAAAATCTT TTTGCTGATT 1741 GCTCTGGCCT GCTAGATTCT CTGAATCTCG GCCACCAGTC CCTTTTCCAG GAAAGGGTAC 1801 TCCACAGCCT TGATTTTTCC AGCCCAGGGC GCACTACAGC CGGGGTTGCT TTTGTGGTTT 1861 TTCTGGTTGA CAAATGGAGC CAGAACACCC AACTGAGCAG GGGCTACATT CTGGACTTCG 1921 CAGCCATGCA CCTGTGGAGG GCATGGGTCA GGCAGCGGGG ACAGAGAATC TTGAACTACT 1981 GGCTTCTACA GCCAGCAGCT CCGGGTCTTC TTCGTCTACA CAGACAAACA TCCATGTTGG 2041 AGGAAGAAAT GAGGCAGGCC ATGGACGAGA ACCCGAGGAG CGGTCTGGAC CCTCCGTCGG 2101 AAGAGGAGTT GGATTGAATC AGGTATCCAG CCTGTACCCA GAGCTTAGCA AGGTGCTGAC 2161 ATCCATGGCC AGGGGAGTGA AGAGGGAGAG GAGCGATGGG GGCAATACCG GGATGATGAC 2221 CGAGCTGACG GCCAGTCTGA TGAATCGCAA GCGCCCAGAG CGCCTTACCT GGTACGAGCT* 2281 ACAGCAGGAG TGCAGGGATG AGTTGGGCCT GATGCAGGAT AAATATGGCC TGGAGCAGAT 2341 AAAAACCCAT TGGTTGAACC CAGATGAGGA TTGGGAGGAG GCTATTAAGA AGTATGCCAA 2 01 GATAGCCCTG CGCCCAGATT GCAAGTACAT AGTGACCAAG ACCGTGAATA TCAGACATGC 2461 TGCTACATCT CGGGGAACGG GGCAGAGGTG GTCATTGATA CCCTGGACAA GGCCGCCTTT 2521 AGGTGTTGCA TGATGGGAAT GAGAGCCGGA GTGATGAATA TGAATTCCAT GATCTTTATG 2581 AACATGAAGT TCAATGGAGA GAAGTTTAAT GGGGTGCTGT TCATGGCCAA CAGCCACATG 2641 ACCCTGCATG GCTGCGACTT TTTCGGCTTT AACAATATGT GCGCAGAGGT CTGGGGCGCT 2701 TCCAAGATCA GGGGATGTAA GTTTTATGGC TGCTGGATGG GCGTGGTCGG AAGACCCAAG 2761 AGCGAGATGT CTGTGAAGCA GTGTGTGTTT GAGAAATGCT ACCTGGGAGT CTCTACCGAG 2821 GGCAATGCTA GAGTGAGGCA CTGCTCTTCC CTGGAGACGG GCTGCTTCTG CCTGGTGAAG 2881 GGCACAGCCT CTCTGAAGCA TAATATGGTG AAGGGCTGCA CGGATGAGCG CATGTACAAC 2941 ATGCTGACTG CGACTCGGGG GTCTGTCATA TCCTGAAGAA CATCCATGTG ACCTCCCACC 3001 CCAGAAAGAA GTGGCCAGTG TTTGAGAATA ACATGCTGAT CAAGTGCCAC ATGCACCTGG 3061 GCGCCAGAAG GGGCACCTTC CAGCCGTACC AGTGCAACTT TAGCCAGACC AAGCTGCTGT 3121 TGGAGAACGA TGCCTTCTCC AGGGTGAACC TGAACGGCAT CTTTGACATG GATGTCTCGG 3181 TGTACAAGAT CCTGAGATAC GATGAGACCA AGTCCAGGGT GCGCGCTTGC GAGTGCGGGG 3241 GCAGACACAC CAGGATGCAG CCAGTGGCCC TGGATGTGAC CGAGGAGCTG AGACCAGACC 3301 ACCTGGTGAT GGCCTGTACC GGGACCGAGT TCAGCTCCAG TGGGGAGGAC ACAGATTAGA 3361 GGTAGGTTTG AGTAGTGGGC GTGGCTAAGG TGACTATAAA GGCGGGTGTC TTACGAGGGT 3421 CTTTTTGCTT TTCTGCAGAC ATCATGAACG GGACCGGCGG GGCCTTCGAA GGGGGGCTTT 3481 TTAGCCCTTA TTTGACAACC CGCCTGCCAG GATGGGCCGG AGTTCGTCAG AATGTGATGG 3541 GATCGACGGT GGACGGGCGC CCAGTGCTTC CAGCAAATTC CTCGACCATG ACCTACGCGA 3601 CCGTGGGGAA CTCGTCGCTT GACAGCACCG CCGCAGCCGC GGCAGCCGCA GCCGCCATGA 3661 CAGCGACGAG ACTGGCCTCG AGCTACATGC CCAGCAGCAG CAGTAGCCCC TCTGTGCCCA 3721 GTTCCATCAT CGCCGAGGAG AACTGCTGGC CCTGCTGGCC GAGCTGGAAG CCCTGAGCCG 3781 CCAGCTGGCC GCCCTGACCC AGCAGGTGTC CGAGCTCCGC GAACAGCAGC AGCAAAATAA 3841 ATGATTCAAT AAACACATAT TCTGATTCAA ACAGCAAAGC ATCTTTATTA TTTATTTTTT 3901 CGCGCGCGGT AGGCCCTGGT CCACCTCTCC CGATCATTGA GAGTGCGGTG GATTTTTTCC 3961 AAGACCCGGT AGAGGTGGGA TTGGATGTTG AGGTACATGG GCATGAGCCC GTCCCGGGGG 4021 TGGAGGTAGC ACCACTGCAT GGCCTCGTGC TCTGGGGTCG TGTTGTAGAT GATCCAGTCA 4081 TAGCAGGGGC GCTGGGCGTG GTGCTGGATG ATGTCCTTGA GGAGGAGACT GATGGCCACG 4141 GGGAGCCCCT TGGTGTAGGT GTTGGCAAAG CGGTTGAGCT GGGAGGGATG CATGCGGGGG 4201 GAGATGATGT GCAGTTTGGC CTGGATCTTG AGGTTGGCGA TGTTGCCACC CAGATCCCGC 4261 CGGGGGTTCA TGTTGTGCAG GACCACCAGG ACGGTGTAGC CCGTGCACTT GGGGAACTTA 4321 TCATGCAACT TGGAAGGGAA TGCGTGGAAG AATTTGGAGA CGCCCTTGTG CCCGCCCAGG 4381 TTTTCCATGC ACTCATCCAT GATGATGGCG ATGGGCCCGT GGGCTGCGGC TTTGGCAAAG 4441 ACGTTTCTGG GGTCAGAGAC ATCATAATTA TGCTCCTGGG TGAGATCATC ATAAGACATT 4501 TTAATGAATT TTGGGCGGAG GGTGCCAGAT TGGGGGACGA TGGTTTCCCT CGGGCCCCGG 4561 GGCGAAGTTC CCCTCGCAGA TCTGCATCTC CCAGGCTTTC ATCTCGGAGG GGGGGATCAT 4621 GTCCACCTGC GGGGCGATGA AAAAAACGGT TTCCGGGGCG GGGGTGATGA GCTGCGAGGA 4681 GAGCAGGTTT CTCAACAGCT GGGACTTGCC GCACCCGGTC GGGCCGTAGA TGACCCCGAT 4741 GACGGGTTGC AGGTGGTAGT TCAAGGACAT GCAGCTGCCG TCGTCCCGGA GGAGGGGGGC 4801 CACCTCGTTG AGCATGTCTC TAACTTGGAG GTTTTCCCGG ACGAGCTCGC CGAGGAGGCG 4861 GTCCCCGCCC AGCGAGAGGA GCTCTTGCAG GGAAGCAAAG TTTTTCAGGG GCTTGAGTCC 4921 GTCGGCCATG GGCATCTTGG CGAGGGTCTG CGAGAGGAGT TCGAGACGTC CCAGAGCTCG 4981 GTGACGTGCT CTACGGCATC TCGATCCAGC AGACTTCCTC GTTTCGGGGG TTGGGACGAC 5041 TGCGACTGTA GGGCACGAGA CGATGGGCGT CCAGCGCGGC CAGCGTCATG TCCTTCCAGG 5101 GTCTCAGGGT CCGCGTGAGG GTGGTCTCCG TCACGGTGAA GGGGTGGGCC CCTGGCTGGG 5161 CGCTTGCAAG GGTGCGCTTG AGACTCATCC TGCTGGTGCT GAAACGGGCA CGGTCTTCGC 5221 CCTGCGCGTC GGCGAGATAG CAGTTGACCA TGAGCTCGTA GTTGAGGGCC TCGGCGGCGT 5281 GGCCCTTGGC GCGGAGCTTG CCCTTGGAAG AGCGTCCGCA GGCGGGACAG AGGAGGGATT 5341 GCAGGGCGTA GAGCTTGGGC GCAAGAAAGA CCGACTCGGG AGCAAAAGCG TCCGCTCCGC 5401 AGTGGGCGCA GACGGTCTCG CACTCGACGA GCCAGGTGAG CTCGGGCTGC TCGGGGTCAA 5461 AAACCAGTTT TCCCCCGTTC TTTTTGATGC GCTTCTTACC TCGCGTCTCC ATGAGTCTGT 5521 GTCCGCGCTC GGTGACAAAC AGGCTGTCGG TGTCCCCGTA GACGGACTTG ATTGGCCTGT 5581 CCTGCAGGGG CGTCCCGCGG TCCTCCTCGT AGAGAAACTC GGACCACTCT GAGACAAAGG 5641 CGCGCGTCCA CGCCAAGACA AAGGAGGCCA CGTGCGAGGG GTAGCGGTCG TTGTCCACCA * 5701 GGGGGTCCAC CTTTTCCACC GTGTGCAGAC ACATGTCCCC TTCCTCCGCA TCCAAGAAGG 5761 TGATTGGCTT GTAGGTGTAG GCCACGTGAC CAGGGGTCCC CGACGGGGGG GTATAAAAGG 5821 GGGCGGGTCT GTGCTCGTCC TCACTCTCTT CCGCGTCGCT GTCCACGAGC GCCAGCTGTT 5881 GGGGTAGGTA TTCCCTCTCG AGAGCGGGCA TGACCTCGGC ACTCAGGTTG TCAGTTTCTA 5941 GAAACGAGGA GGATT GATG TTGGCTTGCC CTGCCGCAAT GCTTTTTAGG AGACTTTCAT 6001 CCATCTGGTC AGAAAAGACT ATTTTTTTAT TGTCAAGCTT GGTGGCAAAG GAGCCATAGA 6061 GGGCGTTGGA GAGAAGCTTG GCGATGGATC TCATGGTCTG ATTTTTGTCA CGGTCGGCGC 6121 GCTCCTTGGC CGCGATGTTG AGCTGGACAT ATTCGCGCGC GACACACTTC CATTCGGGAA 6181 AGACGGTGGT GCGCTCGTCG GGCACGATCC TGACGCGCCA GCCGCGGTTA TGCAGGGTGA 6241 CCAGGTCCAC GCTGGTGGCC ACCTCGCCGC GCAGGGGCTC GTTAGTCCAG CAGAGTCTGC 6301 CGCCCTTGCG CGAGCAGAAC GGGGGCAGCA CATCAAGCAG ATGCTCGTCA GGGGGGTCCG 6361 CATCGATGGT GAAGATGCCG GGACAGAGTT TCTTGTCAAA ATAGTCTATT TTTGAGGATG 6421 CATCATCCAA GGCCATCTGC CACTCGCGGG CGGCCATTGC TCGCTCGTAG GGGTTGAGGG 6481 GCGGACCCCA CGGCATGGGA TGCGTGAGGG CGGAGGCGTA CATGCCGCAA ATGTCGTAAA 65 1 CATAGATGGG CTCCGAGAAG ATGCCGATGT TGGTGGGATA ACAGCGCCCC CCGCGGATGC 6601 TGGCGCGCAC GTATTCATAC AACTCGTGCG AGGGGCCAAG AAGGCCGGGG CCGAAATTGG 6661 TGCGCTGGGG CTGCTCGGCG CGGAAAACAA TCTGGCGAAA GATGGCGTGC GAGTTGGAGG 6721 AGATGGTGGG CCGTTGGAAG ATGTTAAAGT GGGCGTGGGG