US20080032408A1

US20080032408A1 - Tag Nucleic Acids and Probe Arrays

Info

Publication number: US20080032408A1
Application number: US11/562,548
Authority: US
Inventors: Michael Mittmann; Macdonald Morris; Thomas B. Ryder; David Lockhart
Original assignee: Affymetrix Inc
Current assignee: Affymetrix Inc
Priority date: 2000-04-06
Filing date: 2006-11-22
Publication date: 2008-02-07
Also published as: US7157564B1

Abstract

The invention provides a unique set of nucleic acid sequences which is appropriate for use for a wide variety of applications requiring nucleic acid tags. As such, the sequence tags of the presently claimed invention may be used, for example, to label biological and nonbiological materials, in genotyping applications and in a variety of other analyses.

Description

PRIORITY CLAIM

This application claims priority of U.S. Provisional Application 60/195,585 filed Apr. 6, 2000 entitled “Tag Nucleic Acids and Probe Arrays”, which is incorporated herein by reference for all purposes in its entirety.

FIELD OF THE INVENTION

This invention provides sets of nucleic acid tags, arrays of oligonucleotide probes, nucleic acid-tagged sets of recombinant cells and other compositions. The invention relates to the selection and interaction of nucleic acids, and nucleic acids immobilized to solid substrates, including related chemistry, biology, and medical diagnostic uses.

BACKGROUND OF THE INVENTION

The use of short nucleic acid sequences as “tags” to identify specific biological substances in a sample is known. For example, tags may be used as a method of or as labels for a wide variety of biological and nonbiological materials, see, for example, Dollinger, The Polymerase Chain Reaction pp. 265-274 Mullis et al., editors (Birkhauser, Boston, 1994) or as a method of screening complex chemical libraries. See, for example, Alper, Science, 264: 1399-1401 (1994); and Needels et al. PNAS 90, 10700-10704 (1993). See also U.S. Pat. Nos. 4,359,353, 4,441,943, 5,451,505 and 5,654,413.
There is great necessity for sets of tag sequences which are known to hybridize effectively to their complementary probe sequences with minimal cross-hybridization between the different tag sequences. The presently claimed invention provides sets of tag sequences, tag sequence kits, and methods of using tag sequences which fulfill these requirements.

SUMMARY OF THE INVENTION

The presently claimed invention provides 2050 unique sequences which have been specifically chosen according to strict criteria to produce sequences suitable for a wide variety of “tagging” applications. These sequences are provided as SEQ ID NOs 1-2050.
In one embodiment, some or all of SEQ ID Nos 1-2050 comprise tag sequences. In a further embodiment, some or all of SEQ ID Nos 1-2050 comprise tag-probe sequences. In a further embodiment, the tag-probe sequences are immobilized to a solid support.
The unique sequences of the presently claimed invention may be used alone or in combinations of 10 or more, 100 or more, 200 or more, 500 or more, 1000 or more, 1500 or more, or 2000 or more as nucleic acid tags and/or tag-probes.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG. 1 shows a plot of the discrimination score and the signal intensity for 2200 candidate sequences.

FIG. 2 shows an example of the sequences attached to each of the four array features representing a given tag sequence. Four features, organized vertically on the probe array, represent each tag-probe.

FIG. 3 shows the array features from an array designed to probe for the tag sequences of the presently claimed invention. For each of the four tag-probes shown, arranged horizontally across the array, the brightest hybridization signal is seen with the “PM” feature.

FIG. 4 is a scanned image of the hybridization patterns resulting from the hybridization of 2050 different probes containing regions complementary to the SEQ ID Nos 1-2050 to an array comprised of tag-probes corresponding to SEQ ID Nos 1-2050.

FIG. 5 is a scanned image of the hybridization patterns resulting from the hybridization of 50 different probes containing regions complementary to SEQ ID Nos 2001-2050 to an array identical to the array depicted in FIG. 4.

FIG. 6 shows signal intensities from two different independent experiments in which 2000 biotinylated oligonucleotide tags or 50 fluorescein labeled control oligonucleotides were hybridized to arrays designed as described above.

FIG. 7 shows the PM/MM ratios from the data described in FIG. 4 above.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS

I. Definitions

As used herein, certain terms may have the following defined meanings.
As used in the specification and claims, the singular forms “a”, “an” and “the” include plural references unless the context clearly dictates otherwise. For example, the term “an array” may include a plurality of arrays unless the context clearly dictates otherwise.
An “array” represents an intentionally created collection of molecules which can be prepared either synthetically or biosynthetically. In particular, the term “array” herein means an intentionally created collection of polynucleotides attached to at least a first surface of at least one solid support wherein the identity of each polynucleotide at a given predefined region is known. The terms “array,” “biological chip” and “chip” are used interchangeably.
The array of molecules can be screened for biological activity in a variety of different formats (e.g., libraries of soluble molecules, libraries of compounds tethered to resin beads, fibers, silica chips, or other solid supports). The fabrication of polynucleotide arrays on a solid substrate, and methods of use of the arrays in different assays, are described in U.S. Pat. Nos.: 5,143,854, 5,242,979, 5,252,743, 5,324,663, 5,384,261, 5,405,783, 5,412,087, 5,424,186, 5,445,934, 5,451,683, 5,482,867, 5,489,678, 5,491,074, 5,510,270, 5,527,681, 5,550,215, 5,571,639, 5,593,839, 5,599,695, 5,624,711, 5,631,734, 5,677,195, 5,744,101, 5,744,305, 5,744,992, 5,753,788, 5,770,456, 5,831,070, 5,856,011, 6,040,138 and 6,040,193 all of which are incorporated by reference herein in their entireties for all purposes. See also, U.S. Ser. Nos. 09/079,324, 09/122,216, and PCT Application WO US99/00730 each of which is incorporated by reference herein in its entirety for all purposes. Preferred arrays contemplated by the presently claimed invention have the probe densities as described in the above referenced patents. For example, the '305 patent discloses 100, 400, 1,000 and 10,000 probes/cm². “Solid support,” “support,” and “substrate” refer to a material or group of materials having a rigid or semi-rigid surface or surfaces. In many embodiments, at least one surface of the solid support will be substantially flat, although in some embodiments it may be desirable to physically separate synthesis regions for different compounds with, for example, wells, raised regions, pins, etched trenches, or the like. According to other embodiments, the solid support(s) will take the form of beads, resins, gels, microspheres, fibers or other geometric configurations.
A “discrete, known location” refers to a localized area on a solid support which is, was, or is intended to be used for placement or fabrication of a selected molecule and is otherwise referred to herein in the alternative as a “selected” region. The discrete, known location may have any convenient shape, e.g., circular, rectangular, elliptical, wedge-shaped, etc. For the sake of brevity herein, “discrete, known locations” are sometimes referred to as “predefined regions,” “regions,” or “features.” In some embodiments, a discrete, known location and, therefore, the area upon which each distinct compound is synthesized is smaller than about 1 cm or even less than 1 mm². In additional embodiments, a discrete, known location can be achieved by physically separating the regions (i.e., beads, fibers, resins, gels, etc.) into wells, trays, etc.
As used herein, a “polynucleotide” is a sequence of two or more nucleotides. Polynucleotides of the present invention include sequences of deoxyribonucleic acid (DNA) or ribonucleic acid (RNA) which may be isolated from natural sources, recombinantly produced, or artificially synthesized. A further example of a polynucleotide of the present invention may be polyamide polynucleotide or peptide nucleic acid (PNA). This invention also encompasses situations in which there is nontraditional base pairing such as Hoogsteen base pairing which has been identified in certain tRNA molecules and postulated to exist in a triple helix. “Polynucleotide” is used interchangeably with “oligonucleotide” is this application.
The terms “nucleotide” and “nucleic acid base” include deoxynucleotides and analogs thereof. These analogs are those molecules having some structural features in common with a naturally occurring nucleotide such that when incorporated into a polynucleotide sequence, they allow hybridization with a complementary polynucleotide in solution. Typically, these analogs may have one or more modified bases, as well as modified forms of ribose and phosphodiester moieties. The changes can be tailor made to stabilize or destabilize hybrid formation, enhance the specificity of hybridization with a complementary polynucleotide sequence as desired, or enhance stability of the polynucleotide.
The terms “nucleic acid,” “nucleic acid molecule,” or “nucleic acid sequence,” refer to a deoxyribonucleotide or ribonucleotide polymer in either single-or double-stranded form, and unless otherwise limited, would encompass analogs of natural nucleotides that can function in a similar manner as naturally occurring nucleotides. Nucleic acids may be derived from a variety or sources including, but not limited to, naturally occurring nucleic acids, clones, synthesis in solution or solid phase synthesis.
As used herein a “probe” is defined as a nucleic acid capable of binding to a target nucleic acid of complementary sequence through one or more types of chemical bonds, usually through complementary base pairing, usually through hydrogen bond formation. As used herein, a probe may include natural (i.e. A, G, U, C, or T) or modified bases (7-deazaguanosine, inosine, etc.). In addition, the bases in probes may be joined by a linkage other than a phosphodiester bond, so long as it does not interfere with hybridization. Thus, probes may be peptide nucleic acids in which the constituent bases are joined by peptide bonds rather than phosphodiester linkages.
The term “target nucleic acid” or “target sequence” refers to a nucleic acid or nucleic acid sequence which is to be analyzed. A target can be a nucleic acid to which a probe will hybridize. The probe may or may not be specifically designed to hybridize to the target. It is either the presence or absence of the target nucleic acid that is to be detected, or the amount of the target nucleic acid that is to be quantified. The term target nucleic acid may refer to the specific subsequence of a larger nucleic acid to which the probe is directed or to the overall sequence (e.g., gene or mRNA) whose expression level it is desired to detect. The difference in usage will be apparent from context.
The term “hybridization” refers to the process in which two single-stranded polynucleotides bind non-covalently to form a stable double-stranded polynucleotide; triple-stranded hybridization is also theoretically possible. The resulting (usually) double-stranded polynucleotide is a “hybrid.” The proportion of the population of polynucleotides that forms stable hybrids is referred to herein as the “degree of hybridization.” Hybrids can contain two DNA strands, two RNA strands, or one DNA and one RNA strand.
Methods for conducting polynucleotide hybridization assays have been well developed in the art. Hybridization assay procedures and conditions will vary depending on the application and are selected in accordance with the general binding methods known including those referred to in: Molecular Cloning, A Laboratory Manual, Second Ed., J. Sambrook et al., Eds., Cold Spring Harbor Laboratory Press, 1989 (“Sambrook et al.”); Berger and Kimmel, “Methods in Enzymology,” Vol. 152, “Guide to Molecular Cloning Techniques”, Academic Press, Inc., San Diego, Calif., 1987; Young and Davis, Proc. Natl. Acad. Sci., U.S.A., 80:1194 (1983), each of which are incorporated herein by reference.
It is appreciated that the ability of two single stranded polynucleotides to hybridize will depend upon factors such as their degree of complementarity as well as the stringency of the hybridization reaction conditions.
As used herein, “stringency” refers to the conditions of a hybridization reaction that influence the degree to which polynucleotides hybridize. Stringent conditions can be selected that allow polynucleotide duplexes to be distinguished based on their degree of mismatch. High stringency is correlated with a lower probability for the formation of a duplex containing mismatched bases. Thus, the higher the stringency, the greater the probability that two single-stranded polynucleotides, capable of forming a mismatched duplex, will remain single-stranded. Conversely, at lower stringency, the probability of formation of a mismatched duplex is increased.
A nucleic acid “tag” is a selected nucleic acid with a specified nucleic acid sequence. A nucleic acid “probe” hybridizes to a nucleic acid “tag.”
A nucleic acid “tag-probe” is a specific sequence capable of hybridizing to a specific “tag.” Typically, the “tag-probe” is the complement or a partial complement of the “tag.” In one typical configuration, nucleic acid tags are incorporated as labels into biological libraries, and the tag nucleic acids are detected using a microarray.
Throughout this disclosure, various aspects of this invention are presented in a range format. It should be understood that the description in range format is merely for convenience and brevity and should not be construed as an inflexible limitation on the scope of the invention.
Accordingly, the description of a range should be considered to have specifically disclosed all the possible sub-ranges as well as individual numerical values within that range. For example, the description of a range such as 4 to 50 should be considered to have specifically disclosed all integers within the sub-ranges such as 4 to 10, 4 to 20, 4 to 30, 4 to 40, 4 to 50, 5 to 10, 5 to 20 etc., as well as individual numbers within that range, for example, 6, 8, 15, 20, 32, 39, 43, 48 etc. This applies regardless of the breadth of the range. Likewise, a description of a range such as 1 or more, 10 or more, 10³or more, 10⁶or more, or 10¹²or more should be considered to have specifically disclosed individual numbers within that range as well as higher numbers, for example, 20, 2×10⁴, 3×10⁸, 4×10¹⁵, 5×10¹⁸, etc.
Various patents, patent applications and publications are referenced throughout the specification, unless otherwise indicated, each is incorporated by reference in its entirety for all purposes.

II. General

The presently claimed invention provides 2050 unique sequences which have been specifically chosen according to strict criteria to produce sequences suitable for a wide variety of “tagging” applications. These sequences are provided as SEQ ID NOs 1-2050.
In one embodiment, some or all of SEQ ID Nos 1-2050 comprise tag sequences. In a further embodiment, some or all of SEQ ID Nos 1-2050 comprise tag-probe sequences. In a further embodiment, the tag-probe sequences are immobilized to a solid support.
An initial set of 2200 20 mer sequences was selected with closely matched melting temperatures. A further filter based on rules such as those described in U.S. Provisional Patent Application 60/176,520 was applied to optimized and standardize the hybridization characteristics of the set. Finally, sequences were removed if they were identical or nearly identical to each other or to sequences in the public databases. This reduced the pool of candidate sequences to 2200. The hybridization performance of the entire set of 2200 candidate sequences was evaluated. Labeled oligonucleotides complementary to the candidate sequences were synthesized and hybridized to an array containing probes designed to analyze the performance of all 2200 candidate sequences. The array contained four different sequences to interrogate each candidate sequence. A probe designed to be the perfect match complement to the candidate sequence (PM), a probe designed to have a central mismatch at position 10 (MM), and probes designed to be the complements to the PM and MM probes (cPM and cMM respectively).
FIG. 1 shows a plot of the discrimination score and the signal intensity for all 2200 sequences. A line was fitted to select the 2050 sequences with the highest discrimination and signal intensity. These 2050 sequences are SEQ ID Nos. 1-2050.
In one embodiment of the invention, the sequences of the presently claimed invention are tag-probes attached to a solid support. Methods of immobilizing presynthesized sequences and synthesizing sequences de novo on solid supports are known. See for example, U.S. Pat. Nos.: 5,143,854, 5,242,979, 5,252,743, 5,324,663, 5,384,261, 5,405,783, 5,412,087, 5,424,186, 5,445,934, 5,451,683, 5,482,867, 5,489,678, 5,491,074, 5,510,270, 5,527,681, 5,550,215, 5,571,639, 5,593,839, 5,599,695, 5,624,711, 5,631,734, 5,677,195, 5,744,101, 5,744,305, 5,753,788, 5,770,456, 5,831,070, 5,856,011, 5,744,992, 6,040,138, 6,040,193, U.S. Ser. Nos. 09/079,324, 09/122,216, and PCT Application WO US99/00730.
In this and other embodiments it is often useful to provide control probes. As one example, SEQ ID Nos. 1-2000 may comprise the tag-probes and SEQ ID Nos. 2001-2050 may comprise the control probes. In a preferred embodiment, the control probes are representative of the population with respect to observed signal intensities and discrimination. In a further preferred embodiment, tag sequences with relatively low signals may be over-represented in the control sequences so as to increase information about the sensitivity of experiments at the lower limit of detection.

