Rice Science
  • 首页
  • 期刊介绍
  • 编委会
  • 学术伦理
  • 投稿指南
  • 期刊订阅
  • 联系我们
  • English

Rice Science ›› 2015, Vol. 22 ›› Issue (4): 162-170.DOI: 10.1016/S1672-6308(14)60299-7

• • 上一篇    下一篇

  • 收稿日期:2015-04-02 接受日期:2015-05-04 出版日期:2015-07-28 发布日期:2015-05-27

RichHTML

PDF

可视化

0

摘要/Abstract

引用本文

. [J]. Rice Science, 2015, 22(4): 162-170.

使用本文

0
    /   推荐

导出引用管理器 EndNote|Ris|BibTeX

链接本文: http://www.ricesci.org/CN/10.1016/S1672-6308(14)60299-7

               http://www.ricesci.org/CN/Y2015/V22/I4/162

图/表 11

Table 1 Primers for fine mapping of Flo7.
Primer Forward (5'-3') Reverse (5'-3') Product size (bp)
RM6411 GGGTATTGTCGGTGTTCAGG GAAGGCTGTACCATCCAACG 140
RM1227 CATGGTAGCACACACCCTTG CATCGACATGTGGACCACTC 137
RM28746 GAAGAAAGAAGACGCCAAGAAACG CATTCCATTCCCTTCCTCTTCG 158
C5-2 GCTGTCAGATCGGTAGGCA ACCACATCAACCCAGAAAA 90
C5-15 TGTTTGTGCCTTCAGATAA TGAGATAGGGGAAGTAGAT 87
C2-6 AGATTCTTTTCCAAACAAC AATCATCATATTGCCGAAA 81
C2-11 TGCATCATCCAATCTGTCTTGG TCGACAAGCCAATCTACTCTTCC 139
C7-3 CTACGTGCATCCATCGAGAA TGAATTGTTTACCGGAACCC 153
C7-5 TCTTCTACTCCTCGTCTTCGTTCG CATGCAGAGCAGAGACTTCTTGG 143
C7-12 TGCTGGACACAGCAAGTTTT TAGATGGTGGGGGTGATAGG 185
C7-15 GCGTTGATTGATGATGATGG CGACCCGACGTAAAAGAGAA 113

Table 1 Primers for fine mapping of Flo7.

