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| 1 | Mapping of a new gene for brown planthopper resistance in cultivated rice introgressed from Oryza eichingeri显示文摘Wild rice species is an important source of useful genes for cultivated rice improvement Some accessions of Oryza eichingeri (In = 24, CC) from Africa confer strong resistance to brown planthopper (BPH), whitebacked planthopper (WBPH) and bacterial blight (KB). In the present study, restriction fragments length polymorphism (RFLP) and simple sequence repeats (SSR) analysis were performed on disomic backcross plants between Oryza saliva (2n =24, AA) and O. eichingeri in order to identify the presence of O, eichingeri segments and further to localize BPH-resistant gene. In the introgression lines, 1-6 O. eichingeri segments were detected on rice chromosomes 1, 2, 6, or/and 10. The dominant BPH resistant gene, tentatively named Bphl3(t), was mapped to chromosome 2, being 6.1 and 5.5 cM away from two microsatellite markers RM240 and RM250, respectively. The transfer and localization of this gene from O. eichingeri will contribute to the improvement of BPH resistance in cultivated rice. | LIU Guoqing YAN Huihuang FU Qiang QIAN Qian ZHANG Zhitao ZHAI Wenxue ZHU Lihuang | 2001 | Chinese Science Bulletin2001，46，17： | 24 |
| 2 | QTL analysis of the rice seedling cold tolerance in a double haploid population derived from anther culture of a hybrid between indica and japonica rice显示文摘A doubled haploid population, derived from anther culture of F hybrid between a typical indica cv. and a japonica cv. has been used to investigate the seedling cold tolerance (SCT) in growth cabinet. By dynamically analyzing every day’s survival percentages of the parents and DH lines under 7-d cold plus 9-d normal temperature condition, the guantitative trait loci (QTLs) for SCT have been mapped based on a molecular linkage map constructed from this population. The results show that two parents had significant differences in SCT and the segregation of SCT in DH lines was basically a continuous distribution with most serious injury on the 6th d of the cold treatment. A total of 4 QTLs for SCT have been identified on chromosomes 1, 2, 3 and 4 respectively. The additive effects of qSCT-1, qSCT-2 and qSCT-3 have been contributed by the japonica ev JX17, but that of qSCT-4 has been contributed by the indica cv ZYQ8. The mechanism of SCT seems complicated since the above 4 QTLs detected at different stages | QIAN Qian ZENG Dali HE Ping ZHENG Xianwu CHEN Ying ZHU Lihuang | 2000 | Chinese Science Bulletin2000，45，5： | 18 |
| 3 | QTL analysis of rice low temperature germinability显示文摘A double haploid population, derived from anther culture of F, hybrid between a typical indica and a japonica (ZYQ8/JX17), has been used to investigate the low temperature germinability (LTG) at 15℃. The low temperature germinability of two parents was significantly different. In 6-11 d, the germination percentage of ZYQ8 was higher than that of JX17. In 12-16 d, the germination percentage of JX17 was higher than that of ZYQ8. The quantitative trait loci (QTLs) of every day for low temperature germinabilityhave been mapped based on a molecular linkage map constructed from this population. In 8-11 d, qLTG-9 was identified in C397B-RZ617B on chromosome 9, the additive effect was positive, showing that, the allele from JX17 could increase low temperature germinability. In 12-16 d, qLTG-4 was mapped between RG908 and CT563 on chromosome 4, the additive effect was negative, showing that the allele from ZYQ8 could increase low temperature germinability. These two QTLs were detected at different stages, | TENG Sheng ZENG Dali QIAN Qian Kunihifo Yasufumi HUANG Danian Zhu Lihuang | 2001 | Chinese Science Bulletin2001，46，21： | 14 |
