Difference between revisions of "Os04g0249500"

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===Function===
 
===Function===
 
Please input function information here.
 
Please input function information here.
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Years of research show that the main physiological function of plant sucrose synthetase in the following aspects:
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1.affecting the ability of sink and regulating the amount of fruit input and ordinary sugar metabolism ability. The fruit of sugar is the basic component of a very important index for the quality evaluation.In general, for the most part of sugar accumulation in fruit is soluble total sugar, in addition is the fructose and glucose. Due to the synthesis of sucrose synthase and invertase regulating sucrose and decomposition, make sink of plant organs and phloem maintain appropriate sucrose concentration gradient, which is advantageous for the sugar into the cells.
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2.affect the synthesis of starch. Starch is the main storage form of carbohydrate in plants and is an important part of the plant storage organs.
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3.sucrose synthetase participates in the building of various tissues and cells. For example, in the process of biological growth and development using sucrose synthetase of sucrose degradation UDPG building cell walls or callose synthesis. Sucrose synthase can break sucrose up into glucose and fructose, make its osmotic pressure increase in the cell,which is advantageous to the quick protuberance and elongation of the epithelial cells of cotton integument.
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4.improve plant resistance.Sucrose is the main carbon source of plants,and when plants subjected to external environment stress, plant sucrose accumulation occurs in the body. This phenomenon is a kind of feedback regulating plants adapt to the environment.
  
 
===Evolution===
 
===Evolution===

Revision as of 07:46, 4 June 2014

Please input one-sentence summary here.

Annotated Information

Expression

Please input expression information here. Sucrose is the main form of higher plant photosynthesis product transport,which provides carbon and energy source and plays a decisive role in the process of plant growth and metabolism. There are three types of sugar metabolism related enzymes in plants and sugarcane, including invertase or G - furan fruit glycosidase (Inv), sucrose phosphate synthesis Enzyme (SPS) and sucrose synthase (SUSy),among which sucrose synthetase is one of the key enzymes catalyzing sucrose metabolism.Sucrose is the control factor of the cell metabolism and participates in the plants adapting to adversity stress reaction.Sugar have signal function, which can be induced to express some special protein coding genes.

Function

Please input function information here. Years of research show that the main physiological function of plant sucrose synthetase in the following aspects: 1.affecting the ability of sink and regulating the amount of fruit input and ordinary sugar metabolism ability. The fruit of sugar is the basic component of a very important index for the quality evaluation.In general, for the most part of sugar accumulation in fruit is soluble total sugar, in addition is the fructose and glucose. Due to the synthesis of sucrose synthase and invertase regulating sucrose and decomposition, make sink of plant organs and phloem maintain appropriate sucrose concentration gradient, which is advantageous for the sugar into the cells. 2.affect the synthesis of starch. Starch is the main storage form of carbohydrate in plants and is an important part of the plant storage organs. 3.sucrose synthetase participates in the building of various tissues and cells. For example, in the process of biological growth and development using sucrose synthetase of sucrose degradation UDPG building cell walls or callose synthesis. Sucrose synthase can break sucrose up into glucose and fructose, make its osmotic pressure increase in the cell,which is advantageous to the quick protuberance and elongation of the epithelial cells of cotton integument. 4.improve plant resistance.Sucrose is the main carbon source of plants,and when plants subjected to external environment stress, plant sucrose accumulation occurs in the body. This phenomenon is a kind of feedback regulating plants adapt to the environment.

Evolution

Please input evolution information here.

You can also add sub-section(s) at will.

Labs working on this gene

Please input related labs here.

References

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Structured Information

Gene Name

Os04g0249500

Description

Similar to Sucrose synthase

Version

NM_001058844.2 GI:297602307 GeneID:4335303

Length

4916 bp

Definition

Oryza sativa Japonica Group Os04g0249500, 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 4

Location

Chromosome 4:9708958..9713873

Sequence Coding Region

9708958..9708999,9709123..9709146,9709270..9709333,9709690..9709934,9710185..9710506
,9710654..9710878,9710994..9711160,9711267..9711383,9711474..9711650
,9711793..9711888,9712010..9712226,9712312..9712430,9712518..9712710
,9712840..9712994,9713087..9713219,9713773..9713873

Expression

GEO Profiles:Os04g0249500

Genome Context

<gbrowseImage1> name=NC_008397:9708958..9713873 source=RiceChromosome04 preset=GeneLocation </gbrowseImage1>

Gene Structure

<gbrowseImage2> name=NC_008397:9708958..9713873 source=RiceChromosome04 preset=GeneLocation </gbrowseImage2>

