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    孟

    孟山都

    Monsanto Inc.
    企业
    4,338论文总数
    21.3万引用总数

    孟山都公司(Monsanto Company)是美国的一家跨国农业公司,创始人是约翰·奎恩伊,总部设于美国密苏里州圣路易斯市。其生产的旗舰产品Roundup是全球知名的草甘膦除草剂。 该公司也是全球转基因 (GE) 种子的领先生产商 。 2018年6月7日起,拜耳成为孟山都公司的唯一股东,孟山都公司股票于纽约证券交易所退市。孟山都的股东获得每股128美元的现金。

    论文量&引用量时间轴

    机构学者

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    Graham Head
    Graham Head
    Bayer Corporation
    论文:70引用:0H-index:0
    Robert Thomas Fraley
    Robert Thomas Fraley
    Monsanto
    论文:39引用:0H-index:0
    Jacob Schaefer
    Jacob Schaefer
    Department of Chemistry, Washington University in St. Louis
    论文:33引用:0H-index:0
    Nick Holonyak
    Nick Holonyak
    Holonyak Micro & Nanotechnology Lab, The Grainger College of Engineering, University of Illinois at Urbana-Champaign
    论文:33引用:0H-index:0
    Robert B Horsch
    Robert B Horsch
    Monsanto Company
    论文:31引用:0H-index:0
    Gary F. Hartnell
    Gary F. Hartnell
    Monsanto Company
    论文:30引用:0H-index:0
    Stephen G. Rogers
    Stephen G. Rogers
    Plant Molecular Biology Group, Monsanto Company
    论文:27引用:0H-index:0
    George G. Harrigan
    George G. Harrigan
    Regulatory Product Characterization and Safety Center, Monsanto Company
    论文:23引用:0H-index:0
    Mercedes Vazquez-Anon
    Mercedes Vazquez-Anon
    Novus International
    论文:23引用:0H-index:0

    论文(4338)

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    1High-throughput <i>Agrobacterium-</i>mediated Transformation of Seed Embryo Explants (SEEs) from Mature Seeds of Maize Through Organogenesis
    Ashok Shrawat,Xudong Ye,Edward Williams,Anatoly Rivlin,Zarir Vaghchhipawala,Lorena Moeller,Jennifer Kumpf,Shubha Subbarao,Brian Martinell,Charles Armstrong,M. Annie Saltarikos,David Somers,
    2023IN VITRO CELLULAR & DEVELOPMENTAL BIOLOGY-ANIMAL(2023)
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    2Commercial Scale Genetic Transformation of Mature Seed Embryo Explants in Maize
    Xudong Ye,Ashok Shrawat,Edward Williams,Anatoly Rivlin,Zarir Vaghchhipawala,Lorena Moeller,Jennifer Kumpf,Shubha Subbarao,Brian Martinell,Charles Armstrong,M. Annie Saltarikos,David Somers,

    A novel, efficient maize genetic transformation system was developed using Agrobacterium-mediated transformation of embryo explants from mature seeds. Seeds from field grown plants were sterilized and crushed to isolate embryo explants consisting of the coleoptile, leaf primordia, and shoot apical meristem which were then purified from the ground seed bulk preparation. The infection of relevant tissues of seed embryo explants (SEEs) by Agrobacterium was improved by the centrifugation of the explants. Transgenic plants were obtained by multiple bud induction on high cytokinin media, followed by plant regeneration on hormone-free medium. Three different selectable markers (cp4 epsps, aadA, and nptII) were successfully used for producing transgenic plants. Stable integration of transgenes in the maize genome was demonstrated by molecular analyses and germline transmission of the inserted transgenes to the next generation was confirmed by pollen segregation and progeny analysis. Phenotypic evidence for chimeric transgenic tissue was frequently observed in initial experiments but was significantly reduced by including a second bud induction step with optimized cytokinin concentration. Additional improvements, including culturing explants at an elevated temperature during bud induction led to the development of a revolutionary system for efficient transgenic plant production and genome editing. To our knowledge, this is the first report of successful transgenic plant regeneration through Agrobacterium-mediated transformation of maize mature SEEs. This system starts with mature seed that can be produced in large volumes and the SEEs explants are storable. It has significant advantages in terms of scalability and flexibility over methods that rely on immature explants.

    2022Frontiers in Plant Science(2022)引用:12
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    3Seed Production of Wild Soybean (glycine Soja Sieb. Et Zucc.) under Favorable, Ruderal, and Natural Growing Conditions.
    Aki Mizuguti, Daisuke Aoki, Kei Takamoto, Aya Arii,Hidetoshi Goto,Shuichi Nakai,Michael J. Horak,Keguo Huang,Duska Stojsin

    Field trials were conducted in Japan under different growing conditions to better understand seed production of wild soybean (Glycine soja Seib. et Zucc.). The objectives of these trials were to evaluate yield and yield components of wild soybean: (1) across 11 diverse populations grown under favorable conditions to assess seed production potential, (2) under different planting densities (112, 208, 416, and 832 plants/m2) to assess intra-specific competition, and (3) across growing conditions (favorable, ruderal, and natural) to assess the impacts of environmental stress and inter-specific competition. Significant differences in yield and seed number observed among the evaluated wild soybean populations were predominantly due to environmental effects and genetic by environmental interaction. Seed production was impacted by both intra- and inter-specific competition. Wild soybean grown without plant competition had 51-fold and 247-fold higher yield compared to when grown in ruderal and natural environments, respectively. Under favorable growing conditions, wild soybean had substantial yield potential due to the ability to produce a high number of seeds. In nature, yield potential is severely limited because of plant competition and other environmental stressors. The results of this research are useful to inform environmental risk assessment when considering the potential impact of soybean biotechnology traits that increase or protect yield. If such traits were to be inadvertently transferred from imported soybean into wild soybean, this research indicates that the effects would likely have little overall impact on wild soybean seed production.

    2022引用:1
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    4Deactivation of Pesticide Residue in Spray Tanks via In Situ Hydrogen Peroxide Oxidation Catalyzed by Iron
    David A. Morgenstern,John Hemminghaus,Ronald J. Brinker, Ryan Rector, Kevin Crosby
    2022Pesticide Formulation and Delivery Systems: 41st Volume, Formulation and Application Challenges of D...(2022)
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    5Advice on Assistance and Protection Provided by the Scientific Advisory Board of the Organisation for the Prohibition of Chemical Weapons: Part 3. on Medical Care and Treatment of Injuries from Sulfur Mustard.
    Christopher M. Timperley,Jonathan E. Forman,Mohammad Abdollahi,Abdullah Saeed Al-Amri,Augustin Baulig,Djafer Benachour,Veronica Borrett,Flerida A. Carino,Christophe Curty,Michael Geist,David Gonzalez,William Kane,

    Blister agents damage the skin, eyes, mucous membranes and subcutaneous tissues. Other toxic effects may occur after absorption. The response of the Scientific Advisory Board (SAB) of the Organisation for the Prohibition of Chemical Weapons (OPCW) to a request from the OPCW Director-General in 2013 on the status of medical countermeasures and treatments to blister agents is updated through the incorporation of the latest information. The physical and toxicological properties of sulfur mustard and clinical effects and treatments are summarised. The information should assist medics and emergency responders who may be unfamiliar with the toxidrome of sulfur mustard and its treatment.

    2021TOXICOLOGY(2021)引用:155
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