METHODS OF USE

The use of short nucleic acid sequences as “tags” to identify specific biological substances in a sample is known. For example, tags may be used as a method of or as labels for a wide variety of biological and nonbiological materials, see, for example, Dollinger, The Polymerase Chain Reaction pp. 265-274 Mullis et al., editors (Birkhauser, Boston, 1994) or as a method of screening complex chemical libraries. See, for example, Brenner and Lerner, PNAS 89, 5281-5383 (1992); Alper, Science, 264: 1399-1401 (1994); and Needels et al. PNAS 90, 10700-10704 (1993). See also U.S. Pat. Nos. 4,359,353, 4,441,943, 5,451,505, 5,149,625, 5,654,413 and 5,800,992.
In addition to those applications above, the presently claimed sequences are suitable to be employed for any of the methods described in U.S. patent application Ser. No. 08/626,285 (filed Apr. 4, 1996), including as a method of analysis of genomic DNA. For example, as described in the '285 application, tag arrays may be used to identify the function of identified open reading frames (ORFs) by creating deletion mutants for each ORF and analyzing the resulting deletion mutants under a wide variety of selective conditions.
U.S. Provisional Patent Application No. 60/140,359 (filed Jun. 23, 1999) described methods of using tag arrays and the single base extension reaction for genotyping and other types of biological analysis. A set of tags and a tag array derived from Seq. ID Nos. 1-2000 and their complements are suitable to be used for the methods described in this application. Briefly, the '359 application describes methods of determining the genotype of an individual at a polymorphic locus or the frequency of alleles in a population. One embodiment of the method involves three step: (1) amplification of the polymorphic locus, (2) primer extension of a sequence-tagged primer with distinct labels for different polynucleotides at the polymorphic locus, and (3) hybridization to a tag array. The amount of each distinct label can be determined at known positions of the tag array. Each tag represents a distinct polymorphic locus and each distinct label represents a distinct allelic form at the polymorphic locus. The method permits the simultaneous determination of a genotype at multiple loci, as well as the determination of allele frequencies in a population. Another embodiment employs just steps (2) and (3).
Table 1, below, lists the sequences of the presently claimed invention. Column 1 lists the sequence ID number corresponding to each sequence. Column 2 lists the sequences in the 3′ to 5′ direction.