| 4 | The Interactions among DWARF10,Auxin and Cytokinin Underlie Lateral Bud Outgrowth in Rice显示文摘Previous studies have shown that DWARF10(D10) is a rice ortholog of MAX4/RMS1/DAD1,encoding a carotenoid cleavage dioxygenase and functioning in strigolactones/strigolactone-derivatives(SL) biosynthesis.Here we use D10-RNA interference(RNAi) transgenic plants similar to d10 mutant in phenotypes to investigate the interactions among D10,auxin and cytokinin in regulating rice shoot branching.Auxin levels in node 1 of both decapitated D10-RNAi and wild type plants decreased significantly,showing that decapitation does reduce endogenous auxin concentration,but decapitation has no clear effects on auxin levels in node 2 of the same plants.This implies that node 1 may be the location where a possible interaction between auxin and D10 gene would be detected.D10 expression in node 1 is inhibited by decapitation,and this inhibition can be restored by exogenous auxin application,indicating that D10 may play an important role in auxin regulation of SL.The decreased expression of most OsPINs in shoot nodes of D10-RNAi plants may cause a reduced auxin transport capacity.Furthermore,effects of auxin treatment of decapitated plants on the expression of cytokinin biosynthetic genes suggest that D10 promotes cytokinin biosynthesis by reducing auxin levels.Besides,in D10-RNAi plants,decreased storage cytokinin levels in the shoot node may partly account for the increased active cytokinin contents,resulting in more tillering phenotypes. | Shuying Zhang Gang Li Jun Fang Weiqi Chen Haipai Jiang Junhuang Zou Xue Liu Xianfeng Zhao Xiaobing Li Chengcai Chu Qi Xie Xiangning Jiang Lihuang Zhu | 2010 | Journal of Integrative Plant Biology2010，52，7： | 14 |
| 5 | Long Non-coding RNAs and Their Biological Roles in Plants显示文摘With the development of genomics and bioinformatics, especially the extensive applications of high-throughput sequencing technology, more transcriptional units with little or no protein-coding potential have been discovered. Such RNA molecules are called nonprotein-coding RNAs(npc RNAs or nc RNAs). Among them, long npc RNAs or nc RNAs(lnpc RNAs or lnc RNAs) represent diverse classes of transcripts longer than 200 nucleotides. In recent years, the lnc RNAs have been considered as important regulators in many essential biological processes. In plants, although a large number of lnc RNA transcripts have been predicted and identified in few species, our current knowledge of their biological functions is still limited.Here, we have summarized recent studies on their identification, characteristics, classification,bioinformatics, resources, and current exploration of their biological functions in plants. | Xue Liu Lili Hao Dayong Li Lihuang Zhu Songnian Hu | 2015 | Genomics, Proteomics & Bioinformatics2015，13，3： | 9 |