Coding Sequence

<cdnaseq>atggcatccaagctgagtttcaagcgaatggacagcattgccgagacaatgccagatgccctacgacaaagccggtaccagatgaagagatgcttccaaaggtatgtatcaaagggtaagaggctcttgaagaaccagcagctcatggaagagctggaaaagtcactagatgacaaagttgagaacgagaagcttgtcgaaggctttctcggttacatcatttgttcgacacaggaagcagtagtactcccaccgtttgtggcattcgctgtcagaatgaatcctggtatctgggagtacgtcaaagttcactctgatgatctttctgtcgaaggaatcacaccgtcggagtatctcaagttcaaggagaccttatacgatgaaaaatgggccaaggatgacaactcactggaagttgatttcggtgcccttgacctctcaacaccccatttgacactgccctcgtcaatagggaatgggcttcagtttgtctccaaattcatgtcctcaaagctgggtggcaaacctgaaagcatgaagcctctgttggactatttacttaccttgaattaccgtggcgagaagttgatgattaatgacaccatcgacactgtgagcaagcttcagacagcactgctacttgcagaggttttcgttagtgggctgccaaaatacacgccttacttgaagtttgaacaaagatttcaggagtgggggttagagaagggatggggtgacactgcggagaggtgcaaagaaacactaaattgtctgtctgaagtgctacaggcaccagatcctacaaacatggagaagttcttcagcagggttccatccatattcaacattgtcatcttctctattcatggttacttcggccaagaaaaggttcttggattgccggataccggtggtcaggttgtctacatattggatcaagtcagagccatggaagaggagctgcttcaaagaatcaagcagcagggtctgcacgtaacaccgaagattcttgtgcttacaagactgataccagatgccaaaggcacaaaatgcaatgtggagcttgaaccagttgaaaatacaaaatactcacatatactacgtgtgccattcaagactgaagatggcaaggatttgcgccagtgggtgtcccggtttgacatctatccttatctagagagatatgcgcagaactcttgtgccaaaattctcgacattttggagggcaaaccggacttgataattggcaactacaccgatggcaacttggtggcatccctcttgtctaacaaactatgtgtcactcagggaacaattgcacacgctctggagaagacaaagtacgaggattcagatgttaagtggagagagatggaccagaagtaccatttctcttgccaatttaccgccgatatgatttccatgaacaccagcgacttcatcatcactagcacttaccaagaaattgctgggagcaaagagaagcctggccaatatgagcaccactacgcattcacaatgccgggactatgccgctacgccacaggcattaatgtattcgacccaaagttcaacattgctgcgcctggtgcagaccagtccatctacttccccttcacgcagaagcagaagcggctgacagatttacacccacagatagacgaactgctgtacagcaaggatgacactgatgaacacatagggtatctggcagacaggaacaaaccaatcatcttctcgatggcaaggcttgataaggtaaaaaacataactgggcttgtggagtggtatggccagaacaagaagctgagggacctcgtcaatctcgtcgtcgtcgcggggctcctggatgcttcgcagtccaaggatcgagaggagatcgaggagataaacaagatgcacaacctgatggacaggtaccagctcaaaggacagatccgctggatcaaggcacagactgaccgtgtccgcaacggtgagctgtaccgttgcattgcagatacaaagggtgcatttgttcagcctgcactgtatgaagcattcgggctaacggtcatcgaggcgatgaactgcgggttgccaaccttcgcaacgaaccagggcggaccagctgagataatcatcgacggtgtctctggtttccacgtaaaccccatcaacggcagggaggcaggaatcaagattgcagatttcttccagaaatgcaaggaagacccaagttactggaacaaggtgtccactgctgggcttcagcggatctacgagtggcaaaggctgtggcaagagcaggggatcaacaggctcggcaaaccacaacaggcgtggcgcctaaaagccgcagactcggatgcaaaggatcttaaccaggttagccgggcagaagcctccagtttctga</cdnaseq>