TABLE I

Seq. Id	3′ to 5′ sequence

1	TAAACTAGCATTGAGCCCAC

2	AAATCAGCAAACGGGCTCCG

3	GAATTGATAATCGCAGCCAC

4	GATATAGGAATGGCGCATAC

5	CTCATCGGAAGGGCTCGTAA

6	ACAGATGGAAAGGCAGTTCT

7	TTTGGTAGCTGAGTGCCCTA

8	TAACTGGTTTGACGCCACGC

9	TAATTGAGCTGACGGCGCAC

10	TTGTTGCTACTCTGGCCCGA

11	TTCCGTGCATAGTATAGGGA

12	TTATGCGACTTATCTCGGGA

13	TGTATAGGATTATGTCCGCG

14	CTGCTAGGAATATGAGCTAC

15	CTTCTGTCAATATGGGTACG

16	TATTTCGAGATATGAGGCGC

17	TTGATCGTAGATTCGTGAGC

18	CGAGATTACAATTCACGAGC

19	TGGTGTCTAGCTTCCAGCCT

20	TGAGGTCACGGTTCATGCTA

21	TGGTTACTGGTATATGCCGC

22	CCGAGTGCAGAATAAACCCG

23	GCGGTCTCAATACAAACTCA

24	GAAGCTACCATACGCGAGCA

25	ACGGGATAACAACGCAGCCT

26	AGAAGATCAACAGCTCGTCC

27	ATAAGATCAAGACCTGTGCC

28	ATTAGATTAAGACCAGCGCC

29	ATATAATCAAGACTGGCGCG

30	AGCATATAACCACTGATCCG

31	ACACTATTAAAGCTGCTCCG

32	CAATGTATAAGACTCTCGCC

33	CACTAATTCAGACGAAGCCG

34	GACCCTATCAGACAGATGCA

35	CACGCATCAAGACAGTATCG

36	CAGCTCCTAAGACTTGGACA

37	GGTATCATAGGACATTCGCA

38	GGTTACATGGATATAGCACC

39	TGTGTTTCAGCTATGCAGGC

40	TAATTCGCTGCAACCAGATC

41	ATAATTCCAACATGGGAGCC

42	CATTGCTTAATATGGGAGCC

43	CAATGCTTAATACCGACACG

44	GATTGCTTAGACCCTGCACG

45	GATTCATTAGACCAGGCGCT

46	GATTCTACATGCCACTAGCA

47	CCTGCGAACTGGCCTGAATA

48	CGCAGCGGAAGGCTCAATAA

49	CCTACCGCAAGGCAGGATAA

50	CCTATGATAAGGCACGCACA

51	CGCTGTGCAAGGCTCGTATA

52	CGATTGTCAAGGCAGTGATA

53	CATTGCGAACTGCATCTAAC

54	GATAGTCCAATGCTACTGAC

55	GATTCGGTAATGCGCTGTAA

56	GACGTTTCAATGCAGCGTAA

57	GAGAGTGCAATGCCGACTAA

58	GAGATCCGAATGCGCGTACT

59	CGAGATCCAAGGCCCATGAT

60	AGCTTGCACAGTAACCATGA

61	AGAGTTGAACAGCATACCCT

62	TATCTGATCGGACGGCCAGT

63	TATTGACTACTGCGCCTCAG

64	TTGGACTATTGGGTATCGCC

65	TTGTCAGATTGGATGCGCTC

66	TATGCAGAATGGCGTGTATC

67	CATTGGATAAGCACTGATCG

68	CCCGGAATAAGGCCACGATA

69	CTCATAGAATGGACCAGATC

70	CATAGATTAAGCACTCAGCC

71	CATGATGTAAGCACGCTACC

72	CAGGAGCGAAGCAGATACTC

73	CAGAGCAGAAGCACTCACGT

74	TACATAGGCTTCAGCATCAC

75	TATTATACCTTGATCCGCGC

76	TAAACTGCTTGCATACGGCG

77	TATAAGCCTTGCAGCGGACC

78	TTTAAGCGGTGGATCTAGCT

79	TTAATAGCCTTGAGCAGCGA

80	ATAAATGCTTGGAACCCTCG

81	GAAAGTTCATGGAATCGAGC

82	GCAAGGATTTCGACTCAGAC

83	CAAAGAATAATCGCTCCTCG

84	TAAAGCACTTATGACTCGGC

85	TTATAGCATTCTGTAGGCGC

86	TCGCTGACATTTGATTAGCC

87	CCTTGAATAATATCTCGGCC

88	AGGTCCAGAAATTGCTGCAC

89	AGCTCAGGAAATTCTAGCGA

90	AGCTATGCAAATTAGAGGCC

91	GGTAGGCTAATTTATGGCAC

92	CTAATGCAATTCAATGCCGC

93	CAACTGGCAATCAATACGCT

94	CCAAGCGAATGCAACGTATC

95	GCATAGCGAATTGGAGATAC

96	GCATGTCGAATGGATGATAC

97	GCACGTTCAATGGCTCGACT

98	GCAGCGCAATCTGTCGAGTA

99	AGCAGTGCAAATCCTGATAC

100	AGCTTCGCAAATCTGGTACA

101	AGCCTGCGAAATCTACTGAA

102	GCAGATCGAATTATGGAGAC

103	GCAGAGTCAATTATCATGCC

104	CGTTAGGCAATACATTTCCC

105	ACTGGTGCAAAGTCTTCGAC

106	GGTATATGAATGTGTCGTCC

107	GATAGTGCAATCTAGGTGAC

108	GCAGTGCAATGGATGTACTA

109	GCTAGGCTAATGTCCGGCTA

110	GGTAGCCTAATGTGTGCTCA

111	GGACGTGCAATCTTGTGACC

112	GAGCGCCGAATCTAGTCGAA

113	GGGAGCGACCTCTAGCTTAT

114	GCGGGTCGAATCTCGCTTAA

115	CGCCGCGCAAGCTGTATTAA

116	CGGCTGCGAAGCTGTCTTAA

117	CATCCGCTAAGATCGGTTAA

118	CGTGCAGCATAATCCATCAG

119	TGAGAGCTGGATCGCATTCC

120	TAGGTGCTAGGATCTCAGCC

121	TAGGTATCAGGATTCAGGCC

122	TGCGCCAGTGAGTCGTATAT

123	CAGCAACGTGGATCAACTAT

124	CAGCGGCTAAGATCAATACC

125	GCAGCCTAATCTGGCCTAGT

126	GGGCCTGTACCTGCAATTCA

127	TAGGCCGGACCTGCTGTTAT

128	TAAGCCGCCACGGAGTGTTA

129	TAAGGCTCTTGAGACGTAGT

130	TAAGCCCGATCAGCATGGAC

131	TTGCCCGTAGTCAGCTTAGA

132	GAAGCACCGATCAGACACTG

133	CAGGCACCAAGTAGCACAGT

134	GGTGCGCCATGTACTCAGTT

135	TCAGGCTTATCGAGCGCGTT

136	GCAGGCAGATCGACCTAGTT

137	GGATAGGGACTCAGATATAC

138	GCATGGTTACCTACGCCAGA

139	GGAGGCTGACTCATACGCAA

140	GGAGCCTGACCTAGTCGATA

141	GCGGCCAATTCGGCGATAAT

142	GGTGCTCGACATTAGGCCAT

143	GATCCCACATAGCGGACAAT

144	GATCCAATCTGTCAGCACAT

145	GAGCCAATCTGACTACCAGT

146	TGCTGGATATGACTGTCGTA

147	TGCTCTGCACTGCTGACGTA

148	TCACCAGCCAGACTGTGTAG

149	AGGAGCAACCATCATGCACG

150	GGGCATACCTATCCCGAGAT

151	CGGGCGATACCACTCAGATT

152	AGCGGCAACCAGACATACGT

153	CACGCCATACCAAGGAGAGT

154	CAGTGCATACCAAGCGACGA

155	CAGGCAGTACACAATCTACG

156	TACGTCGCATCCATAGCTGA

157	GAGTGACACCTCAGCAGATA

158	CTACAGCACCTCAGGAGAGT

159	CTCACGACATCCAGGAGTAT

160	CCAGCACGACAGAGAGATGT

161	CGCACACACCTGAGAGAGAT

162	GCGCACGCACTCAGATGTAA

163	AGACGCTCAACCACGAGAGT

164	GACGCCACAGTCACTAGAGA

165	GGCGCACACTGTACTCAGAT

166	CGAAGCGCCAGTACCAGATA

167	GGGTCGCTACCTACTCTGAT

168	GAGACATGATCTACCAGTAC

169	GGACGCTTACTCAGCAGTCA

170	CGGGTGTTACAGAGCTATCA

171	CGCGGCTTACACAGACATTA

172	CGGAGCTTACACATTAGCAG

173	CTGAGCATACACTTCACGAT

174	CCGATCATAACTGTAGATGC

175	CCGCCGATAACTGCTTGAGA

176	GGCCATATACGAGATGTAGA

177	CGTCCCTTAACGGCTGGTAT

178	ATACCCAGAACGACTATGCG

179	ATCCCACGAACGATGAATCT

180	ATCCGCAGAACCGGCGATAA

181	CCTCGCCGAAGCGTGTTTAA

182	GCGCCGCACAGAGTCTTATA

183	CGCGCTGCACAGAGCATATA

184	CCGCTGACACAGGCAGATAT

185	GCGTATGACCAGGTGTATAT

186	CTGTATGAAGGTGCTGTACT

187	GTTTCGCACGAGGATGTATC

188	GTGCTCGCAGAGGATTTATC

189	TAGGCCAGAGTAGCGACTTA

190	CAGATCCTAAGAGCAGTTAC

191	TAGATGCTAGGAGCGATTCA

192	TAAGTCGGTGGAGCATATCA

193	TAAGCGCGTGGACTCCTAAA

194	TAAGTGGACTGAGCGCATAT

195	TATACGGCAGTGGATCAGAT

196	CTATACGCAATGCACTCAGA

197	CTATCGTCAAGTGATGGACC

198	TATAGACTAGGTGATCGAGC

199	TAGTACGAGTGGGCATCAAA

200	TAGACGTAGTGAGCATGACT

201	TGACGAGTTAGGATCTATGC

202	TTACGAGTGTAGCGTCCATG

203	TCGTCGTAGCATCTCGCAGT

204	TCGACGTAGGATCGCAGTAC

205	TCAGTATCATGGAGTACGAG

206	TGCACTAGATGGGATCGACT

207	TGCGATTACTGCCGTCACGT

208	TGGACTCTATGGCAGCCGTA

209	TGACAGCAGTTGCAGTCCGT

210	TACACAGGCTTGCAGCTCGA

211	TGCAGCGGAGTGCCTCATTA

212	GCGCAGGGAGATCCATATCA

213	CGGCAGCCAAGTCCAGTATA

214	CAGCGCCCAAGACGTGTATA

215	GTGCCTGCATAGCGATAGTC

216	TGCCTGCGAGAGCCTGTATT

217	TGGCATCGAGAGCCGTTCTA

218	GCAGGAGCAGAGCTTATATC

219	GCGGGATCACGACGTTTACA

220	GTGGCGATAGAGCATTCTCC

221	AACGCGAGAAACCATTTGCC

222	AGGCAGACAACTCAATCCGG

223	AGGAGAGCAACCTACACTCG

224	AGCCAACGAACCTACATGGG

225	CCGCAAGCACGTCGAATGAA

226	GCGCATGGACGACAAACGTA

227	GCCAGGAGACGTAGATATTA

228	GCGCATAGAGAGAGATCATC

229	TGGTATATCGGTAGATTCGC

230	GAGCTATAAGGTGGATTCAC

231	CGCGGATAACTTGATTCACC

232	GTCGGCTTACCTGATAGCGA

233	GGAGCTATACATGCCTATCC

234	GGTGCCGTACATGCTCGTAT

235	TCGGCTTGACGTGCTCGTAT

236	GGGCTGTGACTAGACTCTCA

237	GCGAATTTAGTAGACGCACA

238	GAATCTCGAATAGCGGTACA

239	GACAGTTGACATGACAGTAG

240	GACATTGACATCGCATACAC

241	GAGTTTAGAATCGTGAGCAC

242	CTATTCGCAAGTGTCGAGCC

243	GTTATGGACACTGCTCGACG

244	AGCGTTCTAAATGCGTCACA

245	CCGATATGAACTGTCACTAC

246	CGCGAATGAAGTCTACATAC

247	CCACTATGAAGCGATATACC

248	CACCAGTGAAGAGATACCGC

249	GCACTGTTACATGATACCTC

250	GCCAGTTACAGTCATGCCTA

251	GCGCAGCTAGATCCACTGAT

252	GCGTGCGGAGACCTCATTTA

253	GCTCACGAGGCACGCTTTAT

254	GCGCCAGTAGCACGCTTATT

255	GGCTCAGTAGCACTCATCAT

256	ACTTGCACAGCACAATACGT

257	CGCCATACAGCACGATATTA

258	CCGCAGACAGCACGAGTATT

259	CCAAGGAGACTACACGATCT

260	GCACAGGTAGCTCGACGTAT

261	GTCAAGATGCTACCGTTCAG

262	CGATATGAAGCTCAGTGAAC

263	CCTATGAAGCTATCGCAACA

264	CTTATCACAGCATCCGAGAG

265	CCCGTGCAACGATTTGACAA

266	CGGCGGTTAAGTTCTAATCA

267	GGTCGAGCATGATAGCTTAT

268	GTGGTAGCAGCATAGCTTAT

269	TAGCGTGGAGCATCCTCAGT

270	CAACGGTGAGCAACTATCAG

271	CTGGTTCGAGCAATCTATCA

272	TCGGGTCTAGGATGCTCTAC

273	TCGATGCACTGATGTCACTA

274	TCGTATATCCCATGCGATCT

275	TACGGTCCAGCATCAGCTTA

276	ATCAGTCCAACCTACAGATG

277	ATCAACTGAACCTCATACGG

278	TACTTCTGAGCAGGGAGCTA

279	TAGTTATGAGCAGGCGTCCA

280	CTTGTGACATCAGCCACGAT

281	CACGGAGCAAGAGCACATCT

282	CACGGGTGAAGAGCCATACA

283	CAGGAGTTAATAGCTCATCC

284	TAAGATTAGTTAGCAGCGCC

285	GAGTGATTAGCAGACGCCAC

286	CGATGATTACCAATGCCACG

287	GACTGATTAGCACATCCACA

288	GATTATGTAGCACTATGCCC

289	GCTATATTACGAGCTATGCC

290	GTTTATATCGAGGCAGGCCA

291	GTTACTATCCGATCAGAGCG

292	CGTCATGTACCATCAAGTCG

293	GTTATCTACGGATCATGCGA

294	CTGCCGTAAGTCTCATGCGA

295	CTAGCCGAATACTGCATACA

296	CTGCGTCGAGAATCGCGTTA

297	CATACACGACAATAGCTTCG

298	GATACCGACTCATACATTGC

299	GATACCGCACGATCAGCAGA

300	GTATATGCAGACTACTGGAG

301	TATAGTCGATTATCCCAGCC

302	CATAGTACAATATCCCGACG

303	CTTGACAGCTACTACCAGTG

304	CTGAGACAGCTATCGACACA

305	CTGAGTAAGTCTTCCACACG

306	TCGGATATACTATGCGTCAG

307	CGTAGGATAGAATGCACAGT

308	CATGATACACACTCACGAGG

309	CGGAATCACGACTACATACG

310	GGGTATCACGAGTCACCTCA

311	GAGAGAATCGTATCACAGCC

312	GAGTATGTAATCTACCTGCC

313	GAGTAATCATAGTAGCAGCC

314	GACTATATCCAGCACCGAGG

315	GACATATAGCTCCACTCAGA

316	TAGACCTAGTTGCAGCGCGA

317	TACTACACGTTTCACGGCAG

318	GTACATATCTGTCACGCGCA

319	TAGTATATCCTACGCCGCTA

320	GAGTATATCGCAATGCCAGC

321	GAGTTGTCACATAGGCCACC

322	GACGCATGACATATTCCTAC

323	GAGACACTTGACAGTAGCCA

324	GGCTAGTTACTCAGATCACA

325	CGCAATAAGTCTAGCTCACT

326	CATGTACTAAGCAGTCACAC

327	CTAGTTAATGTCAATCCGGC

328	GACTGTGTAATCATTGCAGC

329	CGTTCGTGAATCAGCACAGC

330	ATTCGGTCACACAGCACAGA

331	ATCTGCTGACACACACTAAG

332	AGCTCGCTAAATATGTAGGC

333	ACTGTCGCAAATATCACACG

334	ACTGTCTGACCAACCAATAG

335	GTTACTAGCTGGACCTCAGA

336	TTATAGACTGGTGCGGAACA

337	TTAGCATACTGTGCGCGAAC

338	TGTGCTGACTTAGGTCGAAT

339	TCTCGGGACGTTGCGCTATA

340	TGTCCGCGACGTTGGCTATA

341	TGTTCGTGACTGTGCGCTAC

342	TGTCAGGTACTGGTCGCTAC

343	TTCATGTACTGTGGCTACCG

344	TTTACTAGAGTGGCGCATGA

345	TTAGATAGATGTTCGGCCAG

346	CTCAATAGATTATAGGCGCG

347	TCGAATCGCTGTTACGGAAA

348	TCAGACTAGGGTAGCGCATA

349	TCAGCAGTATGTAGGCAGTA

350	TAAGCCGGGTCACGCTATTT

351	TATGACCGATGTGCAGGTAT

352	TTAGCACGCTCGGCGATGTT

353	TTCACACGGTCTGCGAGCTT

354	CTTCAGACAGGAGGAGATAT

355	TCCAGCCGACGTGCGATTTA

356	TCCAGCGTACCTGCTTGTAG

357	CTCCAGTCAAGTGCTTCGAG

358	CTCCAGCGAAGTGATGAGAA

359	TGTCAGCGGATCGCCATATA

360	TCCATGCGAGGATCAGGTAT

361	TGCAAGCAGTTCTCAGCGTA

362	TGTAGGACCTGTGCTCACTG

363	TTTATCGCAGTGCTCAGGCT

364	TATGTCAGCAGGCCCAGCTT

365	TTCTCGTAGCTGCGCCTAGT

366	TATTCGAGCTAGGGACGCAT

367	TATTTATACTGCGAGCGAGG

368	GACCTTACACTGGCACGAGA

369	TACTGATAGCATGGGACGTT

370	TCGGATAGCAGTGCGCTCTA

371	GCTGATGCACGAGGCCATTA