CAAGCGGACC GAGTCGCGGA 6781 TGAAGTGCGC GTAGGAGTCT TGCAGCTTGG CGACGAACTC GGCGGTGACG AGAACGTCCA 6841 TGGCGCAGTA GTCCAGCGTT TCGCGGATGA TGTCATAACC CGCCTCTCCT TTCTTCTCCC 6901 ACAGCTCGCG GTTGAGGGCG TATTCCTCGT CATCCTTCCA GTACTCCCGG AGCGGGAATC 6961 CTCGATCGTC CGCACGGTAA GAGCCCAGCA TGTAGAAATG GTTCACGGCC TTGTAGGGAC 7021 AGCAGCCCTT CTCCACGGGG AGGGCGTAAG CTTGTGCGGC CTTGCGGAGC GAGGTGTGCG 7081 TCAGGGCGAA GGTGTCCCTG ACCATGACTT TCAAGAACTG GTACTTGAAA TCCGAGTCGT 7141 CGCAGCCGCC GTGCTCCCAT AGCTCGAAAT CGGTGCGCTT CTTCGAGAGG GGGTTAGGCA 7201 GAGCGAAAGT GACGTCATTG AAGAGAATCT TGCCTGCTCG CGGCATGAAA TTGCGGGTGA 7261 TGCGGAAAGG GCCCGGGACG GAGGCTCGGT TGTTGATGAC CTGGGCGGCG AGGACGATCT 7321 CGTCGAAGCC GTTGATGTTG TGCCCGACGA TGTAGAGTTC CATGAATCGC GGGCGGCCTT 7381 TGATGTGCGG CAGCTTTTTG AGCTCCTCGT AGGTGAGGTC CTCGGGGCAT TGCAGGCCGT 7441 GCTGCTCGAG CGCCCATTCC TGGAGATGTG GGTTGGCTTG CATGAAGGAA GCCCAGAGCT 7501 CGCGGGCCAT GAGGGTCTGG AGCTCGTCGC GAAAGAGGCG GAACTGCTGG CCCACGGCCA 7561 TCTTTTCGGG TGTGACGCAG TAGAAGGTGA GGGGGTCCCG CTCCCAGCGA TCCCAGCGTA 7621 AGCGCGCGGC TAGATCGCGA GCAAGGGCGA CCAGCTCTGG GTCCCCCGAG AATTTCATGA 7681 CCAGCATGAA GGGGACGAGC TGCTTGCCGA AGGACCCCAT CCAGGTGTAG GTTTCTACAT 7741 CGTAGGTGAC AAAGAGCCGC TCCGTGCGAG GATGAGAGCC GATTGGGAAG AACTGGATTT 7801 CCTGCCACCA GTTGGACGAG TGGCTGTTGA TGTGATGAAA GTAGAAATCC CGCCGGCGAA 7861 CCGAGCACTC GTGCTGATGC TTGTAAAAGC GTCCGCAGTA CTCGCAGCGC TGCACGGGCT 7921 GTACCTCATC CACGAGATAC ACAGCGCGTC CCTTGAGGAG GAACTTCAGG AGTGGCGGCC 7981 CTGGCTGGTG GTTTTCATGT TCGCCTGCGT GGGACTCACC CTGGGGCTCC TCGAGGACGG 8041 AGAGGCTGAC GAGCCCGCGC GGGAGCCAGG TCCAGATCTC GGCGCGGCGG GGGCGGAGAG 8101 CGAAGACGAG GGCGCGCAGT TGGGAGCTGT CCATGGTGTC GCGGAGATCC AGGTCCGGGG 8161 GCAGGGTTCT GAGGTTGACC TCGTAGAGGC GGGTGAGGGC GTGCTTGAGA TGCAGATGGT 8221 ACTTGATTTC TACGGGTGAG TTGGTGGCCG TGTCCACGCA TTGCATGAGC CCGTAGCTGC 8281 GCGGGGCCAC GACCGTGCCG CGGTGCGCTT TTAGAAGCGG TGTCGCGGAC GCGCTCCCGG 8341 CGGCAGCGGC GGTTCCGGCC CCGCGGGCAG GGGCGGCAGA GGCACGTCGG CGTGGCGCTC 8401 GGGCAGGTCC CGGTGTTGCG CCCTGAGAGC GCTGGCGTGC GCGACGACGC GGCGGTTGAC 8461 ATCCTGGATC TGCCGCCTCT GCGTGAAGAC CACTGGCCCC GTGACTTTGA ACCTGAAAGA 8521 CAGTTCAACA GAATCAATCT CGGCGTCATT GACGGCGGGC TGACGCAGGA TCTCTTGCAC 8581 GTCGCCCGAG TTGTCCTGGT AGGCGATCTC GGACATGAAC TGCTCGATCT CCTCCTCCTG 8641 GAGATCGCCG CGACCCGCGC GCTCCACGGT GGCGGCGAGG TCATTCGAGA TGCGACCCAT 8701 GAGCTGCGAG AAGGCGCCCA GGCCGCTCTC GTTCCAGACG CGGCTGTAGA CCACGTCCCC 8761 GTCGGCGTCG CGCGCGCGCA TGACCACCTG CGCGAGGTTG AGCTCCACGT GCCGCGCGAA 8821 GACGGCGTAG TTGCGCAGGC GCTGGAAGAG GTAGTTGAGG GTGGTGGCGA TGTGCTCGGT 8881 GACGAAGAAG TACATGATCC AGCGGCGCAG GGGCATCTCG CTGATGTCGC CGATGGCCTC 8941 CAGCCTTTCC ATGGCCTCGT AGAAATCCAC GGCGAAGTTG AAAAACTGGG CGTTGCGGGC 9001 CGAGACCGTG AGCTCGTCTT CCAGGAGCCT GATGAGCTCG GCGATGGTGG CGCGCACCTC 9061 GCGCTCGAAA TCCCCGGGGG CCTCGTCCTC TTCCTCTTCT TCCATGACAA CCTCTTCTAT* 9121 TTCTTCCTCT GGGGGCGGTG GTGGTGGCGG GGCCCGACGA CGACGGCGAC GCACCGGGAG 9181 ACGGTCGACG AAGCGCTCGA TCATCTCCCC GCGGCGGCGA CGCATGGTTT CGGTGACGGC 9241 GCGACCCCGT TCGCGAGGAC GCAGCGTGAA GACGCCGCCG GTCATCTCCC GGTAATGGGG 9301 CGGGTCCCCG TTGGGCAGCG AGAGGGCGCT GACGATGCAT CTTATCAATT GCGGTGTAGG 9361 GGACGTGAGC GCGTCGAGAT CGACCGGATC GGAGAATCTT TCGAGGAAAG CGTCTAGCCA 9421 ATCGCAGTCG CAAGGTAAGC TCAAACACGT AGCAGCCCTG TGGACGCTGT TAGAATTGCG 9481 GTTGCTAATG ATGTAATTGA AGTAGGCGTT TTTGAGGCGG CGGATGGTGG CGAGGAGGAC 9541 CAGGTCCTTG GGTCCCGCTT GCTGGATGCG GAGCCGCTCG GCCATGCCCC AGGCCTGGCC 9601 CTGACACCGG CTTAGGTTCT TGTAGTAGTC ATGCATGAGC CTCTCGATGT CATCACTGGC 9661 GGAGGCGGAG TCTTCCATGC GGGTGACCCC GACGCCCCTG AGCGGCTGCA CGAGCGCCAG 9721 GTCGGCGACG ACGCGCTCGG CGAGGATGGC CTGTTGCACG CGGGTGAGGG TGTCCTGGAA 9781 GTCGTCCATG TCGACGAAGC GGTGGTAGGC CCCTGTGTTG ATGGTGTAAG TGCAGTTGGC 9841 CATGAGCGAC CAGTTGACGG TCTGCAGGCC GGGCTGCACG ACCTCGGAGT ACCTGAGCCG 9901 CGAGAAGGCG CGCGAGTCGA AGACGTAGTC GTTGCAGGTG CGCACAAGGT ACTGGTATCC 9961 GACTAGGAAG TGCGGCGGCG GCTGGCGGTA GAGCGGCCAG CGCTGGGTGG CCGGCGCGCC 10021 CGGGGCCAGG TCCTCGAGCA TGAGGCGGTG GTAGCCGTAG AGGTAGCGGG ACATCCAGGT 10081 GATGCCGGCA GCGGTGGTGG AGGCGCGCGG GAACTCGCGG ACGCGGTTCC AGATGTTGCG 10141 CAGCGGCAGG AAATAGTCCA TGGTCGGCAC GGTCTGGCCG GTGAGACGCG CGCAGTCATT 10201 GACGCTCTAG AGGCAAAAAC GAAAGCGGTT GAGCGGGCTC TTCCTCCGTA GCCTGGCGGA 10261 ACGCAAACGG GTTAGGCCGC GCGTGTACCC CGGTTCGAGT CCCCTCGAAT CAGGCTGGAG 10321 CCGCGACTAA CGTGGTATTG GCACTCCCGT CTCGACCCGA GCCCGATAGC CGCCAGGATA 10381 CGCGGGAAGA GCCCTTTTTG CCGGCCGARG GGAGTCGCTA GACTTGAAAG CGGCCGAAAA 10441 CCCCGCCGGG TAGTGGCTCG CGCCCGTAGT CTGGAGAAGC ATCGCCAGGG TTGAGTCGCG 10501 GCAGAACCCG GTTCGCGGAC GGCCGCGGCG AGCGGGACTT GGTCACCCCG CCGATTTAAA 10561 GACCCACAGC CAGCCGACTT CTCCAGTTAC GGGAGCGAGC CCCCTTTTTT CTTTTTGCCA 10621 GATGCATCCC GTCCTGCGCC AAATGCGTCC CACCCCCCCG GCGACCACCG CGACCGCGGC 10681 CGTAGCAGGC GCCGGCGCTA GCCAGCCACA GCCACAGACA GAGATGGACT TGGAAGAGGG 10741 CGAAGGGCTG GCGAGACTGG GGGCGCCTTC CCCGGAGCGA CACCCCCGCG TGCAGCTGCA 10801 GAAGGACGTG CGCCCGGCGT ACGTGCCTGC GCAAAACCTG TTCAGGGACC GCAGCGGGGA 10861 GGAGCCCGAG GAGATGCGCG ACTGCCGGTT TCGGGCGGGC AGGGAGCTGC GCGAGGGCCT 10921 GGACCGCCAG CGCGTGCTGC GCGACGAGGA TTTCGAGCCG AACGAGCAGA CGGGGATCAG 10981 CCCCGCGCGC GCGCACGTGG CGGCGGCCAA CCTGGTGACG GCCTACGAGC AGACGGTGAA 11041 GCAGGAGCGC AACTTCCAAA AGAGTTTCAA CAACCATGTG CGCACCCTGA TCGCGCGCGA 11101 GGAGGTGGCC CTGGGCCTGA TGCACCTGTG GGACCTGGCG GAGGCCATCG TGCAGAACCC 11161 GGACAGCAAG CCTCTGACGG CGCAGCTGTT CCTGGTGGTA CAGCACAGCA GGGACAACGA 11221 GGCGTTCAGG GAGGCGCTGC TAAACATCGC CGAGCCCGAG GGTCGCTGGC TGCTGGAGCT 11281 GATCAACATC TTGCAGAGCA TCGTAGTTCA GGAGCGCAGC CTGAGCTTGG CCGAGAAGGT 11341 GGCGGCAATC AACTACTCGG TGCTTAGCCT GGGCAAGTTT TACGCGCGCA AGATTTACAA 11401 GACGCCGTAC GTGCCCATAG ACAAGGAGGT GAAGATAGAC AGCTTTTACA TGCGCATGGC 11461 GCTCAAGGTG CTGACGCTGA GCGACGACCT GGGCGTGTAC CGCAACGACC GCATCCACAA 11521 GGCCGTGAGC GCGAGCCGGC GGCGCGAGCT GAGCGACCGC GAGCTGATGC TGAGCCTGCG 11581 CCGGGCGCTG GTAGGGGGCG CCGCCGGCGG CGAGGAGTCY TACTTCGACA TGGGGGCGGA 11641 CCTGCATTGG CAGCCGAGCC GGCGCGCCTT GGAGGCCGCC TACGGTCCAG AGGACTTGGA 11701 TGAGGAAGAG GAAGAGGAGG AGGATGCACC CGCTGCGGGG TACTGACGCC TCCGTGATGT 11761 GTTTTTAGAT