Protein Sequence

<aaseq>MASKLSFKRMDSIAETMPDALRQSRYQMKRCFQRYVSKGKRLLK NQQLMEELEKSLDDKVENEKLVEGFLGYIICSTQEAVVLPPFVAFAVRMNPGIWEYVK VHSDDLSVEGITPSEYLKFKETLYDEKWAKDDNSLEVDFGALDLSTPHLTLPSSIGNG LQFVSKFMSSKLGGKPESMKPLLDYLLTLNYRGEKLMINDTIDTVSKLQTALLLAEVF VSGLPKYTPYLKFEQRFQEWGLEKGWGDTAERCKETLNCLSEVLQAPDPTNMEKFFSR VPSIFNIVIFSIHGYFGQEKVLGLPDTGGQVVYILDQVRAMEEELLQRIKQQGLHVTP KILVLTRLIPDAKGTKCNVELEPVENTKYSHILRVPFKTEDGKDLRQWVSRFDIYPYL ERYAQNSCAKILDILEGKPDLIIGNYTDGNLVASLLSNKLCVTQGTIAHALEKTKYED SDVKWREMDQKYHFSCQFTADMISMNTSDFIITSTYQEIAGSKEKPGQYEHHYAFTMP GLCRYATGINVFDPKFNIAAPGADQSIYFPFTQKQKRLTDLHPQIDELLYSKDDTDEH IGYLADRNKPIIFSMARLDKVKNITGLVEWYGQNKKLRDLVNLVVVAGLLDASQSKDR EEIEEINKMHNLMDRYQLKGQIRWIKAQTDRVRNGELYRCIADTKGAFVQPALYEAFG LTVIEAMNCGLPTFATNQGGPAEIIIDGVSGFHVNPINGREAGIKIADFFQKCKEDPS YWNKVSTAGLQRIYEWQRLWQEQGINRLGKPQQAWRLKAADSDAKDLNQVSRAEASSF </aaseq>