372	GCTGGATCACGAGGCTCATA

373	CGCTTTGTACCAGGCCATAG

374	CGTGATTGACCAGACCCAGT

375	TACGCTGGATCAGACGGTCA

376	ATCCTGAACGCAGAGACACG

377	ATCGTTGCACCAGAACTACA

378	CTCTCAGGACCAGCATGATA

379	TCTGAGCGATCTGCCAGTCA

380	GGTGAGACCTATGTATATCG

381	TTAGAGTCTTAGGCATGTCG

382	TTATAGCCGTAGGCAGGTAC

383	CTCTAAGTATTGGACACGCA

384	GCTAGGATATAGGACACTGA

385	GCTATCGAATGTGCAGTACG

386	TCTATCCACTGCGGACGAGT

387	TCATACTCATGTGCAGCTCT

388	TCATCGAGATCGGCCACTGT

389	CTTATGATACCAGTCAGCAC

390	TATTGGTACGGAGTTAGCCC

391	GTAGATGACCCAGTTCCAGC

392	GGCTGTTACCGAGTCTCAGA

393	TGCTAGTTAGGAGTATCGCA

394	GGCTTACTAGCAGTCACGCA

395	CAGCATATAAGAGTCGTACC

396	GGCATCATAGACGCTACGCT

397	GAGTCAGCAATCGCAGCTAA

398	GATCAGTAATGCGGAGCAAC

399	TATCATAGATGCGGACGGAT

400	CAGTCCACAAGCGCGAGTAA

401	CGTAGCCCAAGTGCCGATAT

402	GACGCACCACAGGCTAGTAT

403	CTAGCATACCAGGCGAGAGT

404	AGTGCATCACAAGAGACTCG

405	GCCATAGACGAGGCAGTATC

406	GGAATACGCTGAGATATACG

407	GTTAATCGCTCAGCAGCATT

408	CACAAGCGACCAGAAGCGTT

409	TCTTATCGACCAGGGCGGTT

410	GACACTATCCCAGACGGAGT

411	TTACTAGGTTCAGCGCGATC

412	TTCAGATCCTCAGCGTAGTC

413	TCTCAGATATTCGTAGCAGC

414	TGTCTATTAGTAGCTGCGAG

415	TAGATACTCTGAGCTAGGAG

416	TGTCTCCAGATCGTGCGAGT

417	TTCGGTCTAGCTGGTAGCAT

418	ATCTGGCGAACAGGTGCATA

419	AATGCGCGAAACGGCGATAC

420	TTTGTCGCAGTAGTCGCATC

421	TGTTGTGCAGTCTCCAGGCA

422	CATTGTGAACTCTACGTCAG

423	CGGATGTCAAGCTCTCACAG

424	CTGCGGCAATACTCTCAGGT

425	ATGCGGAGAACCTCTGACAA

426	GCGCGTGAATCCTGTGACTA

427	GCGCTCTGAATCTGTGAGAA

428	GCGCTATGAATGTCAGCTAA

429	GCCGAGGTAATGTGATATAC

430	GCCGCGTGAATATGAAGATA

431	GCGGCGAGAATCTTCCGATA

432	GATGGTAGAATCTCTCTCAC

433	GCTGCGGGAGACTATCATCT

434	GCTGGATTACGATGCCATAG

435	GTTGATTCACGATGGCAGAT

436	CTTCACGCAAGTTGTCCAGA

437	CTTACGCCAAGTTGTCAGAA

438	CTTGCGTCAATAGTCTGAGA

439	CCTGTGCGAACTGTCTTACA

440	CTCAGTCCAAGTGGCTCAGA

441	CCATAGCGAAGCGCACAGTA

442	CCAGCACTAAGCGCAGATAG

443	CTCCGCCTAAGTGGCAGTAA

444	TGCGCCTGACGTTCGGATTA

445	TGTCCAGTAGCTTGAGAGTC

446	GCTCACAGAGTTTGATAGAC

447	GCTACAGGAGTGGATATTAC

448	GTGACAGTGGCAGATATAAC

449	TCGCACTGAGCTGTAATCGA

450	TCTTATGAGATGTAGCTCGC

451	TCCATCTAGCTGTAGCCGAA

452	GTCATAGCAGCTTAGACCTA

453	TTATGCTGACTGTGCTCGAC

454	TTAGTGCAGTATTAGTCGCG

455	TGTCTGACCTTGTAGCCGAC

456	TGTTGACACTTGCGTACCGG

457	TCTTAGCATGTGCGACGACG

458	GCTAAGCTCTTGCACTGACG

459	CATAAGACTTTCCAATCGCG

460	CTGAAGCACTTTCCACGAAG

461	CTGAACCCGTTGCAGAGAGA

462	CGGAACCGATGGCACAATAT

463	GGTGACCGATGGCTACTCAT

464	ATGGCGCGAACCCTGTACTA

465	CATCGCGGAAGCCACGTATA

466	GACGGCAGAATGCAGTATAT

467	CGCGGAAGAAAGCATATTTG

468	CTCAAGGGCACGCAATCTAG

469	TCACAGGAGGCTCGACTCTA

470	CGACAAGGCATTCACACTAG

471	ATAAAGGTCATGCCAACCGC

472	TATAATGCGTTTCACGTCCC

473	TCTAATGCCTGACACGAAAC

474	TGAATGCCGTGACTCGTAAA

475	GTGGAGGCACTGCATCATAA

476	GTGGTGTGACCTCGCCATTA

477	GGAGATGCACTACGGACTAT

478	GAGGATCGAATACTGTCGTA

479	CGGAGAGCAAGTCATACGAC

480	GCAGGAGACGGACTATACTA

481	GAGCGTGTAATCCGATCTAA

482	CGATACGGAAGGCGCACTAA

483	CGATAGGTAAGGCGACTCAA

484	GATGTGGCACGACGATCATA

485	TGAGTAGGCAGTCCGATCTA

486	TGATAGGCAGTGAGTTCATC

487	TTATGGCGAGAGTTGTCATC

488	GTTTAGGCACGATGCTGTAT

489	GCGTTAGGACCATAGTCTAC

490	CCGATGCGACAATACGTTAG

491	TCTAGCGTCCCATAGCGTAG

492	CTGTCTGGACCATAGCAGCA

493	CTGCTTGCACGATGAGCGAA

494	TAGCCCGGACGATGTAGTCA

495	CCGCTACAAGCATTGGGAAT

496	CGGCTAGAAGAATGAATGCT

497	CCGATGATAAGCTAGTATGC

498	GCGGATAGACCATTATTGAC

499	GCCACTAGACCATCGGTGAT

500	GCACGCGGACCATCGTTTAT

501	GCCGCTCGACCATAGTGATA

502	GCCGAGTCACCATGCTGTAT

503	CACGGGTCACCAAGCGTATT

504	GACGGCGACCCAGGTTATAT

505	TGTGCGTCAGCAGTTAGTAT

506	GCTCGGCTACCAGTCGTTAT

507	CGCTGGACACCACTGTGATA

508	CGGTGGAGACCAGATTATAT

509	CGCGGGACACCAGCATATTA

510	GCTCGCGCATTAGCATATAA

511	GCTGACATCCACGCATTGAG

512	CGCTGATCCACCGAGATTAG

513	ACGCAACCAACAGCGAGTGT

514	CACAGACCACAAGCTATGGG

515	CCTAGCCCAAGGCATTAGAA

516	CCGTAGCTCCAAGGCATGTA

517	CAGTGCGCCAGAGCAAGTAA

518	GAGCCACCACGAGTCATGTA

519	GGTCACCACTCAGCGATGTA

520	GTGTGCCACTAGGCCGATTT

521	GGAGACCCGTAGGCATAATT

522	CGCTGTAAGGATGCTGAATA

523	GTCGTGCAGGATGCCATATT

524	GTTCCGCACGATGCCAGATT

525	GCTGCGACCATCGTCAGATA

526	GTCTAGCGATCATGCTCAAT

527	CTCTACGAATCATGCGGAAG

528	CTTAGATACTACGAGCACGA

529	GTGACGCTACGTGAGCCTAA

530	TACCGTGTACGTGAGCGCAT

531	TACTGCGACGTAGCGAGTCA

532	TACTAGGTACTCGCGGCACT

533	TACTGCGTACTCGGAGCATA

534	GCTCACGTACTCGACAGAAA

535	GTGTACTATGTAGCGAGATC

536	TAGTAGTACGCTGTCAGAGC

537	TGTCGTCGAGTCGTAGATAC

538	GTAGTACACGGAGTGATCCT

539	GTAGTACGAGCTGAGACTCT

540	GTGACTAGCTCGTAATTCTG

541	GAGACACGGTACTAGAGACT

542	CAACAGCGTCACAGACATGG

543	CTATGAGACCACCTCGATAT

544	ATTCGGCGACAACGCATTTA

545	GTTGCCGTACTAGGGATACT

546	GGCGCAGTACGATTGACTAT

547	GTGCGACGAGCTTGTCACTA

548	TGCGTGTGACTATTGATACG

549	CGTCTGCGAACTTTGCTACG

550	CTGTAGCGAAGTTCTCATAC

551	TCGGCGTTACGTGCTGACTA

552	TGAGCTATACTCGTCGTCAG

553	CCGATACTAAGCGTTACGAA

554	CGTCATACATAGGACTAGCA

555	CGCACGCTACAGACTATTAT

556	GCGAGCGTACTATACATAAC

557	GCGAGTCTACGACCTCTATA

558	CGGTACGCACGACAGTCATA

559	CGGTACATACGACTATACAG

560	CGCTAGATACACCACTGATA

561	CTCTAGGTACACTACTGCAT

562	CGTCAGAGACACTGGAATAG

563	CTGCGCGTACACTCGGATAT

564	CTGTCGCTACACTCGTGAGA

565	GTAGACGCCTAGTCAGATAG

566	GAGCGACTACGAGCCACTAT

567	GTGCGACTACGTGCATCACT

568	CGTAGGACACGAGCGTATAT

569	GGCGACGACGTGACTATACT

570	CGGTCACGACGACGAGATAT

571	GCGTCACACGAGCCGATATT

572	GTCGCTCACGATGCGGATTT

573	GACCGACAGATCGTGACATC

574	GACCACGTACATGAGCTGAC

575	GGCGACGTAGATGATATTCT

576	GAGACTGTAATCGCATATCC

577	GACTATGTAATCGAGCCTAC

578	GATAGTCGAATCGCGGATAA

579	TATACGGACTGCGCCCTAGA

580	TAGTCTAGCTGAGCCATCGA

581	GTATATGACCTAGTGCCACG

582	GTGTTGTACGATGTGCTCCA

583	GAGTCTGACATAGGGCACCT

584	GAGTTGCACGTAGACGATAC

585	GACTCGCGCATAGACACATG

586	GACAGGCTACGAGACTAGAT

587	GTGACGGCACTAGCAATATA

588	CTGCTCTGACACGCGAGTAT

589	CGGCTGTGACACGAGCTATT

590	CTGGTGCGACACGCCTATAT

591	GTCAGTGGACTAGCCCTACA

592	ATCGAGTCAACCGGCCTAGA

593	TCGATAGCCTACGTGCCGTT

594	GGAGACCTCTACGCACTGTT

595	GCGTGACAGCTCGCACTATA

596	GCGTAGCTCAGCGACATTAA

597	GCTATACGCACCGTCATGTA

598	CGCATACACTCAGCAGAGAT

599	CTACTTACAGCAGCGACGAG

600	ATCTCGACACAAGCTAATCG

601	CATCGGATACACGCATACAG

602	ACATACAACACCGCTTAGGG

603	TACTGAGTCCACGCTCGGTA

604	GATACAGCCTACGACCGGAT

605	GATACATTACTCGACACGCG

606	CGCTACAGAGATGCACAGAG

607	CCGACTGTAACTGCGATGAA

608	GGTGTTATACGTGCATAGCC

609	CTCGTATTAAGTGCGCTACC

610	TATAGTATCGAGGAGCGACC

611	GTATAGTACGTGATAGGCTC

612	GTACGATACGTGACTAGAGC

613	GTAGGTCGAGCTGCATACTC

614	TTACAGTAGTCTGCATCCCT

615	CTAGTCAAGTCTGCATACAG

616	CTGTCTAATACGGCCACATA

617	CTCGCAATACGTGTACCGTG

618	TCCGATCTACGTGACGGTGA

619	TCTCGCCGACGTGGTCTTAA

620	TCTGTCCACGTCGCGGTTAT

621	TCGTCCTGACTCGCTGGTAA

622	GTCCCTAGACTCGCAGTGAT

623	GCGACAGTAGCTGCAATGAT

624	GACGTAATATCGCCACATCA

625	GACGAGGTACAGCGCATACA

626	GCAGGTCTACGACGCATGAT

627	GCAGAGTACGGACGCATATC

628	GAGTAGATACAGGTCACGAT

629	GAGCGATCACACGTCCGATT

630	GGTCGCATAGACGTATCAGT

631	GGTGTCTCACGAGTATCGAC

632	GTAGGCTAGACGGTCCACTA

633	GACGGACACTGAGCACATAG

634	GACACCTATGTAGCAATGAC

635	CACAGTACAATAGCACCTGG

636	CACCAGAACGTAGGCACAGT

637	CACTACTCAAGAGCCAGTTA

638	CGCCGACGAATAGCCAGATA

639	GCCGCACTACTAGCGATGAA

640	GACCAGTTACGAGCAGCGAA

641	GATCACGTAGGAGCACCGTA

642	GTACGCAGAGGAGTCATCCA

643	GTCGCTGACTAGGATCACGT

644	TACGCAGACTCGGACTCGAT

645	GTCGCTATATCGGACCTAAC

646	ACTCGCATAAACGACAGTCT

647	TGGAGTCGAGTAGTACATAC

648	TACGACATGGTAGGACGCTA

649	TGACTTCTACGTGGCGATAT

650	TACGCTCCGAGAGGCGATTT

651	CACCTTCGACGAGCAAGAGT

652	TACGCTCGCTCAGCTTAGGT

653	TACGGCATCGACGCTATTGC

654	TACGGCGACTGAGATGCCAT

655	TACGTGCTAGGAGATGTAAC

656	TATCGTCTATCAGATTGCCC

657	TATCGTATCCACGTTCCGAG

658	GATCGTACATCAGTGTCCAC

659	GAGTCTATATCAGTAGCGAC

660	GTTAGTCGATCAGTAGAGCA

661	GTCCTACGATGAGTGACGCA

662	CGTCTTCTAAGCGTGCTGAA

663	GTCTCCTACCGTGAGCAGTA

664	ATCTCACTACAAGAGCCTAG

665	CTGTGACGACCAGACGCTTA

666	CTGAGCGTAAGTGATTGTAC

667	CTCGTAGCAATAGATTTCCC

668	CTACGTGCAATAGCAGCTCA

669	CCGGCAGTACAGATAAGTCA

670	CGCCGGATACAGAGTAATCG

671	CTCAGCATACATAGTACAGC

672	CCGAGCTTACAACGTGTGCA

673	GACGCATTACCACTGGCGAT

674	CAGGGTGTACCACGAAGCAT

675	CGGTGTTTACAGCAATCCAT

676	CTGGCTGCAATAGCGCGATA

677	TGGGCTACAGTTGCGCTCAT

678	TCTGGCATAGCAGGTGTCAC

679	GGGATTCTACCAGTTCGCAC

680	GAGGATGCAATCGTAGTCAA

681	AGGGATAACCATGCACACCG

682	CATGAAGACTTTGCACTACC

683	CGCCGACCAATGGGCATATA

684	CCCGAGCCAACTGGAGATAA

685	CCCGCAGCAACTGGGATTAA

686	GCCATAGGAGCAGCGATTTA

687	CCGCTTGCAGCAGACGATAT

688	CCGTTTGCAGACAGCCAGTA

689	CCGTTTACAATGAGCACACA

690	CGTTCTTTAATGAGCGACAG

691	CGAGCCTTAATGACGCACAA

692	GGCAGCATACTCACGATCAT

693	CTGCGAGCAATCAGCCGATA

694	CCGCAGCAAGCTATCGAGAA

695	CGGCGTTCAAGCAAACCGAA

696	CAGTTTACAAGCATATCCCG

697	CATTGACGAAGCATAGTTCC

698	CATAGTGCAAGCAGCGACAC

699	ATCTGTGCAACCATAGTACC

700	ACTTGAAATGAGAAGCCCGT

701	CAGGAGAAGCGAATAGCCTC

702	CCAGAGAGAGCAATATCCGC

703	CAAGGAATATACAGGCCCGC

704	CAGAACTGAATTACAGCGCC

705	CATCAGACAATTACAGCTCG

706	CACCCGATAAGAGCATACGG

707	CACTCCAGAAGCACGATAGG

708	CAGCACCGAAGCAGAAGTCT

709	CAGATCAGAAGCAGGACGCT

710	CAGACCATAAGCACAGGCGT

711	ACAACACAAATGGCGCGGCT

712	ACGCAGATAAATCACCTCGG

713	CAAGACAGAATACTCTCCGG

714	CACAATACAATAGGCTCGCG

715	CAATAAGACATAGGCCGCCG

716	CACAACGGATTAGAAGCGCG

717	GACATGATATGAGAATGCGC

718	AGCAAACTAAGAGCCGGGTC

719	AACAATACAACCGTCGGCGG

720	AAATAACTAACCGCCTGCGT

721	CAAACACGAAGAGCCTGTCG

722	CACTAATCAAGCGACAGGCG

723	CATATACCAAGCTATCAGCG

724	CACATTCAAGACGATCACGT

725	CACCTATGAAGAGACTCACG

726	AACTATATCAAAGCCCTGGC

727	ACAATACCAAATGCGCCGGG

728	AGAAACGCAAATGCCTCTCG

729	CGAAAGCATAATAGCGGTGC

730	GGCAGAATCTCGTGTACTAG

731	GGTACATTATGCTAGAGAGC

732	GATACATGATGATAGCAGCG

733	AGAACAGGAACATCGCTGCC

734	AGATAAGCAACATCCTGTCC

735	CATAAGCTAAGATCCTGGAC

736	ATTTAGCGAAGAAGCATGGC

737	ATAGCTCAATCAACGATGCG

738	TATATCGCATCCACTCTGGG

739	CATCTCCGAAGCACATTGAG

740	CATTCGTCAAGCACTTCAGA

