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| 1 | Distribution,Frequency and Variation of Stripe Rust Resistance Loci Yr10,Lr34/Yr18 and Yr36 in Chinese Wheat Cultivars显示文摘Wheat stripe rust is a devastating disease in many regions of the world.In wheat,49 resistance genes for stripe rust have been officially documented,but only three genes are cloned,including the race-specific resistance Yr10 candidate gene(Yr10_(CG)) and slow-rusting genes Lr34/Yr18(hereafter designated as Yr18) and Yr36.In this study,we developed gene-specific markers for these genes and used them to screen a collection of 659 wheat accessions,including 485 Chinese cultivars.Thirteen percent and eleven percent of the tested Chinese cultivars were positive for the markers for Yr10_(CG) and Yr18_(RH)(the resistant haplotype of Yr18),respectively,but none were positive for the Yr36 marker.Since there is a limited use of the Yr10 gene in Chinese wheat,the relatively high frequency of wheat varieties with the Yr10_(CG) marker suggests that the identity of the Yr10 gene is unknown.With regards to the Yr18 gene,29%of the tested cultivars that are used in the Middle and Lower Yangtze Valleys' winter wheat zone were positive for Yr18_(RH) markers.A non-functional allele of Yr18_(RH) was identified in 'Mingxian 169',a commonly used susceptible check for studying stripe rust.The data presented here will provide useful information for marker-assisted selection for wheat stripe rust resistance. | Cuiling Yuan Hui Jiang Honggang Wang Kun Li Heng Tang Xianbin Li Daolin Fu | 2012 | Journal of Genetics and Genomics2012，39，11： | 12 |
| 2 | WheatOmics:A platform combining multiple omics data to accelerate functional genomics studies in wheat显示文摘Dear Editor,Mold-breaking progress in whole-genome sequencing and rapid accumulation of multi-omics data have revolutionized the research strategies of functional genomics in wheat(Wang et al.,2018).However,how to access these vast multi-omics data and to extract key information on genes of in-terest,is still challenging for most wet-lab or field wheat re-searchers who have little bioinformatic experiences and cannot access the expensive computational resources.Here,we pre-sent WheatOmics(http://gffzz513af15b15bc4712hf0okckfkbvqo6bq5.ffgz.tsg.suse.edu.cn/,previously designated as Triticeae Multi-omics Center,http://gffzz601e21d286504235hf0okckfkbvqo6bq5.ffgz.tsg.suse.edu.cn/),a free,web-accessible,and user-friendly platform.WheatOmics not only empowers the effective access to the visualized multi-omics data of user-interested genes but also offers several distinctive and practical toolkits that can ease almost every aspect of wheat functional genomics studies(Figure 1A). | Shengwei Ma Meng Wang Jianhui Wu Weilong Guo Yongming Chen Guangwei Li Yanpeng Wang Weiming Shi Guangmin Xia Daolin FU Zhensheng Kang Fei Ni | 2021 | Molecular Plant2021，14，12： | 9 |
| 3 | Large deletions within the first intron in VRN-1 are associated with spring growth habit in barley and wheat显示文摘 | Daolin Fu Péter Sz?cs Liuling Yan Marcelo Helguera Jeffrey S. Skinner Jarislav von Zitzewitz Patrick M. Hayes Jorge Dubcovsky | 2005 | Molecular Genetics and Genomics2005，，1： | 2 |
| 4 | RNA interference for wheat functional gene analysis 显示文摘 | FU DAOLIN UAUY C BLECHL A | 2007 | Transgenie Research2007，16，6： | 1 |