Primer Forward (5'-3') Reverse (5'-3') Product size (bp)
RM6411 GGGTATTGTCGGTGTTCAGG GAAGGCTGTACCATCCAACG 140
RM1227 CATGGTAGCACACACCCTTG CATCGACATGTGGACCACTC 137
RM28746 GAAGAAAGAAGACGCCAAGAAACG CATTCCATTCCCTTCCTCTTCG 158
C5-2 GCTGTCAGATCGGTAGGCA ACCACATCAACCCAGAAAA 90
C5-15 TGTTTGTGCCTTCAGATAA TGAGATAGGGGAAGTAGAT 87
C2-6 AGATTCTTTTCCAAACAAC AATCATCATATTGCCGAAA 81
C2-11 TGCATCATCCAATCTGTCTTGG TCGACAAGCCAATCTACTCTTCC 139
C7-3 CTACGTGCATCCATCGAGAA TGAATTGTTTACCGGAACCC 153
C7-5 TCTTCTACTCCTCGTCTTCGTTCG CATGCAGAGCAGAGACTTCTTGG 143
C7-12 TGCTGGACACAGCAAGTTTT TAGATGGTGGGGGTGATAGG 185
C7-15 GCGTTGATTGATGATGATGG CGACCCGACGTAAAAGAGAA 113
Table 2 Primers used to assay starch synthesis-related gene transcription.
Primer Accession number Forward (5'-3') Reverse (5'-3')
Actin X16280 CATGCTATCCCTCGTCTCGACCT CGCACTTCATGATGGAGTTGTAT
OsAGPS1 AK073146 AGAATGCTCGTATTGGAGAAAATG GGCAGCATGGAATAAACCAC
OsAGPS2a AK071826 ACTCCAAGAGCTCGCAGACC GCCTGTAGTTGGCACCCAGA
OsAGPS2b AK103906 AACAATCGAAGCGCGAGAAA GCCTGTAGTTGGCACCCAGA
OsAGPL1 D50317 GGAAGACGGATGATCGAGAAAG CACATGAGATGCACCAACGA
OsAGPL3 AK069296 AAGCCAGCCATGACCATTTG CACACGGTAGATTCACGAGACAA
OsAGPL4 AK121036 TCAACGTCGATGCAGCAAAT ATCCCTCAGTTCCTAGCCTCATT
OsSSI D16202 GGGCCTTCATGGATCAACC CCGCTTCAAGCATCCTCATC
OsSSIIa AF419099 GCTTCCGGTTTGTGTGTTCA CTTAATACTCCCTCAACTCCACCAT
OsSSIIIa AY100469 GCCTGCCCTGGACTACATTG GCAAACATATGTACACGGTTCTGG
OsBEIIb D16201 ATGCTAGAGTTTGACCGC AGTGTGATGGATCCTGCC
GBSSI AK070431 TCCGAGAGGTTCAGGTCATC ATGAGCTCCTCGGCGTAGTA
OsISA1 AB093426 TGCTCAGCTACTCCTCCATCATC AGGACCGCACAACTTCAACATA
OsISA2 AC132483 TAGAGGTCCTCTTGGAGG AATCAGCTTCTGAGTCACCG
OsISA3 AP005574 ACAGCTTGAGACACTGGGTTGAG GCATCAAGAGGACAACCATCTG
OsPUL AB012915 ACCTTTCTTCCATGCTGG CAAAGGTCTGAAAGATGGG
OsPHOL AK063766 TTGGCAGGAAGGTTTCGCT CGAAGCCTGAAGTGAACTTGCT

Table 2 Primers used to assay starch synthesis-related gene transcription.

Primer Accession number Forward (5'-3') Reverse (5'-3')
Actin X16280 CATGCTATCCCTCGTCTCGACCT CGCACTTCATGATGGAGTTGTAT
OsAGPS1 AK073146 AGAATGCTCGTATTGGAGAAAATG GGCAGCATGGAATAAACCAC
OsAGPS2a AK071826 ACTCCAAGAGCTCGCAGACC GCCTGTAGTTGGCACCCAGA
OsAGPS2b AK103906 AACAATCGAAGCGCGAGAAA GCCTGTAGTTGGCACCCAGA
OsAGPL1 D50317 GGAAGACGGATGATCGAGAAAG CACATGAGATGCACCAACGA
OsAGPL3 AK069296 AAGCCAGCCATGACCATTTG CACACGGTAGATTCACGAGACAA
OsAGPL4 AK121036 TCAACGTCGATGCAGCAAAT ATCCCTCAGTTCCTAGCCTCATT
OsSSI D16202 GGGCCTTCATGGATCAACC CCGCTTCAAGCATCCTCATC
OsSSIIa AF419099 GCTTCCGGTTTGTGTGTTCA CTTAATACTCCCTCAACTCCACCAT
OsSSIIIa AY100469 GCCTGCCCTGGACTACATTG GCAAACATATGTACACGGTTCTGG
OsBEIIb D16201 ATGCTAGAGTTTGACCGC AGTGTGATGGATCCTGCC
GBSSI AK070431 TCCGAGAGGTTCAGGTCATC ATGAGCTCCTCGGCGTAGTA
OsISA1 AB093426 TGCTCAGCTACTCCTCCATCATC AGGACCGCACAACTTCAACATA
OsISA2 AC132483 TAGAGGTCCTCTTGGAGG AATCAGCTTCTGAGTCACCG
OsISA3 AP005574 ACAGCTTGAGACACTGGGTTGAG GCATCAAGAGGACAACCATCTG
OsPUL AB012915 ACCTTTCTTCCATGCTGG CAAAGGTCTGAAAGATGGG
OsPHOL AK063766 TTGGCAGGAAGGTTTCGCT CGAAGCCTGAAGTGAACTTGCT
Table 3 Agronomic performance of flo7 and its wild type (WT).
Material Plant height
(cm)
Main panicle length
(cm)
Effective tiller number per plant No. of grains per panicle Seed-setting rate
(%)
WT 67.25 ± 4.25 16.88 ± 2.32 26.25 ± 2.75 60.00 ± 5.80 66.25 ± 8.32
flo7 74.20 ± 3.50 17.22 ± 1.80 26.75 ± 4.68 61.75 ± 5.25 82.20 ± 9.33
P value (t test) 0.003 0.190 0.150 0.850 0.036