741	CATTATCGAAGCACGGTACA

742	GATTCGGACAGCACGGCATA

743	GCTCCGGCAGTCACGATTAA

744	GACTGTCGAGCACCCATTGA

745	GATCGTCGAGCACGCCTAAT

746	GAGGTCAGACGACGCCTATA

747	GCGCGTATAGCTCTCCATAG

748	TAGCGAGTAGCACTTCGATA

749	CTAAGTGTAGCACCACATCA

750	GTAGATCGAGCAGCCAGTCT

751	GACATAGACCATACCACGTT

752	CGTCTTCGAGCAAGTGCAGT

753	CTCTCCGGCAGCGATATGTA

754	CCCTCAGCACGAGATATAAG

755	CCCTTGCGAAGCATTGCGAA

756	CTCCAGGCAATGAGAGCACA

757	CCCAGATCAAGCGATGCAGA

758	CTGAATCCAATGTACGTGAC

759	CGGCATTCAAGGTAGCGACA

760	GCCCGATTAAGGTGTGTCAA

761	GCCCGATCAATGGCTGCATA

762	CGCCATCCAAGGGCTGTATA

763	CGGATGCCAAGGGCTTCATA

764	GGTTGCGCCAGGTCATCTTA

765	GGTCCGGCATGGATCACTAA

766	GGCTGGCACATGATCGTATA

767	TGGTTGCACTTGGATCGAAA

768	TGATTGCCACTGCTCATACG

769	TGTTGATCCATGTCCATAGC

770	TTAAGGCACTTGATCTCAGC

771	GTAATGCCCTGGACCGCAAT

772	GTTAAGCCTTCCACGGCAAT

773	GTTGCGCCATTGAGCCAGAT

774	GTTGCCCACCTGAGACGTTA

775	AATGCGCCACAAAGCGAGTG

776	CACCGGCCAAGAAGTACAGT

777	CATCCGCCAAGCAGAGTGAA

778	CGTTGCCAATGCACGAGCTA

779	GATGGCTGAATGACGTTTAC

780	GATTGCCTAATGAGTCTGAC

781	AATCAGCCAAAGATGTGGGC

782	AATCATGCACAAAGTTCGCC

783	ATTTAGGCAAGAAGCGCACC

784	AATTGGCTAAAGAGCGCACC

785	ACATTGGCAAAGCGAACTCC

786	AATGGGAGAAAGCCGACTCT

787	TGTGCTGGAGCTTCAGTCAC

788	GTTGTGCAGGATTATCGACA

789	GCTTGCAGACGAGTCATCAC

790	GGATGGATACTAGCGACTCC

791	GCTATGGCACAGGCATCTAC

792	GGACTGGCACATCCCGTATA

793	GGATCGGACCATTCTCACTA

794	GGATGGCGACATGCTCACTA

795	GAGCTGGCAATCGTCGTACT

796	GGATGGCTACATGATCTGAT

797	GGCAGCAATTCGGGCTAATA

798	GCCTAGCAATGTTCCCAGAG

799	GAGCGGCAATGATGATCCAT

800	TGGTGCATAGCTGCGATCCA

801	GGCTGCACAGGTGTATCCAA

802	GAGATGCCAATCGGCCATAA

803	TATATGGCACATCGTTGCGA

804	TGATGCCCACGTCGTCGTAT

805	ATTGATCCACACACAGTACG

806	AGCTGATCCAAGCAACGTAC

807	GTTGATGCAGATCGCGTATC

808	TCGTGGGCAGATCGCTTCAT

809	TGTGGCCGAGATGCCTTCTA

810	TTTGCGGACTTCGCTATCAA

811	TCCCATGCACCTGAGTGGAT

812	TTTCATGGAGCTGTCGCGTA

813	TTTACCTGTGGTGATAGCGA

814	TTGTCATGCTGCCCAGTCGA

815	CTTTCATGCAGGCAGAGCCA

816	CCTTTAAGCTGGCACACGAT

817	CCTATCAAGGATGCACACGA

818	CCGTTCAGAATATGACACAC

819	TAGGTCAGATCATGCGCGAC

820	ATGTGCATACAAGCTACGAC

821	CTGAGAATATGAGAGACGCC

822	ACTCACGCAAATGAACGGCG

823	CTTAGCGAATATGCGATACG

824	ACTCTGATAAATCCGACACG

825	ACTGTGCGAAATCCCAGACA

826	ACTGATGTAAATCCACACCG

827	ACGTGAACAATTCCACACTG

828	ACTGCACGAAATCGACATCG

829	ACTTCTGTAAATCGCAGCAC

830	CTGTCTTGAATAGCGATCAC

831	ATGCGGTTAAGCGGTAATAC

832	TACGCTGAGTCATCCGAATA

833	CTTGTGAGACACTCCGACAT

834	CTGGTGACATACTATCAGAC

835	CGTGCGTTAAGCTGTCGATA

836	CGGTATCGAAGCTGTGCTAA

837	CGCGTGTGAAGCTGCCTATA

838	CCTAGTAGAAGCTCCACAGA

839	TGTGTCGGAGTCGCCCATAT

840	TCTGTCGAGGTAGGCCATAT

841	GCTGTCGAGAGCGATCATCA

842	GCAGTCGGACGAGATTCTAC

843	GCGATGGTACTAGATCAGCA

844	GTGTAGGGACTCGTATCACT

845	GTACGAGCAGTTGAGCATAA

846	GTCAGTCGAGATTCAGCAGT

847	GTCGAGTCAGATGCACGTCA

848	GTGTATCTAGCTGCACGCAC

849	GTTGTCTTACGTGCAGTCAG

850	TATGTACTCGTATCGACGCA

851	TCGTGTCGAGTATCCGCAAA

852	GTACGTTGACAGTCTGCACA

853	TTCGTAGAGGTCTGCCAATT

854	ATTCTGAGAGACAAGCCTCC

855	ATTCTGACACAATCATCGCG

856	ATTCAGAACTAATGCACCGC

857	AGGTATGAACCATCGCACAC

858	ATTTGATGAACTCCGCAGAC

859	GTTTGCTGACCTCGCAGTCT

860	ATTGCCGGAACGCATTATAC

861	TGTGTGGGATCGCCCTATCT

862	TTGAGTGAGCTGCGCTTATA

863	TGCGTGCAGGTGCCACTAAA

864	GTGCTGCATGAGCCAGTTCA

865	GGCTCTACATGGCGATAGCA

866	GCTCTCTAATTGCGGACACA

867	GGATATAAGTTGCGGCACTA

868	GGATGTAATGGTAGCTCCTA

869	GGATGACGAGGTCTCACCAT

870	GGATGCGACGATCTCGACAT

871	CGTGATCGAAGGCTGCACAA

872	CTAGATGTAAGTAGCTGGAC

873	CGAATGAAGGATCGAGACCT

874	CGGCCTGGAAGTCACTCATA

875	GGCCTTGGACTACCGCTTAA

876	TGCTTCGAGGGTCCCACTTA

877	TGCCTGGTACTGTCCGACTA

878	TGCTTGTGAGAGTCGCTACT

879	ATGCTTGCAGAACCGTCAGC

880	TGACTGTAGGGAGCCTCAAC

881	TGCTTGGCAGGATGTCTTAA

882	GGCTCCGGCATGAGTATATC

883	TGCTTTGCAGTGAGGCTCTC

884	CAATTTGGAACTAGCCTTCG

885	TTTGCTGCATCCGGCCTGTA

886	TTGGGCCACTGCGCTCTTTA

887	TGTGAGCCCTTGGCACGTTA

888	GGTGGCCCGATCACATTCAA

889	GGCAGGGCACCTCAGTTTAT

890	GGGTGGCCCATGCTATCTAA

891	GTCTGGCCCTACCTATGGTT

892	GCGGGCACACCTCTGATTTA

893	GCGGGCGCACCATTCATTAT

894	GGAGCCCACCATGAGCTATA

895	GAATCTCCACCAGGCGGATA

896	GGATACGTCGCTACAGTGAT

897	TCGTATAGCTGTATCGACGG

898	CTAACTAGCTGTAAGCGACC

899	ACTAGATAACAGATGCGCCG

900	CAACTATCATCAAGACGGCG

901	CAACAGAGATGAAGCGCGTC

902	CAACATATCATAAGCGCGTC

903	GCAGATAGCATCATATACGC

904	GCAGACTGAATTAGCTCTAC

905	GTTAATTCATCTAGCGCGAC

906	AGGAATCTAACCACGCGCAG

907	AGACCAATAAGCACCCTGGG

908	AGACAAACATTCACGCCGGG

909	AGAATAAATTACTGCCCGGC

910	GAGCACATATTATTACGCCC

911	CAGAAGATAATATGCTCGCC

912	GAATAGCCGATAATCTCAGC

913	GAATAGCTTTACACTGCCCT

914	GAATCACTCTGAATGAGCAC

915	GGATCACACTGCCGGACTAT

916	GGACCCATAGCACTCTGATT

917	GAGGCATTAGCACCAGCTCT

918	GGATTATCAGCACTCAGTAC

919	GGGATCTCAGACGATGCTCT

920	GGGTATATCAGCGGATTCCA

921	GCAATTCGATCTAATGCTCC

922	ACCAATGCAAATAGGCGGCC

923	AGCAAATTAACACTTGGGCC

924	GAAACAAGCAGATTTGCGGC

925	TTAATTCCGTGATATGCGCG

926	GGATCTAATGGTTATGACCG

927	GCATGAAGTGGTGTCAACTC

928	GCTTTAATGGTCGTGACGCC

929	GCTTAGAATTTAGTGCAGGC

930	GCGTCAGAATTTATGCCACA

931	GCTAGATAATTTAGGCCACG

932	GCTGATAATGCTGAGGACTA

933	GCAGAATTGCATAGACGCAC

934	GCATGATTAGCATAGACGGA

935	CCAGCAATAGCAATCACGGG

936	ATTGCACATTCAACTGACGC

937	TGGCATTTACTTAGTGCGAC

938	GAAGCCATATCAATGCTCAC

939	GCGAGCAATTTCATGCCACT

940	GGCCCAAGTTTGTGACATGA

941	GGGCATAATGGTTGATACTC

942	TTGGTGCATGGATCTCTCCC

943	TTTAGGGCAGGTTAGCTTCC

944	TTATCCGGCTAGAGTGCGTC

945	TGATGACCTGTTAGCAGTAC

946	GGACCATGTGCTACGCAAAT

947	GTGAGCAGATTCAGCCAGAC

948	GAGAGACCATGCAGCCGATA

949	GCGTCGTCAATGTTGCCACT

950	GGGTTAATCCCTGCCACGTA

951	GTGCTGACATTCGCGCCATT

952	GCCTGTAATCGTGGGCACAT

953	AGCGCGTGAAATGCACATAC

954	AGCGTCTGAAATGCTATCAC

955	AGTGCGCGAAATGTTCTACA

956	CGTCGCCAATATGATCGAAT

957	CGCCACAAGTTCGAGCGATA

958	GCCCTACAGCGTGAGCTATA

959	TGTCAGTGATCCGGGACTAT

960	GTTATCGCACCTGAGGCGTA

961	GTTGTGACCTCTGAGCACGT

962	GTTTCACGCTATGCGAGCCA

963	GTTTACCGCTCTCCAGGGAT

964	TGCGTACCTCCTGCATGGTT

965	TGACTACCGTGTCGCATACG

966	TGGACTACGTGTCTCGATAG

967	TAGTGATACTGACTCATGGC

968	CGTCTGATACAGCCCAGTGT

969	GCCGTATCACGACGCTAGAT

970	AGCTCGATACAACGCTAGAG

971	ATCTACTTAACGCGCTACAG

972	GACATCGTACCACTGCGTAG

973	GACTCGTGACCACTCTGTAG

974	GACTCGGACCATATCTACGG

975	CACTACGCAAGACTATGTAC

976	CGAGTCTCACAGCAATCTAG

977	CGATCTAGCACGCAATATAC

978	GACCAGCGACGACAGTAGAT

979	CGTAGACAGCCACGCAGTTA

980	CGTATGCTACCACCGATTAT

981	CGTGCGATACCAGCGTAGAT

982	CTCCGTACAGCAGGCAGTAT

983	CTCGTCGTACAGCGATCAGT

984	CTACAGATACGTCGAGAGAG

985	CTACGCGACACGCATGAGAT

986	TAGACGCTCGCACGGTAGTA

987	GCCGCTAGACGACGGTATAT

988	GTATCACTAGGACGAGGTAT

989	GTACTCACAGTGCGAGAGCT

990	CGACTACACAGCTCAGGATA

991	CACCGACAACTCGTAGAGAG

992	CGACCCACACTAGGAGAGAT

993	ACGCGCACAACAGGAGACTT

994	AGTACCACAACTCAGACGTG

995	AGTACAGCAACGCAGAGCCT

996	GTCAGCGACCGTCAGCTATT

997	GTCAGGCACTAGGAGCTATC

998	TGTCGGTCACTCCTGGACTA

999	TCGGTTCACGTCCGCATGTA

1000	TCGTTTACCTGTCGCGCTGA

1001	TGTGTCTCACTTCCGCGAGT

1002	TCTGAGCACTCTCTCGTAGG

1003	GTTGATGACTCGCCACACGT

1004	CTGAGATCACAGCAGACTAG

1005	TTAGACTCCTCGCCGGTAGA

1006	TATAGCTCCTAGCAGGCGTA

1007	TATGCTCCACGTCTAGTGAG

1008	CTCTATCACCAGCGATGAGA

1009	CGCTCCAGACAGCATATAGA

1010	ACATACCGAAAGCTCTAGCG

1011	ACATCGCTAAAGCACATCGG

1012	ATATCGCGCAATCAACGCTA

1013	CGATGCGCCACTCAAGGTAT

1014	TATGCCGACGGTCAGGCTAA

1015	TATCGCCACGTCCGGTGATT

1016	TCTCGCTCACTGCGTATGAT

1017	TATCCGTCACTCCGTAGAGG

1018	TATCGACTATCCCTGAGACG

1019	GTATAGACCTCTCAGACGCG

1020	CTATCGTAATATCAGTCCGC

1021	CGATGACAATTAGGTACACG

1022	GAGCATAATGACGTAGACCG

1023	CGACAATACTTGACAGCACG

1024	CGATGATAATAGAGTAGCCG

1025	CTATGATTAAGTCGTAGCCC

1026	AGGTGAATAACGCATACGCC

1027	GAGTGAGTAATGCTACGTCA

1028	GATCGACGAATGTTAGAGAC

1029	GACTCACGAATGCGGAGACT

1030	GACCGTCAATCGCGTCAGAT

1031	TACCCGCATCGACGGAGTTT

1032	GTCAGCGCACTCCTGGTTTA

1033	TCAGGCCCACGTAGCGTTAT

1034	TTCGCGCTATCCATGCGTGA

1035	TGCTGATACTCGGCTGCATC

1036	TGAGTAGCATCGGTGACTTC

1037	TTGTATCACTGTGCTGCCCA

1038	TTTAGTCAGTATGCTCGCGG

1039	TTACGTTTATATGGCCGAGG

1040	TGAGATCACGTTCGCCGAGT

1041	GTATCATTAGCTCCGCAGAG

1042	TATCATGTAGACTCGGAGGC

1043	GTATGCTTAGATATGCAGCG

1044	TTGTAGTTAGCTCTGCACGG

1045	ATATCGTTAAGCCATACGCC

1046	ATTCTGATAACGCTCTCGAC

1047	ATTCGTCCAACGCGGTCGAT

1048	ATATGCACAACGCGCAATCG

1049	TTAGCTCTATCGCAGTCCGA

1050	ATTAGCTGAACGCCTCGCAA

1051	ATTATCTCAACGGAGGAGCA

1052	ATGTTGCTAACGGACGGACA

1053	ATGTGTTCAACGGAGACAGA

1054	CTCTTTCTAAGTGAGTCGAG

1055	CTGCTTGAAGTCGTCTCACG

1056	CTGCGTTGAAGTGGCTTACT

1057	GTGCGTTCACATGGCCGTAT

1058	GTAGCCGCACCTGACTGTAT

1059	GTAGCGCCACCTGACGTTAT

1060	GGCGCGTCACATGATACATT

1061	GGTTGCTACGATGACTCAGT

1062	GAAGGCCCGTACACTCTATA

1063	GACAGGGCACACGACTCTAT

1064	TGCGCGGCACTCGTTCTATA

1065	GCGGTTGCACTCGTAGCATA

1066	GAGGCGTGACCAGTCCATAT

1067	GGACGCTCACCAGTGCTTAT

1068	AGTGTCCAACCAGACCAGAG

1069	AGTGCCATACAAGCGCATAG

1070	GTAGCCTTACATTGGCAGAG

1071	GTCGCCGCACATTCGGTTAT

1072	GTTGAGTCAGATTAGCAGTC

1073	TCGTAGGGACTGCGCTCATA

1074	CTCAGATGACAGCGACGCAT

1075	CTCTGAGGACAGCCGAATCT

1076	CTAGGATGACAGCCAGACAC

1077	CGTGAATTACATCAGACAGC

1078	CTGATTATAGCTCATACGCC

1079	CTAATATGATGACAGTCCGC

1080	TACTTATGATGACTGCGGAC

1081	GAACTATGCTGACAGTACCG

1082	CGATTCTGACCACATACGAG

1083	CTAATCTGACCACGAGACGA

1084	CTGTATTGACATCAGACGAG

1085	CTTCTCAGACATCGGACGAG

1086	GCACTGTGAATTAGCGAGCA

1087	GCCTACGGAATTGGCAGACT

1088	GACCTGGAATTAGCACACGC

1089	GCCTGCGAATTAGCGGACAT

1090	GCGATGCTAATGATGTGTAC

1091	GCCCGTCTAATGAGTGGACA

1092	GCCTAGCTCATCAGACGGAA

1093	GCATGGACATCCTACGAGAA

1094	CGCCTGCCAAGCTGTGATAT

1095	GCCTGCGCCATCAGTAGATA

1096	GCACGGCCAATTACTCGATA

1097	GCAGCGAGACCATGTGATAC

1098	GCAGCAGCACACTGATCGTT

1099	GACCCAGCACATTAGCGAGA

1100	GCTCCTGCAATGTGCGGATA

1101	GCGCCTGAATTGTAGCACGT

1102	GCCACAGCATTGGAGAGAAT

1103	GCCAGGCTAATGGATAGTAA

1104	GCCCTGCGAATGAAAGACAT

1105	GCAGCGGGAATTAGATATAC

