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Tomato locus cryptochrome 1
Locus details | Download GMOD XML | Note to Editors | Annotation guidelines |
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Registry name: | None | [Associate registry name] |
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Image | Description | Type |
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![]() ![]() | [Associate accession] |
Accession name:
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Alleles (0) | None | [Add new Allele] |
![]() ![]() | [Associate new locus] |
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![]() ![]() | View cryptochrome 1 relationships in the stand-alone network browser |
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![]() ![]() | unprocessed genomic sequence region underlying this gene |
>Solyc04g074180.2 SL2.50ch04:60179158..60184539
TGGAGAGGTTTGTTTTTTTGGGTGGACAATGCCTATAGTAACTTCACAAGAATAGCATCTCATCATTCATCAAAGAATAACATTTGGGGTTTGTTAAAGTTAGGTTCTTTACTAGAATTTGCCTAAAAAAAATCATCTTTGTAATCTTTATCTCCTCAGTGAAAGCTACAGGGAACAGTCAAAGTATAGATAAGATTAACCCCAATATACTTCTGTCTAAGAAAGACTCAATAACATGGTGTTTACATAGTAAGAGAGAAAAATAGAGAGAAAAAGACTAGTCTTTGGTGTTGTTGAAGGAAGATGTCAGGTGGTGGTTGTAGCATAGTATGGTTTAGAAGGGATCTGAGAGTGGAAGATAACCCTGCTTTGGCTGCTGGAGTTAGAGCAGGGGCAGTTATTGCTGTGTTTATTTATGCTCCTGAAGAAGAAGGGCATTATTATCCTGGTAGAGTTTCAAGATGGTGGCTTAAGCAGAGTTTGGCTCATCTTGATTCATCTTTGAAGAGTCTTGGAACCTCCCTTATTACAAAGAGATCTACTGATAGTATTTCTTCTCTTCTTGAAGTTGTTAAATCTACTGGTGCTACTCAGCTCTTCTTCAATCATTTGTATGGTTAGTACTTGTTTCCATTTTTTTCTGTGGTTTTCTTGCTTCTTTAAATAAAAGATAGAGCACCACTGTTTTACTTCCTTTTTTTGGCTTTCCTTTGTAATCATTTTGTTTGATTTGATTATTCTTAATGTTGTTTCAAAAGTTATTAGTACTATATTGTTGGGATGGCTTAATTGGGATTGGTGCTTCCTATATGTCCTTTTAAGAATAAGATATTGAGTTGTCTTCTGGTAAACATAATAAATTATTAGCATGTGTCTTCCTCATATAACTAAAGAATTTTAAGTGCAATACTTTTTGCTATGCTCAATCCTCAGTGCTTGTAGCATTCTCTGGCTACTAATTTGTTTAGTGCCTGAATTAGAACTACAGTAATCTGGATTTGTTGTACTAAACATATTCCATATCCTTATTATTTGATTAATAGAAGCAGAAAGGGTGTTGCTTGACATTTGATCTGATCATGGTTGAATGGATAATTGCTAATAGATATGCATGGCTTTTATTTTAAGCATCTCTTTACAGTACAAGGATTTATAAGATGCATAGTTTTGCTCAGCCAATTTCATCCACTACCTTATCCTGACCAACACCTTTGACTTCTTTGGCTTTAGATCCTATTTCACTTGTGAGAGATCATCGCACAAAAGAAATCTTAACAGCTCAAGGTATATCAGTGCGTTCCTTTAATGCTGATTTGCTCTATGAACCATGGGAAGTTAATGACGATGAAGGTCGCCCGTTCACAACATTTTCTGCTTTTTGGGAGAAATGCCTTAGCATGCCTTATGATCCAGAAGCTCCACTTCTTCCTCCCAAAAGGATTATATCTGGTTTGTTCTCATCTGAGCTTCTCCATATCTTGTTGGCTTTCTGGATAAATTTCTATTATTTTTTGTACATATTTTTGTAACATAAGGTGCTTAGGGTAGAAGGTTAGTAGGGCATGAAGGGTCTTTCAGAAACAACCTCTCTACCTCCACAATGTAGGGGTAATATCCGCGTATATTCTACCGCCGCTTGTAGGATTATACTGGGTATGTTGTTGTCGTGCTTGGCTTAGTGTTACGTTCCACCAATGATGCACACAAATTAGGAGATCTCCCTCCAGGTAATAGATATATTAATTGTCAGATAAAAATAATGTCATTGCACCGTAATGAACGTGTTGCTACACTTTAAGCTCGGAGATCACTACATGGTGTATAATGTGAATGTTGCAGGTATTCAAGTCCTTCAAAAGTGGAAAGGTGATAATGAACATTTAGATGTTTGAGCTGTCACTAACAAGCTAAGGGCTAAAACAAATTCCTAGGATGGTGTTAATGTACTTATAGGAGCACTGGTTTAGATTTTAATTTAGTTTTTACATGGATTCATGTGCAAACTTTCAGGTGATGCATCAAGATGCCCTTCAGACAACTTGGTATTTGAAGATGAATCAGAGAAAGGAAGCAATGCACTTCTTGCTCGGGCATGGTCACCTGGCTGGAGTAATGCTGATAAAGCACTAACTACTTTCGTTAATGGACCATTACTTGAGTACTCGCAGAACCGTCGGAAAGCTGATAGTGCAACAACATCCTTTCTATCTCCACATTTACATTTTGGGGAAGTCAGTGTTCGTAAGGTATTCCATTTTGTTCGCATCAAGCAAGTTCTCTGGGCCAATGAAGGAAATAAAGCTGGTGAAGAGAGTGTTAATTTGTTCCTTAAGTCCATTGGGCTGAGGGAGTACTCAAGATACATGAGTTTTAATCATCCTTATAGCCATGAAAGGCCCCTTCTTGGTCACCTAAGGTACTTCCCATGGGTAGTGGATGAAGGCTACTTTAAGGCATGGAGACAAGGTAGAACAGGTTATCCTTTGGTTGATGCTGGTATGAGAGAGTTATGGGCAACTGGTTGGCTTCATGATCGTATCCGAGTCGTGGTATCTAGTTTCTTTGTGAAGGTTCTGCAGCTTCCATGGAGGTGGGGGATGAAGTATTTTTGGGACACATTGTTAGATGCAGATCTTGAGAGTGATGCTCTTGGTTGGCAATATATCTCTGGTACCCTACCTGATGGTCGTGAGCTTGATCGGATTGATAATCCACAGGTATGTTAGGGTAATCTTTGATGAGAATCTCTTCTTTCAATTGGAATTTTTCATAACTTCATAGTTGAAATTCCTTTTCTTCTATTTCTCTAACATAGTAGAGTTGCTGGAACACCAATTATAGACTACTACCGTAATTTTTTTTAATAACTTTACGACTATTCTACACTTCGAATGGTTATAGCCTTCCATGTTGCGGTAAGTGTTATTTTCAGATTGTAAGTTAGTTTCCAGGCACTGACTTGCTAGTAGACATTGCATGAACATCTCATGGGCCTCAATCTTCTTACAGAAAGTGCTAAAGCTTAAGATGGAATGTGTGTGTGAATGCCTAATTGCAAATTCTGCTTCTTTTATATCCTGAGATATTACTTATTAGTACAGTGACTGTGAGCTTCTTTTGGTATTAAATTGATATGCGAGTCTTTTCAATACAAGAAACCCTTCCTTCTGTTTCTCTTGTTTTTTCATGTAAAACAAAAGTGAGGCTGCAGATTTTGCTATATATATCCCTTTTTCCGTTTCTGTTCTTGTTTCTTCATGTGAATTTTCTTGGTAAAGGCTGAATAGTTATTTGAACCTGTTCTCTTTCTGGCAGTTTGTGGGATACAAGTGTGACCCTCATGGGGAATATGTCCGGCGGTGGCTTCCTGAACTTGCTAGGCTGCCCACCGAATGGATACACCATCCATGGAATGCACCAGAATCTGTGCTTGAAGCTGCTGGCATTGAGCTGGGTTCCAATTATCCTCTTCCTATAGTTGAAATTGATTCAGCAAAAGTTAGACTAGAACAAGCCCTATCACAAATGTGGCAGAATGATGCAGCTGCAAGAGCTGCGATTGAGAATGGTATGGAAGAAGGACATGGTGACTCTGCTGACTCCCCAATAGCATTTCCTCAGGCCATGCATATGGAAATGGACCATGAACCAGTCAGGAACAACCCTGTAATAGTTACTGTTCGACGCTATGAAGATCAAATGGTGCCAAGCATGACGTCATCTTTGTTCAGAGCTGAAGATGAAGAGAACTCCGTGGACATTAGGAATTCAGTTGTGGAAAGTAGGGCAGAAGTTCCAACAGACATCAATGTAGCTGAAGTTCATAGGAGAGACACGCGTGACCAAGCCGTCATGCAAACTGCTCGAACCAATGCTACCCCACATTTTAATTTTGCGGTAGGTAGGAGGAATTCTGAAGATTCAACAGCAGAATCTTCCAGTAGTACTAGAGAAAGGGATGGGGGTGTAGTGCCTACATGGTCTCCCTCAAGTAGTAACTATTCGGACCAATATGTTGGTGATGATAATGGTATTGGGACCAGTTCATCTTACTTGCAAAGGCATCCACAATCTCACCAGCTAATGAACTGGCAGCGGCTTTCTCAAACAGGGTAAGCTACGTGAGTTTCTTGAATAATCAGTAGAAGAAGACATTCATCCAAAAGAGATGAAAACTAGGAAATGGACAAATTTGAACATTCCAGTTTGAATATAAGCATTAGTGTTGCATCTAGCACAAACAAACATGACTACTCATGAATGGCACTAGTCACAGATTCACGGATAACATTTCTCATGTCCTTCATATTTCCTGTATGTCATGGTTAGCTGGTGAAAAAGCATTGCAAATTGCATAAAATTTTAGGCCAGTGAGAAGTCCTACATGAAAAGTCTGATTTAAACAAACGCAAGCAAATATGAATTGTGCTTCCTTTAAACTAACTGCAGACACATCTGTATACAAATATGGTGCATATTTCCATTTTTAAGGCCTTAGGCTCAAGACGACCACCTTGAAATTTCCAGGAAATGTCTTATCCTTTGGCTTGTTTAACTTGCTTACAGGTGATCATTTATGTGGAGTTACGATAGCAACAAGGCGGAGAAGCAAGTGGCTAATACAGACATTTGGCTCAGCACATTTAGTACAGCATTCATCTACTCTTTCTCTCATAGTCCTGACCTGATCAGCCATCTTTGTGTCTATATCTCTAATTGATCAGGTGGTTCGTCTGGATTTTCATCCTCATCTGTCGGGCATCCCCATTTACCTATTATACCATATATGTGTCTCTGCTGTATAGTATAGAAGTTTTTCATAAGGCCAAATAAGTGTTAGAAAGAGGTTGCAGTCCTCTGTCAAGCTCACACTTGTGCCTTTTGTTTTTCCTTCTCTTTTCTGCTACTTACATTTTGATGGCAATAACGATTATCTGAAGTCCTGGAACTAATTAGATTTTTGTGGATATCATAGTTTCAAACTCTGTTTGACGGATGTACATGTGGTTTAAGCAGCTTCATCTCATATTTTTGTTATGGGAACATTGTCATTATTCTATAAGATTTCTAGTTTGAACATTTTCATTGTTCTGCTTGGCAGTTGTGTCTGTTCAGCTGAAAGCTGTAAGTTGAGTTGTTAACATTCCCTGTTTGGTCTTGTGTGTGCGTGTTTGTGTGTGTATCTTATCAATGCATCAGAAGATATTCGGGTACTCGAACGAGCAGTTCTTATAGTAAGTTGTGTTACACTAGAACAAGAGAGACTCTTCTATGTTTTGGACAGAAATCCAACATCATTTGCAACTTCAGCTAGTCCTTATTGTTGTTGAACATGCATTAGTAAAGTGTTTAGCCAGAAACACCAAAAAAAGAAAAAAAAAA
TGGAGAGGTTTGTTTTTTTGGGTGGACAATGCCTATAGTAACTTCACAAGAATAGCATCTCATCATTCATCAAAGAATAACATTTGGGGTTTGTTAAAGTTAGGTTCTTTACTAGAATTTGCCTAAAAAAAATCATCTTTGTAATCTTTATCTCCTCAGTGAAAGCTACAGGGAACAGTCAAAGTATAGATAAGATTAACCCCAATATACTTCTGTCTAAGAAAGACTCAATAACATGGTGTTTACATAGTAAGAGAGAAAAATAGAGAGAAAAAGACTAGTCTTTGGTGTTGTTGAAGGAAGATGTCAGGTGGTGGTTGTAGCATAGTATGGTTTAGAAGGGATCTGAGAGTGGAAGATAACCCTGCTTTGGCTGCTGGAGTTAGAGCAGGGGCAGTTATTGCTGTGTTTATTTATGCTCCTGAAGAAGAAGGGCATTATTATCCTGGTAGAGTTTCAAGATGGTGGCTTAAGCAGAGTTTGGCTCATCTTGATTCATCTTTGAAGAGTCTTGGAACCTCCCTTATTACAAAGAGATCTACTGATAGTATTTCTTCTCTTCTTGAAGTTGTTAAATCTACTGGTGCTACTCAGCTCTTCTTCAATCATTTGTATGGTTAGTACTTGTTTCCATTTTTTTCTGTGGTTTTCTTGCTTCTTTAAATAAAAGATAGAGCACCACTGTTTTACTTCCTTTTTTTGGCTTTCCTTTGTAATCATTTTGTTTGATTTGATTATTCTTAATGTTGTTTCAAAAGTTATTAGTACTATATTGTTGGGATGGCTTAATTGGGATTGGTGCTTCCTATATGTCCTTTTAAGAATAAGATATTGAGTTGTCTTCTGGTAAACATAATAAATTATTAGCATGTGTCTTCCTCATATAACTAAAGAATTTTAAGTGCAATACTTTTTGCTATGCTCAATCCTCAGTGCTTGTAGCATTCTCTGGCTACTAATTTGTTTAGTGCCTGAATTAGAACTACAGTAATCTGGATTTGTTGTACTAAACATATTCCATATCCTTATTATTTGATTAATAGAAGCAGAAAGGGTGTTGCTTGACATTTGATCTGATCATGGTTGAATGGATAATTGCTAATAGATATGCATGGCTTTTATTTTAAGCATCTCTTTACAGTACAAGGATTTATAAGATGCATAGTTTTGCTCAGCCAATTTCATCCACTACCTTATCCTGACCAACACCTTTGACTTCTTTGGCTTTAGATCCTATTTCACTTGTGAGAGATCATCGCACAAAAGAAATCTTAACAGCTCAAGGTATATCAGTGCGTTCCTTTAATGCTGATTTGCTCTATGAACCATGGGAAGTTAATGACGATGAAGGTCGCCCGTTCACAACATTTTCTGCTTTTTGGGAGAAATGCCTTAGCATGCCTTATGATCCAGAAGCTCCACTTCTTCCTCCCAAAAGGATTATATCTGGTTTGTTCTCATCTGAGCTTCTCCATATCTTGTTGGCTTTCTGGATAAATTTCTATTATTTTTTGTACATATTTTTGTAACATAAGGTGCTTAGGGTAGAAGGTTAGTAGGGCATGAAGGGTCTTTCAGAAACAACCTCTCTACCTCCACAATGTAGGGGTAATATCCGCGTATATTCTACCGCCGCTTGTAGGATTATACTGGGTATGTTGTTGTCGTGCTTGGCTTAGTGTTACGTTCCACCAATGATGCACACAAATTAGGAGATCTCCCTCCAGGTAATAGATATATTAATTGTCAGATAAAAATAATGTCATTGCACCGTAATGAACGTGTTGCTACACTTTAAGCTCGGAGATCACTACATGGTGTATAATGTGAATGTTGCAGGTATTCAAGTCCTTCAAAAGTGGAAAGGTGATAATGAACATTTAGATGTTTGAGCTGTCACTAACAAGCTAAGGGCTAAAACAAATTCCTAGGATGGTGTTAATGTACTTATAGGAGCACTGGTTTAGATTTTAATTTAGTTTTTACATGGATTCATGTGCAAACTTTCAGGTGATGCATCAAGATGCCCTTCAGACAACTTGGTATTTGAAGATGAATCAGAGAAAGGAAGCAATGCACTTCTTGCTCGGGCATGGTCACCTGGCTGGAGTAATGCTGATAAAGCACTAACTACTTTCGTTAATGGACCATTACTTGAGTACTCGCAGAACCGTCGGAAAGCTGATAGTGCAACAACATCCTTTCTATCTCCACATTTACATTTTGGGGAAGTCAGTGTTCGTAAGGTATTCCATTTTGTTCGCATCAAGCAAGTTCTCTGGGCCAATGAAGGAAATAAAGCTGGTGAAGAGAGTGTTAATTTGTTCCTTAAGTCCATTGGGCTGAGGGAGTACTCAAGATACATGAGTTTTAATCATCCTTATAGCCATGAAAGGCCCCTTCTTGGTCACCTAAGGTACTTCCCATGGGTAGTGGATGAAGGCTACTTTAAGGCATGGAGACAAGGTAGAACAGGTTATCCTTTGGTTGATGCTGGTATGAGAGAGTTATGGGCAACTGGTTGGCTTCATGATCGTATCCGAGTCGTGGTATCTAGTTTCTTTGTGAAGGTTCTGCAGCTTCCATGGAGGTGGGGGATGAAGTATTTTTGGGACACATTGTTAGATGCAGATCTTGAGAGTGATGCTCTTGGTTGGCAATATATCTCTGGTACCCTACCTGATGGTCGTGAGCTTGATCGGATTGATAATCCACAGGTATGTTAGGGTAATCTTTGATGAGAATCTCTTCTTTCAATTGGAATTTTTCATAACTTCATAGTTGAAATTCCTTTTCTTCTATTTCTCTAACATAGTAGAGTTGCTGGAACACCAATTATAGACTACTACCGTAATTTTTTTTAATAACTTTACGACTATTCTACACTTCGAATGGTTATAGCCTTCCATGTTGCGGTAAGTGTTATTTTCAGATTGTAAGTTAGTTTCCAGGCACTGACTTGCTAGTAGACATTGCATGAACATCTCATGGGCCTCAATCTTCTTACAGAAAGTGCTAAAGCTTAAGATGGAATGTGTGTGTGAATGCCTAATTGCAAATTCTGCTTCTTTTATATCCTGAGATATTACTTATTAGTACAGTGACTGTGAGCTTCTTTTGGTATTAAATTGATATGCGAGTCTTTTCAATACAAGAAACCCTTCCTTCTGTTTCTCTTGTTTTTTCATGTAAAACAAAAGTGAGGCTGCAGATTTTGCTATATATATCCCTTTTTCCGTTTCTGTTCTTGTTTCTTCATGTGAATTTTCTTGGTAAAGGCTGAATAGTTATTTGAACCTGTTCTCTTTCTGGCAGTTTGTGGGATACAAGTGTGACCCTCATGGGGAATATGTCCGGCGGTGGCTTCCTGAACTTGCTAGGCTGCCCACCGAATGGATACACCATCCATGGAATGCACCAGAATCTGTGCTTGAAGCTGCTGGCATTGAGCTGGGTTCCAATTATCCTCTTCCTATAGTTGAAATTGATTCAGCAAAAGTTAGACTAGAACAAGCCCTATCACAAATGTGGCAGAATGATGCAGCTGCAAGAGCTGCGATTGAGAATGGTATGGAAGAAGGACATGGTGACTCTGCTGACTCCCCAATAGCATTTCCTCAGGCCATGCATATGGAAATGGACCATGAACCAGTCAGGAACAACCCTGTAATAGTTACTGTTCGACGCTATGAAGATCAAATGGTGCCAAGCATGACGTCATCTTTGTTCAGAGCTGAAGATGAAGAGAACTCCGTGGACATTAGGAATTCAGTTGTGGAAAGTAGGGCAGAAGTTCCAACAGACATCAATGTAGCTGAAGTTCATAGGAGAGACACGCGTGACCAAGCCGTCATGCAAACTGCTCGAACCAATGCTACCCCACATTTTAATTTTGCGGTAGGTAGGAGGAATTCTGAAGATTCAACAGCAGAATCTTCCAGTAGTACTAGAGAAAGGGATGGGGGTGTAGTGCCTACATGGTCTCCCTCAAGTAGTAACTATTCGGACCAATATGTTGGTGATGATAATGGTATTGGGACCAGTTCATCTTACTTGCAAAGGCATCCACAATCTCACCAGCTAATGAACTGGCAGCGGCTTTCTCAAACAGGGTAAGCTACGTGAGTTTCTTGAATAATCAGTAGAAGAAGACATTCATCCAAAAGAGATGAAAACTAGGAAATGGACAAATTTGAACATTCCAGTTTGAATATAAGCATTAGTGTTGCATCTAGCACAAACAAACATGACTACTCATGAATGGCACTAGTCACAGATTCACGGATAACATTTCTCATGTCCTTCATATTTCCTGTATGTCATGGTTAGCTGGTGAAAAAGCATTGCAAATTGCATAAAATTTTAGGCCAGTGAGAAGTCCTACATGAAAAGTCTGATTTAAACAAACGCAAGCAAATATGAATTGTGCTTCCTTTAAACTAACTGCAGACACATCTGTATACAAATATGGTGCATATTTCCATTTTTAAGGCCTTAGGCTCAAGACGACCACCTTGAAATTTCCAGGAAATGTCTTATCCTTTGGCTTGTTTAACTTGCTTACAGGTGATCATTTATGTGGAGTTACGATAGCAACAAGGCGGAGAAGCAAGTGGCTAATACAGACATTTGGCTCAGCACATTTAGTACAGCATTCATCTACTCTTTCTCTCATAGTCCTGACCTGATCAGCCATCTTTGTGTCTATATCTCTAATTGATCAGGTGGTTCGTCTGGATTTTCATCCTCATCTGTCGGGCATCCCCATTTACCTATTATACCATATATGTGTCTCTGCTGTATAGTATAGAAGTTTTTCATAAGGCCAAATAAGTGTTAGAAAGAGGTTGCAGTCCTCTGTCAAGCTCACACTTGTGCCTTTTGTTTTTCCTTCTCTTTTCTGCTACTTACATTTTGATGGCAATAACGATTATCTGAAGTCCTGGAACTAATTAGATTTTTGTGGATATCATAGTTTCAAACTCTGTTTGACGGATGTACATGTGGTTTAAGCAGCTTCATCTCATATTTTTGTTATGGGAACATTGTCATTATTCTATAAGATTTCTAGTTTGAACATTTTCATTGTTCTGCTTGGCAGTTGTGTCTGTTCAGCTGAAAGCTGTAAGTTGAGTTGTTAACATTCCCTGTTTGGTCTTGTGTGTGCGTGTTTGTGTGTGTATCTTATCAATGCATCAGAAGATATTCGGGTACTCGAACGAGCAGTTCTTATAGTAAGTTGTGTTACACTAGAACAAGAGAGACTCTTCTATGTTTTGGACAGAAATCCAACATCATTTGCAACTTCAGCTAGTCCTTATTGTTGTTGAACATGCATTAGTAAAGTGTTTAGCCAGAAACACCAAAAAAAGAAAAAAAAAA