GCAGCAAGCC CCGGACCCCG CCATAAGGGC GGCGCTGCAA AGCCAGCCGT 11821 CCGGTCTAGC ATCGGACGAC TGGGAGGCTG CGATGCAACG CATCATGGCC CTGACGACCC 11881 GCAACCCCGA GTCCTTTAGA CAACAGCCGC AGGCCAACAG ACTCTCGGCC ATTCTGGAGG 11941 CGGTGGTCCC TTCTCGGACC AACCCCACGC ACGAGAAGGT GCTGGCGATC GTGAACGCGC 12001 TGGCGGAGAA CAAGGCCATC CGTCCCGACG AGGCCGGGCT AGTGTACAAC GCCCTGCTGG 12061 AGCGCGTAGG CCGCTACAAC AGCACAAACG TGCAGTCCAA CCTGGACCGG CTGGTGACGG 12121 ACGTGCGCGA AGCCGTGGCG CAGCGCGAGC GGTTCAAGAA CGAGGGCCTG GGCTCGCTGG 12181 TGGCGCTGAA CGCCTTCCTG GCGACGCAGC CGGCGAACGT GCCGCGCGGG CAGGATGATT 12241 ACACCAACTT TATCAGCGCG CTGCGGCTGA TGGTGACCGA GGTGCCCCAG AGCGAGGTGT 12301 ACCAGTCGGG CCCGGACTAC TTTTTCCAAA CTAGCAGACA GGGCCTGCAA ACGGTGAACC 12361 TGAGCCAGGC TTTCAAGAAC CTGCGCGGGC TGTGGGGCGT GCAGGCGCCC GTGGGCGACC 12421 GGTCGACGGT GAGCAGCTTG CTGACGCCCA ACTCGCGGCT GCTGCTGCTG CTGATCGCGC 12481 CCTTCACCGA CAGTGGCAGC GTAAACCGCA ACTCGTACCT GGGTCACCTG CTAACGCTGT' 12541 ACCGCGAGGC CATAGGCCAG GCGCAGGTGG ACGAGCAGAC CTTCCAGGAG ATCACTAGCG 12601 TGAGCCGCGC GCTGGGGCAG AACGACACCG ACAGTCTGAG GGCCACCCTG AACTTCTTGC 12661 TGACCAATAG ACAGCAGAAG ATCCCGGCGC AGTACGCGCT GTCGGCCGAG GAGGAGCGCA 12721 TCCTGAGATA TGTGCAGCAG AGCGTAGGGC TTTTCCTGAT GCAGGAGGGG GCCACTCCCA 12781 GCGCCGCGCT GGACATGACC GCGCGCAACA TGGAACCTAG CATGTACGCC GCCAACCGGC 12841 CGTTTATCAA TAAGCTAATG GACTACCTGC ATCGCGCGGC GTCCATGAAC TCGGACTACT 12901 TTACCAATGC CATTTTGAAC CCGCACTGGC TTCCGCCGCC GGGGTTCTAT ACGGGCGAGT 12961 ACGACATGCC CGACCCCAAC GACGGGTTTT TGTGGGACGA CGTGGACAGC GCGGTGTTTT 13021 CACCGACCTT GCAAAAGCGC CAGGAGGCGG TGCGCACGCC CGCGAGCGAG GGCGCGGTGG 13081 GTCGGAGCCC CTTTCCTAGC TTAGGGAGTT TGCATAGCTT GCCGGGCTCT GTGAACAGCG 13141 GCAGGGTGAG CCGGCCGCGC TTGCTGGGCG AGGACGAGTA CCTGAACGAC TCGCTGCTGC 13201 AGCCGCCGCG GGTCAAGAAC GCCATGGCCA ATAACGGGAT AGAGAGTCTG GTGGACAAAC 13261 TGAACCGCTG GAAGACCTAC GCTCAGGACC ATAGGGAGCC TGCGCCCGCG CCGCGGCGAC 13321 AGCGCCACGA CCGGCAGCGG GGCCTGGTGT GGGACGACGA GGACTCGGCC GACGATAGCA 13381 GCGTGTTGGA CTTGGGCGGG AGCGGTGGGG TCAACCCGAT ATCGCGCATC CTGCAGCCCA 13441 AACTGGGGCG ACGGATGTTT TGAATGCAAA ATAAAACTCA CCAAGGCCAT AGCGTGCGTT 13501 CTCTTCCTTG TTAGAGATGA GGCGTGCGGT GGTGTCTTCC TCTCCTCCTC CCTCGTACGA 13561 GAGCGTGATG GCGCAGGCGA CCCTGGAGGT TCCGTTTGTG CCTCCGCGGT ATATGGCTCC 13621 TACGGAGGGC AGAAACAGCA TTCGTTACTC GGAGCTGGCT CCGTTGTACG ACACCACTCG 13681 CGTGTACTTG GTGGACAACA AGTCGGCGGA CATCGCTTCC CTGAACTATC AAAACGACCA 13741 CAGCAACTTC CTGACCACGG TGGTGCAGAA CAACGATTTC ACCCCCGCCG AGGCTAGCAC 13801 GCAGACGATA AATTTTGACG AGCGGTCGCG GTGGGGCGGT GATCTGAAGA CCATTCTGCA 13861 CACCAACATG CCCAATGTGA ACGAGTACAT GTTCACCAGC AAGTTTAAGG CGCGGGTGAT 13921 GGTGGCTAGA AAACACCCAC AGGGGGTAGA AGCAACAGAT TTAAGCAAGG ATATCTTAGA 13981 GTATGAGTGG TTTGAGTTTA CCCTGCCCGA GGGCAACTTT TCCGAGACCA TGACCATAGA 14041 CCTGATGAAC AACGCCATCT TGGAAAACTA CTTGCAAGTG GGGCGGCAAA ATGGCGTGCT 14101 GGAGAGCGAT ATTGGAGTCA AGTTTGACAG CAGAAATTTC AAGCTGGGCT GGGACCCTGT 14161 GACCAAGCTG GTGATGCCAG GGGTCTACAC CTACGAGGCC TTTCACCCGG ACGTGGTGCT 14221 GCTGCCGGGC TGCGGGGTGG ACTTCACAGA GAGCCGCCTG AGCAACCTCC TGGGCATTCG 14281 CAAGAAGCAA CCTTTCCAAG AGGGCTTCAG AATCATGTAT GAGGATCTAG AAGGGGGCAA 14341 CATCCCCGCC CTGCTGGATG TGCCCAAGTA CTTGGAAAGC AAGAAGAAGT TAGAGGAGGC 14401 ATTGGAGAAT GCTGCTAAAG CTAATGGTCC TGCAAGAGGA GACAGTAGCG TCTCAAGAGA 14461 GGTTGAAAAG GCAGCTGAAA AAGAACTTGT TATTGAGCCC ATCAAGCAAG ATGATACCAA 14521 GAGAAGTTAC AACCTCATCG AGGGAACCAT GGACACGCTG TACCGCAGCT GGTACCTGTC 14581 CTATACCTAC CGGGACCCTG AGAACGGGGT GCAGTCGTGG ACGCTGCTCA CCACCCCGGA 14641 CGTCACCTGC GGCGCGGAGC AAGTCTACTG GTCGCTGCCG GACCTCATGC AAGACCCCGT 14701 CACCTTCCGT TCTACCCAGC AAGTCAGCAA CTACCCCGTG GTCGGCGCCG AGCTCATGCC 14761 CTTCCGCGCC AAGAGCTTTT ACAACGACCT CGCCGTCTAC TCCCAGCTCA TCCGCAGCTA 14821 CACCTCCCTC ACCCACGTCT TCAACCGCTT CCCCGACAAC CAGATCCTCT GCCGTCCGCC 14881 CGCGCCCACC ATCACCACCG TCAGTGAAAA CGTGCCTGCT CTCACAGATC ACGGGACGCT 14941 ACCGCTGCGC AGCAGTATCC GCGGAGTCCA GCGAGTGACC GTCACTGACG CCCGTCGCCG 15001 CACCTGTCCC TACGTCTACA AGGCCCTGGG CATAGTCGCG CCGCGTGTGC TTTCCAGTCG 15061 CACCTTCTAA AAAATGTCTA TTCTCATCTC GCCCAGCAAT AACACCGGCT GGGGTATTAC 15121 TAGGCCCAGC AGCATGTACG GAGGAGCCAA GAAACGTCCC AGCAGCACCC CGTCCGCGTC 15181 CGCGGCCACT TCCGCGCTCC GTGGGGCGCT TACAAGCGCG GGCGGACTGC CACCGCCGCC 15241 GCCGTGCGCA CCACCGTCGA CGACGTCATC GACTCGGTGG TCGCCGACGC GCGCAACTAT 15301 ACTCCCGCCC CTTCGACCGT GGACGCGGTT CATTGACAGC GTGGTGGCGA CGCGGCGGCG 15361 ATATGCCAGA CGCAAGAGCC GGCGGGCGGA CGGATCGCCC AGGCGCCATT CGGAGCACGC 15421 CCGCCATGGG GCGCCGCCCG AGCTCTGCTG CGCCGCGCCA GACGCACGGG CCGCCGGGCC 15481 ATGATGCGAG CCGCGCGCCG CGCCGCCACT GCACCCCCCG CAGGCAGGAC TCGCAGACGA 15541 GCGGCCGCCG CCGCCGCCGC GGCCATCTCT AGCATGACCA GACCCAGGCG CGGAAACGTG 15601 TACTGGGTGC GCGACTCCGT CACGGGCGTG CGCGTGCCCG TGCGCACCCG TCCTCCTCGT 15661 CCCTGATCTA ATGCTTGTGT CCTCCCCCGC AAGCGACGAT GTCAAAGCGC ATCTACAAGA 15721 GAGATGCTCC AGGTCGTCGC CCCGGAGATT TACGGACCAC CCCAGGCGGA CCAGAAACCC 15781 CGCAAAATCA AGCGGGTTAA AAAAAAGGAT GAGGTGGACG AGGGGGCAGT AGAGTTTGTG 15841 CGCGAGTTCG CTCCGCGGCG GCGCGTAAAT TGGAAGGGGC GCAGGTGCAC GCGTGTTGCG 15901 GCCCGGCACG GCGGTGGTGT TCACGCCCGG CGAGCGGTCC TCGGTCAGGA GCAAGCGTAG 15961 CTATGACGAG GTGTACGGCG ACGACGACAT CCTGGACCAG GCGGCAGAGC GGGCGGGCGA 16021 GTTTGCCTAC GGGAAGCGGT CGCGCGAAGA GGAGCTGATC TCGCTGCCGC TGGACGAGAG 16081 CAATCCCACG CCGAGCCTGA AGCCCGTGAC CTGCAGCAGG TGCTGCCCCA GGCGGTGCTG 16141 CTGCCGAGCC GCGGGATCAA GCGCGAGGGC GAGAACATGT ACCCGACCAT GCAGATCATG 16201 GTGCCCAAGC GCCGGCGCGT GGAGGAAGTG CTGGACACCG TGAAAATGGA TGTGGAGCCC 16261 GAGGTCAAGG TGCGCCCCAT CAAGCAGGTG GCGCCGGGCC TGGGCGTGCA GACCGTGGAC 16321 ATTCAGATCC CCACCGACAT GGATGTCGAC AAAAAACCCT CGACCAGCAT CGAGGTGCAG 16381 ACCGACCCCT GGCTCCCAGC CTCCACCGCT ACCGCTTCCA CTTCTACCGT CGCCACGGTC 16441 ACCGAGCCTC CCAGGAGGCG AAGATGGGGC CCCGCCAACC GGCTGATGCC CAACTACGTG 16501 TTGCATCCTT CCATTATCCC GACGCCGGGC TACCGCGGCA CCCGGTACTA CGCCAGCCGC 16561 AGGCGCCCAG CCAGCAAACG CCGCCGCCGC ACCGCCACCC GCCGCCGTCT GCCCCCCGCC 16621 CGCGTGCGCC GCGTAACCAA CGCGCCGGGG CCGCTCGCTC GTTCTGCCCA CCGTGCGCTA 16681 CCACCCCAGC ATCCTTTAAT CCGTGTGCTG TGATACTGTT GCAGAGAGAT GGCTCTCACT 