| 5 | Effect of photoperiod on the regulation of wheat vernalization genes VRN1 and VRN2 显示文摘 | Jorge Dubcovsky Artem Loukoianov Daolin Fu | 2006 | Plant Molecular Biology2006，60，： | 1 |
| 6 | Large deletions within the first intron in VRN-1 are associated with spring growth habit in barley and wheat显示文摘 | Daolin Fu Péter Sz?cs Liuling Yan Marcelo Helguera Jeffrey S. Skinner Jarislav von Zitzewitz Patrick M. Hayes Jorge Dubcovsky | 2005 | Molecular Genetics and Genomics2005，，1： | 1 |
| 7 | Overexpression of rice TLPD34 enhances dollar-spot resistance in trans- genie bentgrass显示文摘 | FU Daolin TISSERAT N A XIAO Yanmei | 2005 | Plant Sei2005，168，： | 1 |
| 8 | Overexpression of rice TLPD34 enhances dollar-spot resistence in transgenic bentgrass显示文摘 | Daolin Fu Ned A Tisserat | 2005 | Plant Science2005，168，3： | 1 |
| 9 | Effect of Photoperiod on the Regulation of Wheat Vernalization Genes VRN1 and VRN2显示文摘 | Jorge Dubcovsky Artem Loukoianov Daolin Fu Miroslav Valarik Alexandra Sanchez Liuling Yan | 2006 | Plant Molecular Biology2006，，4： | 1 |
| 10 | Hypoxia induced HMGB1 and mitochondrial DNA interactions mediate tumor growth in hepatocellular carcinoma through Toll-like receptor 9显示文摘 | Yao Liu Wei Yan Samer Tohme Man Chen Yu Fu Dean Tian Michael Lotze Daolin Tang Allan Tsung | 2015 | Journal of Hepatology2015，，： | 1 |
| 11 | ZmMS1/ZmLBD30-orchestrated transcriptional regulatory networks precisely control pollen exine development显示文摘Because of its significance for plant male fertility and,hence,direct impact on crop yield,pollen exine development has inspired decades of scientific inquiry.However,the molecularmechanismunderlying exine formation and thickness remains elusive.In this study,we identified that a previously unrecognized repressor,ZmMS1/ZmLBD30,controls proper pollen exine development in maize.Using an ms1 mutant with aberrantly thickened exine,we cloned a male-sterility gene,ZmMs1,which encodes a tapetum-specific lateral organ boundary domain transcription factor,ZmLBD30.Weshowed thatZmMs1/ZmLBD30 is initially turned on by a transcriptional activation cascade of ZmbHLH51-ZmMYB84-ZmMS7,and then it serves as a repressor to shut down this cascade via feedback repression to ensure timely tapetal degeneration and proper level of exine.This activation-feedback repression loop regulating male fertility is conserved in maize and sorghum,and similar regulatory mechanism may also exist in other flowering plants such as rice and Arabidopsis.Collectively,these findings reveal a novel regulatory mechanism of pollen exine development by which a long-sought master repressor of upstream activators prevents excessive exine formation. | Quancan Hou Xueli An Biao Ma Suowei Wu Xun Wei Tingwei Yan Yan Zhou Taotao Zhu Ke Xie Danfeng Zhang Ziwen Li Lina Zhao Canfang Niu Yan Long Chang Liu WeiZhao FeiNi Jinping Li Daolin Fu Zhong-NanYang Xiangyuan Wan | 2023 | Molecular Plant2023，16，8： | 0 |