Download sequence region |
Get flanking sequences on SL2.50ch04
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![]() ![]() | terms associated with this mRNA |
![]() ![]() | spliced cDNA sequence, including UTRs |
>Solyc04g074180.2.1 Cryptochrome 1a
TGGAGAGGTTTGTTTTTTTGGGTGGACAATGCCTATAGTAACTTCACAAGAATAGCATCTCATCATTCATCAAAGAATAACATTTGGGGTTTGTTAAAGTTAGGTTCTTTACTAGAATTTGCCTAAAAAAAATCATCTTTGTAATCTTTATCTCCTCAGTGAAAGCTACAGGGAACAGTCAAAGTATAGATAAGATTAACCCCAATATACTTCTGTCTAAGAAAGACTCAATAACATGGTGTTTACATAGTAAGAGAGAAAAATAGAGAGAAAAAGACTAGTCTTTGGTGTTGTTGAAGGAAGATGTCAGGTGGTGGTTGTAGCATAGTATGGTTTAGAAGGGATCTGAGAGTGGAAGATAACCCTGCTTTGGCTGCTGGAGTTAGAGCAGGGGCAGTTATTGCTGTGTTTATTTATGCTCCTGAAGAAGAAGGGCATTATTATCCTGGTAGAGTTTCAAGATGGTGGCTTAAGCAGAGTTTGGCTCATCTTGATTCATCTTTGAAGAGTCTTGGAACCTCCCTTATTACAAAGAGATCTACTGATAGTATTTCTTCTCTTCTTGAAGTTGTTAAATCTACTGGTGCTACTCAGCTCTTCTTCAATCATTTGTATGATCCTATTTCACTTGTGAGAGATCATCGCACAAAAGAAATCTTAACAGCTCAAGGTATATCAGTGCGTTCCTTTAATGCTGATTTGCTCTATGAACCATGGGAAGTTAATGACGATGAAGGTCGCCCGTTCACAACATTTTCTGCTTTTTGGGAGAAATGCCTTAGCATGCCTTATGATCCAGAAGCTCCACTTCTTCCTCCCAAAAGGATTATATCTGGTGATGCATCAAGATGCCCTTCAGACAACTTGGTATTTGAAGATGAATCAGAGAAAGGAAGCAATGCACTTCTTGCTCGGGCATGGTCACCTGGCTGGAGTAATGCTGATAAAGCACTAACTACTTTCGTTAATGGACCATTACTTGAGTACTCGCAGAACCGTCGGAAAGCTGATAGTGCAACAACATCCTTTCTATCTCCACATTTACATTTTGGGGAAGTCAGTGTTCGTAAGGTATTCCATTTTGTTCGCATCAAGCAAGTTCTCTGGGCCAATGAAGGAAATAAAGCTGGTGAAGAGAGTGTTAATTTGTTCCTTAAGTCCATTGGGCTGAGGGAGTACTCAAGATACATGAGTTTTAATCATCCTTATAGCCATGAAAGGCCCCTTCTTGGTCACCTAAGGTACTTCCCATGGGTAGTGGATGAAGGCTACTTTAAGGCATGGAGACAAGGTAGAACAGGTTATCCTTTGGTTGATGCTGGTATGAGAGAGTTATGGGCAACTGGTTGGCTTCATGATCGTATCCGAGTCGTGGTATCTAGTTTCTTTGTGAAGGTTCTGCAGCTTCCATGGAGGTGGGGGATGAAGTATTTTTGGGACACATTGTTAGATGCAGATCTTGAGAGTGATGCTCTTGGTTGGCAATATATCTCTGGTACCCTACCTGATGGTCGTGAGCTTGATCGGATTGATAATCCACAGTTTGTGGGATACAAGTGTGACCCTCATGGGGAATATGTCCGGCGGTGGCTTCCTGAACTTGCTAGGCTGCCCACCGAATGGATACACCATCCATGGAATGCACCAGAATCTGTGCTTGAAGCTGCTGGCATTGAGCTGGGTTCCAATTATCCTCTTCCTATAGTTGAAATTGATTCAGCAAAAGTTAGACTAGAACAAGCCCTATCACAAATGTGGCAGAATGATGCAGCTGCAAGAGCTGCGATTGAGAATGGTATGGAAGAAGGACATGGTGACTCTGCTGACTCCCCAATAGCATTTCCTCAGGCCATGCATATGGAAATGGACCATGAACCAGTCAGGAACAACCCTGTAATAGTTACTGTTCGACGCTATGAAGATCAAATGGTGCCAAGCATGACGTCATCTTTGTTCAGAGCTGAAGATGAAGAGAACTCCGTGGACATTAGGAATTCAGTTGTGGAAAGTAGGGCAGAAGTTCCAACAGACATCAATGTAGCTGAAGTTCATAGGAGAGACACGCGTGACCAAGCCGTCATGCAAACTGCTCGAACCAATGCTACCCCACATTTTAATTTTGCGGTAGGTAGGAGGAATTCTGAAGATTCAACAGCAGAATCTTCCAGTAGTACTAGAGAAAGGGATGGGGGTGTAGTGCCTACATGGTCTCCCTCAAGTAGTAACTATTCGGACCAATATGTTGGTGATGATAATGGTATTGGGACCAGTTCATCTTACTTGCAAAGGCATCCACAATCTCACCAGCTAATGAACTGGCAGCGGCTTTCTCAAACAGGGTAAGCTACGTGAGTTTCTTGAATAATCAGTAGAAGAAGACATTCATCCAAAAGAGATGAAAACTAGGAAATGGACAAATTTGAACATTCCAGTTTGAATATAAGCATTAGTGTTGCATCTAGCACAAACAAACATGACTACTCATGAATGGCACTAGTCACAGATTCACGGATAACATTTCTCATGTCCTTCATATTTCCTGTATGTCATGGTTAGCTGGTGAAAAAGCATTGCAAATTGCATAAAATTTTAGGCCAGTGAGAAGTCCTACATGAAAAGTCTGATTTAAACAAACGCAAGCAAATATGAATTGTGCTTCCTTTAAACTAACTGCAGACACATCTGTATACAAATATGGTGCATATTTCCATTTTTAAGGCCTTAGGCTCAAGACGACCACCTTGAAATTTCCAGGAAATGTCTTATCCTTTGGCTTGTTTAACTTGCTTACAGGTGATCATTTATGTGGAGTTACGATAGCAACAAGGCGGAGAAGCAAGTGGCTAATACAGACATTTGGCTCAGCACATTTAGTACAGCATTCATCTACTCTTTCTCTCATAGTCCTGACCTGATCAGCCATCTTTGTGTCTATATCTCTAATTGATCAGGTGGTTCGTCTGGATTTTCATCCTCATCTGTCGGGCATCCCCATTTACCTATTATACCATATATGTGTCTCTGCTGTATAGTATAGAAGTTTTTCATAAGGCCAAATAAGTGTTAGAAAGAGGTTGCAGTCCTCTGTCAAGCTCACACTTGTGCCTTTTGTTTTTCCTTCTCTTTTCTGCTACTTACATTTTGATGGCAATAACGATTATCTGAAGTCCTGGAACTAATTAGATTTTTGTGGATATCATAGTTTCAAACTCTGTTTGACGGATGTACATGTGGTTTAAGCAGCTTCATCTCATATTTTTGTTAAAAAGAAAAAAAAAA
TGGAGAGGTTTGTTTTTTTGGGTGGACAATGCCTATAGTAACTTCACAAGAATAGCATCTCATCATTCATCAAAGAATAACATTTGGGGTTTGTTAAAGTTAGGTTCTTTACTAGAATTTGCCTAAAAAAAATCATCTTTGTAATCTTTATCTCCTCAGTGAAAGCTACAGGGAACAGTCAAAGTATAGATAAGATTAACCCCAATATACTTCTGTCTAAGAAAGACTCAATAACATGGTGTTTACATAGTAAGAGAGAAAAATAGAGAGAAAAAGACTAGTCTTTGGTGTTGTTGAAGGAAGATGTCAGGTGGTGGTTGTAGCATAGTATGGTTTAGAAGGGATCTGAGAGTGGAAGATAACCCTGCTTTGGCTGCTGGAGTTAGAGCAGGGGCAGTTATTGCTGTGTTTATTTATGCTCCTGAAGAAGAAGGGCATTATTATCCTGGTAGAGTTTCAAGATGGTGGCTTAAGCAGAGTTTGGCTCATCTTGATTCATCTTTGAAGAGTCTTGGAACCTCCCTTATTACAAAGAGATCTACTGATAGTATTTCTTCTCTTCTTGAAGTTGTTAAATCTACTGGTGCTACTCAGCTCTTCTTCAATCATTTGTATGATCCTATTTCACTTGTGAGAGATCATCGCACAAAAGAAATCTTAACAGCTCAAGGTATATCAGTGCGTTCCTTTAATGCTGATTTGCTCTATGAACCATGGGAAGTTAATGACGATGAAGGTCGCCCGTTCACAACATTTTCTGCTTTTTGGGAGAAATGCCTTAGCATGCCTTATGATCCAGAAGCTCCACTTCTTCCTCCCAAAAGGATTATATCTGGTGATGCATCAAGATGCCCTTCAGACAACTTGGTATTTGAAGATGAATCAGAGAAAGGAAGCAATGCACTTCTTGCTCGGGCATGGTCACCTGGCTGGAGTAATGCTGATAAAGCACTAACTACTTTCGTTAATGGACCATTACTTGAGTACTCGCAGAACCGTCGGAAAGCTGATAGTGCAACAACATCCTTTCTATCTCCACATTTACATTTTGGGGAAGTCAGTGTTCGTAAGGTATTCCATTTTGTTCGCATCAAGCAAGTTCTCTGGGCCAATGAAGGAAATAAAGCTGGTGAAGAGAGTGTTAATTTGTTCCTTAAGTCCATTGGGCTGAGGGAGTACTCAAGATACATGAGTTTTAATCATCCTTATAGCCATGAAAGGCCCCTTCTTGGTCACCTAAGGTACTTCCCATGGGTAGTGGATGAAGGCTACTTTAAGGCATGGAGACAAGGTAGAACAGGTTATCCTTTGGTTGATGCTGGTATGAGAGAGTTATGGGCAACTGGTTGGCTTCATGATCGTATCCGAGTCGTGGTATCTAGTTTCTTTGTGAAGGTTCTGCAGCTTCCATGGAGGTGGGGGATGAAGTATTTTTGGGACACATTGTTAGATGCAGATCTTGAGAGTGATGCTCTTGGTTGGCAATATATCTCTGGTACCCTACCTGATGGTCGTGAGCTTGATCGGATTGATAATCCACAGTTTGTGGGATACAAGTGTGACCCTCATGGGGAATATGTCCGGCGGTGGCTTCCTGAACTTGCTAGGCTGCCCACCGAATGGATACACCATCCATGGAATGCACCAGAATCTGTGCTTGAAGCTGCTGGCATTGAGCTGGGTTCCAATTATCCTCTTCCTATAGTTGAAATTGATTCAGCAAAAGTTAGACTAGAACAAGCCCTATCACAAATGTGGCAGAATGATGCAGCTGCAAGAGCTGCGATTGAGAATGGTATGGAAGAAGGACATGGTGACTCTGCTGACTCCCCAATAGCATTTCCTCAGGCCATGCATATGGAAATGGACCATGAACCAGTCAGGAACAACCCTGTAATAGTTACTGTTCGACGCTATGAAGATCAAATGGTGCCAAGCATGACGTCATCTTTGTTCAGAGCTGAAGATGAAGAGAACTCCGTGGACATTAGGAATTCAGTTGTGGAAAGTAGGGCAGAAGTTCCAACAGACATCAATGTAGCTGAAGTTCATAGGAGAGACACGCGTGACCAAGCCGTCATGCAAACTGCTCGAACCAATGCTACCCCACATTTTAATTTTGCGGTAGGTAGGAGGAATTCTGAAGATTCAACAGCAGAATCTTCCAGTAGTACTAGAGAAAGGGATGGGGGTGTAGTGCCTACATGGTCTCCCTCAAGTAGTAACTATTCGGACCAATATGTTGGTGATGATAATGGTATTGGGACCAGTTCATCTTACTTGCAAAGGCATCCACAATCTCACCAGCTAATGAACTGGCAGCGGCTTTCTCAAACAGGGTAAGCTACGTGAGTTTCTTGAATAATCAGTAGAAGAAGACATTCATCCAAAAGAGATGAAAACTAGGAAATGGACAAATTTGAACATTCCAGTTTGAATATAAGCATTAGTGTTGCATCTAGCACAAACAAACATGACTACTCATGAATGGCACTAGTCACAGATTCACGGATAACATTTCTCATGTCCTTCATATTTCCTGTATGTCATGGTTAGCTGGTGAAAAAGCATTGCAAATTGCATAAAATTTTAGGCCAGTGAGAAGTCCTACATGAAAAGTCTGATTTAAACAAACGCAAGCAAATATGAATTGTGCTTCCTTTAAACTAACTGCAGACACATCTGTATACAAATATGGTGCATATTTCCATTTTTAAGGCCTTAGGCTCAAGACGACCACCTTGAAATTTCCAGGAAATGTCTTATCCTTTGGCTTGTTTAACTTGCTTACAGGTGATCATTTATGTGGAGTTACGATAGCAACAAGGCGGAGAAGCAAGTGGCTAATACAGACATTTGGCTCAGCACATTTAGTACAGCATTCATCTACTCTTTCTCTCATAGTCCTGACCTGATCAGCCATCTTTGTGTCTATATCTCTAATTGATCAGGTGGTTCGTCTGGATTTTCATCCTCATCTGTCGGGCATCCCCATTTACCTATTATACCATATATGTGTCTCTGCTGTATAGTATAGAAGTTTTTCATAAGGCCAAATAAGTGTTAGAAAGAGGTTGCAGTCCTCTGTCAAGCTCACACTTGTGCCTTTTGTTTTTCCTTCTCTTTTCTGCTACTTACATTTTGATGGCAATAACGATTATCTGAAGTCCTGGAACTAATTAGATTTTTGTGGATATCATAGTTTCAAACTCTGTTTGACGGATGTACATGTGGTTTAAGCAGCTTCATCTCATATTTTTGTTAAAAAGAAAAAAAAAA
![]() ![]() | translated polypeptide sequence |
>Solyc04g074180.2.1 Cryptochrome 1a
MSGGGCSIVWFRRDLRVEDNPALAAGVRAGAVIAVFIYAPEEEGHYYPGRVSRWWLKQSLAHLDSSLKSLGTSLITKRSTDSISSLLEVVKSTGATQLFFNHLYDPISLVRDHRTKEILTAQGISVRSFNADLLYEPWEVNDDEGRPFTTFSAFWEKCLSMPYDPEAPLLPPKRIISGDASRCPSDNLVFEDESEKGSNALLARAWSPGWSNADKALTTFVNGPLLEYSQNRRKADSATTSFLSPHLHFGEVSVRKVFHFVRIKQVLWANEGNKAGEESVNLFLKSIGLREYSRYMSFNHPYSHERPLLGHLRYFPWVVDEGYFKAWRQGRTGYPLVDAGMRELWATGWLHDRIRVVVSSFFVKVLQLPWRWGMKYFWDTLLDADLESDALGWQYISGTLPDGRELDRIDNPQFVGYKCDPHGEYVRRWLPELARLPTEWIHHPWNAPESVLEAAGIELGSNYPLPIVEIDSAKVRLEQALSQMWQNDAAARAAIENGMEEGHGDSADSPIAFPQAMHMEMDHEPVRNNPVIVTVRRYEDQMVPSMTSSLFRAEDEENSVDIRNSVVESRAEVPTDINVAEVHRRDTRDQAVMQTARTNATPHFNFAVGRRNSEDSTAESSSSTRERDGGVVPTWSPSSSNYSDQYVGDDNGIGTSSSYLQRHPQSHQLMNWQRLSQTG*
MSGGGCSIVWFRRDLRVEDNPALAAGVRAGAVIAVFIYAPEEEGHYYPGRVSRWWLKQSLAHLDSSLKSLGTSLITKRSTDSISSLLEVVKSTGATQLFFNHLYDPISLVRDHRTKEILTAQGISVRSFNADLLYEPWEVNDDEGRPFTTFSAFWEKCLSMPYDPEAPLLPPKRIISGDASRCPSDNLVFEDESEKGSNALLARAWSPGWSNADKALTTFVNGPLLEYSQNRRKADSATTSFLSPHLHFGEVSVRKVFHFVRIKQVLWANEGNKAGEESVNLFLKSIGLREYSRYMSFNHPYSHERPLLGHLRYFPWVVDEGYFKAWRQGRTGYPLVDAGMRELWATGWLHDRIRVVVSSFFVKVLQLPWRWGMKYFWDTLLDADLESDALGWQYISGTLPDGRELDRIDNPQFVGYKCDPHGEYVRRWLPELARLPTEWIHHPWNAPESVLEAAGIELGSNYPLPIVEIDSAKVRLEQALSQMWQNDAAARAAIENGMEEGHGDSADSPIAFPQAMHMEMDHEPVRNNPVIVTVRRYEDQMVPSMTSSLFRAEDEENSVDIRNSVVESRAEVPTDINVAEVHRRDTRDQAVMQTARTNATPHFNFAVGRRNSEDSTAESSSSTRERDGGVVPTWSPSSSNYSDQYVGDDNGIGTSSSYLQRHPQSHQLMNWQRLSQTG*
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![]() ![]() | [Associate new unigene] |
Unigene ID:
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![]() ![]() | [Associate new genbank sequence] |
AF130423 Lycopersicon esculentum cryptochrome 1 mRNA, complete cds.