Table 3 Agronomic performance of flo7 and its wild type (WT).

Material Plant height
(cm)
Main panicle length
(cm)
Effective tiller number per plant No. of grains per panicle Seed-setting rate
(%)
WT 67.25 ± 4.25 16.88 ± 2.32 26.25 ± 2.75 60.00 ± 5.80 66.25 ± 8.32
flo7 74.20 ± 3.50 17.22 ± 1.80 26.75 ± 4.68 61.75 ± 5.25 82.20 ± 9.33
P value (t test) 0.003 0.190 0.150 0.850 0.036
Table 4 Grain quality properties of flo7 and its wild type (WT).
Material Protein content (%) Amylose content (%) Gel consistency (mm) Alkali spreading value Hardness (N)
WT 10.2 ± 0.2 17.9 ± 0.2 80.5 ± 0.5 6.0 ± 0.5 19.5
flo7 10.7 ± 0.2 15.4 ± 0.3 56.6 ± 0.5 6.8 ± 0.2 15.4
P value (t test) 0.180 0.012 0.002 0.035 0.018

Table 4 Grain quality properties of flo7 and its wild type (WT).

Material Protein content (%) Amylose content (%) Gel consistency (mm) Alkali spreading value Hardness (N)
WT 10.2 ± 0.2 17.9 ± 0.2 80.5 ± 0.5 6.0 ± 0.5 19.5
flo7 10.7 ± 0.2 15.4 ± 0.3 56.6 ± 0.5 6.8 ± 0.2 15.4
P value (t test) 0.180 0.012 0.002 0.035 0.018
Fig. 1. Phenotypes of flo7 and its wild type (WT). A, Non-milled grains; B, Milled grains; C, Cross sections of endosperm; D, Grain length; E, Grain width; F, Grain thickness; G, 1000-grain weight. All values are given as mean ± SD.

Fig. 1. Phenotypes of flo7 and its wild type (WT). A, Non-milled grains; B, Milled grains; C, Cross sections of endosperm; D, Grain length; E, Grain width; F, Grain thickness; G, 1000-grain weight. All values are given as mean ± SD.

Fig. 2. Free sugar content and 1000-grain weight of flo7 and wild type (WT) during grain filling (Mean ± SD, n = 3). A, 1000-grain weight; B, Sucrose content; C, Glucose content; D, Fructose content.

Fig. 2. Free sugar content and 1000-grain weight of flo7 and wild type (WT) during grain filling (Mean ± SD, n = 3). A, 1000-grain weight; B, Sucrose content; C, Glucose content; D, Fructose content.

Fig. 3. Structure of starch granules in endosperm of wild type (WT) (A, B and C) and flo7 (D, E and F). A and D, Cross-sections of endosperm; B and E, Central region of mature endosperm from the cross-sections in A and D indicated by the red square; C and F, Outer portion of mature endosperm from the cross-sections in A and D indicated by the blue square.

Fig. 3. Structure of starch granules in endosperm of wild type (WT) (A, B and C) and flo7 (D, E and F). A and D, Cross-sections of endosperm; B and E, Central region of mature endosperm from the cross-sections in A and D indicated by the red square; C and F, Outer portion of mature endosperm from the cross-sections in A and D indicated by the blue square.

