Difference between revisions of "Os03g0449200"

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(Function)
(Function)
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   The OsAGO7 gene is the first isolated gene controlling upward curling of leaves in rice. The OsAGO7 gene belongs to the AGO family because of its PAZ and PIWI domains. AGO is a large protein family that constitutes essential components of RNA-induced silencing complexes (RISCs), and their proteins are characterized by two unique domains, PAZ and PIWI (Carmell et al. 2002)
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   The OsAGO7 gene is the first isolated gene controlling upward curling of leaves in rice. It belongs to the AGO family because of its PAZ and PIWI domains. AGO is a large protein family that constitutes essential components of RNA-induced silencing complexes (RISCs), and their proteins are characterized by two unique domains, PAZ and PIWI (Carmell et al. 2002)
 
   In order to analyze the biological function of the OsAGO7 gene, Shi et al. joined a 223 bp fragment from the PAZ domain and a 510 bp fragment from the PIWI
 
   In order to analyze the biological function of the OsAGO7 gene, Shi et al. joined a 223 bp fragment from the PAZ domain and a 510 bp fragment from the PIWI
 
domain to the p1301UbiNos vector, in which there would be anti-sense segments expressed by the strong,Ubi promoter. The two resulting vectors—pAntiPAZ and pAntiPIWI—were transformed into the wild-type Zhonghua No. 11 by agrobacterium-mediated transformation.They obtained a total of 107 T0 transformants,with 80 being derived from pAntiPAZ and 27 from pAntiPIWI. In these transformants, we did not detect any obvious phenotype modiWcations in the T0 generation and the T1 generation.
 
domain to the p1301UbiNos vector, in which there would be anti-sense segments expressed by the strong,Ubi promoter. The two resulting vectors—pAntiPAZ and pAntiPIWI—were transformed into the wild-type Zhonghua No. 11 by agrobacterium-mediated transformation.They obtained a total of 107 T0 transformants,with 80 being derived from pAntiPAZ and 27 from pAntiPIWI. In these transformants, we did not detect any obvious phenotype modiWcations in the T0 generation and the T1 generation.
 +
  Since no phenotype changes in those anti-sense transformants were detected, we constructed an over-expression vector pCod, in which the whole OsAGO7 ORF was inserted into the 3� end of the Ubi promoter. After pCod was transformed into the wildtype Zhonghua No. 11, we found 58 T0 transformants, 52 (90%) of which exhibited the rolled-leaf trait. Furthermore, LRIs in the transformants were generally over 45 (Fig. 5a). Some exceeded 100, that is, the two margins of the leaves turned inside to overlap each other so that the whole leaf formed a cylinder (Fig. 5b).
 +
  To verify that the transformants were derived from
 +
diVerent transformation events, we sampled several transformants with the rolled-leaf trait and isolated the Xanking sequences of inserted T-DNA left border by TAIL-PCR. This analysis conWrmed that T-DNA was inserted into diVerent sites in diVerent transformants. In order to further investigate if the insertion of T-DNA co-segregated with the rolled-leaf trait in the OsAGO7 over-expression transformants, we sampled three lines with the rolled-leaf trait and diVerent
 +
T-DNA integration sites. Seeds were planted and raised to the T1 generation, and individuals were analyzed through GUS staining and PCR detection, where two pairs of primers—P3/Ubip and GusP+/GusP—were used (Fig. 3b). The results showed that the rolledleaf trait completely co-segregated with the integration
 +
of T-DNA.
  
 
===Expression===
 
===Expression===

Revision as of 06:14, 9 June 2014

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Annotated Information

Function

 The OsAGO7 gene is the first isolated gene controlling upward curling of leaves in rice. It belongs to the AGO family because of its PAZ and PIWI domains. AGO is a large protein family that constitutes essential components of RNA-induced silencing complexes (RISCs), and their proteins are characterized by two unique domains, PAZ and PIWI (Carmell et al. 2002)
 In order to analyze the biological function of the OsAGO7 gene, Shi et al. joined a 223 bp fragment from the PAZ domain and a 510 bp fragment from the PIWI

domain to the p1301UbiNos vector, in which there would be anti-sense segments expressed by the strong,Ubi promoter. The two resulting vectors—pAntiPAZ and pAntiPIWI—were transformed into the wild-type Zhonghua No. 11 by agrobacterium-mediated transformation.They obtained a total of 107 T0 transformants,with 80 being derived from pAntiPAZ and 27 from pAntiPIWI. In these transformants, we did not detect any obvious phenotype modiWcations in the T0 generation and the T1 generation.