Other genome matches | None |
![]() ![]() | [Associate publication] [Matching publications] |
Cryptochrome 1 controls tomato development in response to blue light.
The Plant journal : for cell and molecular biology (1999)
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Cryptochrome genes (CRY) are a novel class of plant genes encoding proteins that bear a strong resemblance to photolyases, a rare class of flavoproteins that absorb light in the blue (B) and UV-A regions of the spectrum and utilise it for photorepair of UV-damaged DNA. In Arabidopsis, both CRY1 and CRY2 are implicated in numerous blue light-dependent responses, including inhibition of hypocotyl elongation, leaf and cotyledon expansion, pigment biosynthesis, stem growth and internode elongation, control of flowering time and phototropism. No information about the in vivo function of CRY genes is available in other plant species. The tomato CRY1 gene (TCRY1) encodes a protein of 679 amino acids, which shows 78% identity and 88% similarity to Arabidopsis CRY1. In order to verify the in vivo function of TCRY1, we constructed antisense tomato plants using the C-terminal portion of the gene. Partial repression of both mRNA and protein levels was observed in one of the transformants. The progeny from this transformant showed an elongated hypocotyl under blue but not under red light. This character co-segregated with the transgene and was dependent on transgene dosage. An additional, partially elongated phenotype was observed in adult plants grown in the greenhouse under dim light and short days with no artificial illumination. This phenotype was suppressed by artificial illumination of both short and long photoperiods. The synthesis of anthocyanins under blue light was reduced in antisense seedlings. In contrast, carotenoid and chlorophyll levels and second positive phototropic curvature were essentially unaltered.
Ninu, L. Ahmad, M. Miarelli, C. Cashmore, AR. Giuliano, G.
The Plant journal : for cell and molecular biology.
1999.
18(5).
551-556.
Genetic dissection of blue-light sensing in tomato using mutants deficient in cryptochrome 1 and phytochromes A, B1 and B2.
The Plant journal : for cell and molecular biology (2001)
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Several novel allelic groups of tomato (Solanum lycopersicum L.) mutants with impaired photomorphogenesis have been identified after gamma-ray mutagenesis of phyA phyB1 double-mutant seed. Recessive mutants in one allelic group are characterized by retarded hook opening, increased hypocotyl elongation and reduced hypocotyl chlorophyll content under white light (WL). These mutants showed a specific impairment in response to blue light (BL) resulting from lesions in the gene encoding the BL receptor cryptochrome 1 (cry1). Phytochrome A and cry1 are identified as the major photoreceptors mediating BL-induced de-etiolation in tomato, and act under low and high irradiances, respectively. Phytochromes B1 and B2 also contribute to BL sensing, and the relative contribution of each of these four photoreceptors differs according to the light conditions and the specific process examined. Development of the phyA phyB1 phyB2 cry1 quadruple mutant under WL is severely impaired, and seedlings die before flowering. The quadruple mutant is essentially blind to BL, but experiments employing simultaneous irradiation with BL and red light suggest that an additional non-phytochrome photoreceptor may be active under short daily BL exposures. In addition to effects on de-etiolation, cry1 is active in older, WL-grown plants, and influences stem elongation, apical dominance, and the chlorophyll content of leaves and fruit. These results provide the first mutant-based characterization of cry1 in a plant species other than Arabidopsis.
Weller, JL. Perrotta, G. Schreuder, ME. van Tuinen, A. Koornneef, M. Giuliano, G. Kendrick, RE.
The Plant journal : for cell and molecular biology.
2001.
25(4).
427-40.
Transcriptional profiles of drought-responsive genes in modulating transcription signal transduction, and biochemical pathways in tomato.
Journal of experimental botany (2010)
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To unravel the molecular mechanisms of drought responses in tomato, gene expression profiles of two drought-tolerant lines identified from a population of Solanum pennellii introgression lines, and the recurrent parent S. lycopersicum cv. M82, a drought-sensitive cultivar, were investigated under drought stress using tomato microarrays. Around 400 genes identified were responsive to drought stress only in the drought-tolerant lines. These changes in genes expression are most likely caused by the two inserted chromosome segments of S. pennellii, which possibly contain drought-tolerance quantitative trait loci (QTLs). Among these genes are a number of transcription factors and signalling proteins which could be global regulators involved in the tomato responses to drought stress. Genes involved in organism growth and development processes were also specifically regulated by drought stress, including those controlling cell wall structure, wax biosynthesis, and plant height. Moreover, key enzymes in the pathways of gluconeogenesis (fructose-bisphosphate aldolase), purine and pyrimidine nucleotide biosynthesis (adenylate kinase), tryptophan degradation (aldehyde oxidase), starch degradation (beta-amylase), methionine biosynthesis (cystathionine beta-lyase), and the removal of superoxide radicals (catalase) were also specifically affected by drought stress. These results indicated that tomato plants could adapt to water-deficit conditions through decreasing energy dissipation, increasing ATP energy provision, and reducing oxidative damage. The drought-responsive genes identified in this study could provide further information for understanding the mechanisms of drought tolerance in tomato.
Gong, P. Zhang, J. Li, H. Yang, C. Zhang, C. Zhang, X. Khurram, Z. Zhang, Y. Wang, T. Fei, Z. Ye, Z.
Journal of experimental botany.
2010.
61(13).
3563-75.
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