| 6 | Identification of an AFLP marker linked to the stripe rust resistance gene Yr10 in wheat显示文摘AFLP analysis of near-isogenic lines of the stripe rust resistance gene Yr10 was carried out with 6 Pst I -primers and 10 Taq I -primers with the donor parent of Yr1O gene as the check. A total of about 4200 distinguishable bands were amplified, of which 5 were stable. The genetic linkage of the 5 polymorphic DNA fragments with the target gene were tested preliminarily on a segregating F2 population derived from a cross between the gene donor parent 'Moro' and susceptible cultivar 'Mingxian 169'. The DNA fragment PT0502 was found closely linked to the Yr10 gene and cloned and sequenced. Based on the sequence specific primers for PCR were designed and synthesized. Genetic linkage analysis with 195 segregating F2 plants indicated that the genetic distance was 0.5 cM between the main product SC200 fragment produced by PCR with the primers and the Yr10 gene. The primers can be used to detect the Yr10 gene quickly, effectively and exactly. | SHAO Ymgtian NIU Yongchun ZHU Lihuang ZHAI Wenxue XU Shichang WU Liren | 2001 | Chinese Science Bulletin2001，46，17： | 9 |
| 7 | Analysis of genetic architecture and favorable allele usage of agronomic traits in a large collection of Chinese rice accessions显示文摘Genotyping and phenotyping large natural populations provide opportunities for population genomic analysis and genome-wide association studies(GWAS). Several rice populations have been re-sequenced in the past decade;however, many major Chinese rice cultivars were not included in these studies. Here, we report large-scale genomic and phenotypic datasets for a collection mainly comprised of 1,275 rice accessions of widely planted cultivars and parental hybrid rice lines from China. The population was divided into three indica/Xian and three japonica/Geng phylogenetic subgroups that correlate strongly with their geographic or breeding origins. We acquired a total of 146 phenotypic datasets for 29 agronomic traits under multi-environments for different subpopulations. With GWAS, we identified a total of 143 significant association loci, including three newly identified candidate genes or alleles that control heading date or amylose content. Our genotypic analysis of agronomically important genes in the population revealed that many favorable alleles are underused in elite accessions, suggesting they may be used to provide improvements in future breeding efforts. Our study provides useful resources for rice genetics research and breeding. | Xiuxiu Li Zhuo Chen Guomin Zhang Hongwei Lu Peng Qin Ming Qi Ying Yu Bingke Jiao Xianfeng Zhao Qiang Gao Hao Wang Yunyu Wu Juntao Ma Liyan Zhang Yongli Wang Lingwei Deng Shanguo Yao Zhukuang Cheng Diqiu Yu Lihuang Zhu Yongbiao Xue Chengcai Chu Aihong Li Shigui Li Chengzhi Liang | 2020 | Science China(Life Sciences)2020，63，11： | 8 |
| 8 | Identification and characterization of rice blast resistance gene Pid4 by a combination of transcriptomic profiling and genome analysis显示文摘Map-based cloning of plant disease resistance (R) genes is time-consuming. Here, we reported the isolation of blast R gene Pid4 using comparative transcriptomic profiling and genome-wide sequence analysis. Pid4 encodes a coiled-coil nucleotide-binding site leucine-rich repeat(CC-NBS-LRR) protein and is constitutively expressed at diverse developmental stages in the rice variety Digu. The Pid4 protein is localized in both the nucleus and cytoplasm. Introduction of Pid4 into susceptible rice cultivars confers race-specific resistance to leaf and neck blast. Amino acid sequence comparison and blast resistance spectrum tests showed that Pid4 is a novel R gene, different from the previously reported R genes located in the same gene cluster. A Pid4 Indel marker was developed to facilitate the identification of Pid4 in different rice varieties. We demonstrated that a plant R gene can be quickly isolated using transcriptomic profiling coupled with genome-wide sequence analysis. | Zhixiong Chen Wen Zhao Xiaobo Zhu Chengdong Zou Junjie Yin Mawsheng Chern Xiaogang Zhou Heng Ying Xin Jiang Yongzhen Li Haicheng Liao Mengping Cheng Weitao Li Min He Jing Wang Jichun Wang Bingtian Ma Jirui Wang Shigui Li Lihuang Zhu Xuewei Chen | 2018 | Journal of Genetics and Genomics2018，45，12： | 7 |