 Since no phenotype changes in those anti-sense transformants were detected, we constructed an over-expression vector pCod, in which the whole OsAGO7 ORF was inserted into the 3� end of the Ubi promoter. After pCod was transformed into the wildtype Zhonghua No. 11, we found 58 T0 transformants, 52 (90%) of which exhibited the rolled-leaf trait. Furthermore, LRIs in the transformants were generally over 45 (Fig. 5a). Some exceeded 100, that is, the two margins of the leaves turned inside to overlap each other so that the whole leaf formed a cylinder (Fig. 5b).
  To verify that the transformants were derived from

diVerent transformation events, we sampled several transformants with the rolled-leaf trait and isolated the Xanking sequences of inserted T-DNA left border by TAIL-PCR. This analysis conWrmed that T-DNA was inserted into diVerent sites in diVerent transformants. In order to further investigate if the insertion of T-DNA co-segregated with the rolled-leaf trait in the OsAGO7 over-expression transformants, we sampled three lines with the rolled-leaf trait and diVerent T-DNA integration sites. Seeds were planted and raised to the T1 generation, and individuals were analyzed through GUS staining and PCR detection, where two pairs of primers—P3/Ubip and GusP+/GusP—were used (Fig. 3b). The results showed that the rolledleaf trait completely co-segregated with the integration of T-DNA.

Expression

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Evolution

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Labs working on this gene

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References

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Structured Information

Gene Name

Os03g0449200

Description

Stem cell self-renewal protein Piwi domain containing protein

Version

NM_001057008.2 GI:297601171 GeneID:4333232

Length

4596 bp

Definition

Oryza sativa Japonica Group Os03g0449200, complete gene.

Source

Oryza sativa Japonica Group

 ORGANISM  Oryza sativa Japonica Group
           Eukaryota; Viridiplantae; Streptophyta; Embryophyta; Tracheophyta;
           Spermatophyta; Magnoliophyta; Liliopsida; Poales; Poaceae; BEP
           clade; Ehrhartoideae; Oryzeae; Oryza.
Chromosome

Chromosome 3

Location

Chromosome 3:19879867..19884462

Sequence Coding Region

19882654..19884102

Expression

GEO Profiles:Os03g0449200

Genome Context

<gbrowseImage1> name=NC_008396:19879867..19884462 source=RiceChromosome03 preset=GeneLocation </gbrowseImage1>

Gene Structure

<gbrowseImage2> name=NC_008396:19879867..19884462 source=RiceChromosome03 preset=GeneLocation </gbrowseImage2>

Coding Sequence

<cdnaseq>ctatcttttttttattgcagcgatacttatgctgatcagtttagtctccaagtgtcgaaacacatgacgaaactctctgggagggttctcttgcccccaaaattaaagcttggcagcagtgggcgcatcaaggacataacaccggaccgatttgatcgacagtggagctttctggatagccatgttgcagagggttccaagatcaagagttgggccttgataagttttggtggcaccccggagcagcacttttgcattacaaagtttgtgaaccagctatcaaatcggtgtgagcagctaggaattctgctaaacaagaagaccattatcagcccaatatttgagaggattcaactactcaataacgtgggaattttggagggcaagctcaagaaaattcaagaagctgcatcaggcaacttgcagttgctaatctgtgtcatggagaggaggcaccaaggctatgctgatctgaagcgaattgcagaaacatccattggtgttgtgacacaatgttgcctttactccaacttgagcaagctgacctctcaattcttgacgaatttggctttgaagatcaatgcgaaactcggtggctgcaatattgccctatacagcagctttccatgccaaattcctagaatatttttgtcggaggagccggtgatgttcatgggtgctgatgtcacacacccgcatccccttgatgattcaagtccatcagtggttgctgtagttgcaagcatgaattggccgtcagcaaataagtacatctccaggatgagatcacagacacaccggaaagaaatcattgagcaactggatgttatggctggtgaactgcttgaagagtttctaaaagaagtggggaagctcccaagcagaatcatattcttcagagatggtgtgagcgagacacagttctacaaggtgctgaaggaggagatgcatgcagtgcgcacaacttgttcgaggtatccgggttacaaacccttgatcacattcatcgtagttcagaagaggcatcacactagactcttccacagggagaggaatggcagctcgtcacactactctgatcagaacataccaccaggaacagttgtggacactgtgattacacacccaagggaatttgatttctatctgtgcagccactggggcaccaaggggacgagccggccaactcattatcatgttctgtgggatgagaataacttccgttccgacgaagtgcagcagttgatacacaatctttgctacacatttgctcggtgcaccaggccagtttctcttgtcccaccggcttactacgcacatctcgcggcatatagaggcaggctgtaccttgagaggtcagatacaactatgtacagggtcagtccgttgcagactgtgccgctacctaagctcagagacaatgttaagaggctcatgttctactgctag</cdnaseq>