167 1 TGCCGCCTGC GCATCCCCGT TCCGAATTAC CGAGGAAGAT CCCGCCGCAG GAGAGGCATG 16801 GCAGGCAGCG GCCTGAACCG CCGCCGGCGG CGGGCCATGC GCAGGCGCCT GAGTGGCGGC 16861 TTTCTGCCCG CGCTCATCCC CATAATCGCG GCGGCCATCG GCACGATCCC GGGCATAGCT 16921 TCCGTTGCGC TGCAGGCGTC GCAGCGCCGT TGATGTGCGA ATAAAGCCTC TTTAGACTCT 16981 GACACACCTG GTCCTGTATA TTTTTAGAAT GGAAGACATC AATTTTGCGT CCCTGGCTCC 17041 GCGGCACGGC ACGCGGCCGT TCATGGGCAC CTGGAACGAG ATCGGCACCA GCCAGCTGAA 17101 CGGGGGCGCC TTCAATTGGA GCAGTGTCTG GAGCGGGCTT AAAAATTTCG GCTCGACGCT 17161 CCGGACCTAT GGGAACAAGG CCTGGAATAG TAGCACGGGG CAGTTGTTGA GGGAAAAGCT 17221 CAAAGACCAG AACTTCCAGC AGAAGGTGGT GGACGGCCTG GCCTCGGGCA TTAACGGGGT 17281 GGTGGACATC GCGAACCAGG CAGTGCAGCG CGAGATAAAC AGCCGTCTGG ACCCGCGGCC 17341 GCCCACGGTG GTGGAGATGG AAGATGCAAC TCTTCCGCCG CCGAAGGGCG AGAAGCGGCC 17401 GCGGCCAGAT GCGGAGGAGA CGATCCTGCA GGTGGACGAG CCGCCTTCGT ACGAGGAGGC 17461 CGTGAAGGCC GGCATGCCCA CCACGCGCAT CATCGCGCCA CTGGCCACGG GTGTAATGAA 17521 ACCCGCCACC CTTGACCTGC CTCCACCACC CACGCCCGCT CCACCGAAGG CAGCTCCGGT 17581 TGTGCAGCCC CCTCCGGTGG CGACCGCCGT GCGCCGCGTC CCCGCCCGCC GCCAGGCCCA 17641 GAACTGGCAG AGCACGCTGC ACAGTATTGT GGGCCTGGGA GTGAAAAGTC TGAAGCGCCG 17701 CCGATGCTAT TGAGAGAGAG GAAGGAGGAC ACTAAAGGGA GAGCTTAACT TGTATGTGCC 17761 TTACCGCCAG AGAACGCGCG AAGATGGCCA CCCCCTCGAT GATGCCGCAG TGGGCGTACA 17821 TGCACATCGC CGGGCAGGAC GCCTCGGAGT ACCTGAGCCC GGGTCTGGTG CAGTTTGCCC 17881 GCGCCACCGA CACGTACTTC AGCCTGGGCA ACAAGTTTAG GAACCCCACG GTGGCCCCGA 17941 CCCACGATGT GACCACGGAC CGGTCCCAGC GTCTGACGCT GCGCTTTGTG CCCGTGGATC 18001 GCGAGGACAC CAGTACTCGT ACAAGGCGCG CTTCACTCTG GCCGTGGGCG ACAACCGGGT 18061 GCTAGACATG GCCAGCACGT ACTTTGACAT CCGCGGCGTC CTGGACCGCG GTCCCAGTTT 18121 CAAACCCTAC TCGGGCACGG CTTACAACAG CCTTGCCCCC AAGGGCGCTC CCAATCCCAG 18181 TCAGTGGGTT GCCAAAGAAA ATGGTCAGGG AACTGATAAG ACACATACTT ATGGCTCAGC 18241 TGCCATGGGA GGAAGCAACA TCACCATTGA AGGTTTAGTA ATTGGAACTG ATGAAAAAGC 18301 TGAGGATGGC AAAAAAGATA TTTTTGCAAA TAAACTTTAT CAGCCAGAAC CTCAAGTAGG 18361 TGAAGAAAAC TGGCAAGAGT CTGAAGCCTT CTATGGAGGC AGAGCTCTTA AGAAAGACAC 18421 AAAAATGAAG CCCTGCTATG GCTCATTTGC AAGACCTACC AATGAAAAAG GCGGACAAGC 18481 TAAATTTAAG CCAGTGGAAG AGGGGCAGCA ACCTAAAGAT TATGACATAG ATTTGGCTTT 18541 CTTTGACACA CCTGGAGGCA CCATCACAGG AGGCACAGAC GAAGAATATA AAGCAGACAT 18601 TGTGTTGTAC ACTGAAAATG TCAACCTTGA AACCCCAGAC ACCCACGTGG TATACAAGCC 18661 AGGAAAAGAG GATGACAGTT CAGAAGTAAA TTTGACACAG CAGTCCATGC CCAACAGGCC 18721 TAACTACATT GGCTTCAGAG ACAACTTTGT GGGACTCATG TACTACAACA GTACTGGCAA 18781 CATGGGTGTG CTGGCTGGTC AGGCCTCTCA ATTGAATGCT GTGGTCGACT TGCAAGACAG 18841 AAACACCGAG CTGTCTTACC AGCTCTTGCT AGATTCTCTG GGTGACAGAA CCAGATACTT 18901 CAGCATGTGG AACTCTGCGG TGGATAGCTA TGATCCAGAT GTCAGGATCA TTGAAAATCA 18961 TGGTGTGGAA GATGAACTTC CAAACTATTG CTTCCCATTG AATGGCACTG GCACCAATTC 19021 AACATATCTT GGCGTAAAGG TGAAACCAGA TCAAGATGGT GATGTTGAAA GCGAGTGGGA 19081 TAAAGATGAT ACCATTGCAA GGCAGAATCA AATCGCCAAG GGCAACGTCT TTGCCATGGA 19141 GATCAACCTC CAGGCCAACC TGTGGAAGAG TTTTCTGTAC TCGAACGTGG CCTTGTACCT 19201 GCCCGACTCC TACAAGTACA CGCCGGCCAA TGTTACGCTG CCCGCCAACA CCAACACCTA 19261 CGAGTACATG AACGGCCGCG TGGTAGCCCC CTCGCTGGTG GACGCCTACA TCAACATAGG 19321 CGCCCGATGG TCGCTGGACC CCATGGACAA CGTCAACCCC TTCAACCACC ACCGCAATGC 19381 GGGCCTGCGC TACCGCTCCA TGCTTCTGGG CAACGGCCGC TACGTGCCCT TCCACATCCA 19441 AGTGCCCCAA AAGTTCTTTG CCATCAAGAA CCTGCTCCTG CTCCCGGGCT CCTACACCTA 19501 CGAGTGGAAC TTCCGCAAGG ATGTCAACAT GATCCTGCAG AGTTCCCTCG GCAACGACCT 19561 GCGCGTCGAC GGCGCCTCCG TCCGCTTCGA CAGCGTCAAC CTCTACGCCA CCTTCTTCCC 19621 CATGGCGCAC AACACCGCCT CCACCCTGGA AGCCATGCTG CGCAACGACA CCAACGACCA 19681 GTCCTTCAAC GACTACCTCT CGGCCGCCAA CATGCTCTAC CCCATCCCGG CCAAGGCCAC 19741 CAACGTGCCC ATCTCCATCC CCTCGCGCAA CTGGGCCGCT TTTCGCGGCT GGAGTTTCAC 19801 CCGTCTGAAA ACCAAGGAAA CTCCCTCCCT CGGCTCGGGT TTTGACCCCT ACTTTGTCTA 19861 CTCGGGCTCG ATCCCCTACC TTGACGGACC CTTTTACCTT AACCACACCT TCAAGAAAGT 19921 CTCCATCATG TTCGACTCCT CGGTCAGCTG GCCCGGCAAC GACCGGCTGC TCACGCCGAA 19981 CGAGTTCGAG ATCAAGCGCA GCGTCGACGG GGAAGGCTAC AACGTGGCCC AATGCAACAT 20041 GACCAAGGAC TGGTTCCTCG TCCAGATGCT CTCCCACTAC AACATCGGCT ACCAGGGCTT 20101 CCACGTGCCC GAGGGCTACA AGGACCGCAT GTACTCCTTC TTCCGCAACT TCCAGCCCAT 20161 GAGCAGGCAG GTGGTCGATG AGATCAACTA CAAGGACTAC AAGGCCGTCA CCCTGCCCTT 20221 CCAGCACAAC AACTCGGGCT TCACCGGCTA CCTTGCACCC ACCATGCGCC AAGGGCAGCC 20281 CTACCCCGCC AACTTCCCCT ACCCGCTCAT CGGCCAGACA GCCGTGCCAT CCGTCACCCA 20341 GAAAAGTCTC CTCTGCGACA GGGTCATGTG GCGCATCCCC TTCTCCAGCA ACTTCATGTC 20401 CATGGGCGCC TTCACCGACC TGGGTCAGAA CATGTTCTAC GCCAACTCGG CCCACGCGCT 20461 CGACATGACC TTCGAGGTGG ACCCCATGGA TGAGCCCACC GTCCTCTATC TTCTCTTCGA 20521 AGTGTTCGAC GTGGTCAGAG TGCACCAGCC GCACCGCGGC GTCATCGAGG CCGTCTACCT 20581 GCGCACGCCG TTCTCCGCCG GAAACGCCAC CACCTAAGCA TGAGCGGCTC CAGCGAAAGA 20641 GAGCTCGCGT CCATCGTGCG CGACCTGGGC TGCGGGCCTA CTTTTTGGGC ACCCACGACA 20701 CAGCGATTCC CGGGCTTTCT TGCCGGCGAC AAGCTGGCCT GCGCCATTGT CAACACGGCC 20761 GGCCGCGAGA CCGGAGGCGT GCACTGGCTC GCCTTCGGCT GGAACCCGCG CTCGCGCACC 20821 TGCTACATGT TCGACCCCTT TGGGTTCTCG GACCGCCGGC TCAAGCAGAT TTACAGCTTC 20881 GAGTACGAGG CCATGCTGCG CCGAAGCGCC GTGGCCTCTT CGCCCGACCG CTGTCTCAGC 20941 CTCGAACAGT CCACCCAGAC CGTGCAGGGG CCCGACTCCG CCGCCTGCGG ACTTTTCTGT 21001 TGCATGTTCT TGCATGCCTT CGTGCACTGG CCCGACCGAC CCATGGACGG GAACCCCACC 21061 ATGAACTTGC TGACGGGGGT GCCCAACGGC ATGCTACAAT CGCCACAGGT GCTGCCCACC 21121 CTCAGGCGCA ACCAGGAGGA GCTCTATCGC TTCCTCGCGC GCCACTCCCC TTACTTTCGC 21181 TCCCACCGCG CCGCCATCGA ACACGCCACC GCTTTTGACA AAATGAAACA ACTGCGTGTA 21241 TCTCAATAAA CAGCACTTTT ATTTTACATG CACTGGAGTA TATGCAAGTT ATTTAAAAGT 21301 CGAAGGGGTT CTCGCGCTCA TCGTTGTGCG CCGCGCTGGG GAGGGCCACG TTGCGGTACT 21361 GGTACTTGGG CTGCCACTTG AACTCGGGGA TCACCAGTTT GGGCACTGGG GTCTCGGGGA 21421 AGGTCTCGCT CCACATACGC CGGCTCATCT GCAGGGCGCC CAGCATGTCC GGGGCGGATA 21481 TCTTGAAATC GCAGTTGGGA CCGGTGCTCT GCGCGCGCGA GTTGCGGTAC ACGGGGTTGC 21541 AGCACTGGAA CACCATCAGA CTGGGGTACT TTACGCTGGC CAGCACGCTC TTGTCGCTGA 21601 TCTGATCCTT GTCCAGATCC TCGGCGTTGC TCACGCCGAA TGGGGTCATC TTGCACAGTT 21661 GGCGACCCAG GAATGGCACG CTCTGAGGCT TGTGGTTACA