| 9 | Identification of salt-tolerance QTL in rice(Oryza sativa L.)显示文摘Quantitative trait loci (QTLs) controlling salt-tolerance at the seedling stage in rice (Oryza sativa L.) were identified by interval mapping (SIM) and composite interval mapping (CIM) using a doubled haploid population ZJDH and its high resolution genetic linkage map. The population was derived from an inter-subspecific cross between an indica variety Zhaiyeqing8 (ZYQ8) and a japonica variety Jingxi17 (JX17). Analysis of survival days of seedlings treated with 0.7% NaCl revealed that a major salt-tolerance quantitative trait locus (QTL), Std, was present between markers RG612 and C131 on chromosome 1 when using both MAPMAKER/QTL 1.1 and PLABQTL 1.0 (SIM).Its allele which contributes to salt-tolerance was from ZYQ8. In addition, seven more QTLs which give additive effect on salt-tolerance are identified when using PLABQTL(CIM), and most of them were from JX17. | Jiming Gong Ping He Qian Qian Lishuang Shen Lihuang Zhu Shouyi Chen | 1999 | Chinese Science Bulletin1999，44，1： | 7 |
| 10 | Identification of quantitative trait loci affecting tolerance to low phosphorus in rice (Oryza Sativa L.)显示文摘Phosphorus (P)-deficiency in rice (Oryza. Sativa. L) may cause yield reductions. This research has been conducted to map quantitative trait loci (QTLs) for tolerance to low phosphorus stress in a doubled haploid (DH) population. By using the linkage map of this population, the OTLs for relative dry weight, relative P content and relative P utilization efficiency have been located. The results indicate that one RFLP marker located on chromosome 6 is closely associated with relative root dry weight, relative shoot dry weight and relative total dry weight, which explain 24.9%, 20.5% and 25.2% of the total phenotypic variations, respectively. Two QTLs affect relative P uptake content, which account for 20.7% of the total phenotypic variations. One micro-effect QTL has been found to be associated with relative P utilization efficiency. It is suggested that the P uptake efficiency is more associated with P efficiency. Among the secondary physiological indices of P uptake efficiency, the root dry weight is | MING Feng ZHENG Xianwu MI Guohua HE Ping ZHU Lihuang ZHANG Fusuo | 2000 | Chinese Science Bulletin2000，45，6： | 7 |
| 11 | A draft sequence of the rice (Oryza sativa ssp. indica) genome显示文摘The sequence of the rice genome holds fundamental information for its biology, including physiology, genetics, development, and evolution, as well as information on many beneficial phenotypes of economic significance. Using a 'whole genome shotgun' approach, we have pro-duced a draft rice genome sequence of Oryza sativa ssp. in-dica, the major crop rice subspecies in China and many other regions of Asia. The draft genome sequence is constructed from over 4.3 million successful sequencing traces with an accumulative total length of 2214.9 Mb. The initial assembly of the non-redundant sequences reached 409.76 Mb in length, based on 3.30 million successful sequencing traces with a total length of 1797.4 Mb from an indica variant cultivar 93-11, giving an estimated coverage of 95.29% of the rice genome with an average base accuracy of higher than 99%. The coverage of the draft sequence, the randomness of the sequence distribution, and the consistency of