Table 5 Genetic analysis of flo7.
Combination No. of wild type plants No. of flo7
type plants
χ2(3:1 ) P value
flo7/Nanjing 11 502 179 0.600 0.44
flo7/Pei’ai 64 89 28 0.025 0.79
flo7/93-11 102 36 0.038 0.77

Table 5 Genetic analysis of flo7.

Combination No. of wild type plants No. of flo7
type plants
χ2(3:1 ) P value
flo7/Nanjing 11 502 179 0.600 0.44
flo7/Pei’ai 64 89 28 0.025 0.79
flo7/93-11 102 36 0.038 0.77
Table 6 Candidate genes in Flo7 fine mapping interval.
ORF Candidate gene Function description
ORF1 Os12g0630750 Full insert sequence
ORF2 Os12g0630800 Hypothetical conserved gene
ORF3 Os12g0631025 Non-protein coding transcript
ORF4 Os12g0631100 Small GTPase, storage protein trafficking
ORF5 Os12g0631150 Non-protein coding transcript
ORF6 Os12g0631200 Similar to ubiquitin-protein ligase / zinc ion binding protein
ORF7 Os12g0631600 Conserved hypothetical protein.
ORF8 Os12g0631800 Phytoene dehydrogenase-like
ORF9 Os12g0632000 Similar to glycine-rich RNA-binding protein 1
ORF10 Os12g0632100 Similar to ARL2 G-protein
ORF11 Os12g0632401 Hypothetical conserved gene
ORF12 Os12g0632600 Similar to helix-loop-helix DNA-binding domain containing protein
ORF13 Os12g0632700 Malate dehydrogenase, glyoxysomal precursor

Table 6 Candidate genes in Flo7 fine mapping interval.

ORF Candidate gene Function description
ORF1 Os12g0630750 Full insert sequence
ORF2 Os12g0630800 Hypothetical conserved gene
ORF3 Os12g0631025 Non-protein coding transcript
ORF4 Os12g0631100 Small GTPase, storage protein trafficking
ORF5 Os12g0631150 Non-protein coding transcript
ORF6 Os12g0631200 Similar to ubiquitin-protein ligase / zinc ion binding protein
ORF7 Os12g0631600 Conserved hypothetical protein.
ORF8 Os12g0631800 Phytoene dehydrogenase-like
ORF9 Os12g0632000 Similar to glycine-rich RNA-binding protein 1
ORF10 Os12g0632100 Similar to ARL2 G-protein
ORF11 Os12g0632401 Hypothetical conserved gene
ORF12 Os12g0632600 Similar to helix-loop-helix DNA-binding domain containing protein
ORF13 Os12g0632700 Malate dehydrogenase, glyoxysomal precursor
Fig. 4. Genetic mapping of gene Flo7. A, A coarse map placed the locus on chromosome 12 between RM6411 and RM1227; B, Flo7 was located in 95.1 kb region defined by the markers C2-11 and C5-15; C, Candidate region contain 13 open reading frames (ORFs).

Fig. 4. Genetic mapping of gene Flo7. A, A coarse map placed the locus on chromosome 12 between RM6411 and RM1227; B, Flo7 was located in 95.1 kb region defined by the markers C2-11 and C5-15; C, Candidate region contain 13 open reading frames (ORFs).

Fig. 5. Transcription profiling of genes related to starch synthesis during grain filling (Mean ± SD, n = 3). OsAGPS1, ADP glucose pyrophosphorylase small subunit 1; OsAGPS2a, ADP glucose pyrophosphorylase small subunit 2a; OsAGPS2b, ADP glucose pyrophosphorylase small subunit 2b; OsAGPL1, ADP glucose pyrophosphorylase large subunit 1; OsAGPL3, ADP glucose pyrophosphorylase large subunit 3; OsAGPL4, ADP glucose pyrophosphorylase large subunit 4; OsSSI, Starch synthase I; OsSSIIa, Starch synthase IIa; OsSSIIIa, Starch synthase IIIa; OsGBSSI, Granule-bound starch synthase I; OsISA1, Isoamylase I; OsISA2, Isoamylase II; OsISA3, Isoamylase III; OsBEIIb, Starch branching enzyme Iib; OsPUL, Pullulanase; OsPHOL, Starch phosphorylase.