CTCGCAGTGC ACGGGCATCA 21721 GCATCATCCC CGCGCCGCGC TGCATATTCG GGTAGAGGCC TTGACAAAGG CCGTGATCTG 21781 CTTGAAAGCT TGTTGGGCCT TGGCCCCCTC GCTGAAAAAC AGGCCGCAGC TCTTCCCGCT 21841 GAACTGGTTA TTCCCGCACC CGGCATCCTG CACGCAGCAG CGCGCGTCAT GGCTGGTCAG 21901 TTGCACCACG CTTCTTCCCC AGCGGTTCTG GGTCACCTTG GCTTTGCTGG GTTGCTCCTT 21961 CAACGCGCGC TGCCCGTTCT CGCTGGTCAC ATCCATCTCC ACCACGTGGT CCTTGTGGAT 22021 CATCACCGTT CCATGCAGAC ACTTGAGCTG GCCTTCCACC TCGGTGCAGC CGTGATCCCA 22081 CAGGGCACTG CCGGTGCACT CCCAGTTCTT GTGCGCGATC CCGCTGTGGC TGAAGATGTA 22141 ACCTTGCAAG AGGCGACCCA TGATGGTGCT AAAGCTCTTC TGGGTGGTGA AGGTTAGTTG 22201 CAGACCGCGG GCCTCCTCGT TCATCCAGGT CTGGCACATC TTTTGGAAGA TCTCGGTCTG 22261 CTCGGGCATG AGCTTGTAAG CATCGCGCAG GCCGCTGTCG ACGCGGTAAC GTTCCATCAG 22321 CACGTTCATG GTATCCATGC CCTTTTCCCA GGACGAGACC AGAGGCAGAC TCAGGGGGTT 22381 GCGCACGTTC AGGACACCGG GGGTCKCGGG CTCGACGATA CGTTTTCCGT CCTTGCCTTC 22441 CTTCAACAGA ACCGGAGGCT GGCTGAATCC CACTCCCACA ATCACGGCAT CTTCCTGGGG 22501 CATCTCTTCG TCGGGGTCTA CCTTGGTCAC ATGCTTGGTC TTTCTGGCTT GCTTCTTTTT 22561 TGGAGGGCTG TCCACGGGGA CCACGTCCTC TCGGAAGACC CGGAGCCCAC CCGCTGATAC 22621 TTTCGGCGCT TGGTGGGCAG AGGAGGTGGC GGCGGCGAGG GGCTCCTCTC GTGCTCCGGC 22681 GGATAGCGCG CCGACCCGTG GCCCCGGGGC GGAGTGGCCT CTCGCTCCAT GAACCGGCGC 22741 ACGTCTGACT GCCGCCGGCC ATTGTTTCCT AGGGGAAGAT GGAGGAGCAG CCGCGTAAGC 22801 AGGAGCAGGA GGAGGACTTA ACCACCCACG AGCAACCCAA AATCGAGCAG GACCTGGGCT 22861 TCGAAGAGCC GGCTCGTCTA GAACCCCACA GGATGAACAG GAGCACGAGC AAGACGCAGG 22921 CCAGGAGGAG ACCGACGCTG GGCTCGAGCA TGGCTACCTG GGAGGAGAGG AGGATGTGCT 22981 GCTGAAACAC CTGCAGCGCC AGTCCCTCAT CCTCCGGGAC GCCCTGGCCG ACCGGAGCGA 23041 AACCCCCCTC AGCGTCGAGG AGCTGTGTCG GGCCTACGAG CTCAACCTCT TCTCGCCGCG 23101 CGTGCCCCCC AAACGCCAGC CCAACGGCAC CTGCGAGCCC AACCCGCGTC TCAACTTCTA 23161 TCCCGTCTTT GCGGTCCCCG AGGCCCTTGC CACCTATCAC ATCTTTTTCA AGAACCAAAA 23221 GATCCCCGTC TCCTGCCGCG CCAACCGCAC CCGCGCCGAC GCGCTCCTCG CTCTGGGGCC 23281 CGGCGCGCGC ATACCTGATA TTGCTTCCCT GGAAGAGTGC CCAAAATCTT CGAAGGGCTC 23341 GGTCGGGACG AGACGCGCGC GGCGAAACGC TCTGAAAGAA ACAGCAGAGG AAGAGGGTCA 23401 CACTAGCGCC CTGGTAGAGT TGGAAGGCGA CAACGCCAGG CTGGCCGTGC TCAAGCGCAG 23461 CGTTGAGCTC ACCCACTTCG CCTACCCCGC CGTCAACCTC CCGCCCAAGG TCATGCGTCG 23521 CATCATGGAT CAGCTAATCA TGCCCCACAT CGAGGCCCTC GATGAAAGTC AGGAGCAGCG 23581 CCCCGAGGAC ACCCGGCCCG TGGTCAGCGA TGAGCAGCTT GCGCGCTGGC TTGGTACCCG 23641 CGACCCCCAG GCCCTGGAGC AGCGGCGCAA GCTCATGCTG GCCGTGGTCC TGGTCACCCT 23701 CGAGCTCGAA TGCATGCGAC GCTTTTTCAG CGACCCCGAG ACCTGCGCAA GGTCGAGGAG 23761 ACCTGCACTA CACTTTTAGC ACGTTTCGTC AGGCAGGCAT GCAAGATCTC CAACGTGGAG 23821 CTGACCAACT GGTCTCCTGC CTGGGAATCC TGCACGAGAA CCGCCTGGGG CAGACAGTGC 23881 TCCACTCGAC CCTGAAGGGC GAGGCGCGGC GGGACTATGT CCGCGACTGC GTCTTTCTCT 23941 TTCTCTGCCA CACATGGCAA GCTGCCATGG GCGTGTGGCA GCAGTGTCTC GAGGACGAGA 24001 ACCTGAAGGA GCTGGACAAG CTTCTTGCTA GAAACCTCAA AAAGCTGTGG ACGGGCTTTG 24061 ACGAGCGCAC CGTCGCCTCG GACCTGGCCG AGATCGTCCT CCCCCGAGCG CCTGAGGCAG 24121 ACGCTGAAAG GCGGGCTGCC CGACTTCATG AGCCAGAGCA TGTTGCAAAA CTACCGCACT 24181 TTCATTCTCG AGCGATCTGG GATGCTGCCC GCCACCTGCA ACGCCTTCCC CTCCGACTTT 24241 GTCCCGCTGA GCTACCGCGA GTGTCCCCCG CCGCTGTGGA GCCACTGCTA CCTCTTGCAG 24301 CTGGCCAACT ACATCGCCTA CCACTCGGAT GTTATCGAGG ACGTGAGCGG CGAGGGGCTG 24361 CTAGAGTGCC ACTGCCGCTG CAACCTGTGC TCTCCGCACC GCTCCTGGTC TGCAACCCCC 24421 AGCTCCTGAG CGAGACCCAG GTCATCGGTA CCTTCGAGCT GCAAGGTCCG CAGGAGTCCA 24481 CCGCTCCGCT GAAACTCACG CCGGGGTTGT GGACTTCCGC GTACCTGCGC AAATTTGTAC 24541 CCGAGGACTA CCACGCCCAT GAGATAAAGT TCTTCGAGGA CCAATCGCGC CCGCAGCACG 24601 CGGATCTCAC GGCCTGCGTC ATCACCCAGG GCGCGATCCT CGCCCAATTG CACGCCATCC 24661 AAAAATCCCG CCAAGAGTTT CTTTTGAAAA AGGGTAGAGG GGTCTATCTG GACCCCCAGA 24721 CGGGCGAAGT GCTCAACCCG GGTCTCCCCC AGCATGCCGA AGAAGAACAG GAGCCGCTAG 24781 TGGAAGAGAT GGAAGAAGAA TGGGACAGCC AGCAGAAGAA GACGAATGGG AAGAAGAGAC 24841 AGAAGAAGAA GAATTGGAAA AGTGGAAGAA GAGCAGCACA GACACCGTCG CCGCACCATC 24901 CGCGCCGCAG CCCGGCGGTC ACGGATACAA CTCGCAGTCC GCCAAGCTCC TCGTAGATGG 24961 ATCGAGTGAA GGTGACGGTA AGCACGAGCG GCAGGGCTAC GAATCATGGA GGCCCACAAA 25021 GCGGGATCAT CGCCTGCTTG CAAGACTGCG GGGGGAACAT CGTTTCGCCC GCCGCTATCT 25081 GCTCTTCCAT CGCGGGGTGA ACATCCCCCG CAACGTGTTG CATTACTACC GTCACCTTCA 25141 CAGCTAAGAA AAAATCAGAG TAAGAGGAGT CGCCGGAGGA GGCNTGAGGA TCGCGGCGAA 25201 CGAGCCATTG ACCACCAGGG AGCTGAGGAA TCGGATCTTC CCCACTCTTT ATGCCATTTT 25261 TCAGCAGAGT CGAGGTCAGC AGCAAGAGCT CAAAGTAAAA AACCGGTCTC TGCGCTCGCT 25321 CACCCGCAGT TGCTTGTACC ACAAAAACGA AGATCAGCTG CAGCGCACTC TCGAAGACGC 25381 CGAGGCTCTG TTCCACAAGT ACTGCGCGCT CACTCTTAAA GACTAAGGCG CGCCCACCCG 25441 GAAAAAAGGC GGGAATTACC TCATCGCCAC CATGAGCAAG GAGATTCCCA CCCCTTACAT 25501 GTGGAGCTAT CAGCCCCAGA TGGGCCTGGC CGCGGGCGCC TCCCAGGACT ACTCCACCCG 25561 CATGAACTGG CTCAGTGCCG GCCCCTCGAT GATCTCACGG GTCAACGGGG TCCGTAACCA 25621 TCGAAACCAG ATATTGTTGG AGCAGGCGGC GGTCACCTCA ACGCCCAGGC AAAGCTCAAC 25681 CCGCGTAATT GGCCCTCCAC CCTGGTGTAT CAGGAAATCC CCGGGCCGAC TACCGTACTA 25741 CTTCCGCGTG ACGCACTGGC CGAAGTCCGC ATGACTAACT CAGGTGTCCA GCTGGCCGGC 25801 GGCGCTTCCC GGTGCCCGCT CCGCCCACAA TCGGGTATAA AAACCCTGGT GATACGAGGC 25861 AGAGGCACAC AGCTCAACGA CGAGTTGGTG AGCTCTTCAA TCGGTCTGCG ACCGGACGGA 25921 GTGTTCCAAC TAGCCGGAGC CGGGAGATCG TCCTTCACTC CCAACCAGGC TACCTGACCT 25981 TGCAGAGCAG CTCTTCGGAG CCTCGCTCCG GAGGCATCGG AACCCTCCAG TTTGTGGAGG 26041 AGTTTGTGCC CTCGGTCTAC TTCAACCCCT TCTCGGGATC GCCAGGCCTC TACCCGGACG 26101 AGTTCATACC GAACTTCGAC GCAGTGAGAG AAGCGGTGGA CGGCCACGAC TGAATGTCTT 26161 ATGGTGACTC GGCTGAGCTC GCTCGGTTGA GGCACCTAGA CCACTGCCGC CGCCTGCGCT' 26221 GCTTCGCCCG GGAGAGCTGC GGACTTATCT ACTTTGAGTT TCCCGAGGAG CACCCCAACG 26281 GCCCTGCACA CGGAGTGCGG ATCACCGTAG AGGGCACCAC CGAGTCTCAC CTGGTTAGGT 26341 TCTTCACCCA GCAACCCTTC CTGGTCGAGC GGGACCGGGG AGGCACCACC TACACCGTCT 26401 ACTGCATCTG TCCAACCCCG AAGTTGCATG AGAATTTTTG TTGTACTCTG TGTGCTGAGT 26 61 TTAATAAAAG CTAAACTCCT AC ATACTCT GGGATCCCGT GTCGTCGCAC TCGCAACAAG 26521 ACCTTCAACC TCACCAACCA GACTGAGGTA AAATTCAACT GCAGACCGGG GGACAAATAC 26581 ATCCTCTGGC TTTTTAAAAA CACTTCCTTC GCAGTCTCCA ACGCCTGCGC CAACGACGGT 26641 ATTGAAATAC CCAACAACCT TACCAGTGGA CTAACTTATA CTACCAGAAA GACTAAGCTA 26701 GTACTCTACA ATCCTTTTGT AGAGGGAACC TACCACTGCC AGAGCGGACC TTGCTTCCAC 26761 ACTTTCACTT TGGTGAACGT TACCGACAGC AGCACAGCCG CTACAGAAAC ATCTAACCTT 26821 CTTTTTGATA CTAACACTCC TAAAACCGGA GGTGAGCTCT GGGTTCCCTC TCTAACAGAG 26881 GGGGGTAAAC ATATTGAAGC GGTTGGGTAT TTGATTTTAG GGGTGGTCCT GGGTGGGTGC 26941 ATAGCGGTGC TGTATTACCT TCCTTGCTGG ATCGAAATCA AAATCTTTAT CTGCTGGGTC 27001 AGACATTGTT GGGAGGAACC ATGAAGGGGC TCTTGCTGAT TATCCTTTCC CTGGTGGGGG 27061 GTGTACTGTC ATGCCACGAA CAGCCACGAT GTAACATCAC CACAGGCAAT GAGAGGAGTG 27121 TGATATGCAC AGTAGTCATC AAATGCGAGC ATACATGCCC TCTCAACATC ACATTCAAAA 27181 ACCGTACCAT GGGAAATGCA TGGGTGGGCG ACTGGGAACC AGGAGATGAG CAGAACTACA 272 1 CGGTCACTGT CCATGGTAGC AATGGAAATC ACACTTTTGG TTTCAAATTC ATTTTTGAAG 27301 TCATGTGTGA TATCACACTG CATGTGGCTA GACTTCATGG CTTGTGGCCC CCTACCAAGG 27361 ATAACATGGT TGGGTTTTCT TTGGCTTTTG TGATCATGGC CTGTGCAATG TCAGGTCTGC 27421 TGGTAGGGGC TTTAGTGTGG TTCCTAAAGC GCAAGCCTAG GTATGGAAAT GAGGAGAAGG 27481 AAAAATTGCT ATAAATCTTT TCTCTTCGCA GAACCATGAA TACAGTGATC CGTATCGTGC 27541 TGCTCTCTCT TCTTGTAACT TTTAGTCAGG CAGGATTCAT ACCATCAATG CTACATGGTG 27601 GGCTAATATA ACTTTAGTGG GACCTCAGAT ATTCCAGATC ACATGGTATG ATAGCACTGG 27661 ATTGCAATTT TGTGATGGAA GTACAGTTAA GAATCCACAG ATCAGACATA GTTGTAATGA 27721 TCAAAACTTA ACTCTGATTC ATGTGAACAA AACCCATGAA AGAACATACA TGGGCTATAA 27781 TAAGCAGAGT ACTCATAAAG AAGACTATAA AGTCACAGTT ATACCACCTC CTCCTGTTAC 27841 TGTAAAGCCA CAACCAGAGC CAGAATATGT GTATGTTAAT ATGGGAGAGA ACAAAACCTT 27901 AGTTGGGCCT CCAGGAATTC CAGTTAGTTG GTTTAATCAG GATGGTTTAC AATTTTGCAT 27961 TGGGGATAAA GTTTTTCATC CAGAATTCAA CCACACCTGT GACATGCAAA ATCTTACACT 28021 GTTGTTTATA AATCTTACAC ATGATGGAGC TTATCTTGGT TATAATCGCC AGGGAACTGA 28081 AAGAACTTGG TATGAGGTTG TAGTGTCAGA TGGTTTTCCA AAATCAGAAG AGATGAAGGT 28141 AGAAGACCAT AGTAAAGAAA CAGAACAAAA ACAGACTGGT CAAAAACAAA GTGACCATAA 28201 GCAGGGTGGG CAAAAAGAAA CAAGTCAAAA GAAAACTAAT GACAAACAAA AGCCATCGCG 28261 CAGGAGGCCA TCTAAACTAA AGCCAAACAC ACCTGACACA AAACTAATTA CAGTCACTAG 28321 TGGGTCAAAC GTAACTTTAG TTGGTCCAGA TGGAAAGGTC ACTTGGTATG ATGATGATTT 28381 AAAAAGACCA TGTGAGCCTG GGTATAAGTT AGGGTGTAAG TGTGACAATC AAAACCTAAC 28441 CCTAATCAAT GTAACTAAAC TTTATGAGGG AGTTTACTAT GGTACTAATG ACAGAGGCAA 28501 CAGCAAAAGA TACAGAGTAA AAGTAAACAC TACTAATTCT CAAAGTGTGA AAATTCAGCC 28561 GTACACCAGG CCTACTACTC CTGATCAGAA ACACAGATTT GAATTGCAAA TTGATTCTAA 28621 TCAAGACAAA ATTCCATCAA CTACTGTGGC AATCGTGGTG GGAGTGATCG CGGGCTTTGT 28681 AACTCTAATC ATTATTTTCA TATGCTACAT CTGCTGCCGC AAGCGTCCCA GGTCATACAA 28741 TCATATGGTA GACCCACTAC TCAGCTTCTC TTACTGAAAC TCAGTCACTC TCATTTCAGA 28801 ACCATGAAGG CTTTCACAGC TTGCGTTCTG ATTAGCATAG TCACACTTAG TTCAGCTGCA 28861 ATGATTAATG TTAATGTCAC TAGAGGTGGT AAAATTACAT TGAATGGGAC TTATCCACAA 28921 ACTACATGGA CAAGATATCA TAAAGATGGA TGGAAAAATA TTTGTGAATG GAATGTTACT 28981 GCATACAAAT GCTTCAATAA TGGAAGCATT ACTATTACTG CCACTGCCAA CATTACTTCT 29041 GGCACATACA AAGCTGAAAG CTATAAAAAT GAAATTAAAA AATTAACCTA TAAAAACAAC 29101 AAAACCACAT TTGAAGATTC TGGAAATTAT GAGCATCAAA AATTATCTTT TTATATGTTG 29161 ACAATAATTG AACTGCCTAC AACCAAGGCA CCCACCACAG TTAGTACAAC TACACAGTCA 29221 ACTGTTAAGA CCACTACTCA CACTACACAG CTAGACACCA CAGTGCAGAA TAATACTGTG 29281 TTGGTTAGGT ATTTGTTGAG GGAGGAAAGT ACTACTGAAC AGACAGAGGC TACCTCAAGT 29341 GCCTTTATCA GCACTGCAAA TTTAACTTCG CTTGCTTGGA CTAATGAAAC CGGAGTATCA 29401 TTGATGCATG GCCAGCCTTA CTCAGGTTTG GATATTCAAA TTACTTTTCT GGTTGTCTGT 29461 GGGATCTTTA TTCTTGTGGT TCTTCTGTAC TTTGTCTGCT GTAAAGCCAG AAAGAAATCT 29521 AGGAGGCCCA TCTACAGGCC AGTGATTGGG GAACCTCAGC CACTCCAAGT GGATGGAGGC 29581 TTAAGGAATC TTCTTTTCTC TTTTACAGTA TGGTGATCAG CCATGATTCC TAGTTCTTCC 29641 TATTTAACAT CCTCTTCTGT CTCTTCAACA TCTGTGCTGC CTTTGCGGCA GTTTCGCACG 29701 CCTCGCCCGA CTGTCTAGGG CCTTTCCCCA CCTACTCCTC TTTGCCCTGC TCACCTGCAC 29761 CTGCGTCTGC AGCATTGTCT GCCTGGTCAT CACCTTCCTG CAGCTCATCG ACTGGTGCTG 29821 CGCGCGCTAC AATTACTTCA TCATAGTCCC GAATACAGGG ACGAGAACGT AGCCAGAATT 29881 TTAAGGCTCA TATGACCATG CAGACTCTGC TCATACTGCT ATCGCTCTTA TCCCATGCCC 29941 TCGCTACTGC TGATTACTCT AAATGCAAAT TGGCGGACAT ATGGAATTTC TTAGACTGCT 30001 ATCAGGAGAA AATTGATATG CCCTCCTATT ACTTGGTGAT TGTGGGAATA GTTATGGTCT 30061 GCTCCTGCAC TTTCTTTGCC ATCATGATCT ACCCCTGTTT TGATCTTGGA TGGAACTCTG 30121 TTGAGGCATT CACATACACA CTAGAAAGCA GTTCACTAGC CTCCACGCCA CCACCCACAC 30181 CGCCTCCCCG CAGAAATCAG TTTCCCATGA TTCAGTACTT AGAAGAGCCC CCTCCCCGAC 30241 CCCCTTCCAC TGTTAGCTAC TTTCACATAA CCGGCGGCGA TGACTGACCA CCACCTGGAC 30301 CTCGAGATGG ACGGCCAGGC CTCCGAGCAG CGCATCCTGC AACTGCGCGT CCGTCAGCAG 30361 CAGGAGCGTG CCGCCAAGGA GCTCCTCGAT GCCATCAACA TCCACCAGTG CAAGAAGGGC 30421 ATCTTCTGCC TGGTCAAACA GGCAAAGATC ACCTACGAGC TCGTGTCCAA CGGCAAACAG 30 81 CATCGCCTCA CCTATGAGAT GCCCCAGCAG AAGCAGAAGT TCACCTGCAT GGTGGGCGTC 305 1 AACCCCATAG TCATCACCCA GCAGTCGGGC GAGACCAACG GCTGCATCCA CTGCTCCTGC 30601 GAAAGCCCCG AGTGTATCTA CTCCCTTCTC AAGACCCTTT GCGGACTCCG CGACCTCCTC 30661 CCCATGAACT GATGTTGATT AAAAACCAAA AAAAACAATC AGCCCCTTCC CCTATCCCAA 30721 ATTACTCGCA AAAATAAATC ATTGGAACTA ATCATTTAAT AAAGATCACT TACTTGAAAT 30781 CTGAAAGTAT GTCTCTGGTG TAGTTGTTCA GCAGCACCTC GGTACCCTCC TCCCAACTCT 30841 GGTACTCCAG TCTCCGGCGG GCGGCGAACT TTCTCCACAC CTTGAAAGGG ATGTCAAATT 30901 CCTGGTCCAC AATTTTCATT GTCTTCCCTC TCAGATGTCA AAGAGGCTCC GGGTGGAAGA 30961 TGACTTCAAC CCCGTCTACC CCTATGGCTA CGCGCGGAAT CAGAATATCC CCTTCCTCAC 31021 TCCCCCCTTT GTCTCCTCCG ATGGATTCAA AAACTTCCCC CCTGGGGTCC TGTCACTCAA 31081 ACTGGCTGAC CCAATCACCA TAGCCAATGG TGATGTCTCA CTCAAGGTGG GAGGGGACTT 31141 ACTTTGCAAG AAGGAAGTAT GACTGTAGAC CCTAAGGCTC CCTTGCAACT TGCAAACAAT 31201 AAAAAACTTG AGCTTGTTTA TGTTGATCCA TTTGAGGTTA GTGCCAATAA ACTTAGTTTA 31261 AAAGTAGGAC ATGGATTAAA AATATTAGAT GACAAAAGTG CTGGAGGGTT GAAAGATTTA 31321 ATTGGCAAAC TTGTGGTTTT AACAGGGGAA AGGAATAGGC ACTGAAAATT TGCAAAATAC 31381 AGATGGTAGC AGCAGAGGAA TTGGTATAAG TGTAAGAGCA AGAGAAGGGT TAACATTTGA 31441 CAATGATGGA TACTTGGTAG CATGGAACCC AAAGTATGAC ACGCGCACAC TTTGGACAAC 31501 ACCAGACACA TCTCCTAATT GCAGGATTGA TAAGGAGAAG ATTCAAAACT CACTTTGGTA 31561 CTTACAAAGT GTGGAAGTCA AATATTAGCT AATGTGTCTT TGATTGTGGT GTCAGGAAAA 31621 TATCAATACA