BIG-ASSEM-BLER, a custom-designed software package | YU Jun, HU Songnian, WANG Jun,LI Songgang WONG Ka-Shu Gane, LIU Bin,DENG Yajun, DAI Li, ZHOU Yan,ZHANG Xiuqing, CAO Mengliang, LIU Jing,SUN Jiandong , TANG Jiabin, CHEN Yanjiong,HUANG Xiaobing, LIN Wei, YE Chen, TONG Wei,CONG Lijuan, GENG Jianing, HAN Yujun, LI Lin,LI Wei, HU Guangqiang, HUANG Xiangang,LI Wenjie, LI Jian, LIU Zhanwei, LI Long,LIU Jianping, Ql Qiuhui, LIU Jinsong, LI Li,WANG Xuegang, LU Hong, WU Tingling,ZHU Miao, Nl Peixiang, HAN Hua, DONG Wei,REN Xiaoyu, FENG Xiaoli, GUI Peng,LI Xianran, WANG Hao, XU Xin, ZHAI Wenxue,XU Zhao, ZHANG Jinsong, HE Sijie,ZHANG Jianguo, XU Jichen, ZHANG Kunlin,ZHENG Xianwu, DONG Jianhai, ZENG Wanyong,TAO Lin, CHEN Xuewei, HE Jun, LIU Daofeng,TIAN Wei, TIAN Chaoguang, XIA Hongai,LI Gang, GAO Hui, LI Ping, CHEN Wei ,WANG Xudong, ZHANG Yong, HU Jianfei,WANG Jing, LIU Song, YANG Jian,ZHANG Guangyu, XIONG Yuqing, LI Zhijie,MAO Long, ZHOU Chengshu, ZHU Zhen,CHEN Runsheng, HAO Bailin,ZHENG Weimou, CHEN Shouyi, QUO Wei,LI Guojie, LIU Siqi, HUANG Guyang,TAO Ming, WANG Jian, ZHU Lihuang,YUAN Longping& YANG HuanmingBeijing Genomics Institute/Center of Genomics & Bioinformatics, Chinese Academy of Sciences, Beijing 101300, China Hangzhou Genomics Institute/Institute of Bioinformatics of Zhejiang University/Key Laboratory of Bioinformatics of Zhejiang Province, Hangzhou 310007, China Institute of Genetics, Chinese Academy of Sciences, Beijing 100101, China National Hybrid Rice R & D Center, Changsha 410125, China Laboratory of Bioinformatics, Institute of Biophysics, Chinese Academy of Sciences, Beijing 100101, China College of Life Sciences, Peking University, Beijing 100871, China Institute of Theoretical Physics, Chinese Academy of Sciences, Beijing 1Q0080, China Digital China Ltd., Beijing 100080, China Institute of Computing Technology, Chinese Academy of Sciences, Beijing 100080, China Medical College, Xi’an Jiaotong University, Xi’an 710061, ChinaThese authors contributed equally to this work.Corresponding author.Corresponden | 2001 | Chinese Science Bulletin2001，46，23： | 6 |
| 12 | Adapting rice anther culture to gene transformation and RNA interference显示文摘Anther culture offers a rapid method of generating homozygous lines for breeding pro- gram and genetic analysis.To produce homozygous transgenic lines of rice(Oryza sativa L.)in one step,we developed an efficient protocol of anther-callus-based transformation mediated by Agro- bacterium after optimizing several factors influencing efficient transformation,including callus induc- tion and Agrobacterium density for co-cultivation.Using this protocol,we obtained 145 independent green transformants from five cultivars of japonica rice by transformation with a binary vector pCXK1301 bearing the rice gene,Xa21 for resistance to bacterial blight,of which 140 were further confirmed by PCR and Southern hybridization analysis,including haploids(32.1%),diploids(62.1%) and mixoploids(7.5%).Fifteen diploids were found to be doubled haploids,which accounted for 10.7%of the total positive lines.Finally,by including 28 from colchicine induced or spontaneous dip- loidization of haploids later after transformation,a total of 43 doubled haploids(30.7%)of Xa21 transgenic lines were obtained.We also generated two RNAi transgenic haploids of the rice Os- MADS2 gene,a putative redundant gene of OsMADS4 based on their sequence similarity,to inves- tigate its possible roles in rice flower development by this method.Flowers from the two OsMADS2 RNAi transgenic haploids displayed obvious homeotic alternations,in