Gene Sequence

<dnaseqindica>4875..4916#4728..4751#4541..4604#3940..4184#3368..3689#2996..3220#2714..2880#2491..2607#2224..2400#1986..2081#1648..1864#1444..1562#1164..1356#880..1034#655..787#1..101#atggcatccaagctgagtttcaagcgaatggacagcattgccgagacaatgccagatgccctacgacaaagccggtaccagatgaagagatgcttccaaaggtaccgtaaattgtgaattaaatctttgatggaatgcatttcagttttttgtccgtgtcagccaaagcctggcagaggaattttattcctgtggttgagacttgcttttttattttcaatggaaataggttgatgcatcagtccataccagcatattctaataagggggtacttaattaatggcccttatgcatttccattataagaactaataagaaagaacattcatacatttgtaattaggacgatgctgcataaaaacatgtaaagcatatctaaattagctagagactaatcaaatagtgtaagcacctgaacgtagtctgaatcgatgttttaaaaagcggtaagcggtttggggtggccacctcaccttgtagtgcttatgtggcattatcggccgcttatgcgatataatcagctgcttatgcggcataggcaggacaaggttggtacacatgttcctcttgtatatggccttgtagaccctttttaaaacactggtttgaatatcttgcacatgattctcaagtctaggataaaaatgttctaggtatgtatcaaagggtaagaggctcttgaagaaccagcagctcatggaagagctggaaaagtcactagatgacaaagttgagaacgagaagcttgtcgaaggctttctcggttacatcatttgttcgacacaggtgatttcactttaaaatcataatctgttttcagacaaagtaaacggtgataaactggagctcattacattaagcaacgattttgtttgcaggaagcagtagtactcccaccgtttgtggcattcgctgtcagaatgaatcctggtatctgggagtacgtcaaagttcactctgatgatctttctgtcgaaggaatcacaccgtcggagtatctcaagttcaaggagaccttatacgatgaaaaatggtatgcatatccatgatccactaatccagtacgtagtagctaatgcgaacatttccatatatagattgaagaagaacaggagcctgaaacttgaaaaaaaaatggtcgatctgaccatgtgcatttcagggccaaggatgacaactcactggaagttgatttcggtgcccttgacctctcaacaccccatttgacactgccctcgtcaatagggaatgggcttcagtttgtctccaaattcatgtcctcaaagctgggtggcaaacctgaaagcatgaagcctctgttggactatttacttaccttgaattaccgtggcgaggtaccgcgagatcattcagctgtgccattattatcaggtggccaacgtacaccgctgaatgatactttttatcttatgatcatgtagaagttgatgattaatgacaccatcgacactgtgagcaagcttcagacagcactgctacttgcagaggttttcgttagtgggctgccaaaatacacgccttacttgaagtttgaacaaaggtgaagtactttaatctgaagttgtagatagacaaaaaaaaaattgtaatcatgcttaagttttctctattatgtgttcttgcagatttcaggagtgggggttagagaagggatggggtgacactgcggagaggtgcaaagaaacactaaattgtctgtctgaagtgctacaggcaccagatcctacaaacatggagaagttcttcagcagggttccatccatattcaacattgtcatcttctctattcatggttacttcggccaagaaaaggttcttggattgccggataccggtggtcaggtacccaacttaccggttttctggaatctctcgcgcataatcattataactcttaaaaaaatggtcacaacttaattatcggttaacaaaactctaaagaatggtttcgtgaaatatataggttgtctacatattggatcaagtcagagccatggaagaggagctgcttcaaagaatcaagcagcagggtctgcacgtaacaccgaagattcttgtggtaaatttcattgatttcacgatatatatattcctgtacaatgaaatatagtgaatgacgaataggtatatatatataaatgagatgatatgaatgacgaatagattagctaaaccagtgggcactatatatattcctgcagcttacaagactgataccagatgccaaaggcacaaaatgcaatgtggagcttgaaccagttgaaaatacaaaatactcacatatactacgtgtgccattcaagactgaagatggcaaggatttgcgccagtgggtgtcccggtttgacatctatccttatctagagagatatgcgcaggtttgtcagctatgaattactatgagttactgataccctttgcgcgggcctgtgatctttatagtaagtttccatccaacgtaatttcagaactcttgtgccaaaattctcgacattttggagggcaaaccggacttgataattggcaactacaccgatggcaacttggtggcatccctcttgtctaacaaactatgtgtcactcaggtgaaaccggcttgtcaaatggctgcacgtacggtggttatccctttttaggaccaacgttaccatgatttggtatgacatgaaaaatgcatgatcttgatgacagggaacaattgcacacgctctggagaagacaaagtacgaggattcagatgttaagtggagagagatggaccagaagtaccatttctcttgccaatttaccgccgatatgatttccatgaacaccagcgacttcatcatcactagcacttaccaagaaattgctgggaggtcggtagctaaggctgaaatagtctctctataaatctagtgcttcaaggacactcaaattattaagtgttaattgcttagcctagaaattaacaagatcgaacatctgatgcagcaaagagaagcctggccaatatgagcaccactacgcattcacaatgccgggactatgccgctacgccacaggcattaatgtattcgacccaaagttcaacattgctgcgcctggtgcagaccagtccatctacttccccttcacgcagaagcagaagcggctgacagatttacacccacagatagacgaactgctgtacagcaaggatgacactgatgaacacatgtaagctactacccggacggccaggctccttggaaacgtacctagctacaaattaacttctcttttactgttagatcagatcagacaacttaagttggttaattaagtgctaattgctgctcttcacctttttttaatttaaaccagagggtatctggcagacaggaacaaaccaatcatcttctcgatggcaaggcttgataaggtaaaaaacataactgggcttgtggagtggtatggccagaacaagaagctgagggacctcgtcaatctcgtcgtcgtcgcggggctcctggatgcttcgcagtccaaggatcgagaggagatcgaggagataaacaagatgcacaacctgatggacaggtaccagctcaaaggacagatccgctggatcaaggcacagactgaccgtgtccgcaacggtgagctgtaccgttgcattgcagatacaaagggtgcatttgttcaggtacataccagggttttaaatctcccgctatagttgtttgagaagggttttagctatttgctctaatgtacaatttagccgctatagctttatttagcccgctaatactatttgggaagctaaccgctaaatgtcttagcccgctatttaaaacattggtacttacacaacagaagtagtaacagtttaattaattggatcaacagaagtaactcaactctaaccttgaccttgcattcgttgactgcagcctgcactgtatgaagcattcgggctaacggtcatcgaggcgatgaactgcgggttgccaaccttcgcaacgaaccagggcggaccagctgagataatcatcgacggtgtctctggtttccacgtaaaccccatcaacggcagggaggcaggaatcaagattgcagatttcttccagaaatgcaaggaagacccaagttactggaacaaggtgtccactgctgggcttcagcggatctacgagtggtgagtgagggtcctatatccttgcatgcgtcctgttctttttttttgtttttgtttttgtgcacaacttagatcaatcctcctatatatatggcactaactaaatccatgatggcagctacacatggaagatttatgcaactagagtgctaaacatgggatctacatattccttctggaagacactaaacaaggaggaaagacaagccaaacaacgttacctgcagatattctacaatgttcagtataggaacctggttagtatgaatatatacatgcatcaatctgagtagtatagtatattctttatcgaaaggatgtcagtctgatcaagtgtacaatgtctaatatcacaggcaaaggctgtggcaagagcaggggatcaacaggctcggcaaaccacaacaggcgtggcgcctagtgagatcgtagttagacccaaagaaaggcaagtgtgcccgctattacgaaatttactgaagaaagaccgggcaagcaactgactgacccgttaatttgttgtttggaatttggatgctgcagaaagccgcagactcggatgcaaaggtgaatgcatgcgtcttcttatttttcgcaatatctctatcgatttagtacttaattaattagctgtgaagaaatgaacaaaataactaatccacttgaatgctctgctccgtgtgtgctcaggatcttaaccaggttagccgggcagaagcctccagtttctga</dnaseqindica>

External Link(s)

NCBI Gene:Os04g0249500, RefSeq:Os04g0249500