TAGACCACGC TACAAATCCA ACTCTTAAAT CATTTAAAAT AAAACTTCTT 31681 TTTGATAATA AAGGTGTACT TCTCCCAAGT TCAAACCTTG ATTCCACATA TTGGAACTTT 31741 AGAAGTGACA ATTTAACTGT ATCTGAGGCA TATAAAAATG CAGTTGAATT TATGCCTAAT 31801 TTGGTAGCCT ACCCAAAACC TACCACTGGC TCTAAAAAAT ATGCAAGGGA TATAGTCTAT 31861 GGGAACA AT ATCTTGGAGG TTTGGCATAT CAGCCAGTTG TAATTAAGGT TACTTTTAAT 31921 GAAGAAGCAG ATAGTGCTTA CTCTATAACA TTTGAATTTG TATGGAATAA AGAATATGCC 31981 AGGGTTGAAT TTGAAACCAC TTCCTTTACC TTCTCCTATA TTGCCCAACA ATAAAAGACC 32041 AATAAACGTG TTTTTTATTT CAAATTTTAT GTATCTTTAT TGATTTTTAC ACCAGCGCGA 32101 GTAGTCAATC TCCCACCACC AGCCCATTTC ACAGTGTACA CGGTTCTCTC AGCACGGTGG 32161 CCTTAAATAA GGAAATGTTC TGATTATTGC GGGAACTGGA CTTGGGGTCT ATAATCCACA 32221 CAGTTTCCTG ACGAGCCAAA CGGGGATCGG TGATTGAAAT GAAGCCGTCC TCTGAAAAGT 32281 CATCCAAGCG GGCCTCACAG TCCAGGTCAC AGTCTGGTGG AACGAGAAGA ACGCACAGAT 32341 TCATACTCGG AAAACAGGAT GGGTCTGTGC CTCTCCATCA GCGCCCTCAG CAGTCTCTGC 32401 CGCCGGGGCT CGGTGCGGCT GCTGCAAATG GGATCGGGAT CACAAGTCTC TCTAACTATG 32461 ATCCCAACAG CCTTCAGCAT CAGTCTCCTG GTGCGTCGAG CACAGCACCG CATCCTGATC 32521 TCTGCCATGT TCTCACAGTA AGTGCAGCAC ATAATCACCA TGTTATTCAG CAGCCCATAA 32581 TTCAGGGTGC TCCAGCCAAA GCTCATGTTG GGGATGATGG AACCCACGTG ACCATCGTAC 32641 CAGATGCGGC AGTATATCAG GTGCCTGCCC CTCATGAACA CACTGCCCAT ATACATGATC 32701 TCTTTGGGCA TGTTTCTGTT TACAATCTGG CGGTACCAGG GGAAGCGCTG GTTGAACATG 32761 CACCCGTAAA TGACTCTCCT GAACCACACG GCCAGCAGGG TGCCTCCCGC CCGACACTGC 32821 AGGGAGCCAG GGGATGAACA GTGGCAATGC AGGATCCAGC GCTCGTACCC GCTCACCATC 32881 TGAGCTCTTA CCAAGTCCAG GGTAGCGGGG CACAGGCACA CTGACATACA TCTTTTTAAA 32941 ATTTTTATTT CCTCTGTGGT GAGGATCATA TCCCAGGGGA CTGGAAACTC TTGGAGCAGG 33001 GTAAAGCCAG CAGCACATGG TAATCCACGG ACAGAACTTA CATTATGATA ATCTGCATGA' 33061 TCACAATCGG GCAACAGGGG ATGTTGATCA GTCAGTGAAG CCCTGGTTTC ATCATCAGAT 33121 CGTGGTAAAC GGGCCCTGCG ATATGGATGA TGGCGGAGCG AGCTGGATTG AATCTCGGTT 33181 TGCATTGTAG TGGATTCTCT TGCGTACCTT GTCGTACTTC TGCCAGCAGA AATGGGCCCT 33241 TGAACAGCAT ATACCCCTCC TGCGGCCGTC CTTTCGCTGC TGCCGCTCAG TCATCCAACT 33301 GAAGTACATC CATTCTCGAA GATTCTGGAG AAGTTCCTCT GCATCTGATG AAATAAAAAA 33361 CCCGTCCATG CGAATTCCCC TCATCACATC AGCCAGGACT CTGTAGGCCA TCCCCATCCA 33421 GTTAATGCTG CCTTGTCTAT CATTCAGAGG GGGCGGTGGC AGGATTGGAA GAACCATTTT 33481 TATTCCAAAC GGTCTCGAAG GACGATAAAG TGCAAGTCAC GCAGGTGACA GCGTTCCCCT 33541 CCGCTGTGCT GGTGGAAACA GACAGCCAGG TCAAAACCCA CTCTATTTTC AAGGTGCTCG 33601 ACCGTGGCTT CGAGCAGTGG CTCTACGCGT ACATCCAGCA TAAGAATCAC ATTAAAGGCT 33661 GGCCCTCCAT CGATTTCATC AATCATCAGG TTACATTCCT GCACCATCCC CAGGTAATTC 33721 TCATTTTTCC AGCCTTGGAT TATCTCTACA AATTGTTGGT GTAAATCCAC TCCGCACATG 33781 TTGAAAAGCT CCCACAGTGC CCCCTCCACT TTCATAATCA GGCAGACCTT CATAATAGAA 33841 ACAGATCCTG CTGCTCCACC ACCTGCAGCG TGTTCAAAAC AACAAGATTC AATAAGGTTC 33901 TGCCCTCCGC CCTGAGCTCG CGCCTCAATG TCAGCTGCAA AAAGTCACTT AAGTCCTGGG 33961 CCACTACAGC TGACAATTCA GAGCCAGGGC TAAGCGTGGG ACTGGCAAGC GTGAGGGAAA 34021 ACTTTAATGC TCCAAAGCTA GCACCCAAAA ACTGCATGCT GGAATAAGCT CTCTTTGTGT 34081 CTCCGGTGAT GCCTTCCAAA ATGTGAGTGA TAAAGCGTGG TAGTTTTTTC TTTAATCATT 34141 TGCGTAATAG AAAAGTCCTG TAAATAAGTC ACTAGGACCC CAGGGACCAC AATGTGGTAG 34 01 CTTACACCGC GTCGCTGAAA GCATGGTTAG TAGAGATGAG AGTCTGAAAA ACAGAAAGCA 34261 TGCGCTAAAC TAAGGTGGCT ATTTTCACTG AAGGAAAAAT CACTCTTTCC AGCAGCAGGG 34321 TACCCACTGG GTGGCCCTTG CGGACATACA AAAATCGGTC CGTGTGATTA AAAAGCAGCA 3 381 CAGTAAGTTC CTGTCTTCTT CCGGCAAAAA TCACATCGGA CTGGGTTAGT ATGTCCCTGG 34441 CATGGTAGTC ATTCAAGGCC ATAAATCTGC CCTGATATCC AGTAGGAACC AGCACACTCA 34501 CTTTTAGGTG AAGCAATACC ACCCCATGCG GAGGAATGTG GAAAGATTCA GGGCAAAAAA 34561 AATTATATCT ATTGCTAGCC CTTCCTGGAC GGGAGCAATC CTCCAGGACT ATCTATGAAA 34621 GCATACAGAG ATTCAGCCAT AGCTCAGCCC GCTTACCAGT AGACAAAGAG CACAGCAGTA 34681 CAAGCGCCAA CAGCAGCGAC TGACTACCCA CTGACTTAGC TCCCTATTTA AAGGCACCTT 34741 ACACTGACGT AATGACCAAA GGTCTAAAAA CCCCGCCAAA AAAACACACA CGCCCTGGGT 34801 GTTTTTGCGA AAACACTTCC GCGTTCTCAC TTCCTCGTAT CGATTTCGTG ACTTGACTTC 34861 CGGGTTCCCA CGTTACGTCA CTTTTGCCCT TACATGTAAC TTAGTCGTAG GGCGCCATCT 34921 TGCCCACGTC CAAAATGGCT TACATGTCCA GTTACGCCTC CGCGGCGACC GTTAGCCGTG 34981 CGTCGTGACG TCATTTGCAT CAACGTTTCT CGGCCAATCA GCAGTAGCCC CGCCCTAAAT 35041 TTAAAACCTC ATTTGCATAT TAACTTTTGT TTACTTTGTG GGGTATATTA TTGATGATG ATGTCAAAGAGGCTCCGGGTGGAAGATGACTTCAACCCCGTCTACCCCTA TGGCTACGCGCGGAATCAGAATATCCCCTTCCTCACTCCCCCCTTTGTCTC CTCCGATGGATTCAAAAACTTCCCCCCTGGGGTCCTGTCACTCAAACTGGC TGACCCAATCACCATAGCCAATGGTGATGTCTCACTCAAGGTGGGAGGGG GACTTACTTTGCAAGAAGGAAGTCTGACTGTAGACCCTAAGGCTCCCTTG CAACTTGCAAACAATAAAAAACTTGAGCTTGTTTATGTTGATCCATTTGAG GTTAGTGCCAATAAACTTAGTTTAAAAGTAGGACATGGATTAAAAATATT AGATGACAAAAGTGCTGGAGGGTTGAAAGATTTAATTGGCAAACTTGTGG TTTTAACAGGGAAAGGAATAGGCACTGAAAATTTGCAAAATACAGATGGT AGCAGCAGAGGAATTGGTATAAGTGTAAGAGCAAGAGAAGGGTTAACAT TTGACAATGATGGATACTTGGTAGCATGGAACCCAAAGTATGACACGCGC ACACTTTGGACAACACCAGACACATCTCCTAATTGCAGGATTGATAAGGA GAAGGATTCAAAACTCACTTTGGTACTTACAAAGTGTGGAAGTCAAATAT TAGCTAATGTGTCTTTGATTGTGGTGTCAGGAAAATATCAATACATAGACC ACGCTACAAATCCAACTCTTAAATCATTTAAAATAAAACTTCTTTTTGATA ATAAAGGTGTACTTCTCCCAAGTTCAAACCTTGATTCCACATATTGGAACT TTAGAAGTGACAATTTAACTGTATCTGAGGCATATAAAAATGCAGTTGAA TTTATGCCTAATTTGGTAGCCTACCCAAAACCTACCACTGGCTCTAAAAAA TATGCAAGGGATATAGTCTATGGGAACATATATCTTGGAGGTTTGGCATA TCAGCCAGTTGTAATTAAGGTTACTTTTAATGAAGAAGCAGATAGTGCTTA CTCTATAACATTTGAATTTGTATGGAATAAAGAATATGCCAGGGGTTGAA TTTGAAACCACTTCCTTTACCTTCTCCTATATTGCCCAACAATAA SEQ ID NO:2 Pentonl7. Seq Length : 1554 1 ATGAGGCGTG CGGTGGTGTC TTCCTCTCCT CCTCCCTCGT ACGAGAGCGT 51 GATGGCGCAG GCGACCCTGG AGGTTCCGTT TGTGCCTCCG CGGTATATGG 101 CTCCTACGGA GGGCAGAAAC AGCATTCGTT ACTCGGAGCT GGCTCCGTTG 151 TACGACACCA CTCGCGTGTA CTTGGTGGAC AACAAGTCGG CGGACATCGC 201 TTCCCTGAAC TATCAAAACG ACCACAGCAA CTTCCTGACC ACGGTGGTGC 251 AGAACAACGA TTTCACCCCC GCCGAGGCTA GCACGCAGAC GATAAATTTT 301 GACGAGCGGT CGCGGTGGGG CGGTGATCTG AAGACCATTC TGCACACCAA 351 CATGCCCAAT GTGAACGAGT ACATGTTCAC CAGCAAGTTT AAGGCGCGGG 401 TGATGGTGGC TAGAAAACAC CCACAGGGGG TAGAAGCAAC AGATTTAAGC 451 AAGGATATCT TAGAGTATGA GTGGTTTGAG TTTACCCTGC CCGAGGGCAA 501 CTTTTCCGAG ACCATGACCA TAGACCTGAT GAACAACGCC ATCTTGGAAA 