which lodicules were trans- formed into palea/lemma-like tissues,whereas identities of other floral organs were maintained.The phenotypic alternations were proved to result from specific transcriptional suppression of OsMADS2 gene by the introduced RNAi transgene.The results confirmed that OsMADS2 is involved in lodicule development of rice flower and functionally redundant with OsMADS4 gene.Our results demonstrated that rice anther culture could be adapted to gene transformation and RNAi analysis in rice. | CHEN Caiyan 1,2* ,XIAO Han 1,2* ,ZHANG Wenli 1,2 ,WANG Aiju 1,2 ,XIA Zhihui 1 ,LI Xiaobing 1 , ZHAI Wenxue 1 ,CHENG Zhukuan 1 &ZHU Lihuang 1 1.State Key Laboratory of Plant Genomics and National Center for Plant Gene Research,Institute of Genetics and Develop- mental Biology,Chinese Academy of Sciences,Beijing 100101,China 2.Graduate School of the Chinese Academy of Sciences,Beijing 100039,China | 2006 | Science China(Life Sciences)2006，49，5： | 5 |
| 13 | Transcriptional Characteristics of Xa21-mediated Defense Responses in Rice显示文摘细菌的老家,由 Xanthomonas oryzae pv 引起了。oryzae (Xoo ) ,是米饭的最破坏的细菌的疾病。克隆的米饭基因 Xa21 授与抵抗到许多 Xoo 赛跑。为了识别基因,在 调停Xa21 的免疫包含了,米饭的整个染色体的 oligonucleotide microarray 被用来在 0 点介绍在不兼容的相互作用和嘲笑处理之间的米饭基因的表示, 4 , 8 , 24 , 72 和 120 h 柱子接种( hpi )或在在 4 hpi 的不兼容、兼容的相互作用之间分别地。441 差别的一个总数表示了基因,指定了为 XDG (Xa21 调停了差别表示了基因) ,被识别。基于他们的功能的注解, XDG 被分到 14 个范畴,包括防卫相关,发信号, transcriptional 管理者。大多数防卫相关的基因属于致病相关的基因家庭,它在 72 和 120 hpi 戏剧性地被导致。有趣地,大多数发信号和 transcriptional 管理者基因是在 4 和 8 hpi 的 downregulated,建议细胞的发信号的那条否定规定可以起在调停 Xa21 的防卫反应的一个作用。在 Xa21- 和其它 R 调停基因的防卫系统之间的表示侧面的比较揭示了有趣的普通回答。有支持证据的代表性的 XDG 也被讨论。 | Qiang Gan Hui Bai Xianfeng Zhao Yong Tao Haipan Zeng Yuning Han Wenyuan Song Lihuang Zhu Guozhen Liu | 2011 | Journal of Integrative Plant Biology2011，53，4： | 5 |
| 14 | Microdissection and amplification of the chromosome arm 5S in a rice telo-tetrasomic显示文摘The rice aneuploids with telochromosomes are ideal genetic stocks for chromosome arm identification and microdissection. A rice telo-tetrasomic line with two extra short arms of chromosome 5 (5S) was used in the present study. The arms of 5S were microdissected from the prometaphase cells in mitosis and amplified with linker adaptor PCR (LA-PCR). The amplified fragments, ranging from 200-3000 bp, were confirmed to be from the rice chromosome arm 5S by the rice STS and microsatellite markers. | Zhukuan Cheng Huihuanq Yan Benyuan Dang Zanmin Hu Minghong Gu Lihuang Zhu | 1998 | Chinese Science Bulletin1998，43，7： | 4 |
| 15 | Fine mapping of the rice bacterial blight resistance gene Xa-4 and its co-segregation marker显示文摘An F2 population developed from the Xa-4 near isogenic lines, IR24 and IRBB4, was used for fine mapping of the rice bacterial blight resistance gene, Xa-4. Some restriction fragment length polymorphism (RFLP) markers on the high-density map constructed by Harushima et al. and the amplified DMA fragments homologous to the conserved domains of plant disease resistance (R) genes were used to construct the genetic linkage map around the gene Xa-4 by scoring susceptible individuals in the population. Xa-4 was mapped between the RFLP marker G181 and the polymerase chain reaction (PCR) marker M55. The R gene homologous fragment marker RS13 was found co-segregating with Xa-4 by analyzing all the plants in the population. This result opened an approach to map-based cloning of this gene, and marker RS13 can be applied to molecular marker-assisted selection of Xa-4 in rice breeding programs. | WANG Wenming ZHOU Yongli JIANG Guanhuai MA Bojun CHEN Xuewei ZHANG Qi ZHU Lihuang ZHAI Wenxue | 2000 | Chinese Science Bulletin2000，45，19： | 4 |
| 16 | Conditional and unconditional mapping of quantitative trait loci underlying plant height and tiller number in rice (Oryza sativa L.) grown at two nitrogen levels显示文摘在这研究,我们使用了 127 两倍 haploid (DH ) 分析米饭的农业特点的线。DH 线,源于 ZYQ8 (indica )/JX17 (装饰用的梨树) 由花药文化的十字,包含了 160 RFLP 和 83 个 SSR 标记。印射的无条件、有条件的量的特点 loci (QTL ) 在在二个氮层次是成年的五个生长阶段每植物(TP ) 被进行到分析植物高度(PH ) 并且到 ers 为止。十四 PH 和 13 TP 无条件的 QTL 在不同生长阶段被识别,包括 19 QTL 从高氮(HN ) 并且 14 QTL 从低氮(行) 条件。为在 LN/HN 条件下面的 14 个 genomic 区域的有条件的 QTL 证明越过不同阶段 PH 和 TP 上有重要效果。仅仅一有条件的 QTL, ph2-3,是不能的在无条件的印射被检测。更多的 QTL 比在期末考试在开始的四个米饭生长阶段被检测舞台。而且,从印射人口的 DH 的一根线, DH78,在展出了侏儒症和到少些为止(dft ) 的 PH 和 TP 的极端显型被识别人物。基因 dft1 通过基于地图的克隆策略被印射到用 DH78/JX17 的一张 backcrossed 人口的染色体 2。dft1 的地点与 small-LOD 山峰, QTL ph2 和 tp2 的印射的区域与一致,它在处于低氮的条件种的植物被识别。进一步的 backcrossing 并且好印射成功地限定了 dft1 地点到 91 kb 区域。 | Hua Jiang Liang Jiang Longbiao Guo Zhenvu Gao Dali Zeng Lihuang Zhu Guohua Liang Qian Qian | 2008 | Progress in Natural Science:Materials International2008，18，12： | 3 |
| 17 | Starch RVA profile parameters of rice are mainly controlled by Wx gene显示文摘Quantitative trait locus (QTLs) mapping for rapid visco analyser (RVA) profile parameters has been carried out by using a double haploid (DH) population derived from a cross between indica variety Zhai-Ye-Qing 8 and j’aponica variety Jing-Xi 17 and its genetic linkage map. The results indicate that the segregation of the RVA profiles is continually distributed a-mong the DH lines, and some DH lines show transgressive segregation for all the parameters. | Jinsong Bao Ping He Yingwu Xia Ying Chen Lihuang Zhu | 1999 | Chinese Science Bulletin1999，44，22： | 3 |
| 18 | QTL analysis of leaf photosynthetic rate and related physiological traits in rice(Oryza sativa L.)显示文摘Photosynthesis is one of the most important factors that influence the biomass andyield.Recently,more attention has been paid to genetic study on rice photo-synthesis and rice breeding for the physiological traits related to high efficientphotosynthesis.Chlorophyll content,stomatal resistance,and transpiration ratewere very important physiological traits related to photosynthesis.But until now,no genetic study on these traits has been reported.A DH population derived fromanther culture of ZYQ8/JX17,a typical indica/japonica hybrid was developed, | TENG Sheng, QIAN Qian, ZENG Dali, Yasufumi Kunihiro, Hiroshi Fujimoto, HUANG Daman, and ZHU Lihuang, Key Lab for Rice Biology, CNRRI, Hangzhou 310006 Inst of Genetics and Development Biology, the Chinese Academy of Sciences, Beijing 100101 College of Life Sci, Zhejiang Univ, Hangzhou 310029, China Japan International Res Center for Agri Sci, Tsukuba, Japan | 2002 | Chinese Rice Research Newsletter2002，10，3： | 2 |
| 19 | Molecular Isolation of the M Gene Suggests That a Conserved-Residue Conversion Induces the Formation of Bisexual Flowers in Cucumber Plants显示文摘 | Li Zheng Huang Sanwen Liu Shiqiang Pan Junsong Zhang Zhonghua Tao Qianyi Shi Qiuxiang Jia Zhiqi Zhang Weiwei Chen Huiming Si Longting Zhu Lihuang Cai Run | 2009 | Genetics2009，，4： | 2 |
| 20 | Identification of a New Rice Blast Resistance Gene, Pid3, by Genomewide Comparison of Paired Nucleotide-Binding Site-Leucine-Rich Repeat Genes and Their Pseudogene Alleles Between the Two Sequenced Rice Genomes显示文摘 | Shang Junjun Tao Yong Chen Xuewei Zou Yan Lei Cailin Wang Jing Li Xiaobing Zhao Xianfeng Zhang Meijun Lu Zhike Xu Jichen Cheng Zhukuan Wan Jianmin Zhu Lihuang | 2009 | Genetics2009，，4： | 2 |
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