Protein Sequence

<aaseq>LSFFYCSDTYADQFSLQVSKHMTKLSGRVLLPPKLKLGSSGRIK DITPDRFDRQWSFLDSHVAEGSKIKSWALISFGGTPEQHFCITKFVNQLSNRCEQLGI LLNKKTIISPIFERIQLLNNVGILEGKLKKIQEAASGNLQLLICVMERRHQGYADLKR IAETSIGVVTQCCLYSNLSKLTSQFLTNLALKINAKLGGCNIALYSSFPCQIPRIFLS EEPVMFMGADVTHPHPLDDSSPSVVAVVASMNWPSANKYISRMRSQTHRKEIIEQLDV MAGELLEEFLKEVGKLPSRIIFFRDGVSETQFYKVLKEEMHAVRTTCSRYPGYKPLIT FIVVQKRHHTRLFHRERNGSSSHYSDQNIPPGTVVDTVITHPREFDFYLCSHWGTKGT SRPTHYHVLWDENNFRSDEVQQLIHNLCYTFARCTRPVSLVPPAYYAHLAAYRGRLYL ERSDTTMYRVSPLQTVPLPKLRDNVKRLMFYC</aaseq>

Gene Sequence

<dnaseqindica>2788..4236#taccatccaaccatccaagaaccccctttctctctctctctctctctcaggcaagaaacggcgctcaagagcaagaagttgctgccatggcgtgttgatactcttactactaccaccaaaaagctgtgcacggacaggttaaagcggtgtaccgctgactcgcgcggccatggagggggagcgggagggggtggtggccaagaacgaggacaacgcaggcggaggtggtggtggattaggtacaggtggtaatggtggtggcggcggcggcggcagcgcgaacgggcggaggaggtggaggggcgggggcagcagcgggtataggcagcacccgatcatccaggcctacccggcgctcctgccgctgccgataaacggcgccaccggccacgcacacatcaacggcgcggtctcgctgccgctgcctctgccgccgccggtgctgctgtacctgcagccgccaccgccaccgccgctgctgcccctgctccccaaggtcgccgccgccacgttctacggcaagccacccaaggcggccgacgcggcaccgaggggctcaatgtggaagcacaggccatcgaaaaagccgccaccgcatgccattaccgccgcgctgctgccgctcccgcggggtaaggaaggcgctcctttttcttggttacttcccgccgcattgcgctgcggccacccatttaacacctcacaaagcagcgtgcaaacacaataactactagtactagttcatctctcctactagcatctactccatggtccatgctacactagctgctgttgcttttgttggattcttgatccatttacccttgccttgtagctcattttttattctcttcttccgattatgtctttatagggtgtgtttagttgctgaaaaaagttggaagtttaaagaaagtttggagtttggaaaaaaagttggaactaaacacgcccatatatatcaagaagtggttaatgtatagtagcaaacagttattataatggtaatagaaggatgatttgcaacagtattttgtgatcaatgcttcagtgccagcaagttttcttaggaagctgtggttttatggattcctgctgagattattatgtttcatcttgtgccgtcgctatcatactgtacttgcctgaggcagccaatgttgtgtgattattgatgataccttttcttttgaaagttagtaccccttcccctctcaaggaagggtctgaccatcttttaggaaggcactccctttttttaaccaatgatgtaccactatcttggtgtttgtgcatgccatagaaaatattattctacttattgatttattattgaatgatatttccctctaaccctgtcttttgatttataattttctctagatttaatcatcggtaaaactgtttaaatttcttcttcttctggctccttacatgaaggtattgatttgctaacagatggcaaggcgcttcaggagaaaatattcttcgcaaatgaaagaaaaacatctgaaaaggaggtaaatcatgtagacacccatgagaagtttactgttgcaccactggataatgcaatagcacggagacctgacatgggtggtgttgagggggccgagatccctctttctgcaaaccatttccttgtccagtttgatcctggccagaagattttccattacaatgttgacatatctccgcgtccatcaaaagaaacagcaagaatgatcaagaaaaaattagttgaagaaaatccaagtgttctctcaggttcccaaccagcctttgatggccgcaagaacttatatagtcctgttagatttcaggaggacagggttgagttctttgtcagcctcccagttgcattagcacgatgttcagtagttaaagaggatactggccacatgcttgacaaacagaaactcaagactttcaaagtgaatgtccggttggtttcgaagttatgtggtgaggacttgaacaaatatctgaacgaggacaaggatggcatccctcttccacaagattacctccatgcattggatgttgtgttgcgtgaaggtgctatggaaagttctatccttgtgggtcggtcactgtatgcacgctccatgggggaagcaagggacattggtggtggtgctgttggattaagaggtttctttcagagattgaggccaaccaagcaaggccttgcccttaatgttgatctctcactctcagctttccacgagagcacaggcataatttcatacttgcagaagcgctgtgacttcttgaaggaccttccacagaagaaaacaagggctttggcagaagaggagcacagggaggtggagaaagcattgaaaaatatccgggtatttgtgtgccatcgtgagactaatcaaaggtaccatgtgcatagcttgactaaggagacaacagagaacctcaagtttcgcgaccgaagtgggaaggatcttatggtggtggattacttcaaggagcactataaccatgatatacaattcaggaaccttccatgcttgcagattggcaggagcaagccatgttatgtgccaatggagctttgtgtagtttgtgagggccagaagtttcttggcaagctgtctgatgaacaaacttctaagattctgaaaatgggttgtgaaagaccgagtgaaagaaagggaatcataaagggtgttgtcaaaggtgcatttcatgcaagaaggtatggttcttcattcttgtcattttcttttgcagcagttttgagctatagaaatcacataaatgtaagcgtagctatcttttttttattgcagcgatacttatgctgatcagtttagtctccaagtgtcgaaacacatgacgaaactctctgggagggttctcttgcccccaaaattaaagcttggcagcagtgggcgcatcaaggacataacaccggaccgatttgatcgacagtggagctttctggatagccatgttgcagagggttccaagatcaagagttgggccttgataagttttggtggcaccccggagcagcacttttgcattacaaagtttgtgaaccagctatcaaatcggtgtgagcagctaggaattctgctaaacaagaagaccattatcagcccaatatttgagaggattcaactactcaataacgtgggaattttggagggcaagctcaagaaaattcaagaagctgcatcaggcaacttgcagttgctaatctgtgtcatggagaggaggcaccaaggctatgctgatctgaagcgaattgcagaaacatccattggtgttgtgacacaatgttgcctttactccaacttgagcaagctgacctctcaattcttgacgaatttggctttgaagatcaatgcgaaactcggtggctgcaatattgccctatacagcagctttccatgccaaattcctagaatatttttgtcggaggagccggtgatgttcatgggtgctgatgtcacacacccgcatccccttgatgattcaagtccatcagtggttgctgtagttgcaagcatgaattggccgtcagcaaataagtacatctccaggatgagatcacagacacaccggaaagaaatcattgagcaactggatgttatggctggtgaactgcttgaagagtttctaaaagaagtggggaagctcccaagcagaatcatattcttcagagatggtgtgagcgagacacagttctacaaggtgctgaaggaggagatgcatgcagtgcgcacaacttgttcgaggtatccgggttacaaacccttgatcacattcatcgtagttcagaagaggcatcacactagactcttccacagggagaggaatggcagctcgtcacactactctgatcagaacataccaccaggaacagttgtggacactgtgattacacacccaagggaatttgatttctatctgtgcagccactggggcaccaaggggacgagccggccaactcattatcatgttctgtgggatgagaataacttccgttccgacgaagtgcagcagttgatacacaatctttgctacacatttgctcggtgcaccaggccagtttctcttgtcccaccggcttactacgcacatctcgcggcatatagaggcaggctgtaccttgagaggtcagatacaactatgtacagggtcagtccgttgcagactgtgccgctacctaagctcagagacaatgttaagaggctcatgttctactgctagcttcaccgccctgaatttcatggtatcgggactctcctacagtaattttcctcccaaaaaaaaaggtgtttcagatgttatctttaacgtatatcgcctgtcatcgtgtttttctatatttgtccgaattttggaaaatatgtatagtgctcctggacagaaatcctgtgcatcataacatcttacagcagttggcacttagtatttatgcaaaaattctgaaaccaaactgtttcattcccatagatgatgttggtaaggtgggggtttacctatttgtacagtctggatagtgaggaggtcctggagatgaagatactgctgtcgtgttccaaatttaatttcgtttaaattactgct</dnaseqindica>

External Link(s)

NCBI Gene:Os03g0449200, RefSeq:Os03g0449200