551 ACTACTTGCA AGTGGGGCGG CAAAATGGCG TGCTGGAGAG CGATATTGGA 601 GTCAAGTTTG ACAGCAGAAA TTTCAAGCTG GGCTGGGACC CTGTGACCAA 651 GCTGGTGATG CCAGGGGTCT ACACCTACGA GGCCTTTCAC CCGGACGTGG 701 TGCTGCTGCC GGGCTGCGGG GTGGACTTCA CAGAGAGCCG CCTGAGCAAC 751 CTCCTGGGCA TTCGCAAGAA GCAACCTTTC CAAGAGGGCT TCAGAATCAT 801 GTATGAGGAT CTAGAAGGGG GCAACATCCC CGCCCTGCTG GATGTGCCCA 851 AGTACTTGGA AAGCAAGAAG AAGTTAGAGG AGGCATTGGA GAATGCTGCT 901 AAAGCTAATG GTCCTGCAAG AGGAGACAGT AGCGTCTCAA GAGAGGTTGA 951 AAAGGCAGCT GAAAAAGAAC TTGTTATTGA GCCCATCAAG CAAGATGATA 1001 CCAAGAGAAG TTACAACCTC ATCGAGGGAA CCATGGACAC GCTGTACCGC 1051 AGCTGGTACC TGTCCTATAC CTACCGGGAC CCTGAGAACG GGGTGCAGTC 1101 GTGGACGCTG CTCACCACCC CGGACGTCAC CTGCGGCGCG GAGCAAGTCT 1151 ACTGGTCGCT GCCGGACCTC ATGCAAGACC CCGTCACCTT CCGTTCTACC 1201 CAGCAAGTCA GCAACTACCC CGTGGTCGGC GCCGAGCTCA TGCCCTTCCG 1251 CGCCAAGAGC TTTTACAACG ACCTCGCCGT CTACTCCCAG CTCATCCGCA 1301 GCTACACCTC CCTCACCCAC GTCTTCAACC GCTTCCCCGA CAACCAGATC £& ID NO : 3 1351 CTCTGCCGTC CGCCCGCGCC CACCATCACC ACCGTCAGTG AAAACGTGCC 1401 TGCTCTCACA GATCACGGGA CGCTACCGCT GCGCAGCAGT ATCCGCGGAG 1451 TCCAGCGAGT GACCGTCACT GACGCCCGTC GCCGCACCTG TCCCTACGTC 1501 TACAAGGCCC TGGGCATAGT CGCGCCGCGT GTGCTTTCCA GTCGCACCTT 1551 CTAA

Claims: Claims A chimeric adenoviral vector comprising nucleotide sequence of a first adenovims, wherein at least one gene of said first adenovirus encoding a protein that facilitates binding of said vector to a target mammalian cell, or intemalization thereof within said cell, is replaced by the corresponding gene from a second adenovims belonging to subgroup D, said vector further comprising a transgene operably linked to a eucaryotic promoter to allow for expression therefrom in a mammalian cell. A chimeric adenoviral vector according to Claim 1 wherein said second adenovirus is selected from the group consisting of Ad 9, Ad 15, Ad 17, Ad 19, Ad 20, Ad 22, Ad 26, Ad 27, Ad 28, Ad 30, and Ad 39. 3. A chimeric adenoviral vector according to Claim 1 wherein said first adenovirus is selected from the group consisting of Ad 2, Ad 5, and Ad 12. 4. A chimeric adenoviral vector according to Claim 1 wherein said replaced gene encodes Ad fiber. 5. A chimeric adenoviral vector according to Claim 1 wherein said replaced gene encodes Ad penton base. 6. A chimeric adenoviral vector according to Claim 1 wherein a first replaced gene encodes Ad fiber, and a second replaced gene encodes Ad penton base. 7. A chimeric adenoviral vector comprising nucleotide sequence of a first adenovims, wherein a portion of a gene thereof encoding a protein that facilitates binding of said vector to a target mammalian cell, or intemalization thereof within said cell, is replaced by a portion of the corresponding gene from a second adenovirus belonging to subgroup D, said vector further comprising a transgene operably linked to a eucaryotic promoter to allow for expression therefrom in a mammalian cell. 8. A chimeric adenoviral vector according to Claim 7 wherein the encoding sequence that is replaced codes for a portion of Ad fiber. 9. A chimeric adenoviral vector according to Claim 7 wherein the encoding sequence that is replaced codes for a portion of Ad penton base. 10. A chimeric adenoviral vector according to Claim 9 wherein the encoding sequence that is replaced codes for an amino acid sequence that includes RGD. 11. A method of providing a biologically active protein to the airway epithelial cells of a patient comprising administering to said cells an adenoviral vector selected from the group consisting of: (a) a chimeric adenoviral vector comprising nucleotide sequence of a first adenovims, wherein at least one gene of said first adenovims encodes a protein that facilitates binding of said vector to a target mammalian cell, or intemalization thereof within said cell, is replaced by the corresponding gene from a second adenovims belonging to subgroup D, said vector further comprising a transgene encoding said protein that is operably linked to a eucaryotic promoter to allow for expression therefrom in a mammalian cell; and (b) a chimeric adenoviral vector comprising nucleotide sequence of a first adenovims, wherein a portion of a gene thereof encoding a protein that facilitates binding of said vector to a target mammalian cell, or intemalization thereof within said cell, is replaced by a portion of the corresponding gene from a second adenovirus belonging to subgroup D, said vector further comprising a transgene encoding said protein that is operably linked to a eucaryotic promoter to allow for expression therefrom in a mammalian cell; under conditions whereby the transgene encoding said protein is expressed, and phenotypic benefit is produced in said airway epithelial cells. 12. A method according to Claim 11 wherein said second adenovims is Ad 17 and the nucleotide sequence thereof used in replacement of nucleotide sequence of said first adenovims encodes a polypeptide selected from the group consisting of Ad 17 fiber, a fragment of Ad 17 fiber, Ad 17 hexon, a fragment of Ad 17 hexon, Ad penton base, and a fragment of Ad 17 penton base. 13. A method of providing a biologically active protein to the airway epithelial cells of a patient that comprises administering to said cells an adenoviral vector comprising elements of an Ad 17 genome, and a transgene encoding said protein that is operably linked to a eucaryotic promoter to allow for expression therefrom in a mammalian cell, under conditions whereby the transgene encoding said protein is expressed, and phenotypic benefit is produced in said airway epithelial cells.

Inventors: ARMENTANO DONNA E, GREGORY RICHARD J, SMITH ALAN E, ARMENTANO, DONNA, E., GREGORY, RICHARD, J., SMITH, ALAN, E.
Applicants: ARMENTANO DONNA E, GENZYME CORP, GREGORY RICHARD J, SMITH ALAN E, ARMENTANO, DONNA, E., GENZYME CORPORATION, GREGORY, RICHARD, J., SMITH, ALAN, E.
Application year: 1997
Main classification: C12N15
IPC codes: A61K48, C07K14, C12N15