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| 1 | Cellulose Synthases and Synthesis in Arabidopsis显示文摘植物房间墙是由 high-molecular-weight 多糖,蛋白质,和木质素组成的复杂结构。在墙多糖之中,纤维素,结合氢的 -1,4-linked glucan microfibril,为工业应用是主要的忍受负担的墙部件和一位关键先锋。纤维素被大 multi-meric 纤维素 synthase (CesA ) 综合建筑群,在血浆膜沿着外皮的微导管追踪。这些建筑群的唯一的已知的部件是纤维素 synthase 蛋白质。最近的研究识别了试验为 CesAs 的相互作用搭挡并且证明 CesA 建筑群的迁移的模式取决于 phosphorylation 地位。这些进展可以为在不久的将来关于纤维素合成扩展我们的知识成为好平台。另外,我们在 CesA 建筑群的上下文的纤维素链聚合的当前的理解被讨论。 | Anne Endler Staffan Persson | 2011 | Molecular Plant2011，4，2： | 26 |
| 2 | Multi-omics analyses of 398 foxtail millet accessions reveal genomic regions associated with domestication,metabolite traits,and antiinflammatory effects显示文摘Foxtail millet(Setaria italica),which was domesticatedfromthewild speciesgreenfoxtail(Setaria viridis),isa richsource of phytonutrientsfor humans.To evaluate how breeding changed themetabolome offoxtail millet grains,we generated and analyzed the datasets encompassing the genomes,transcriptomes,metabolomes,and anti-inflammatory indices from 398 foxtail millet accessions.We identified hundreds of common variants that influence numerous secondary metabolites.We observed tremendous differences in natural variations of the metabolites and their underlying genetic architectures between distinct sub-groups of foxtail millet.Furthermore,we found that the selection of the gene alleles associated with yellow grains led to altered profiles of metabolites such as carotenoids and endogenous phytohormones.Using CRiSPR-mediated genome editing wevalidated the function of PHYTOENE SYNTHASE1(PSY1)gene in affecting milletgrain colorand quality.Interestingly,our in vitro cell inflammation assays showed that 83 metabolites in millet grains have anti-inflammatory effects.Taken together,ourmulti-omics study illustrates how the breeding history of foxtail millet has shaped its metabolite profile.The datasets we generated in this study also provide important resources for further understanding how millet grain quality is affected by different metabolites,laying the foundations for future millet genetic research and metabolome-assisted improvement. | Xukai Li Jianhua Gao Jingyi Song Kai Guo Siyu Hou Xingchun Wang Qiang He Yanyan Zhang Yakun Zhang Yulu Yang Jiaoyan Tang Hailang Wang Staffan Persson Mingquan Huang Lishuai Xu Linlin Zhong Dongqin Li Yongming Liu Hua Wu Xianmin Diao Peng Chen Xiaowen Wang Yuanhuai Han | 2022 | Molecular Plant2022，15，8： | 8 |
| 3 | Sweet sorghum and Miscanthus:Two potential dedicated bioenergy crops in China显示文摘Among the potential non-food energy crops,the sugar-rich C_4 grass sweet sorghum and the biomass-rich Miscanthus are increasingly considered as two leading candidates.Here,we outline the biological traits of these energy crops for largescale production in China.We also review recent progress on understanding of plant cell wall composition and wall polymer features of both plant species from large populations that affect both biomass enzymatic digestibility and ethanol conversion rates under various pretreatment conditions.We finally propose genetic approaches to enhance biomass production,enzymatic digestibility and sugar-ethanol conversion efficiency of the energy crops. | HU Shi-wei WU Lei-ming Staffan Persson PENG Liang-cai FENG Sheng-qiu | 2017 | Journal of Integrative Agriculture2017，16，6： | 6 |