Fig. 5. Transcription profiling of genes related to starch synthesis during grain filling (Mean ± SD, n = 3). OsAGPS1, ADP glucose pyrophosphorylase small subunit 1; OsAGPS2a, ADP glucose pyrophosphorylase small subunit 2a; OsAGPS2b, ADP glucose pyrophosphorylase small subunit 2b; OsAGPL1, ADP glucose pyrophosphorylase large subunit 1; OsAGPL3, ADP glucose pyrophosphorylase large subunit 3; OsAGPL4, ADP glucose pyrophosphorylase large subunit 4; OsSSI, Starch synthase I; OsSSIIa, Starch synthase IIa; OsSSIIIa, Starch synthase IIIa; OsGBSSI, Granule-bound starch synthase I; OsISA1, Isoamylase I; OsISA2, Isoamylase II; OsISA3, Isoamylase III; OsBEIIb, Starch branching enzyme Iib; OsPUL, Pullulanase; OsPHOL, Starch phosphorylase.

参考文献 36

1 Agricultural Industry Standard of the People’s Republic of China. 2002. The Rice Quality Measurement Method (NY147-88). Beijing, China: China Standards Press. (in Chinese)
2 Chavrier P, Goud B.1999. The role of ARF and Rab GTPases in membrane transport.Curr Opin Cell Biol, 11(4): 466-475.
3 Fu F F, Xue H W.2010. Coexpression analysis identifies Rice Starch Regulator 1, a rice AP2/EREBP family transcription factor, as a novel rice starch biosynthesis regulator.Plant Physiol, 154(2): 927-938.
4 Fukuda M, Wen L Y, Satoh-Cruz M, Kawagoe Y, Nagamura Y, Okita T W, Washida H, Sugino A, Ishino S, Ishino Y, Ogawa M, Sunada M, Ueda T, Kumamaru T.2013. A guanine nucleotide exchange factor for Rab5 proteins is essential for intracellular transport of the proglutelin from the Golgi apparatus to the protein storage vacuole in rice endosperm.Plant Physiol, 162(2): 663-674.
5 Fujita N, Yoshida M, Kondo T, Saito K, Utsumi Y, Tokunaga T, Nishi A, Satoh H, Park J H, Jane J L, Miyao A, Hirochika H, Nakamura Y.2007. Characterization of SSIIIa-deficient mutants of rice: The function of SSIIIa and pleiotropic effects by SSIIIa deficiency in the rice endosperm.Plant Physiol, 144(4): 2009-2023.
6 Gao M, Fisher D K, Kim K N, Shannon J C, Guiltinan M J.1996. Evolutionary conservation and expression patterns of maize starch branching enzyme I and IIb genes suggests isoform specialization.Plant Mol Biol, 30(6): 1223-1232.
7 Hamada S, Nozaki K, Ito H, Yoshimoto Y, Yoshida H, Hiraga S, Onodera S, Honma M, Takeda Y, Matsui H.2001. Two starch-branching-enzyme isoforms occur in different fractions of developing seeds of kidney bean.Biochem J, 359: 23-34.
8 Hanashiro I, Itoh K, Kuratomi Y, Yamazaki M, Igarashi T, Matsugasako J I, Takeda Y.2008. Granule-bound starch synthase I is responsible for biosynthesis of extra-long unit chains of amylopectin in rice.Plant Cell Physiol, 49(6): 925-933.
9 Hanzal-Bayer M, Renault L, Roversi P, Wittinghofer A, Hillig R C.2002. The complex of Arl2-GTP and PDEσ: From structure to function. EMBO J, 21(9): 2095-2106.
10 Hirose T, Terao T.2004. A comprehensive expression analysis of the starch synthase gene family in rice (Oryza sativa L.).Planta, 220(1): 9-16.