1106	GCAGGTGCAATGATTCTACC

1107	GACCGGGCAATCACTTCAGA

1108	GCCGGGCAATGCGTTCATAT

1109	CCCAGGGCAAGCGATCATAA

1110	GCCACAGGCAGGGCATATTA

1111	GCCTAATCCTGGGACACTGA

1112	TCGTCTCGATCTAGGCCATG

1113	GTGTCTCGACTCAGCCTATA

1114	GACGTAGTAATCATGTCTCC

1115	GACTTATACGTCATGCGACC

1116	ACGATGTAACACAGCGACCG

1117	AGTCGTGTAACCATGTGACA

1118	GTCGTGACAGTGATGTACTC

1119	GTGGAGTGACGTATCTCTAA

1120	TAGAGGTGACGTAGTCCACT

1121	GTCGTGCGAGATAGCTCTTA

1122	GTGTAGAGATATAGCATCGC

1123	TAGTCGTGAGATAGCGATTC

1124	CAGTGTGTACGAATACGAAG

1125	CGAGTGTCACATACCACATA

1126	CGTATAGCAGACAGCGCAAT

1127	GACATCGACGACAGGCCATA

1128	CGAAGCTCACGTAAGTCAAG

1129	TAGTGCTCACGTAGCCCAGT

1130	TGCCCACGGTGAGCTAGTTT

1131	TAGCTGCCAGGAGCGTTCTA

1132	TCGGCCTACGCTGTGCATTA

1133	TAGGGTACTGATGAGCACTC

1134	CTACGGGAAGGTTAGCACCA

1135	TGGTGATACCTGTGCGCCTA

1136	GATTAGATACCACTGCCACA

1137	GGAGTGATACCTCGATCCAC

1138	AGCTGACGAAATCTTCACAC

1139	GAGGAGATAATGGTCACTAC

1140	CACGGAATAATACATCCTCG

1141	ACAGCAACAAGTCGAGCCGT

1142	ACGGAGAGAAATCAGCCCTC

1143	CAAGAGATAATACGGCTGCC

1144	CAAGTCCTAAGACAGCTACG

1145	ATAAGCGCAAGACAGGCGTC

1146	ATCTGAGCACAACTAGGACG

1147	CACAGGCTAAGACAGGAGCT

1148	CATAGCGTAAGCCAAGCAGC

1149	CATAGTCTAAGCCACATCAG

1150	GACAGTACATGCCAATCAGC

1151	GCGGTAATCGGTGCATCAAA

1152	GGGAGTATAGCTGACCATCA

1153	GTAGGCAGACCTGATCCCTT

1154	GAGCCAGACCACGCTTGATT

1155	GGCGCATCACTAGCCAGATT

1156	GGAGCTACATCCGCCAGTTT

1157	GGAGTCTACCCAGGGCATTT

1158	CGCGCTCTACACGATGGATA

1159	CGTGCCACACCTTGGAGTAT

1160	CGCGGCACACAGTTCAGTAT

1161	GCTCGTCCACAGTGCGTTAT

1162	GCTGACGCAGAGTCCAGTTA

1163	CCGTAGCGACAATCAGCTTA

1164	ACGCACCGAAAGTGAGCGAT

1165	ACGTCCTCAAAGTGCAGACA

1166	ACGCAGTCAAAGTCATATCC

1167	CAGAGTCTAAGATCACCACG

1168	CACTGTCTAAGATACACACG

1169	CAGCGTACAAGCTATACAGC

1170	CCGACGACAATGTACGACAG

1171	GACTAGCGAATCTAATGAGC

1172	CGTCGAGCAATATGAATGAC

1173	CTGTCGCGCACTTCATAGGA

1174	CCGCGACCACGATAGAGAAT

1175	GGCACACACGTCTCGGATAA

1176	GGCAGACGACGTTGCATACA

1177	CGTGGGACACAGTCGATCAT

1178	AGTGCGAGAACATCGTGTAA

1179	GGCAGCACAGCTTGTACGAT

1180	GACCATTGAATATGTCGAGC

1181	GTACGCATATTTAGCCAGCA

1182	GGCAATCTGTTCACGACCAA

1183	GCTGACTAATTGCTAGACAG

1184	GGTGTCTAATTGTATGCACG

1185	GTTGACACATTGTTAGCAGC

1186	TTAAGAGATTAGTCTGCCGC

1187	TCACGTAATTTGTTAGCCGC

1188	TGAGTGATAGCTCGGATCTC

1189	ATGATGATAACTACGTGCCC

1190	ATGCGAATAACTATGACGCC

1191	ATGGAGATAACTATGCACCC

1192	TCGTTGCGACCTATGCGTAG

1193	TAGTTCGCACCTACTGCTAG

1194	ATACGTGCAACCACTGCTAA

1195	ATGTCGATAACCTCTGCTAC

1196	ATCTAGTCAACCTGAGCTAC

1197	AGTATAGCAACCTCAACTCG

1198	AAGACACTAAACTCTGCTCG

1199	ACGATAATAACAGCTCCTCG

1200	ATAGATATAACTGACGCGCC

1201	ACTGTAATAACCAAGCCTCG

1202	ACTGATAGAACCACAGCGCG

1203	ATGGCGACACACATACAGCG

1204	ACGGCGAGAAATACGATGCC

1205	GACGCGAGATCAATGTAGTA

1206	CGAGAGTAATCAATCATCCG

1207	CGAGCAATACATACATCTGC

1208	CAACATAGTTACACACGCTG

1209	CAGCTTATAGAGACACACTC

1210	CCATAGAAGTAGACACCTCG

1211	CTCAGAGACATGACACTCGA

1212	ATCAGGTCAACTAATCACCG

1213	AGCGCAGTAAATAGCTTAGC

1214	ACTCCACGAAACATGATTGC

1215	CTCAATATAGACACGATGCC

1216	CGCATTAGAGACAGATCGAG

1217	CGCACATGACATAGAGCACG

1218	CGCACATTAGACAGAGAGGC

1219	CTAGACTAATGCAGAGAGCG

1220	GCGTATAGATGCAGAGATCC

1221	TCACTAGCGTGGAATAGAGC

1222	CAGACTGAACTCAATGTACC

1223	CACGATGAACTAGATGTACC

1224	CGAATGATAAGTATGACGGC

1225	CGAGATGCAAGTATAGTACC

1226	GGATAGCGAGATATAGACCC

1227	GCATAGCACGATGGACGATC

1228	CTCACAGGACATGCAATCGG

1229	TATACATGCTTCGATCACCG

1230	ATATCAATAACTGCGACGCC

1231	AATACGAAAGATGCGGCCCG

1232	ACAGATACAAATGTCGCCCG

1233	ACGAATAGAAATGTGGCCGC

1234	ACATTACTAAAGGTGCGACC

1235	AGATTAGTAAATGCTGCGCC

1236	ACTATGATAACAGCAGCCCG

1237	ATATGAATAACTCCAGCGCC

1238	AGACTGAAATCTACAGCCCG

1239	GTACTGATAATTGGATCGCC

1240	CCAGAACGGTTGCAGACACT

1241	GCAATAGTTGGACCCAGGCT

1242	GGAATAGGTGGACTCACTCA

1243	GCACAAGTTTCGCGCATCGA

1244	GCGGAATCTGTGCAGCATCT

1245	GCGAGAATATGGTGACATCT

1246	GCGGTCAATTAGTGGACTCC

1247	CTCCTACAATGGTGACACTG

1248	CTATTACAATGGTATGCCCG

1249	AATCATACAAAGTGTGCCGC

1250	CATGATCTAAGAGTGTAGCC

1251	CAAGAAGTAAGATGCGTGCC

1252	CATGTGATAAGATGTGGACC

1253	AACTTAGCAAACTTAGCGCC

1254	TCTTCGATATGATAGCGTCG

1255	GACGTTAATTGATGAGACGC

1256	GCGTGAAGTTGTTAGCACAT

1257	GCCGATACATGCTGCACGAT

1258	CGCCGATTAAGCTGCGACAT

1259	CGTCATTTAAGTTAGCGCAC

1260	CTCCATCTAAGGTGCGATAC

1261	CGCTTATCAAGGTGCAGACC

1262	GATGACTCAATGTGACTCAG

1263	CGCTAGTGACAATTATGTGC

1264	GCTAGGTGACAGTATGCTAT

1265	GCTGTGCTACGACGTTGACA

1266	GCTAGAGTAGACCGATGCCA

1267	GTATATCGAGATCATAGGCG

1268	GTCTTGGACTATACGAGCGC

1269	TACTTGTAGATAGCGAGCGA

1270	GTACTCTGACATGATTCGCA

1271	TATACTGACCTTATCGGCAC

1272	TCGTCTTGAGATATGTGGAC

1273	TCATGTTACGGTATGCGAGA

1274	TCATCTGCACGTATCGTCAA

1275	GCGACTGGACAGATTGCATA

1276	CGGGCGCGAAGTATTCACAT

1277	GTGTGGGCACGTATTCCATA

1278	TCCGGGCACGGTGTCATATA

1279	TGGGCGCTACTGGCTCTTAA

1280	TGCGCCGCCAGTCTGTTATA

1281	TGGCCGTTAGAGTCTGCACT

1282	ATGGGCGCAACCCTGTCATA

1283	CAGCCCTGAAGACTGCGATA

1284	CGCCGCTCAAGGCTATGATA

1285	CGCTCCTGAAGGGTAGTTAA

1286	GGCCCGACAGGTGCTATTAT

1287	GGATAGGCAGATGCACTTAT

1288	GGACAGACGTTGACCAGCTA

1289	GTAGCGACATTGAGTTAGCA

1290	GACTACGAATTGAGCATACG

1291	CTACACTAATTGCAGCAGCA

1292	CGTACCCGAATGCAGCAGAA

1293	GACGCCTAATGACGCTGAAA

1294	TAGCTTGTACTGCGACTGAC

1295	GATACTCTAATGCCATCGAC

1296	CGGCGTACAATGCCATAGAA

1297	CGGATACGAAGGCTATGCAA

1298	ACGGATCGAAAGGTATAGCC

1299	ACGGCGCGAAAGCGTCATAA

1300	CGTGAGGGAATACGTCATCA

1301	CACAGTGGAAGACGCATCAC

1302	GAGGTGACATGACGTACATC

1303	GAGTAGCGAATGCTCAGCCA

1304	TATAGCACAGTGTCCAGCAA

1305	CGTATGTCAAGGGCCTGATA

1306	CGAGACGCAAGGGATTTACA

1307	GAGACGCAATGTGAATTACG

1308	GATCGCACAGGAGCGTATCA

1309	TGCCCAGAGCGTATGAGCAA

1310	TGAGGGCGAGCTATCTATCA

1311	TTGTGGCTAGGTATCGCTAC

1312	TGGTTAGCAGGTATGATCCT

1313	CTCACTGCAAGGATGGGACT

1314	TCCTGTAGATCCCTATGCGG

1315	TCGTTGTCAGCATATTGAGC

1316	ATCATGTGAACCTATTGGCC

1317	TACACTGGGACCTATGGGCA

1318	TACCTGGGAGCATAGCTGAC

1319	TAGCCCGCAGCATAGGGTAT

1320	GAGCCTCAATGCTACGGAAG

1321	GATGTTCAATGCTGGCCGAA

1322	GACTTGTGAATATCTGTGCC

1323	GCCGCCGAATTATTGAGCAA

1324	TGGACTGATTGATAGGCAAC

1325	TGGCAGATCGGTGTATTCAA

1326	TATGCGTAATGGGTGTTCCA

1327	TTAGGTCGATTGATAGTCGC

1328	TCTGCTTTACTGCGTAGCCA

1329	TTGACGAGTTTGCAGTGCTC

1330	CTTGATTAAGTGCTGTACGC

1331	CTCGGATCAAGGCTTACCGT

1332	CCGGGCTCAACGCTTTGTAA

1333	TGTCGCCCAGCTCATGTGTT

1334	CTGGACCCACAGCTATGGAT

1335	CACGGGCCAAGAGATATACC

1336	CGCCCGCCAAGTGATGTATA

1337	CGCCAGCCACATGGATAGAT

1338	GCCCGGATACATGCGATTAG

1339	GCTGGCCTACATCCGTATGA

1340	AGATGGCGAAATCCGTATAG

1341	GCAGGGACATTACGATCAGT

1342	AGCAGGTGAAATCGTACTAC

1343	GCAGGTCAATCTCTGTACGA

1344	GCATTGTAAGTTCGGTCAAG

1345	GCACTGGTAATTCAGCTACG

1346	AGCATCATAACCCAAGCTGG

1347	ACCAGTCCAAAGCATAGTCG

1348	ATCATTTCAACGCAGTGACC

1349	TCAGCCCTATCGCAGGATGT

1350	GTCAGCACCAGCCGTGATTA

1351	GAATTACGCACCCAGCTTGA

1352	GAATGCGCCTACCAGCTATA

1353	GAATGGCGACAGCGTACATA

1354	GGATTGCCACGACTCACAAA

1355	GCTCATTGACACTGCGCTAT

1356	GAGCATGGACCACGGCTATA

1357	CAAATGGACAGACAGCCTGC

1358	CACTTTGAAGCACAATCACG

1359	GCTGTTGCAGGACGCATCTA

1360	TACCTGGCATGACGCGATAT

1361	TTCGTGGACTTGCGGATCTA

1362	TTCCTGCGATAGCGGCGTTT

1363	TTGATCTGATAGCGGGTCTC

1364	TTGATCGCATAGCGTCTGAC

1365	TTCGAGGCATGTGGATCTCC

1366	TTCAGCGGCTAGGCGATTTC

1367	TCCAGCAGATCGGCGAGTTT

1368	TTCAGCCGATCTGCCGATAT

1369	TTCTATCGCATGTCAGCCGT

1370	TGTAATGCCTGCCAGCCGTA

1371	TAATTGCCTGCACAACTGGA

1372	TAATTCCATTGACGGCAGCG

1373	TTATTGCCATAGCGCGACGC

1374	ACAATTTCAAAGCCTGACCG

1375	ACAGGCCCAAAGCACTAGGT

1376	CGAATGCCAAGGCCAGCTAA

1377	GATGGTTCAATGCCTGGACA

1378	CTGGGCCAAGTTCTGAGACA

1379	CGTGGGCAATACAGTTGAAT

1380	GAGCTGCGAATCGGTATTAA

1381	GACCGGCGAATCGAGCATAA

1382	GACTTCGCAATCGGCACGTA

1383	GACGCGCCAATCGTGCTATA

1384	GATCGCTGAATCGTGCGTAA

1385	GATCACTGAATGCGACGTAA

1386	GATCGTGCAATGAGGTTACA

1387	GAGGACTAATTGAGATGCAC

1388	GACCGATAATTCGATATGCC

1389	TAGCATTGATCCCATGTCAC

1390	TTCAGCTTATGCCAGTCGCG

1391	TGACGGCCTTGCATATCCGA

1392	GAACGCGCCTTACATCAAGA

1393	GAATACCAGTTACACTCCAG

1394	CAAGAACTGTTACACATCGC

1395	GACGAGAATGGACTACACGT

1396	TACAGACGCTTGCATAGATC

1397	TAACGACCTTAGCGACGGGT

1398	TAACGACGCTTTCCCAAGGA

1399	TTACCGCTGTTGAGCCCGTA

1400	TTCCATGTATCGAGCGTCAG

1401	TATACGCCCTTCAGATCGGG

1402	CTAAGCCTATGCAATATCGC

1403	CCAGCTATAAGCATATTGCC

1404	TACAGCATTGTCATGGACTC

1405	TAAGCTATTGGACATTGGGC

1406	TTAGCATCCTGTCATAGGGC

1407	TCTAGCAGCTTTCATAGCCA

1408	TCATCACGCTTTCCGAGGAT

1409	GCATACATTGGACGAGAGCT

1410	TCTAGCATTTAGCATGGTGC

1411	TTATGACTTGATCTGAGGCG

1412	TGTTCGCACTGGCTTAGCTC

1413	GAGTTGAATGCAGATAGCTC

1414	TGCAGGCTCGCAGATGCTAT

1415	TGCGAGGACTGTAGCTTAAT

1416	TGGGCACTCTCGCCTAGTTT

1417	TGAAGCGCCTCGACTAGGTT

1418	TCATCGGCACTGATAGCTCA

1419	TCATCAGGCATGGAGCCAGT

1420	TAATCAGCGTTACGTCCGCA

1421	GAATGTGACGCAAGTCTGAC

1422	AGATTTGCACAGATAACGCG

1423	GATTACTGACCAGCATCGAG

1424	AACTATCGAAACCGCCAGGG

1425	ATAATACAAGAGTCGCGCCG

1426	ATAATCATAACCTCGACGCG

1427	ATTATCATACAAGGCAGGCG

1428	TATATCGGATCAGCAGGTCA

1429	TAATTTCGCTACGCAGGGAG

1430	TAATCCTGTTACGCGGAGGC

1431	CTTTAGCTCCACGCAGTGTG

1432	TTCTAGCCGTCCGCAGTTTG

1433	GTCATGCGAGCAGCAGTCTT

1434	GGCGTTCGAGCAGTCATCTT

1435	TACCGCCAGTCAGCGAGTTA

1436	TACCGCCTAGCAGCATTGGT

1437	TACCGCACTGCATGTCAGGT

1438	TGTCTCGATGCAGGTCTAGT

1439	GCCGCATGACGAGGATATAC

1440	TACCGCGAGGCAGGATTCTT

1441	TACAGCAGTGCAGGGCCTTA

1442	GCAGCTAGAGCAGAGTATCA

1443	GACAGCAGATCAGAGACTCC

1444	TAAGCACGTTTAGAGCTGAC

1445	TAACCGTGTGCAGATCGGAT

1446	TACTGCGGACCTGGATCTAC

1447	TCAGGGCTACTCGATTGGAA

1448	TCCGCAGACTTAGCGTTACG

1449	TGAGCAGCCTACGTTACTAG

1450	TGCGTCAGATGCGTATATGC

1451	TCGTCCAGATGCGGAGTTCA

1452	TCGGCTATATGCCAGATCCT

1453	AAGGACAAAGAGCGCGTCTC

1454	TAGCACCGATGGCGAGCTTA

1455	TGTCCACGGTGCCGCAATAT

1456	TGGTCCGACTGCTGCTACTA

1457	TGTGCCGACTGCCGTCTTAT

1458	TTCGCAGTATGGATCGGTAT

1459	TTACGCAGTTGCATGGAGCT

1460	TTCTGATTAGCTGCGGACGC