| 12 | Mapping the glaucousness suppressor Iw1 from wild emmer wheat “PI 481521”显示文摘Many species of Triticeae display a glaucous phenotype. In wheat, glaucousness/waxiness on spikes, leaves and shoots is controlled by wax production genes(W loci) and epistatic inhibitors(Iw loci). In this study, a suppressor of glaucousness from wild emmer wheat(Triticum turgidum ssp. dicoccoides) accession 'PI 481521' was investigated in a pair of durum(T. turgidum ssp. durum cv. 'Langdon', LDN)—wild emmer wheat chromosome substitution lines, LDN and 'LDNDIC521-2B'. Genetic analysis revealed that the non-glaucous phenotype of LDNDIC521-2Bwas controlled by the dominant glaucous suppressor Iw1 on the short arm of chromosome 2B. In total, 371 2B-specific marker differences were identified between LDN and LDNDIC521-2B. The location of the Iw1 gene was mapped using an F2 population that stemmed from LDN and LDNDIC521-2B, generating a partial linkage map that included 19 simple sequence repeats(SSR) and ten gene-based markers. On the current map, the Iw1 gene was located within the Xgwm614–BE498111 interval, and cosegregated with BQ788707,CD893659, CD927782, CD938589, and Xbarc35. Mapping of Iw1 in LDNDIC521-2B, a publically accessible and widely distributed line, will provide valuable information for marker-assisted selection of the agronomically important trait of glaucousness. | Zongchang Xu Cuiling Yuan Jirui Wang Daolin Fu Jiajie Wu | 2015 | The Crop Journal2015，3，1： | 0 |
| 13 | Creating large EMS populations for functional genomics and breeding in wheat显示文摘Wheat germplasm is a fundamental resource for basic research,applied studies,and wheat breeding,which can be enriched normally by several paths,such as collecting natural lines,accumulating breeding lines,and introducing mutagenesis materials.Ethyl methane sulfonate(EMS)is an alkylating agent that can effectively introduce genetic variations in a wide variety of plant species.In this study,we created a million-scale EMS population(MEP)that started with the Chinese wheat cultivars‘Luyan 128’,‘Jimai 38’,‘Jimai 44’,and‘Shannong 30’.In the M1 generation,the MEP had numerous phenotypical variations,such as>3,000 chlorophyll-deficient mutants,2,519 compact spikes,and 1,692 male sterile spikes.There were also rare mutations,including 30 independent tillers each with double heads.Some M1 variations of chlorophyll-deficiency and compact spikes were inheritable,appearing in the M2 or M3 generations.To advance the entire MEP to higher generations,we adopted a single-seed descendent(SSD)approach.All other seed composites of M2 were used to screen other agronomically important traits,such as the tolerance to herbicide quizalofop-P-methyl.The MEP is available for collaborative projects,and provides a valuable toolbox for wheat genetics and breeding for sustainable agriculture. | Wenqiang Wang Xizhen Guan Yong Gan Guojun Liu Chunhao Zou Weikang Wang Jifa Zhang Huifei Zhang Qunqun Hao Fei Ni Jiajie Wu Lynn Epstein Daolin Fu | 2024 | Journal of Integrative Agriculture2024，23，2： | 0 |
| 14 | 植物生长调节剂通过克隆整合对空心莲子草顶端和基部生长的不同作用显示文摘入侵植物不仅对全球生物多样性造成了巨大的威胁,同时也严重影响了农业生产与粮食安全。克隆整合使得相连植株进行资源共享,能促进入侵植物的生长从而获得优势。然而,入侵杂草在植物调节剂(plant growth regulators,PGRs)影响下的克隆整合作用则很少有报道。PGRs被广泛应用于农作物生产上,并能通过土壤淋溶、侵蚀和径流作用,影响分布在作物附近的农田杂草的生长。本研究采用两种PGRs赤霉素(gibberellins,GA)和多效唑(paclobutrazol,PAC)处理恶性入侵杂草空心莲子草(Alternanthera philoxeroides)基端,并保持或者通过剪切达到控制基端与顶端的连通,从而探究克隆整合作用在空心莲子草响应两种农业常用PGRs中的作用。研究结果表明,GA和PAC对空心莲子草生长的作用相反。GA通过克隆整合作用显著促进顶端植株的地上生长。相反地,PAC显著抑制基端和顶端的地上生长,但是能够通过克隆整合作用显著促进基端和顶端的地下生长。这些研究结果解释了克隆整合作用能促进PGRs对空心莲子草生长的促进作用,这很可能是外来杂草能够成功入侵人为干扰较多的农业生态系统的重要原因之一。 | Shanshan Qi Susan Rutherford Furong He Bi-Cheng Dong Bin Zhu Zhicong Dai Weiguo Fu Hanping Mao Daolin Du | 2022 | Journal of Plant Ecology2022，15，3： | 0 |
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