| 4 | The connection of cytoskeletal network with plasma membrane and the cell wall显示文摘The cell wall provides external support of the plant cells, while the cytoskeletons including the microtubules and the actin filaments constitute an internal framework. The cytoskeletons contribute to the cell wall biosynthesis by spatially and temporarily regulating the transportation and deposition of cell wall components. This tight control is achieved by the dynamic behavior of the cytoskeletons, but also through the tethering of these structures to the plasma membrane. This tethering may also extend beyond the plasma membrane and impact on the cell wall, possibly in the form of a feedback loop. In this review, we discuss the linking components between the cytoskeletons and the plasma membrane, and/or the cell wall. We also discuss the prospective roles of these components in cell wall biosynthesis and modifications, and aim to provide a platform for further studies in this field. | Zengyu Liu Staffan Persson Yi Zhang | 2015 | Journal of Integrative Plant Biology2015，57，4： | 6 |
| 5 | Investigation of CRISPR/Cas9-induced SD1 rice mutants highlights the importance of molecular characterization in plant molecular breeding显示文摘Although Clustered Regularly Interspaced Short Palindromic Repeats(CRISPR)/CRISPR-associated 9(Cas9)system has been widely used for basic research in model plants,its application for applied breeding in crops has faced strong regulatory obstacles,due mainly to a poor understanding of the authentic output of this system,particularly in higher generations.In this study,different from any previous studies,we investigated in detail the molecular characteristics and production performance of CRISPR/Cas9-generated SD1(semi-dwarf 1)mutants from T2 to T4 generations,of which the selection of T1 and T2 was done only by visual phenotyping for semidwarf plants.Our data revealed not only on-and off-target mutations with small or lager indels but also exogenous elements in T2 plants.All indel mutants passed stably to T3 or T4 without additional modifications independent on the presence of Cas9,while some lines displayed unexpected hereditary patterns of Cas9 or some exogenous elements.In addition,effects of various SD1 alleles on rice height and yield differed depending on genetic backgrounds.Taken together,our data showed that the CRISPR/Cas9 system is effective in producing homozygous mutants for functional analysis,but it may be not as precise as expected in rice,and that early and accurate molecular characterization and screening must be carried out for generations before transitioning of the CRISPR/Cas9 system from laboratory to field. | Sukumar Biswas Jiaqi Tian Rong Li Xiaofei Chen Zhijing Luo Mingjiao Chen Xiangxiang Zhao Dabing Zhang Staffan Persson Zheng Yuan Jianxin Shi | 2020 | Journal of Genetics and Genomics2020，47，5： | 4 |
| 6 | Carbon Supply and the Regulation of Cell Wa Synthesis显示文摘 | Jana Verbancic John Edward Lunn Mark Stitt Staffan Persson | 2018 | Molecular Plant2018，11，1： | 4 |
| 7 | An Update on Xylan Synthesis显示文摘Plant cell walls are complex structural frameworks that affect cell shape and differentiation,and that protect the plant cell against environmental conditions(Scheller and Ulvskov,2010). | Anett Doering Rahul Lathe Staffan Persson | 2012 | Molecular Plant2012，5，4： | 3 |