1461	TGGTTATACTTTGCGAGAGC

1462	TTTGTTAGCTTCGGGCAGCC

1463	TTGGTCTGATCCGGGCATAC

1464	TGCTTGGACTCCGGCGATTA

1465	CTGCTTGGACCAGCCAGTTA

1466	AAGCTGGGAAACGCACACCT

1467	AAGCGGGCAAACGATATGCT

1468	AAATGCCGAAACCATCTCGT

1469	CCATTCGGAAGCGACTCGAT

1470	TACATGGGCTGAGAACGCAA

1471	TATTGGGCACGAGCGCCTAT

1472	CATCCGGGAAGAGTAGCACA

1473	ATTTCATGCACATAGCACGC

1474	ATTGCAGCACAAGCCAGACT

1475	TTGCTAGGCTCAGTCCCGAT

1476	TTGGCGAGCTGCGTTCTCAT

1477	TCCCAGAGATGCGACTGCTA

1478	TTCGCTGGATCGGCATGTCT

1479	TTGCTCCTAGCTCGCGTGAT

1480	TTGCTGCTAGTCCAGTAGGC

1481	CATTAAGCAGTCGAGAGACC

1482	CGTTAATGCAGCGAGAATCA

1483	CGCAAGCTCAGCAGAATTAC

1484	CCATGTCGAAGCATTCATAC

1485	CTGAATGTAATCATCGTGCC

1486	CTTAGATGAATCACTGCCAC

1487	CTTCACGGAATCTAGGCACA

1488	CACTCTTGAAGCTAAGCACA

1489	CCTCTAAGCATGTTGACACA

1490	CATGCCGGAAGATGCGTACA

1491	CAGGCAGCAAGATGTACGAC

1492	CAGTGGGCAAGATAAGATTC

1493	CCGTGCCCAAGCTAGTGATA

1494	GATCGGGCAATCTGCGTACT

1495	TTCAGTGCATTATAGTGCGG

1496	TTATCTGCATGAGTAGGTCG

1497	TCGATAATCTTTGTAGCGCG

1498	TCTTACAGCTTTGCAGGGAG

1499	TCCTACATTTGCCACGGGAG

1500	TCTTCATCAGTGAGGCGCGA

1501	TTTCTAGGATGTATGCGAGC

1502	TATCCAGCATTACTGCGAGA

1503	TTATTCTCAGCACGCACGGA

1504	TGATTCGCACTCGCGGCTAA

1505	TTTGTATGAGTCGCTCCGAA

1506	TTCCGATCAGTCGATGCAAA

1507	GATCGTCAATCTGATGCACC

1508	AGATCGCTAAATGAGGACCC

1509	GATGCTATAATCGTATGGCC

1510	AGGAGCGTAAATTATCAGCC

1511	GGGCGATGACTATATCTGAA

1512	CTGGATTGACACTAGCATAC

1513	CTGCGGATACCATAGACAAC

1514	ACTGCAATAACATATCCGCG

1515	AATGACATAAAGTGCTGCCC

1516	ACATGCAGAAAGTAGTCCGC

1517	ACAGGCGAACAATGTACCCG

1518	ACCAGCACAAAGTCTACTGT

1519	AGAGAGCCAAATGACTGTCC

1520	TAGTGCATAATTGCTTGCCC

1521	TGAGCATATAGTATTCGGGC

1522	TGAGCGTTAGAGCTTGATCC

1523	TAGGCGCTAGGACTCGTTAT

1524	TATGGCCGACGATGTGTCAC

1525	TATGGCTGACGTAGCGCACT

1526	TCTCGGTTACTGAGTGGACT

1527	ATAACGGGACAGAAGCTGCT

1528	ATAGAACTCAATAGCCGCTC

1529	CATAATACACATACGCTGCG

1530	CAGTACGCAAGCAGATAGCC

1531	CAGACGCGAAGATAAGTTCC

1532	CAGCCAAGATAGCATACTCG

1533	TCCCATAGATAGCTCGCTGG

1534	TTCGCATGAGTGCTGAGTAC

1535	TTCCATATACTGGTCGGCAG

1536	TTTATGATATGCGTCGCGGA

1537	TTTCTTATATGCGCGAGCGG

1538	TGTTGCATATTAGCGGCTCG

1539	TATATGACATCTCTTGCCCG

1540	TTGTCACATTTGCGCTCCGA

1541	GCATCCGAATTGCGACGACT

1542	GGATCTGAATTGCGCGACCA

1543	GGCTATGAATTTCGCATCAC

1544	GGATATGCAATTTGTAGCCC

1545	CAGCGTATAGCAAGATGGAT

1546	CGAGCGATAATCAAGTCGAG

1547	CGCGGATGACACATACTCAG

1548	CGACGAGCACCAATTCGAGA

1549	CCGTAGTGACCAATGCAGAC

1550	GCGATATACATCATTCGGAC

1551	GACAGTCTAATCACTCGTAC

1552	GCAGTTATACTAAGGTGTGC

1553	GCAGTAGTAATGAGTGTCAC

1554	GCAATGTAGTCGAAGTGTCT

1555	GCATATAGATACCATTCGCG

1556	CGAATACTAGACACATTGCG

1557	CAACTACAGTACACAGCGTG

1558	AGACACAGAACTACCGCGTG

1559	ATAGCACAACGTAGACGCCG

1560	ATACAGTCAACTACATCGCG

1561	AGTACAACCTAGAATCCGGC

1562	GAAGACTACTAGATACGCGC

1563	CGATAATACTACAGACTCCG

1564	CCGTGCGTACACATAGATCA

1565	CGTGAGCGACACATGATCCT

1566	CTGTAGTGACATATAGAGCG

1567	ATGTCGTCACACAGAATACG

1568	ATGCTACGAACTACCAATCG

1569	ATGATAACGTACACACCTGC

1570	TCGGTCTACGTCTGCTCAGT

1571	GGCTCACGATCCACTGGTTA

1572	TGCCTGATACCTTGGATGAC

1573	GGCCGTGAATTATCATAGAC

1574	GGCTTGGACGCATTGATAAC

1575	CCCATCGAAGCATGTGTAAA

1576	CGGCATCGAAGGCGTTCATA

1577	GCCAGTTGACCACTTCTGAG

1578	TCGCATTAGCCATGTGGAGC

1579	GCAATCTAGTCTAATGGCGC

1580	CTAAGATGTTCTAATCGCCC

1581	CCAATAGTAAGTAATGGGCC

1582	TCATTATACTCTGATGGCCC

1583	ATGCTAATAACTGATCGCCC

1584	AGTGTCAACCATGATGAACC

1585	AGAGCATAACATCATGGCCC

1586	AGAATCTAACAGCGATGCCG

1587	ATTTAGACAAGTCGATGGCC

1588	ATATTAAGAAGTAGGCGGCC

1589	CATATCAGAATACGATGGCC

1590	GATATACAGGATTATGGCGC

1591	CATAAATTGGTTCACACCGC

1592	GAAACTCCAATTCAGCGGAC

1593	GAACAATGAATTTAGCGGCC

1594	TTCCATTAGATGTGATGCCC

1595	TATCATATCATCTGAGGCCC

1596	ATCAGAAGAACTGCACGTCC

1597	AGCACAAGAACTACGCGCTG

1598	AGCAAAGAACCATGCCGCGT

1599	TAAAGAGCAATGTGGCGTAC

1600	TTCAGGGCATTGAGCGTAAA

1601	TTAATGGGCTTGAGCGTATC

1602	TTAATGCGGTTGAGATCGAC

1603	GCAGGGATAGCAGATACATC

1604	TCAGGAGAGGCATCGCATCA

1605	TTATCTTAGGGATGCGGATC

1606	TGTGCTCTAGGTCATCCGAG

1607	TTGTATCTAGTGCGAGGCAA

1608	TATTATCTAGTATGCGCGGC

1609	TAGTTATCAGAGTGACTGCG

1610	GTTAGATCATAGTCACCGCG

1611	GTTAGTATAGATTGGCCGAC

1612	GTGTTTATACGTTGAGCACG

1613	TTATCTGTAGTCATCGAGGC

1614	TGATACTGAGTTAGCGAGCT

1615	GTGATCTCAGAGCGCAGCTT

1616	CAGATGTCAAGACGCGGACT

1617	CTGGTCAGACAGCGGAATCT

1618	CGTGGCAGACAGCTAGATAT

1619	GTGCCGAGACTCCACTGTTA

1620	GCGGACAGCTCTCCTAGTAT

1621	ATGCACAACTATCAAGCCTG

1622	GTGCTTTACTAGCGGAGCCA

1623	TAAATATCGTATAGGCGGCG

1624	TAATTCTACTATACGCGGGC

1625	TAAATCGTATGTAGCAGCGC

1626	TCCTTCACTGTAGGCTAGGC

1627	TCAGTTATATGAGCCGACTC

1628	TCACGTATATTGACTCCGAC

1629	TCACCGTATTCGAGGCGACA

1630	TCGTACTGATTGACGGTGAT

1631	TCACAGCGGTCGAGGTTACT

1632	TTCACGCGGTCGCAGTATCT

1633	TACTTGACGTGACTGCATCG

1634	CGTCACAGAGGACAGCATAC

1635	TCACTAGAGCGTCGAGCTGT

1636	TCTACAGTGTGTCAGAGTGA

1637	CTACCTAATCGACAGCAGAG

1638	CACCGATAACTACAGCAGGG

1639	CAACGTCTAGGACAAGGCAG

1640	CACTAGCTCAGACAGACGAG

1641	GACTTTACAGTACGATCAGC

1642	GACACTGACTGACATCGAGA

1643	GAGACAGTCGAGCGATCAAT

1644	GCACTTGTACGTCCAGTCAG

1645	GTACACGGACTGCCAGCATA

1646	GTAATACGCTATCAGCAGAC

1647	CTAGATAGACATCACTCACG

1648	TAGACTCTCGATCAGCCGTA

1649	GACTTGCACGTACAGCCGAA

1650	CTTATGCGACACTAGCTCGA

1651	CTGATGCTACACTAGGCACA

1652	GCAGACGCACTATCATATAC

1653	GCAGTAGACACTTCTCACGA

1654	GCAGGTACACTGACCGACTA

1655	GCACATCACTGCACGATAGA

1656	GCAATGACTTCGACTCCAGA

1657	GACAAGTCATTTACAGGCGA

1658	GTAACTTGTTTGACAGTGCG

1659	GACACTGCATGGACAGCGTA

1660	GCAAGGACTGAGACATGCTT

1661	TGCGAGGTAGGTTATATCTC

1662	TGCGGAGAGTGATATACTTC

1663	GGCGTGAGAGCATTATATCT

1664	GTGCTGCGAGAGTATTATCT

1665	CCGCGTGTACCATATAATAC

1666	GAGCGTGGACGATATACACT

1667	GGCCGTGTACGATTATGACT

1668	GTAGCTTGACGATGCTGACT

1669	GTGCTGGTACTAGCTGCTCT

1670	TAATGTGACGTAGCCGACTC

1671	TACCGAGTGCGAGATGCTCA

1672	TACCGATGTCGATAGATCCA

1673	TCTCGTATAGGATGAGCAAC

1674	TCGTGAGTAGGATGCTTTCA

1675	TACGTGAGATGATGATCGCT

1676	TAGTCGGTAGCATGAGTCTA

1677	TAGTTCGAGGAGTAGTCATC

1678	TAGGTACAGTGCTGGATACT

1679	CTGCGTCAAGTGTGTAGAAT

1680	TGTGCGCTAGAGTCTGTCCT

1681	GGTGCGTCACGATCTCCTAT

1682	GTGTGGGTACTATGCCATCA

1683	GCTGATGTACTATCCATACC

1684	GCTAGATGACGATCAGGTAC

1685	GCATCTGTACGATCTCAGCA

1686	GCATCACGACGATTATCAGA

1687	GCTACGTTACCATGTGCAGA

1688	GCGTAGTTACCATGCTCACA

1689	GCGTGAGCACACTCTATCAG

1690	GCGTGCGAATTATGTATCAG

1691	TGTGGACACTTCTTATAGGC

1692	GCGTGAGTAATTTGACTACG

1693	AGGTGCGTACAAATGCTATG

1694	CGCAGCCGAAGTACGCTATA

1695	CGACTGCTAAGGAGCGTACA

1696	CGATGTTGACAGACCGCACT

1697	CATGTAGAACTGACTCACAC

1698	CGAGCGGTAAGGATCTCACA

1699	ACACGCTGAAAGAGTACGCC

1700	GATCTGACAGGTAGCGATAC

1701	TCTCGTGCAGGTAGCTGTCA

1702	GCTCGGACAGATCGGTATCA

1703	GCCGGTATAGCTCGATATGC

1704	GCTGATACAGTTCGATAGAC

1705	CCTGACTAAGCTCGATAGAG

1706	GCTGATTACGATCTAGTAGC

1707	GAATGCTCACGACGAGTAGC

1708	GAACTGTCCTGACGAATGAG

1709	TTACTGTCTATGCGATCCGA

1710	GTTATGTCATCGCAGATTCC

1711	AGCTATATCAAGCAAGCGTC

1712	GCTTATACAGTGCAGTAGAG

1713	TTAAGTAGGTAGCTGGCCTC

1714	CAAGAGTAACTGCAAGGCCC

1715	CACTAAGACATGCACAGCGG

1716	CCTAGTGCAGACCACATGAT

1717	TCATGCACGTCGCCATAGGT

1718	TCTATACGCTCGTGCAAGGA

1719	TCAAGCCCGAGCCGAGTTTA

1720	TCAGCGCCAGCATTCATGGT

1721	CCATGCGGACCAAGTCGATA

1722	GAATGCCGAGCAATGATCCT

1723	GAATCGGCAGCAATACTGTC

1724	GAAGCCCAGCTAAGTGGTAT

1725	AACAGCCCAAACCGGATGGT

1726	TAAGCACCTTGCAGGATAGA

1727	TCAGCCCGATCCAGGGTATT

1728	TATGCGCCCAGGAGGCTTTA

1729	TGCCCAGCAGGTCGGATTAT

1730	TAGCTCGCATCACTGACGGA

1731	GGTCCCATACGAGTGGCATA

1732	ACTAACCCAACAGCGGAGGT

1733	CAGCTCTAAGCAGCACAGGA

1734	CAGGTCAAGCACATACCAGT

1735	CTGTGCAATCACGCCAGAGA

1736	CGGCGCAATAATGTCACAGA

1737	CGGGACATAATTGACACAGT

1738	AGGGCCAGACAATACACCGT

1739	GAGGTCACAATTTGCTACAC

1740	CAGGCACAAGATTGAGCACG

1741	ACAAGCGCAAATACTGCCGG

1742	ACAATCTGAAATAGCGCGGC

1743	ATCGACCCAAGAATAGCTCG

1744	ATAAGCACAAGCAGCGCGGT

1745	AACACTCCAAACCGAGGGTG

1746	AATCTATCAAAGCGACGGCC

1747	ATTCCCATAACGCGGAGGAC

1748	ATGCCAGCAACGCGCTAGAA

1749	ATGCTCACAAGCCACGAGAG

1750	ATGCTCCAACGATACATACG

1751	CAGCTTCAAGAGTACATACG

1752	CATGTCACAAGGGCATAGAC

1753	CATGGTCTAAGCCCTACAGA

1754	ACATGGCGAAAGCACCACGT

1755	CTTAGTTCAATGCACGCACG

1756	CGCCAGTTAATGCACGACAG

1757	CAGCAGCAACTCGACTAGAG

1758	CCGAAGTCAACTGCGCTAGA

1759	CCAGTGTCAATAAGAGACGT

1760	CCAGGCGAACTGATCGTAAA

1761	CCTGGTACAATCAGTAGCAA

1762	CTAGTGGCAATCATCAGACA

1763	CAATGCGAACTCACTAGACG

1764	CATGGCGTACCAATACCTAG

1765	AAGTGGCCCAAATAACTGCC

1766	CAAGGCCCAATACACAGGGT

1767	GATCTGCCAATGCCGCGATA

1768	GATTCGCCAATGTGCGCTAA

1769	GAGCCGCCAATGTCACTAGA

1770	GCGCCCGGAATGTCGTATAT

1771	GCCGCGCCAATGTTACGTTA

1772	CTTCGCCCAATGCGTAGGAA

1773	TTCCCATGATCGCTGACGAG

1774	TTGCGGGAGCTGCCTCTTAA

1775	TTTCCCGGATAGCCGCTGTA

1776	TTTGCTGGAGTATGCGCTCA

1777	TTGTTCTCAGCTTGCGGCAG

1778	TGTGTGGCAGCTTAGTTCAC

1779	TCTTGGGTAGCATCTGTCAC

1780	TGGGTGTCAGCATCTACGCA

1781	TTGTGGCAGGTATGCTCCAA

1782	GTTGGGCACGGATCTCTATA

1783	GCCGAGGCACCATGCTTATA

1784	CGCTTGGGACAATCGCGTAT

1785	CCGCAGGGAACTTCAGCATA

1786	TGGAGGGCAGTCTCTCATAA

1787	CTGGGTGCAAGTTGTATCAA

1788	TGGCGCACATGGTGTCATAA

1789	TGGCATCACTGCTGCGGAAT

1790	TGCCAGTCATCCTAGCGTGT

1791	TCAGGCCAGGACTGCTTATC

1792	TTGGCATAGGAGTGCTTCTA

1793	TTTGCAGACGGTGTGCTATA

1794	TTGAGTCAGGGTGCCCAACT

1795	TTTAATATCGTTGCCCGAGC

1796	TCAGGATGATGAGCATGTAC

1797	CTCAAGCTGGGAGAACAGTA

1798	TCAGAAGTGGCTGGATCATA

1799	TCTCACATGGCTGGAGCATT

1800	CTACTGACACTGACCAGGGA

1801	TCGTAGCGACTCTCCAGGTT

1802	TACGTGTCACTATCGTCGAG

1803	TATAGTTACGTCTCGCACGC

1804	TACCGTTACGTCGCTCAGAG

1805	CACTACAACGTGCTACAGAG

1806	ATAGGTATAACGCAGTACGC

1807	ATAGCAGTAACGCATAGTCC

1808	ATAATCGTAACGCACCGACG

1809	ATGAGTGTAACGCCTCGACA

1810	ATGTAGCGAACGTACTCACA

1811	ATCTAGCGAACGGAACTATC

1812	GTAGAGTCACGATGCAGTAC

1813	GTAGTATGACGTAGCAGTAC

1814	GTACGTCGAGCTAGATCGCT

1815	GAGTCTGTACGAGGTATCAT