11 Jin T Y, Li H, Guo T, Liu X L, Su N, Wu F Q.2010. Analysis of physiological and biochemical characteristics of six mutants with stable high percentage of chalkiness in rice grains.Acta Agron Sin, 36(1): 121-132. (in Chinese with English abstract)
12 Kang H G, Park S, Matsuoka M, An G.2005. White-core endosperm floury endosperm 4 in rice is generated by knockout mutations in the C4-type pyruvate orthophosphate dikinase gene (OsPPDKB).Plant J, 42(6): 901-911.
13 Kang H Q, Cheng H Y.2007. Study on chalkiness characters and endosperm structures of the main parents’ kernel of hybrid rice.Chin Agric Sci Bull, 23(4): 180-185. (in Chinese with English abstract)
14 Kawagoe Y, Kubo A, Satoh H, Takaiwa F, Nakamjura Y.2005. Roles of isoamylase and ADP-glucose pyrophosphorylase in starch granule synthesis in rice endosperm.Plant J, 42(2): 164-174.
15 Kawasaki T, Mizuno K, Baba T, Shimada H.1993. Molecular analysis of the gene encoding a rice starch branching enzyme.Mol Gen Genet, 237(1/2): 10-16.
16 Li Z, Trick H N.2005. Rapid method for high-quality RNA isolation from seed endosperm containing high levels of starch.Bio-Techniques, 38(6): 872-876.
17 Liu F, Ren Y L, Wang Y H, Peng C, Zhou K N, Lv J, Guo X P, Zhang X, Zhong M S, Zhao S L, Jiang L, Wang H Y, Bao Y Q, Wan J M.2013. OsVPS9A functions cooperatively with OsRAB5A to regulate post-Golgi dense vesicle-mediated storage protein trafficking to the protein storage vacuole in rice endosperm cells.Mol Plant, 6(6): 1918-1932.
18 Myers A M, Morell M K, James M G, Ball S G.2000. Recent progress toward understanding biosynthesis of the amylopectin crystal.Plant Physiol, 122(4): 989-998.
19 Nishi A, Nakamura Y, Tanaka N, Satoh H.2001. Biochemical and genetic analysis of the effects of amylose-extender mutation in rice endosperm.Plant Physiol, 127(2): 459-472.
20 Nishio T, Iida S.1993. Mutants having a low content of 16-kDa allergenic protein in rice (Oryza sativa L.).Theor Appl Genet, 86(2/3): 317-321.
21 Peng C, Wang Y H, Liu F, Ren Y L, Zhou K N, Lv J, Zheng M, Zhao S L, Zhang L, Wang C M, Jiang L, Zhang X, Guo X P, Bao Y Q, Wan J M.2014. FLOURY ENDOSPERM6 encodes a CBM48 domain-containing protein involved in compound granule formation and starch synthesis in rice endosperm.Plant J, 77(6): 917-930.
22 Ren Y L, Wang Y H, Liu F, Zhou K N, Ding Y, Zhou F, Wang Y, Liu K, Gan L, Ma W W, Han X H, Zhang X, Guo X P, Wu F Q, Cheng Z J, Wang J L, Lei C L, Lin Q B, Jiang L, Wu C Y, Bao Y Q, Wang H Y, Wan J M.2014. GLUTELIN PRECURSOR ACCUMULATION3 encodes a regulator of post-Golgi vesicular traffic essential for vacuolar protein sorting in rice endosperm.Plant Cell, 26(1): 410-425.
23 Qu Y, Jin Z X, Liu H Y, Xu Z H, Zhu L N, Zheng G L, Zhu F X, Zhang Z C.2014. Analysis of expression characters of soluble starch synthase and isoform genes involved in japonica hybrid progeny.Chin J Rice Sci, 28(1): 23-31. (in Chinese with English abstract)