| 8 | The Cellulose Synthases Are Cargo of the TPLATE Adaptor Complex显示文摘 | Clara Sanchez-Rodriguez Yanyun Shi Christopher Kesten Dongmei Zhang Gloria Sancho-Andres Alexander Ivakov Edwin R. Lampugnani Kamil Sklodowski Masaru Fujimoto Akihiko Nakano Antony Bacic Ian S. Wallace Takashi Ueda Daniel Van Damme Yihua Zhou Staffan Persson | 2018 | Molecular Plant2018，11，2： | 3 |
| 9 | Arabidopsis Heterotrimeric G-protein Regulates Cell Wall Defense and Resistance to Necrotrophic Fungi显示文摘Arabidopsis heterotrimeric G 蛋白质控制防卫回答到 necrotrophic 和脉管的真菌。在 G 子单元显示损害的 agb1 异种提高了危险性到这些病原体。G/AGB1 形式一与任何一个一 Arabidopsis G 子单元(1/AGG1 和 2/AGG2 ) 更暗淡的 obligate。因此,我们现在证明 agg1 agg2 加倍异种象到 necrotrophic 真菌 Plectosphaerella cucumerina 的 agb1 植物一样易受影响。阐明 heterotrimeric G-protein-mediated 抵抗的分子的基础,我们与 P 在接种之上执行了 agb1-1 异种和野类型的植物的比较 transcriptomic 分析。cucumerina。和 metabolomic 研究,这分析证明 G-protein-mediated 抵抗独立于为抵抗要求到 necrotrophic 真菌的防御小径,例如发信号的水杨酸酸, jasmonic 酸,乙烯, abscisic 酸,和导出色氨酸的代谢物,当这些小径没在 agb1 和 agg1 agg2 异种被损害。尤其是,在 agb1 植物的许多调整 mis 的基因与房间墙功能被联系,它也是在 agg1 agg2 异种的盒子。生物化学的分析和 Fourier 变换红外线(FTIR ) 从 G 蛋白质异种的房间墙的光谱学比在野类型的植物,和那异种墙有类似的 FTIR spectratypes 的表明木糖内容在 agb1 和 agg1 agg2 异种是更低的,它不同于野类型的植物的。这里介绍的数据在 Arabidopsis 有免疫力的回答和房间墙作文的规定的控制建议 G 和 G1/2 子单元的正规功能。 | Magdalena Delgado-Cerezo Clara Sanchez-Rodriguez Viviana Escudero Eva Miedes Paula Virginia Fernandez Lucia Jorda Camilo Hernandez-Blanco Andrea Sanchez-Vallet Pawel Bednarek Paul Schulze-Lefert Shauna Somervilleg Jose Manuel Estevez Staffan Persson Antonio Molina | 2012 | Molecular Plant2012，5，1： | 3 |
| 10 | Transcriptional Wiring of Cell Wall-Related Genes in Arabidopsis显示文摘Transcriptional 协作,或合作表示,可以基因意味着相应蛋白质的功能的相关。例如,涉及第二等的房间墙纤维素生合成的几基因被共同表示,基因从事了木聚糖的合成,它是第二等的房间墙的一个主要部件。扩大分析的这些类型,我们调查了所有糖类活跃的酶(CAZy ) 的合作表示关系为 Arabidopsis thaliana 的相关基因。因此,意愿是 transcriptionally 连接不同房间墙相关的进程到互相,并且也到另外的生物函数。便于容易的用手的检查,我们作为网络和矩阵显示了这些相互作用,并且创造了为所有 transcriptional 协会包含可下载的文件的一个基于万维网的接口(http://gffzzd07dfdf4eb194e87h66k0bvvfbwn56vbf.ffgz.tsg.suse.edu.cn/corecarb ) 。 | Marek Mutwil Colin Ruprecht Federico M. Giorgi Martin Bringmann Bjorn Usadel Staffan Persson | 2009 | Molecular Plant2009，2，5： | 2 |
| 11 | Molecular and genetic pathways for optimizing spikelet development and grain yield显示文摘The spikelet is a unique structure of inflorescence in grasses that generates one to many flowers depending on its determinate or indeterminate meristem activity.The growth patterns and number of spikelets,furthermore,define inflorescence architecture and yield.Therefore,understanding the molecular mechanisms underlying spikelet development and evolution are attractive to both biologists and breeders.Based on the progress in rice and maize,along with increasing numbers of genetic mutants and genome sequences from other grass families,the regulatory networks underpinning spikelet development are becoming clearer.This is particularly evident for domesticated traits in agriculture.This review focuses on recent progress on spikelet initiation,and spikelet and floret fertility,by comparing results from Arabidopsis with that of rice,sorghum,maize,barley,wheat,Brachypodium distachyon,and Setaria viridis.This progress may benefit genetic engineering and molecular breeding to enhance grain yield. | Zheng Yuan Staffan Persson Dabing Zhang | 2020 | aBIOTECH2020，1，4： | 2 |
| 12 | The Cell Biology of Cellulose Synthesis显示文摘 | Heather E. McFarlane Anett D?ring Staffan Persson | 2014 | Annual Review of Plant Biology2014，，： | 1 |
| 13 | Differential Regulation of Carbon Partitioning by the Central Growth Regulator Target of Rapamycin (TOR)显示文摘 | Yi Zhang, Staffan Persson Patrick Giavalisco | 2013 | Molecular Plant2013，6，6： | 1 |
| 14 | Effects of Cocoa Extract and Dark Chocolate on Angiotensin-converting Enzyme and Nitric Oxide in Human Endothelial Cells and Healthy Volunteers–A Nutrigenomics Perspective显示文摘 | Ingrid A.-L Persson Karin Persson Staffan H?gg Rolf G G Andersson | 2011 | Journal of Cardiovascular Pharmacology2011，，1： | 1 |
| 15 | T载体介导的基于attL核心区LR反应的简化快速Gateway克隆系统(英文)显示文摘Gateway克隆技术已得到广泛的应用。该技术先通过BP反应将目标片段连到带有完整attL特异识别位点的入门载体,然后与终载体通过LR反应得到表达载体。Gateway克隆方法与传统的酶切连接方法相比有快速简单等优点。但是,BP和LR酶都非常昂贵。本研究首先对3个常用Gateway载体的atts特异位点序列比对发现,attL序列核心交换位点'core attL'的21~22 bp长的碱基是保守和必要的。由此,设计含有core-attL序列的引物,通过PCR克隆得到DNA片段并连入p MD18-T载体,然后进行LR反应,可成功得到目标表达载体,并在保守的位点上正确重组。本研究还对其中一个带有绿色荧光蛋白基因的表达载体转化至烟草,能够正常表达该蛋白质。结果表明,通过将含有attL核心位点基因片段连接到p MD18-T载体上,可以省略BP反应而将目标片段连接到终载体上,节约了反应时间和成本。 | 朱晓博 张贵粉 王友梅 Staffan Persson 谢国生 王令强 | 2018 | 中国生物化学与分子生物学报2018，34，3： | 1 |
| 16 | Proto- nation and Charging of Nanosized Gibbsite Particles in Aqueous Suspension 显示文摘 | Jorgen Rosenqvist Per Persson Staffan Sjoberg | 2002 | Langmuir2002，18，12： | 1 |
| 17 | 植物初生细胞壁到次生细胞壁合成的转化及调控(英文)显示文摘次生细胞壁的合成是植物的重要发育过程之一,它不仅是植物细胞实现某些特定功能所必需的,也是植物维持其形态的物质基础.与初生细胞壁不同的是次生壁的合成开始于细胞停止生长后,而初生壁的合成则是伴随细胞生长同时进行的.因此,由初生壁合成到次生壁合成的转化意味着植物体内需要进行一次重要的代谢调整.两种细胞壁合成的转化需要一系列胞内生理生化活动的协同合作.这些活动包括:激素调控、转录调控、转录后调控以及代谢通量的重分布等.本文概述了初生壁合成到次生壁合成转化所涉及的转录和激素调控,并且指出了我们对相关代谢网络认知的不足.此外,本文还对现有的可用于研究该转化的工具系统进行了讨论. | Zheng Li Alisdair R.Fernie Staffan Persson | 2016 | Science Bulletin2016，61，11： | 1 |
| 18 | Cellulose synthesis in land plants显示文摘After the original publication of the above article,we and/or attentive readers identified several instances of unclear or erroneous writing that needed correcting,as follows.Italics are added for emphasis. | Gustav B.Pedersen Leonard Blaschek Kristian E.H.Frandsen Lise C.Noack Staffan Persson | 2024 | Molecular Plant2024，17，2： | 0 |
| 19 | Cellulose synthesis in land plants显示文摘(MolecularPlant 16,206-231;January 22023)In our originally published article,within the section'Microfibril assembly and processing,'a mistaken inversion in word order led to a factual error in the following sentence(italics added here for emphasis). | Gustav B.Pedersen Leonard Blaschek Kristian E.H.Frandsen Lise C.Noack Staffan Persson | 2023 | Molecular Plant2023，16，7： | 0 |
| 20 | Cellulose synthesis in land plants显示文摘All plant cells are surrounded by a cell wall that provides cohesion,protection,and a means of directional growth to plants.Cellulose microfibrils contribute the main biomechanical scaffold for most of these walls.The biosynthesis of cellulose,which typically is the most prominent constituent of the cell wall and therefore Earth’s most abundant biopolymer,is finely attuned to developmental and environmental cues.Our understanding of the machinery that catalyzes and regulates cellulose biosynthesis has substantially improved due to recent technological advances in,for example,structural biology and microscopy.Here,we provide a comprehensive overview of the structure,function,and regulation of the cellulose synthesis machinery and its regulatory interactors.We aim to highlight important knowledge gaps in the field,and outline emerging approaches that promise a means to close those gaps. | Gustav B.Pedersen Leonard Blaschek Kristian E.H.Frandsen Lise C.Noack Staffan Persson | 2023 | Molecular Plant2023，16，1： | 0 |
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