1816	CGTGTCTTACAGCACTACAT

1817	CGTGCGCTACAGCAGTCATT

1818	GTAGCCTAGACGCAGTCGTA

1819	CGTCTCGCAAGTCGCGTATA

1820	AGTCGCGCACAGCAACGTAT

1821	ATCGAGGTAACGCCATATAC

1822	CTCGTGACATAGCCATAGAT

1823	ATGCGACGAACGCGGATATA

1824	CTAGACAGACTGCGACATAC

1825	TAGTCGTAGAGGCGCTATCA

1826	CTATCGAAGTCGCGTGAAAC

1827	CTGCGTATAGAGATCAATCC

1828	CCGCGTATAGACAGATATGA

1829	CTCGCTTACGACAGACTGGA

1830	CGCGGAGGAGACATAGCTTA

1831	AGCGTCACACACAAGACTGG

1832	CCTACGAGACACATGACAGG

1833	CGCCGAGTACACATGCAGAT

1834	CCGTCGATACAGACTCAGAT

1835	CTCGTCAGACAGAGCGGATT

1836	GTCTCGCCACGTATCGGATT

1837	TCTCGCGTACTTAGGCATCA

1838	GTCTCGGTACGATGTAGCAA

1839	CGTGTGAGACAGTAGCATAT

1840	CGTGTAGCACAGCGACGATT

1841	GTGTAGCTCAGTCAGCATCA

1842	AGGTAGATAACGCTAGATCC

1843	CTGTAGAGACATCTGAATCC

1844	CTGATACGAAGTCTTATGCC

1845	CACGCTCGAAGACTAATGAC

1846	CACGCGATAAGACGTATAGC

1847	CTAGCAGTAAGTCTATGCAC

1848	CGTAGTTGAAGTCATCGACA

1849	CGCGATAGAAGTCAGGACAT

1850	GACGGACGACATCTGAGCAT

1851	CATAGACGAATACAGCGGGC

1852	GATCACGACCTACTAGCAGG

1853	AGATATAACGAACTCTCGCG

1854	GATTATAGACTACTGAGGCC

1855	GAGTTTATACTACAGTGCCG

1856	GTCACTTACGCTCAGGCAGA

1857	TCGCTAGACGCTCTGGCATA

1858	GTACGCTCAGCACTGGCATT

1859	GACGCGCTAATACTGTCACA

1860	GCGTGCATACGACTGCCATA

1861	TGTAGTCTAGTGCATGGTCA

1862	GTATAGTCAGAGCTGGCACC

1863	CGTCAGTCAAGTATGGCACA

1864	ACGAGAGTAAATATGCTGCC

1865	ATAGAGCGAACGATAGTTGC

1866	ATCTGACTAACGATGATGCC

1867	GTTGTAGGACGTATGATCTC

1868	TTAGTCGAGTCTATGAGCCC

1869	CGACGATACAGTAATCTAGC

1870	CTGATACAGGCATAGACATC

1871	GGTATCAGAGCTAGGACTAT

1872	TCTATCTCAGCTACGGTCGA

1873	TCAGTTCGATCTACGGCTAG

1874	TCAGTGCGACTCAGGTACGA

1875	GTCACTGCACTCACGGTAGA

1876	TAACGAGTCTTCAGCACGTA

1877	GAAGTCGCCTACATAGCCTA

1878	GAAGTCCGTTACATGACCAT

1879	GTCAGAGGATCGAGCCACTT

1880	GCGAGACAGGTCAGTACAAT

1881	CGTCAGAAGGCTCGCACATA

1882	GCATACAGGTTACGACGCCT

1883	GCGATACAGGTTCAGAGATA

1884	GGACGCATAGCTCGCAGTAT

1885	GGACGCAGATCGCAGCATAT

1886	CGGCGTTAATCGCAGAGAAC

1887	CGCGTTCTAAGGCACGGATA

1888	CGCGTCGCAAGGCTGTTATA

1889	CGATACGCAAGGCTACGACA

1890	CATCTAAGGACACTACACTG

1891	TATCATCGAGGACTCAGTGC

1892	CACCGAGCAAGACTGACATG

1893	CGCACCCGAAGTCAGAGATA

1894	CGGCTAGGAAGTCAGCATAA

1895	ATGCTGCGAACGCGCCATAA

1896	CCGCGTGCAACGTGTTCATA

1897	GTCGCTGCATAGCATCTCAG

1898	GTCTGTGCATAGAGCGTCAT

1899	GTGGTGTCACTGATACGTCA

1900	GGTTAGCACTAGATCGCACT

1901	CGGGATCTACAGCATCATAG

1902	CTGGATATACAGCACTCACA

1903	ATGCGGCTAACGCCTCATAA

1904	TCGCGGCGCACTCTGTTATA

1905	TCGTGCTACTGCCACTGTAT

1906	TAGGACACTTCGCCACTATG

1907	TATGACAGTTCGCGCTACCG

1908	TCGCGCAGTTAGCCCTATGT

1909	TAGCCACCGTAGCTGATCGT

1910	GTAACCCGCTATCAGATCGA

1911	AGAGCGCAACACCACATTGT

1912	AGGCTAAGAACGCACACTCG

1913	GAGCCTAGACAGCTTCATAC

1914	GGCAGTTCACGACTCGACAT

1915	GGCCTTAGACGACTCGCATA

1916	GGTCGATCAGCACTGCATAC

1917	GGAGAGTCAGCACAGTCCTA

1918	GTATAGGCAGCACGGCTCAT

1919	GCACGGCGAGCACTATCTTA

1920	TAACGTCCTGCACGATCTGT

1921	GGACGCCTAGCACATCTGAT

1922	CGCTGCACATCACATGGATT

1923	GCACATCGAGCACATGCAGT

1924	GCACGACCAGCTCTTAGGAT

1925	CCCACCAGACAGATAGAGGT

1926	CCCGACGCACGAATAGATAG

1927	CCCACGACAGATACATGAGT

1928	CTTCGCGCAGCTACATAGAT

1929	CGCTCCGAAGCTGCGATAAT

1930	CGCCGCGTAAGCAACAAATT

1931	CGACGCTCAAGGACTCATAA

1932	CGCACACTAAGGATCATTAC

1933	AGACACGCAAGAAGCTGGCT

1934	GCACGCATAGCAGAGGATCT

1935	GCTACGTCACTGAGCAGGAT

1936	GTACATCTCGTGAGCAGAGC

1937	CTACACGACTTGAGACGAAG

1938	CTAAGTACGTGCAAGCAAGG

1939	GACACGTAGGACAGCTATGC

1940	GACATAGTAGACATCTCACG

1941	GACAGCGTAGACATCGTCAG

1942	GACTATCACGACATTCAGCG

1943	GATCTACACGCTACCAGTGG

1944	GCTTACTACGGATAGATCAG

1945	GCGTATCTAATGGAGTAGCA

1946	GCGTATTTACAGTGAGCGAC

1947	GCGTATATCGAATTGAGTGC

1948	GCGTTCACAGAGTCCACGAT

1949	CGCGTATCAAGGTCACGACA

1950	GCTATTACAGTGTCAGAGAC

1951	CGTCAGATAAGGTGAGTTAC

1952	CGTCTGTGAAGGTCAGCTAA

1953	TATTAGCACTCGTCAGCAGC

1954	ATGTTATCAACGTCAGCGAC

1955	GGCATACTAGAGTCAGCGAT

1956	AGTGCGATACAATACGAGCG

1957	CAGCACACAGAGTACAGCGT

1958	CGTAGCATAAGGTCAGCACC

1959	GTCCATAGACGTTGATACCA

1960	GCTACGATAGATGAGCCACG

1961	CGGAGTACACCAGATCCAGA

1962	GAGCGTATAGGAGATCCAAC

1963	GACTGTAGAGAGACGATCCA

1964	CTAGTAGGAAGTGCGATCAA

1965	CGTAGAGGAAGTGATACTCA

1966	CGTATCGGAAGTGAGTATCA

1967	CTATGACGAAGTGAGAGTAC

1968	GTTCGTAGAGATGATCGTCA

1969	GTTCTCAGATAGTATGCAGC

1970	AGTCTGTTAAGATATGCGCC

1971	AGCACGGAACAGTAAGCCCT

1972	ATCCAGAGAACGTGAGATCC

1973	GACAGTGTAATATGAGGACC

1974	CATAGTAGAAGATTCGAGCC

1975	TGAGATATAGTATGCGGCCA

1976	ATGAACATACTATACCGCGC

1977	TTCTCTATATCGTGCGCGGA

1978	TGAGTTTACGTGTATGGCAC

1979	ACGGCATCAAAGTTGCATAC

1980	ACGGGCTCAAAGTATGATAG

1981	AGGCGCTTAAATGTGGATAC

1982	CTGCCGTTAATGGCGGACAT

1983	CTGAGCCAATAGGCGCACTT

1984	TAGGCATGATGAGAGCTATC

1985	TGCCTATGAGGAGTATGAAC

1986	GGGCTATAATGAGCTTGACT

1987	TAGGCTTCATCAGCTATCAG

1988	ATTGCTTCAACGGGCATTAC

1989	TATGATCCATGCGACTCGGA

1990	TTGTATCCATCGGCCCAGTG

1991	ATCAAGGCAACCGCCAGTAG

1992	TCTCAGCCATCCGTGATAGG

1993	TATCAGGCATCCGAGCATAG

1994	TTAAGCTCCTCAGTCCATGT

1995	TAAGGGCGATGAGCCTATCT

1996	TAAGGCCGAGGAGCTTTCAT

1997	TAAGGCAGTGGAGCCCTCTA

1998	TGGACAGGCTGCGCTCTATA

1999	CTGGAAGCCTGCGACCAAAT

2000	TCAATGCACTGAGCCCGAGA

2001	GATTCACACTGACCCATGTA

2002	TAAATAGATTGGAGACGCGC

2003	GCATTAGAAGGTCTGGACTA

2004	ATTGGCATAACGTATTGCGC

2005	CAGGACTGAAGATCGAGTAC

2006	TAGAGTCAGTCATAGCTCGA

2007	TTTATCGTAGCTGGCTGCCC

2008	AGGATTAGAACCTACGCACC

2009	GCCGTGAGACCACTGTACTA

2010	GACGCTGAATCCTATTGACA

2011	CGCCTAAGGATCGTGAAGTA

2012	CGACGACGAAGCTGCATGAA

2013	ACTCGAATAACAGCATCTCG

2014	CCCGTAAGCATGGCACAGAT

2015	CAATACAAGATTACGGCCTC

2016	GATCAGAATCTATGGTACGC

2017	TCTGTGTACTGCTCGCCAAT

2018	ATATTTGGAACGCAGCTCAC

2019	TGCAGTATCGCAGCGGTTCTA

2020	GGGCAATGTTTATCCACAGA

2021	CTGACCGAATCCAGCAGAGA

2022	GATCGTGAATCCGCGCACTA

2023	GAGCCGTAATCCGAGCGATA

2024	TACTCCTGACGACTTAGGCA

2025	TGCTGTCACTCGGCGTCTAT

2026	GTACTAGCATATCATCGACG

2027	TATCGCATAGATCAGTGAGC

2028	TACGGGCAGCCAGGTACTTT

2029	GTTCATCACGAGTGCGTAGA

2030	CATGTATCAAGATGGCTGAC

2031	GGTCGCGCATTCCAGCATA

2032	GCACATATCTAGCGACATCT

2033	ACGCGGCTAAAGGTAGATAC

2034	CACTGCCCACAAGATGTAGA

2035	GGATTTACATGGCCTAGCAA

2036	CATGACACAGAATCGACCGT

2037	AGAGGCATAAATGAGTCTCC

2038	TGAGTAGTACGTTACGCCTG

2039	CGATAGCGAAGGAGTCCACA

2040	ACACTCTGAAAGACGCGACG

2041	GTCTTAATGTTGGGCAACG

2042	GTTATCGACTACGCTGTACT

2043	TCGTGAGACCGTCGTCAGTA

2044	GACAGCGCAGTACAGGTAAT

2045	CGTACAGTAAGTATGATGCC

2046	TAGAGCATCTGACGCTATGA

2047	GTCACGATTAGTAGGCACG

2048	TCGTACCTGTATTCAGCGCG

2049	TTAATCCGCTGTAGCCCAAA

2050	TTAATTGACTTCGCTCCAGC

EXPERIMENTS

Arrays containing probes corresponding to SEQ ID NOS 1-2050 were designed and manufactured using known photolithography techniques. Four probes were designed to interrogate each sequence from SEQ ID NOS 1-2050: a probe designed to be the perfect match complement to the sequence (PM), a probe designed to have a central mismatch at position 10 (MM), and probes designed to be the complements to the PM and MM probes (cPM and cMM respectively).
FIG. 2 shows an example of the sequences attached to each of the four array features representing a given tag sequence. The first block contains the cPM probe. The second block contains the cMM probe. The third block contains the PM probe—the probe to which the tag is expected to hybridize with the highest affinity. The fourth block contains the MM probe.
FIG. 3 shows the array features from the above-described array. The array was hybridized with biotin-labeled oligonucleotide tags, stained with streptavidin-phycoerythrin, and the data was collected with a laser scanner. Four features, organized vertically on the probe array, represent each tag-probe. For each of the four tag-probes shown, arranged horizontally across the array, the brightest hybridization signal is seen with the “PM” feature.
FIG. 4 is a scanned image of the hybridization pattern resulting from the hybridization of 2050 different oligonucleotide tags labeled with phycoerythrin to an array designed as described above.
FIG. 5 is a scanned image of the hybridization pattern resulting from the hybridization of 50 sequences complementary to SEQ ID Nos. 2001-2050 to an array designed as described above.
FIG. 6 shows signal intensities from two different independent experiments in which 2000 biotinylated oligonucleotide tags or 50 fluorescein labeled control oligonucleotides were hybridized to arrays designed as described above. The frequency of results are shown as normalized (to scale of 0-1, in bins of 0.05) natural logarithms of the net signal intensities. The normalized natural logarithm of the signal intensities obtained are distributed about a geometric mean of 0.8 with a standard deviation of less than 0.1.
FIG. 7 shows the PM/MM ratios from the data described in FIG. 4 above. More than 98% of the hybridization's yielded a PM/MM ratio greater than 3/1.

CONCLUSION

The above descriptions are illustrative and not restrictive. Many variations of the invention will become apparent to those of skill in the art upon review of this disclosure. The scope of the invention should, therefore, be determined not with reference to the above description, but instead should be determined with reference to the appended claims along with their full scope of equivalents.

Claims

1-12. (canceled)

13. A method of analyzing a nucleic acid sequence comprising:

attaching said nucleic acid sequence to a nucleic acid tag to form a sequence-tag complex wherein said nucleic acid tag is a sequence chosen from the group consisting of:

SEQ ID NOS: 1-2000;

the complements of SEQ ID NOS: 1-2000; and

hybridizing said sequence-tag complex to the complement of said nucleic acid tag.

14. The method of claim 13 wherein said complement of said nucleic acid tag is attached to a solid support. _