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| 1 | Cotton GhBAK1 Mediates Verticillium Wilt Resistance and Cell Death显示文摘导致病毒的基因 silencing (VIGS ) 由将他们的表示击倒为单个基因的功能的分析提供一条强大的途径。我们采用了这条途径把在对 Verticillium 抵抗的棉花的基因功能枯萎,世界范围的大多数破坏疾病之一。我们这里证明高度有效的 VIGS 在与部分抵抗引起线(CA4002 ) 到 Verticillium 的一朵棉花被获得枯萎,并且 GhMKK2 和 GhVe1 为它的抵抗被要求到 Verticillium 枯萎。Arabidopsis AtBAK1/SERK3,在工厂疾病抵抗的一个中央管理者,与五个成员,一起属于体的 embryogenesis 受体 kinases (SERK ) 的一个亚科 AtSERK1 到 AtSERK5。二 BAK1 orthologs 和一 SERK1 ortholog 在棉花染色体被识别。重要地, GhBAK1 为 CA4002 抵抗被要求到 Verticillium 枯萎。令人惊讶地, GhBAK1 的 silencing 是足够的触发在棉花伴有反应的氧种类的生产的房间死亡。这结果从 AtBAK1 和 AtSERK4 在房间死亡控制在玩冗余的函数的 Arabidopsis 是不同的。显然,而 AtSERK4/5 是在 Arabidopsis 的最新发展的基因,棉花仅仅发展了 SERK1 和 BAK1。我们的研究在 Verticillium 显示 BAK1 的功能的重要性枯萎抵抗并且在不同植物种类建议 SERK 家庭成员的动态进化。 | Xiquan Gao Fangjun Li Maoying Li Ali S.Kianinejad Jane K.Dever Terry A.Wheeler Zhaohu Li Ping He Libo Shan | 2013 | Journal of Integrative Plant Biology2013，55，7： | 13 |
| 2 | Correction: The NAC transcription factor ClNAC68 positively regulates sugar content and seed development in watermelon by repressing ClINV and ClGH3.6显示文摘In this article 1,author name Yanping Wang was incorrectly tagged as corresponding author.Prof.Wang should be the co-first author,instead of the corresponding author.The original article has been corrected. | Jinfang Wang Yanping Wang Jie Zhang Yi Ren Maoying Li Shaowei Tian Yongtao Yu Yi Zuo Guoyi Gong Haiying Zhang Shaogui Guo Yong Xu | 2021 | Horticulture Research2021，8，1： | 2 |
| 3 | Cotton Gh BAK 1 Mediates Verticillium Wilt Resistance and Cell Death显示文摘 | Xiquan Gao Fangjun Li Maoying Li Ali S. Kianinejad Jane K. Dever Terry A. Wheeler Zhaohu Li Ping He Libo Shan | 2013 | J Integr Plant Biol2013，，7： | 2 |
| 4 | CRISPR/Cas9-mediated mutagenesis of CiBG1 decreased seed size and promoted seed germination in watermelon显示文摘Abscisic acid(ABA)is a critical regulator of seed development and germination.β-glucosidases(BGs)have been suggested to be contributors to increased ABA content because they catalyze the hydrolysis of ABA-glucose ester to release free ABA.However,whether BGs are involved in seed development is unclear.In this study,a candidate gene,CiBG1,in watermelon was selected for targeted mutagenesis via the CRISPR/Cas9 system.Seed size and weight were significantly reduced in the Clbg1-mutant watermelon lines,which was mainly attributed to decreased cell number resulting from decreased ABA levels.A transcriptome analysis showed that the expression of 1015 and 1429 unique genes was changed 10 and 18 days after pollination(DAP),respectively.Cytoskeleton-and cell cycle-related genes were enriched in the differentially expressed genes of wild type and Clbg1-mutant lines during seed development.Moreover,the expression of genes in the major signaling pathways of seed size control was also changed.In addition,seed germination was promoted in the Cibg1-mutant lines due to decreased ABA content.These results indicate that ClBG1 may be critical for watermelon seed size regulation and germination mainly through the modulation of ABA content and thereby the transcriptional regulation of cytoskeleton-,cell cycle-and signaling-related genes.Our results lay a foundation for dissecting the molecular mechanisms of controlling watermelon seed size,a key agricultural trait of significant economic importance. | Yanping Wang Jinfang Wang Shaogui Guo Shouwei Tian Jie Zhang Yi Ren Maoying Li Guoyi Gong Haiying Zhang Yong Xu | 2021 | Horticulture Research2021，8，1： | 1 |
| 5 | Natural variation in the NAC transcription factor NONRIPENING contributes to melon fruit ripening显示文摘ThThe NAC transcription factor NONRIPENING(NOR)is a master regulator of climacteric fruit ripening.Melon(Cucumis melo L.)has climacteric and nonclimacteric fruit ripening varieties and is an ideal model to study fruit ripening.Two natural CmNAC-NOR variants,the climacteric haplotype CmNAC-NOR^(S,N) and the non-climacteric haplotype CmNAC-NOR^(A,S),have effects on fruit ripening;however,their regulatory mechanisms have not been elucidated.Here,we report that a natural mutation in the transcriptional activation domain of CmNAC-NORS,Ncontributes to climacteric melon fruit ripening.CmNAC-NOR knockout in the climacteric-type melon cultivar“BYJH”completely inhibited fruit ripening,while ripening was delayed by 5-8 d in heterozygous cmnac-nor mutant fruits.CmN AC-NOR directly activated carotenoid,ethylene,and abscisic acid biosynthetic genes to promote fruit coloration and ripening.Furthermore,CmNAC-NOR mediated the transcription of the“CmNAC-NOR-CmNAC73-CmCWINV2”module to enhance flesh sweetness.The transcriptional activation activity of the climacteric haplotype CmNAC-NORS,Non these target genes was significantly higher than that of the nonclimacteric haplotype CmNAC-NOR^(A,S).Moreover,CmNAC-NORS,Ncomplementation fully rescued the non-ripening phenotype of the tomato(Solanum lycopersicum)cr-nor mutant,while CmNAC-NOR^(A,S) did not.Our results provide insight into the molecular mechanism of climacteric and non-climacteric fruit ripening in melon. | Jinfang Wang Shouwei Tian Yongtao Yu Yi Ren Shaogui Guo Jie Zhang Maoying Li Haiying Zhang Guoyi Gong Min Wang Yong Xu | 2022 | Journal of Integrative Plant Biology2022，64，7： | 1 |
| 6 | Clinical featrres of the initial cases of 2009 pandemic influenza A ( H1N1 ) ~ infection in china 显示文摘 | Cao B Li XW MaoY | 2009 | N Engl J med2009，361，26： | 1 |
| 7 | Large-scale synthesis of single crystalline gallium nitridenanowires 显示文摘 | CHENG G S ZHANG L D ZHU Y FEI G T LI L MO C M MAOY Q | 1999 | Appl Phys Lett1999，75，： | 1 |
| 8 | The profile ofTh17subset in glioma显示文摘 | Hu J MaoY Li M | 2011 | Int Immunopharmacol2011，11，9： | 1 |
| 9 | ClSnRK2.3 negatively regulates watermelon fruit ripening and sugar accumulation显示文摘Watermelon(Citrullus lanatus) as non-climacteric fruit is domesticated from the ancestors with inedible fruits. We previously revealed that the abscisic acid(ABA) signaling pathway gene ClSnRK2.3 might infuence watermelon fruit ripening. However,the molecular mechanisms are unclear. Here,we found that the selective variation of ClSnRK2.3 resulted in lower promoter activity and gene expression level in cultivated watermelons than ancestors, which indicated ClSnRK2.3 might be a negative regulator in fruit ripening. Overexpression (OE) of ClSnRK2.3 significantly delayed watermelon fruit ripening and suppressed the accumulation of sucrose, ABA and gibberellin GA4. Furthermore,we determined that the pyrophosphate-dependent phosphofructokinase(ClPFP1) in sugar metabolism pathway and GA biosynthesis enzyme GA20 oxidase(Cl GA20ox) could be phosphorylated by ClSnRK2.3 and thereby resulting in accelerated protein degradation in OE lines and finally led to low levels of sucrose and GA4. Besides that, ClSnRK2.3 phosphorylated homeodomain-leucine zipper protein(ClHAT1) and protected it from degradation to suppress the expression of the ABA biosynthesis gene 9’-cis-epoxycarotenoid dioxygenase 3(Cl NCED3). These results indicated that ClSnRK2.3 negatively regulated watermelon fruit ripening by manipulating the biosynthesis of sucrose, ABA and GA4. Altogether, these findings revealed a novel regulatory mechanism in non-climacteric fruit development and ripening. | Jinfang Wang Yanping Wang Yongtao Yu Jie Zhang Yi Ren Shouwei Tian Maoying Li Shengjin Liao Shaogui Guo Guoyi Gong Haiying Zhang Yong Xu | 2023 | Journal of Integrative Plant Biology2023，65，10： | 0 |
| 10 | The NAC transcription factor CINAC68 positively regulates sugar content and seed development in watermelon by repressing CIINV and CIGH3.6显示文摘NAC(NAM,ATAF1/2,and CUC2)transcription factors play important roles in fruit ripening and quality.The watermelon genome encodes 80 NAC genes,and 21 of these NAC genes are highly expressed in both the flesh and vascular tissues.Among these genes,CINAC68 expression was signi fi cantly higher in flesh than in rind.However,the intrinsic regulatory mechanism of CINAC68 in fruit ripening and quality is still unknown.In this study,we found that ClNAC68 is a transcriptional repressor and that the repression domain is located in the C-terminus.Knockout of CINAC68 by the CRISPR-Cas9 system decreased the soluble solid content and sucrose accumulation in mutant flesh.Development was delayed,germination was inhibited,and the IAA content was signi ficantly decreased in mutant seeds.Transcriptome analysis showed that the invertase gene CUNV was the only gene involved in sucrose metabolism that was upregulated in mutant flesh,and expression of the indole-3-acetic acid-amido synthetase gene CIGH3.6 in the IAA signaling pathway was also induced in mutant seeds.EMSA and dual-luciferase assays showed that CINAC68 directly bound to the promoters of CUNV and CIGH3.6 to repress their expression.These results indicated that CINAC68 positively regulated sugar and IAA accumulation by repressing CUNV and CIGH3.6.Our findings provide new insights into the regulatory mechanisms by which NAC transcription factors affect fruit quality and seed development. | Jinfang Wang Yanping Wang Jie Zhang Yi Ren Maoying Li Shaowei Tian Yongtao Yu Yi Zuo Guoyi Gong Haiying Zhang Shaogui Guo Yong Xu | 2021 | Horticulture Research2021，8，1： | 0 |
| 11 | A controllable preparation of two-dimensional cobalt oxalate-based nanostructured sheets for electrochemical energy storage显示文摘Well-defined two-dimensional(2D)cobalt oxalate(CoC_(2)O_(4)·2H_(2)O)nanosheets exhibit more excellent property than common bulk cobalt oxalate due to high specific surface areas and high-efficient transport of ion and electron.However,the delicate control of the 2D morphology of CoC_(2)O_(4)·2H_(2)O during their synthesis remains challenging.Herein,2D CoC_(2)O_(4)·2H_(2)O nanosheets(M1),grown by straightforward chemical precipitation,can be tuned from three-dimensional(3D)structure during their synthesis with no templates or capping agents.This control is obtained by rationally changing the ratio of reactants with ethylene glycol as solvent.Moreover,Co_(3)O_(4)/CoC_(2)O_(4)composites(M1-250)have been fabricated through low-temperature thermal treatment of the M1 precursor in air,which possess porous surfaces with the 2D morphology maintained.Benefiting from the porous surfaces,more redox-active sites and better electrical conductivity of Co_(3)O_(4),the constructed M1-250//AC aqueous device manifest improved kinetics of the electrochemistry process with energy density of 27.9 Wh/kg at 550.7 W/kg and good cycling stability with sustaining 73.0 m Ah/g after 5000 cycles. | Fancheng Sun Qing Li Yang Bai Guangxun Zhang Shasha Zheng Maoying Peng Xudong Chen Nuo Lin Huan Pang | 2022 | Chinese Chemical Letters2022，33，6： | 0 |
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