24 Ryoo N, Yu C, Park C S, Baik M Y, Park I M, Cho M H, Bhoo S H, An G, Hahn T R, Jeon J S.2007. Knockout of a starch synthase gene OsSSIIIa/Flo5 causes white-core floury endosperm in rice (Oryza sativa L.).Plant Cell Rep, 26(7): 1083-1095.
25 Satoh H, Omura T.1981. New endosperm mutations induced by chemical mutagens in rice Oryza sativa L.Jpn J Breeding, 31(3): 316-326.
26 Schmittgen T D, Livak K J.2008. Analyzing real-time PCR data by the comparative CT method.Nat Protoc, 3: 1101-1108.
27 She K C, Kusano H, Koizumi K, Yamakawa H, Hakata M, Imamura T, Fukuda M, Naito N, Tsurumaki Y, Yaeshima M, Tsuqe T, Matsumoto K, Kudoh M, Itoh E, Kikuchi S, Kishimoto N, Yazaki J, Ando T, Yano M, Aoyama T, Sasaki T, Satoh H, Shimada H.2010. A novel factor FLOURY ENDOSPERM2 is involved in regulation of rice grain size and starch quality.Plant Cell, 22(10): 3280-3294.
28 Shimada H, Tada Y, Kawasaki T, Fujimura T.1993. Antisense regulation of the rice waxy gene expression using a PCR-amplified fragment of the rice genome reduces the amylose content in grain starch.Theor Appl Genet, 86(6): 665-672.
29 Steegmans M, Iliaens S, Hoebregs H.2004. Enzymatic, spectro- photometric determination of glucose, fructose, sucrose, and inulin/oligofructose in foods. J AOAC Int, 87(5): 1200-1207.
30 Sun C X, Duan B W, Xie L H, Chen N.2006. Determination of several quality characteristics of brown rice by near infrared transmission spectroscopy.Chin J Rice Sci, 20(4): 451-454. (in Chinese with English abstract)
31 Wang J C, Xu H, Zhu Y, Liu Q Q, Cai X L.2013.OsbZIP58, a basic leucine zipper transcription factor, regulates starch biosynthesis in rice endosperm.J Exp Bot, 64(11): 3453-3466.
32 Wang Y H, Ren Y L, Liu X, Jiang L, Chen L M, Han X H, Jin M N, Liu S J, Liu F, Lv J, Zhou K N, Su N, Bao Y Q, Wan J M.2010. OsRab5a regulates endomembrane organization and storage protein trafficking in rice endosperm cells. Plant J, 64(5): 812-824.
33 Woo M O, Ham T H, Ji H S, Choi M S, Jiang W Z, Chu S H, Piao R H, Chin J H, Kim J A, Park B S, Seo H S, Jwa N S, McCouch S, Koh H J.2008. Inactivation of the UGPase1 gene causes genic male sterility and endosperm chalkiness in rice (Oryza sativa L.). Plant J, 54(2): 190-204.
34 Wu K S, Tanksley S D.1993. Abundance, polymorphism and genetic mapping of microsatellites in rice.Mol Gen Genet, 241(1/2): 225-235.
35 Yao D S, Song R T.2013. Research progress of maize opaque endosperm mutants.Chin J Nat, 35(2): 105-111. (in Chinese with English abstract)
36 (Managing Editor: Li Guan)

相关文章 0

No related articles found!

编辑推荐

Metrics

阅读次数
全文


摘要

  • 摘要
  • 图/表
  • 参考文献
  • 相关文章
  • 编辑推荐
  • Metrics
回顶部
浙ICP备05004719号-15   公安备案号:33010302003355
版权所有 © 《Rice Science》编辑部
地址:浙江省杭州市体育场路359号 邮编:310006 电话:0571-63371017 E-mail:crrn@fy.hz.zn.cn; cjrs278@gmail.com
本系统由北京玛格泰克科技发展有限公司设计开发
总访问量: 今日访问: 在线人数: