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1](https:\u002F\u002Fp3-sign.toutiaoimg.com\u002Ftos-cn-i-axegupay5k\u002Ff8543ea066764d4b9c8e4938a151a201~tplv-tt-origin-web:gif.jpeg?_iz=58558&from=article.pc_detail&lk3s=953192f4&x-expires=1792886735&x-signature=dVaA22nv%2BGLvJQ7CE%2Fgb6GlidzY%3D)\n本报讯 记者王策 农业农村部近日公布《中华人民共和国植物新品种保护条例实施细则（农业部分）》（以下简称《实施细则》）《农业农村部植物新品种复审委员会审理规定》（以下简称《复审规定》）《第十二批农业植物品种保护名录》，均于11月1日起实施。农业农村部法规司、农业农村部种业管理司负责人介绍，此次制修订是为落实2021年修改的种子法和2025年修订的《中华人民共和国植物新品种保护条例》，健全农业植物新品种保护制度体系。\n\n修订后的《实施细则》共10章58条，对实质性派生品种制度的实施范围、判定指南等作出规定，并说明生产、繁殖、许诺销售等品种权保护环节及科研豁免情形。《实施细则》还细化了品种权授权条件和审查程序。申请文件内容不真实或者存在欺骗、弄虚作假行为的，不予受理或者予以驳回。\n\n在监督管理方面，对隐瞒情况或者提交虚假文件和繁殖材料的，除不予受理或驳回申请外，1年内不再受理有关申请；以欺骗、贿赂等不正当手段取得品种权的，宣告品种权无效，3年内不再受理有关申请。\n\n修订后的《复审规定》共7章36条。复审委员会秘书处对不服驳回品种权申请决定、宣告品种权无效和品种更名案件进行形式审查。复审小组投票提出审理意见，复审委员会经过规定程序作出决定。规定还明确了审理决定的执行及不服决定向人民法院起诉的期限。\n\n第十二批名录包含117个农业植物属种。此前11批名录覆盖191个属种，第十二批名录发布后，保护范围将扩大至308个。农业农村部下一步将完善从申请受理、测试审查到授权审批、监督管理的全流程工作规范，强化行政执法与司法保护衔接，严厉打击假冒伪劣、套牌侵权等违法行为。（王策）\n\n（法治日报）","法治日报\u002F今日头条转载(2026-10-16)","2026-10-16T00:00:00Z",90,{"impact":27,"substance":28,"depth":82,"authority":123,"freshness":31,"relevant":32,"comment":124},12,"农业农村部三项配套文件11月1日起实施，含实质性派生品种制度与117个属种扩围等实质条款，全国性种业政策，值得进入每日精选。",[126],{"name":119,"url":116},[128,129,130,131,132],"种业振兴","种业知识产权","实质性派生品种","植物新品种保护","品种保护名录",[],{"status":135,"locked":50,"version":51,"method":52,"evidence":136},"unclassified",{"candidates":137,"agricultural_evidence":24,"reason":144},[138],{"code":139,"score":140,"supported":50,"title":141,"abstract":142,"tags":143},"F1",3,[],[],[130,131,128,129],"缺少足够的主题证据",[146,147],"实质性派生品种 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    核稿：朱小玲）","山东省农业科学院(2026-10)","报道",88,{"impact":212,"substance":213,"depth":214,"authority":215,"freshness":216,"relevant":32,"comment":217},26,23,16,14,9,"国内首个猪用三联灭活疫苗获国家新兽药证书并进入产业化，属产业级技术突破，信息增量与信源权威度俱佳，值得进入每日精选。",[219],{"name":208,"url":205},[221,222,223,224,225],"新兽药","生猪养殖","疫病防控","兽药疫苗","科研成果",{"code":42,"slug":43,"name":44,"path":45,"parent_code":46},[],{"status":49,"locked":50,"version":51,"method":52,"evidence":229},{"candidates":230,"agricultural_evidence":24},[231,236,241],{"code":42,"score":30,"supported":24,"title":232,"abstract":233,"tags":235},[59],[234,59],"动物疫病",[221],{"code":46,"score":140,"supported":24,"title":237,"abstract":238,"tags":240},[],[239],"畜牧",[],{"code":242,"score":32,"supported":50,"title":243,"abstract":244,"tags":245},"C1",[],[],[222],[247,248],"山东省农科院 猪链球菌 三联灭活疫苗","猪圆环病毒2型 新兽药 证书","山东省农科院猪链球菌三联灭活疫苗-5214","2026-10-18T00:05:23.181714Z",{"id":252,"title":253,"url":254,"summary":255,"summary_zh":18,"content":256,"source_name":257,"source_url":18,"published_at":18,"category":209,"cover_url":18,"hotness":23,"is_selected":50,"score":258,"score_detail":259,"sources":261,"tags":263,"primary_topic":269,"secondary_topics":275,"classification":282,"search_phrases":304,"slug":307,"view_count":308,"doi":18,"paper":18,"created_at":309},5210,"中国农科院西部中心基于RNA干扰研发马铃薯根结线虫绿色防控新技术","https:\u002F\u002Fwri.caas.cn\u002Fmtbd\u002F072be27fc1864e96bd75c1f41598318b.htm","中国农业科学院西部农业研究中心联合国内多家科研单位,成功攻克根结线虫绿色防控关键难题,研发基于RNA干扰的新型防控技术,经纳米载体保护后根结线虫摄取量提升42.3%,基因沉默效果提高1.9倍,幼虫死亡率提升24.2%,温室防治效果提升至78.4%。","近日，中国农业科学院西部农业研究中心西部作物生物安全防控创新团队联合国内多家科研单位，成功攻克根结线虫绿色防控关键难题，研发出基于RNA干扰的新型防控技术，为绿色生物农药落地推广打下坚实基础，也为新疆粮食等作物病虫害治理带来全新的技术方案。\n\n中国农业科学院西部农业研究中心西部作物生物安全防控创新团队科研人员在田间查看根结线虫防控效果。李伦 摄\n\n该中心副主任彭焕介绍，根结线虫是潜藏于土壤中、破坏力极强的“隐形害虫”，可侵染3000余种植物，包括粮食、蔬菜等各类农作物。作物根系被根结线虫侵染取食后，会形成大小不一的根瘤根结，严重削弱作物根系吸收水肥的能力，造成植株生长衰弱、产量锐减。这一虫害也是影响新疆农作物稳产提质的重要原因。\n\n以往防治根结线虫，主要依靠化学类药剂。而长期施用化学药剂，不仅会让根结线虫逐渐产生抗药性，造成药效减退，还会给土壤带来负担。因此农业生产迫切需要高效环保的替代防控技术。RNA干扰技术是极具潜力的绿色防控手段，它能够精准“关闭”该害虫的关键基因，只针对靶标害虫起效，不会伤害其他生物。但该技术的活性物质在土壤中极易被分解，致使这项技术长期停留在实验室阶段，难以应用到大田生产中。\n\n此次科研团队突破技术应用瓶颈，从基因层面筛选出根结线虫的关键靶标基因MEKK-3，该基因只作用于根结线虫，对其他生物安全无害。团队搭建起该活性物质的规模化生产工艺，还采用星形聚阳离子纳米材料为有效成分打造一层“保护外壳”。相当于给药剂穿上防护外衣，使其埋入土壤后不易被分解。经过改良，根结线虫对药剂有效成分摄取量提升42.3%，基因沉默效果提高1.9倍，幼虫死亡率提升24.2%。\n\n温室试验结果显示：单纯施用活性药剂45天后，作物根部根结数量可减少56.6%；将纳米载体与药剂搭配使用，对根结线虫的防治效果提升至78.4%。科研人员探明其中机理：该关键基因被抑制后，根结线虫抵御外界胁迫、维持生存的生理通路遭到破坏，最终无法正常发育，导致死亡。\n\n彭焕介绍，这套新技术打通了从害虫靶点筛选、机理解析、规模化生产到温室试验验证的完整技术链条，证实MEKK-3基因可用于防控多种根结线虫，为研发安全广谱的新型RNA生物农药铺平了道路。他表示，未来该技术落地应用后，能够减少化学农药使用，守护耕地土壤健康，助力新疆农业绿色高质量发展，也为国内土传病虫害的绿色治理提供重要技术储备。","中国农业科学院西部农业研究中心\u002F新疆日报(2026-10)",87,{"impact":28,"substance":213,"depth":82,"authority":215,"freshness":31,"relevant":32,"comment":260},"国家级科研机构攻克RNA干扰大田应用瓶颈，数据详实、技术链条完整，具备行业示范价值，值得进入每日精选。",[262],{"name":257,"url":254},[264,265,266,267,268],"马铃薯","RNA干扰","根结线虫","绿色防控","生物农药",{"code":270,"slug":271,"name":272,"path":273,"parent_code":274},"A5","tubers-grains","薯类与杂粮","\u002Ftopic\u002Ffield-crops\u002Ftubers-grains","A",[276],{"code":277,"slug":278,"name":279,"path":280,"parent_code":281},"F4","crop-protection","农药与绿色防控","\u002Ftopic\u002Finputs-equipment\u002Fcrop-protection","F",{"status":49,"locked":50,"version":51,"method":52,"evidence":283},{"candidates":284,"agricultural_evidence":24},[285,289,293,299],{"code":277,"score":215,"supported":24,"title":286,"abstract":287,"tags":288},[267],[267],[265,268,267],{"code":270,"score":216,"supported":24,"title":290,"abstract":291,"tags":292},[264],[],[264],{"code":294,"score":140,"supported":24,"title":295,"abstract":296,"tags":298},"B7",[],[297],"温室",[],{"code":300,"score":32,"supported":50,"title":301,"abstract":302,"tags":303},"H8",[],[],[267],[305,306],"中国农科院西部中心 根结线虫 RNA干扰","MEKK-3 纳米载体 生物农药","中国农科院西部中心根结线虫RNA干扰-5210",2,"2026-10-18T00:05:22.944664Z",{"id":311,"title":312,"url":313,"summary":314,"summary_zh":18,"content":315,"source_name":316,"source_url":18,"published_at":120,"category":22,"cover_url":18,"hotness":23,"is_selected":50,"score":258,"score_detail":317,"sources":319,"tags":321,"primary_topic":326,"secondary_topics":327,"classification":328,"search_phrases":336,"slug":339,"view_count":32,"doi":18,"paper":18,"created_at":340},5198,"中华人民共和国农业农村部公告 第1071号:新修订《农药生产许可审查细则》12月1日起施行","http:\u002F\u002Fwww.chinapesticide.org.cn\u002Fzwb\u002Fdetail\u002F33212","2026年10月10日农业农村部发布修订后的《农药生产许可审查细则》,自2026年12月1日起施行,2017年9月3日发布的农业部第2568号公告同时废止,加强农药生产许可管理。","根据《农药管理条例》、《农药生产许可管理办法》有关规定，我部组织修订《农药生产许可审查细则》，现予以公布，自2026年12月1日起施行。自施行之日起，2017年9月3日发布的农业部第2568号公告同时废止。　　特此公告。　　农业农村部  　　2026年10月10日请点击此处阅读原文并下载附件","农业农村部种植业管理司(2026-10-16)",{"impact":212,"substance":81,"depth":214,"authority":30,"freshness":31,"relevant":32,"comment":318},"农业农村部修订发布农药生产许可审查细则，属全国性行业准入政策，条款明确、权威性强，值得进入每日精选。",[320],{"name":316,"url":313},[322,323,324,325],"农药管理","政策法规","生产许可","审批细则",{"code":277,"slug":278,"name":279,"path":280,"parent_code":281},[],{"status":49,"locked":50,"version":51,"method":52,"evidence":329},{"candidates":330,"agricultural_evidence":24},[331],{"code":277,"score":123,"supported":24,"title":332,"abstract":334,"tags":335},[333],"农药",[333],[322],[337,338],"农业农村部 第1071号公告","农药管理 审批细则 政策法规 生产许可","农业农村部第1071号公告-5198","2026-10-18T00:05:13.426461Z",{"id":342,"title":343,"url":344,"summary":345,"summary_zh":18,"content":346,"source_name":347,"source_url":18,"published_at":348,"category":22,"cover_url":18,"hotness":23,"is_selected":50,"score":258,"score_detail":349,"sources":351,"tags":353,"primary_topic":358,"secondary_topics":362,"classification":363,"search_phrases":383,"slug":386,"view_count":70,"doi":18,"paper":18,"created_at":387},5197,"中华人民共和国农业农村部公告 第1072号:59个转基因玉米品种和1个转基因大豆品种审定通过","https:\u002F\u002Fwww.moa.gov.cn\u002Fgovpublic\u002Fnybzzj1\u002F202610\u002Ft20261016_6488661.htm","2026年10月12日,第五届国家农作物品种审定委员会第十二次会议审定通过敦玉323D等59个转基因玉米品种和中联豆2746GZ等1个转基因大豆品种并予以公告,持续推进转基因玉米大豆产业化应用。","[](https:\u002F\u002Fwww.moa.gov.cn\u002F)无障碍\n\n![Image 1](https:\u002F\u002Fwww.moa.gov.cn\u002Fgovpublic\u002Fimages\u002Ftopbg_0506_pc.jpg)![Image 2](https:\u002F\u002Fwww.moa.gov.cn\u002Fgovpublic\u002Fimages\u002Ftopbg_0506_m.jpg)\n\n![Image 3](https:\u002F\u002Fwww.moa.gov.cn\u002Fgovpublic\u002Fimages\u002Fg20_200404xxgksearch_1.png)\n\n[高级检索](https:\u002F\u002Fwww.moa.gov.cn\u002Fso\u002Fs?&siteCode=bm21000007&qt=&tab=gk&advancedSearchType=1)\n\n索 引 号 07B220203202600268 信息所属单位 种业管理司\n\n信息名称 中华人民共和国农业农村部公告 第1072号\n\n文 号 农业农村部公告第1072号 生效日期 2026年10月12日 发布日期 2026年10月16日\n\n内容概述 敦玉323D等59个转基因玉米品种、中联豆2746GZ等1个转基因大豆品种，业经第五届国家农作物品种审定委员会第十二次会议审定通过，现予公告。\n\n索 引 号 07B220203202600268 信息名称 中华人民共和国农业农村部公告 第1072号 文 号 农业农村部公告第1072号 信息所属单位 种业管理司 生效日期 2026年10月12日 发布日期 2026年10月16日 内容概述 敦玉323D等59个转基因玉米品种、中联豆2746GZ等1个转基因大豆品种，业经第五届国家农作物品种审定委员会第十二次会议审定通过，现予公告。\n\n## 中华人民共和国农业农村部公告 第1072号\n\n发布时间：2026年10月16日\n\n字体：[大 中 小]\n\n敦玉323D等59个转基因玉米品种、中联豆2746GZ等1个转基因大豆品种，业经第五届国家农作物品种审定委员会第十二次会议审定通过，现予公告。\n\n附件：敦玉323D等60个转基因品种审定信息\n\n农业农村部\n\n2026年10月12日\n\n附件：\n\n*   [中华人民共和国农业农村部公告 第1072号.ofd](https:\u002F\u002Fwww.moa.gov.cn\u002Fzxfile\u002Freader?file=https:\u002F\u002Fwww.moa.gov.cn\u002Fgovpublic\u002Fnybzzj1\u002F202610\u002FP020261016521444980506.ofd)\n\n相关新闻：\n\n扫一扫在手机打开当前页\n\n*   [机关子站![Image 4](https:\u002F\u002Fwww.moa.gov.cn\u002Fimages\u002Fgov-links-arrow-icon1_03.png)](https:\u002F\u002Fwww.moa.gov.cn\u002Fgovpublic\u002Fnybzzj1\u002F202610\u002Ft20261016_6488661.htm)\n*   [直属单位网站![Image 5](https:\u002F\u002Fwww.moa.gov.cn\u002Fimages\u002Fgov-links-arrow-icon1_03.png)](https:\u002F\u002Fwww.moa.gov.cn\u002Fgovpublic\u002Fnybzzj1\u002F202610\u002Ft20261016_6488661.htm)\n*   [![Image 6](https:\u002F\u002Fwww.moa.gov.cn\u002Fimages\u002Fgov-links-pic_1_03.png)](https:\u002F\u002Fwww.gov.cn\u002F)\n*   [国务院各部门网站![Image 7](https:\u002F\u002Fwww.moa.gov.cn\u002Fimages\u002Fgov-links-arrow-icon1_03.png)](https:\u002F\u002Fwww.moa.gov.cn\u002Fgovpublic\u002Fnybzzj1\u002F202610\u002Ft20261016_6488661.htm)\n*   [地方农业管理部门网站![Image 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[办公厅（对台湾农业事务办公室）](https:\u002F\u002Fbgt.moa.gov.cn\u002F \"办公厅（对台湾农业事务办公室）\")\n2.   [人事司（党组巡视工作领导小组办公室）](https:\u002F\u002Frss.moa.gov.cn\u002F \"人事司（党组巡视工作领导小组办公室）\")\n3.   [法规司](https:\u002F\u002Ffgs.moa.gov.cn\u002F \"法规司\")\n4.   [政策与改革司](https:\u002F\u002Fzcggs.moa.gov.cn\u002F \"政策与改革司\")\n5.   [发展规划司](https:\u002F\u002Fjhs.moa.gov.cn\u002F \"发展规划司\")\n6.   [计划财务司](https:\u002F\u002Fjcs.moa.gov.cn\u002F \"计划财务司\")\n7.   [种植业管理司（农药管理司）](https:\u002F\u002Fzzys.moa.gov.cn\u002F \"种植业管理司（农药管理司）\")\n8.   [畜牧兽医局](https:\u002F\u002Fxmsyj.moa.gov.cn\u002F \"畜牧兽医局\")\n9.   [渔业渔政管理局](https:\u002F\u002Fyyj.moa.gov.cn\u002F \"渔业渔政管理局\")\n10.   [乡村产业发展司（农产品加工指导司）](https:\u002F\u002Fxccys.moa.gov.cn\u002F \"乡村产业发展司（农产品加工指导司）\")\n11.   [乡村建设促进司](https:\u002F\u002Fwww.moa.gov.cn\u002Fgovpublic\u002Fnybzzj1\u002F202610\u002Ft20261016_6488661.htm \"乡村建设促进司\")\n12.   [农村社会事业促进司](https:\u002F\u002Fshsys.moa.gov.cn\u002F \"农村社会事业促进司\")\n13.   [农村合作经济指导司](https:\u002F\u002Fhzjjs.moa.gov.cn\u002F \"农村合作经济指导司\")\n14.   [帮扶司](https:\u002F\u002Fbfs.moa.gov.cn\u002F \"帮扶司\")\n15.   [区域协作促进司（革命老区工作办公室）](https:\u002F\u002Fqys.moa.gov.cn\u002F \"区域协作促进司（革命老区工作办公室）\")\n16.   [监督检查司](https:\u002F\u002Fjdjcs.moa.gov.cn\u002F \"监督检查司\")\n17.   [市场与信息化司](https:\u002F\u002Fscs.moa.gov.cn\u002F \"市场与信息化司\")\n18.   [国际合作司](https:\u002F\u002Fgjs.moa.gov.cn\u002F \"国际合作司\")\n19.   [科学技术司（农业转基因生物安全管理办公室）](https:\u002F\u002Fkjs.moa.gov.cn\u002F \"科学技术司（农业转基因生物安全管理办公室）\")\n20.   [农产品质量安全监管司](https:\u002F\u002Fjgs.moa.gov.cn\u002F \"农产品质量安全监管司\")\n21.   [农垦局](https:\u002F\u002Fnkj.moa.gov.cn\u002F \"农垦局\")\n22.   [种业管理司](https:\u002F\u002Fzys.moa.gov.cn\u002F \"种业管理司\")\n23.   [农业机械化管理司](https:\u002F\u002Fnjhs.moa.gov.cn\u002F \"农业机械化管理司\")\n24.   [农田建设管理司](https:\u002F\u002Fntjss.moa.gov.cn\u002F \"农田建设管理司\")\n25.   [机关党委](https:\u002F\u002Fdangwei.moa.gov.cn\u002F \"机关党委\")\n26.   [离退休干部局](https:\u002F\u002Fltxgbj.moa.gov.cn\u002F \"离退休干部局\")\n27.   [长江流域渔政监督管理办公室](https:\u002F\u002Fcjyzbgs.moa.gov.cn\u002F \"长江流域渔政监督管理办公室\")\n\n1.   [农业农村部机关服务中心( 农业农村部机关服务局 )](http:\u002F\u002Fwww.jgfwj.agri.cn\u002F \"农业农村部机关服务中心( 农业农村部机关服务局 )\")\n2.   [中国农业科学院](https:\u002F\u002Fwww.caas.cn\u002F \"中国农业科学院\")\n3.   [中国水产科学研究院](https:\u002F\u002Fwww.cafs.ac.cn\u002F \"中国水产科学研究院\")\n4.   [中国热带农业科学院](https:\u002F\u002Fwww.catas.cn\u002F \"中国热带农业科学院\")\n5.   [全国农业展览馆（中国农业博物馆）](http:\u002F\u002Fwww.ciae.com.cn\u002F \"全国农业展览馆（中国农业博物馆）\")\n6.   [中国农业电影电视中心](http:\u002F\u002Fwww.ntv.cn\u002F \"中国农业电影电视中心\")\n7.   [农民日报社](https:\u002F\u002Fwww.farmer.com.cn\u002F \"农民日报社\")\n8.   [中国农业出版社有限公司（农村读物出版社）](http:\u002F\u002Fwww.ccap.com.cn\u002F \"中国农业出版社有限公司（农村读物出版社）\")\n9.   [中国农村杂志社](https:\u002F\u002Fwww.crnews.net\u002F \"中国农村杂志社\")\n10.   [全国乡村振兴宣传教育中心](https:\u002F\u002Fnpecrr.agri.cn\u002F \"全国乡村振兴宣传教育中心\")\n11.   [中央农业干部教育培训中心（农业农村部管理干部学院、中国共产党农业农村部党校）](http:\u002F\u002Fwww.gbxy.agri.cn\u002F \"中央农业干部教育培训中心（农业农村部管理干部学院、中国共产党农业农村部党校）\")\n12.   [农业农村部人力资源开发中心、中国农学会](https:\u002F\u002Fwww.rlzy.moahr.cn\u002F \"农业农村部人力资源开发中心、中国农学会\")\n13.   [农业农村部农村经济研究中心](http:\u002F\u002Fwww.rcre.agri.cn\u002F \"农业农村部农村经济研究中心\")\n14.   [农业农村部信息中心](https:\u002F\u002Fwww.agri.cn\u002F \"农业农村部信息中心\")\n15.   [农业农村部农产品质量安全中心](http:\u002F\u002Fwww.aqsc.agri.cn\u002F \"农业农村部农产品质量安全中心\")\n16.   [中国绿色食品发展中心](http:\u002F\u002Fwww.greenfood.agri.cn\u002F \"中国绿色食品发展中心\")\n17.   [农业农村部规划设计研究院](http:\u002F\u002Fwww.aape.org.cn\u002F \"农业农村部规划设计研究院\")\n18.   [中国乡村振兴发展中心](https:\u002F\u002Fxczx.agri.cn\u002F \"中国乡村振兴发展中心\")\n19.   [农业农村部大数据发展中心](http:\u002F\u002Fwww.abdc.agri.cn\u002F \"农业农村部大数据发展中心\")\n20.   [农业农村部工程建设服务中心](http:\u002F\u002Fwww.gczx.agri.cn\u002F \"农业农村部工程建设服务中心\")\n21.   [农业农村部财会服务中心、中华农业科教基金会](http:\u002F\u002Fwww.ckzx.agri.cn\u002F \"农业农村部财会服务中心、中华农业科教基金会\")\n22.   [农业农村部对外经济合作中心（中国-欧洲联盟农业技术中心）](http:\u002F\u002Fwww.fecc.agri.cn\u002F \"农业农村部对外经济合作中心（中国-欧洲联盟农业技术中心）\")\n23.   [农业农村部农业贸易促进中心(中国国际贸易促进委员会农业行业分会、中国国际商会农业行业商会)](http:\u002F\u002Fwww.mczx.agri.cn\u002F \"农业农村部农业贸易促进中心(中国国际贸易促进委员会农业行业分会、中国国际商会农业行业商会)\")\n24.   [中国国际减贫中心](https:\u002F\u002Fwww.iprcc.org.cn\u002F \"中国国际减贫中心\")\n25.   [农业农村部国际交流服务中心](http:\u002F\u002Fwww.cicos.agri.cn\u002F \"农业农村部国际交流服务中心\")\n26.   [中央农业广播电视学校(农业农村部农民科技教育培训中心)、中国农民体育协会](https:\u002F\u002Fwww.ngx.net.cn\u002F \"中央农业广播电视学校(农业农村部农民科技教育培训中心)、中国农民体育协会\")\n27.   [农业农村部科技发展中心](https:\u002F\u002Fwww.nybkjfzzx.cn\u002F \"农业农村部科技发展中心\")\n28.   [农业农村部农业生态与资源保护总站](http:\u002F\u002Fwww.reea.agri.cn\u002F \"农业农村部农业生态与资源保护总站\")\n29.   [中国农村技术开发中心](http:\u002F\u002Fwww.crtdc.org.cn\u002Fcms\u002Fweb\u002Findex.html \"中国农村技术开发中心\")\n30.   [全国农业技术推广服务中心](http:\u002F\u002Fwww.natesc.org.cn\u002F \"全国农业技术推广服务中心\")\n31.   [农业农村部农药检定所（国际食品法典农药残留委员会秘书处）](http:\u002F\u002Fwww.chinapesticide.org.cn\u002F \"农业农村部农药检定所（国际食品法典农药残留委员会秘书处）\")\n32.   [农业农村部耕地质量和农田工程监督保护中心](http:\u002F\u002Fwww.gdzl.agri.cn\u002F \"农业农村部耕地质量和农田工程监督保护中心\")\n33.   [农业农村部农业机械化总站](http:\u002F\u002Fwww.amic.agri.cn\u002F \"农业农村部农业机械化总站\")\n34.   [全国畜牧总站](https:\u002F\u002Fwww.nahs.org.cn\u002F \"全国畜牧总站\")\n35.   [中国动物疫病预防控制中心（农业农村部屠宰技术中心）](http:\u002F\u002Fwww.cadc.net.cn\u002F \"中国动物疫病预防控制中心（农业农村部屠宰技术中心）\")\n36.   [中国兽医药品监察所（农业农村部兽药评审中心）](http:\u002F\u002Fwww.ivdc.org.cn\u002F \"中国兽医药品监察所（农业农村部兽药评审中心）\")\n37.   [中国动物卫生与流行病学中心](http:\u002F\u002Fwww.cahec.cn\u002F \"中国动物卫生与流行病学中心\")\n38.   [中国农垦经济发展中心（农业农村部南亚热带作物中心）](http:\u002F\u002Fwww.farmchina.org.cn\u002F \"中国农垦经济发展中心（农业农村部南亚热带作物中心）\")\n39.   [农业农村部农村社会事业发展中心（农业农村部乡镇企业发展中心）](http:\u002F\u002Fwww.shsyzx.agri.cn\u002F \"农业农村部农村社会事业发展中心（农业农村部乡镇企业发展中心）\")\n40.   [农业农村部乡村振兴监测中心](https:\u002F\u002Fwww.moa.gov.cn\u002Fgovpublic\u002Fnybzzj1\u002F202610\u002Ft20261016_6488661.htm \"农业农村部乡村振兴监测中心\")\n41.   [全国水产技术推广总站、中国水产学会](http:\u002F\u002Fwww.nftec.agri.cn\u002F \"全国水产技术推广总站、中国水产学会\")\n42.   [农业农村部渔政保障中心](http:\u002F\u002Fwww.yzbzzx.agri.cn\u002F \"农业农村部渔政保障中心\")\n\n[外交部](https:\u002F\u002Fwww.fmprc.gov.cn\u002Fweb\u002F \"外交部\")[国防部](http:\u002F\u002Fwww.mod.gov.cn\u002F \"国防部\")[国家发展和改革委员会](https:\u002F\u002Fwww.ndrc.gov.cn\u002F \"国家发展和改革委员会\")[教育部](http:\u002F\u002Fwww.moe.gov.cn\u002F \"教育部\")[科学技术部](https:\u002F\u002Fwww.most.gov.cn\u002F \"科学技术部\")[工业和信息化部](https:\u002F\u002Fwww.miit.gov.cn\u002F \"工业和信息化部\")[国家民族事务委员会](https:\u002F\u002Fwww.neac.gov.cn\u002F \"国家民族事务委员会\")[公安部](https:\u002F\u002Fwww.mps.gov.cn\u002F \"公安部\")[国家安全部](https:\u002F\u002Fwww.moa.gov.cn\u002Fgovpublic\u002Fnybzzj1\u002F202610\u002Ft20261016_6488661.htm \"国家安全部\")[民政部](https:\u002F\u002Fwww.mca.gov.cn\u002F \"民政部\")[司法部](http:\u002F\u002Fwww.moj.gov.cn\u002F \"司法部\")[财政部](http:\u002F\u002Fwww.mof.gov.cn\u002F \"财政部\")[人力资源和社会保障部](http:\u002F\u002Fwww.mohrss.gov.cn\u002F \"人力资源和社会保障部\")[自然资源部](https:\u002F\u002Fwww.mnr.gov.cn\u002F \"自然资源部\")[生态环境部](https:\u002F\u002Fwww.mee.gov.cn\u002F \"生态环境部\")[住房和城乡建设部](https:\u002F\u002Fwww.mohurd.gov.cn\u002F \"住房和城乡建设部\")[交通运输部](https:\u002F\u002Fwww.mot.gov.cn\u002F \"交通运输部\")[水利部](http:\u002F\u002Fwww.mwr.gov.cn\u002F \"水利部\")[农业农村部](http:\u002F\u002Fwww.moa.gov.cn\u002F \"农业农村部\")[商务部](http:\u002F\u002Fwww.mofcom.gov.cn\u002F \"商务部\")[文化和旅游部](https:\u002F\u002Fwww.mct.gov.cn\u002F \"文化和旅游部\")[国家卫生健康委员会](http:\u002F\u002Fwww.nhc.gov.cn\u002F \"国家卫生健康委员会\")[退役军人事务部](http:\u002F\u002Fwww.mva.gov.cn\u002F \"退役军人事务部\")[应急管理部](https:\u002F\u002Fwww.mem.gov.cn\u002F \"应急管理部\")[中国人民银行](http:\u002F\u002Fwww.pbc.gov.cn\u002F \"中国人民银行\")[审计署](https:\u002F\u002Fwww.audit.gov.cn\u002F \"审计署\")[国家语言文字工作委员会](http:\u002F\u002Fwww.moe.gov.cn\u002Fjyb_sy\u002FChina_Language\u002F \"国家语言文字工作委员会\")[国家航天局](https:\u002F\u002Fwww.cnsa.gov.cn\u002F \"国家航天局\")[国家原子能机构](https:\u002F\u002Fwww.caea.gov.cn\u002F \"国家原子能机构\")[国家外国专家局](https:\u002F\u002Fwww.moa.gov.cn\u002Fgovpublic\u002Fnybzzj1\u002F202610\u002Ft20261016_6488661.htm 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[网站声明](https:\u002F\u002Fwww.moa.gov.cn\u002Fsy_23468\u002Fhomeinfo\u002Fwzsm\u002F)\n*   |\n*   [网站地图](https:\u002F\u002Fwww.moa.gov.cn\u002Fsy_23468\u002Fhomeinfo\u002Fwzdt\u002F)\n*   |\n*   [联系我们](https:\u002F\u002Fwww.moa.gov.cn\u002Fsy_23468\u002Fhomeinfo\u002Flxwm\u002F)\n*   |\n*   [访问分析](https:\u002F\u002Freport.moa.gov.cn\u002Freport\u002Findex.html)\n\n主办单位：中华人民共和国农业农村部 承办单位：[农业农村部信息中心](https:\u002F\u002Fwww.agri.cn\u002F)\n\n网站识别码bm21000007[京ICP备05039419号-2](https:\u002F\u002Fbeian.miit.gov.cn\u002F)[京公网安备 11010502037559号![Image 11](https:\u002F\u002Fwww.moa.gov.cn\u002Fimages\u002Fbajgwa.png)](https:\u002F\u002Fwww.beian.gov.cn\u002Fportal\u002FregisterSystemInfo?recordcode=11010502037559)\n\n网站保留所有权，未经允许不得复制镜像\n\n[![Image 12](https:\u002F\u002Fwww.moa.gov.cn\u002Fimages\u002Fjiucuo.png)](https:\u002F\u002Fzfwzgl.www.gov.cn\u002Fexposure\u002Fjiucuo.html?site_code=bm21000007&url=https%3A%2F%2Fwww.moa.gov.cn%2F)\n\n[按回车键在新窗口打开无障碍说明页面,按Alt+~键打开导盲模式。](javascript:void(0);)","农业农村部(2026-10-12)","2026-10-12T00:00:00Z",{"impact":27,"substance":81,"depth":214,"authority":30,"freshness":99,"relevant":32,"comment":350},"农业农村部公告审定通过60个转基因玉米、大豆品种，属全国性种业政策节点事件，信息具体、权威性强，值得进入每日精选。",[352],{"name":347,"url":344},[128,354,355,356,357],"玉米","大豆","品种审定","转基因育种",{"code":274,"slug":359,"name":360,"path":361,"parent_code":18},"field-crops","大田作物","\u002Ftopic\u002Ffield-crops",[],{"status":364,"locked":50,"version":51,"method":52,"evidence":365},"partial",{"candidates":366,"agricultural_evidence":24,"reason":382},[367,372,377],{"code":139,"score":368,"supported":24,"title":369,"abstract":370,"tags":371},13,[356],[356],[356,128],{"code":373,"score":123,"supported":24,"title":374,"abstract":375,"tags":376},"A3",[354],[354],[354],{"code":378,"score":123,"supported":24,"title":379,"abstract":380,"tags":381},"A4",[355],[355],[355],"一级领域明确，二级方向需要细分",[384,385],"农业农村部 第1072号 转基因品种","敦玉323D 中联豆2746GZ","农业农村部第1072号转基因品种-5197","2026-10-18T00:05:13.361361Z",{"id":389,"title":390,"url":391,"summary":392,"summary_zh":18,"content":18,"source_name":393,"source_url":18,"published_at":120,"category":394,"cover_url":18,"hotness":23,"is_selected":50,"score":395,"score_detail":396,"sources":398,"tags":400,"primary_topic":404,"secondary_topics":410,"classification":411,"search_phrases":432,"slug":435,"view_count":32,"doi":18,"paper":436,"created_at":445},5227,"China's farm digitization reduces agricultural carbon emissions but the relationship is nonlinear (U-shaped)","https:\u002F\u002Fcommonplace.workforcefutures.net\u002Fpaper\u002Fopenalex:W7221809067","Gao、Feng、Yuan、Sun 在 OpenAlex 2026-10-16 索引的最新研究,基于中国31个省份2010—2023年平衡面板数据,采用双向固定效应面板与SEM中介模型,发现农业数字技术通过精准管理与间接融资\u002F绿色创新两条路径降低碳排放,但呈U型非线性,转折点为数字化指数0.540,劳动生产率提升可推迟转折点,数字化在区域、规模、排放来源维度呈现异质性。","OpenAlex W7221809067(2026-10-16)","论文",84,{"impact":81,"substance":213,"depth":82,"authority":368,"freshness":31,"relevant":32,"comment":397},"基于31省2010—2023年面板数据的全国性实证研究，揭示数字化与农业碳排放的U型关系及0.540转折点，结论新颖且具政策参考价值，值得进入每日精选。",[399],{"name":393,"url":391},[87,164,401,402,403],"农业数字化","农业碳排放","绿色创新",{"code":405,"slug":406,"name":407,"path":408,"parent_code":409},"H4","carbon","农业碳与绿色低碳","\u002Ftopic\u002Fenvironment\u002Fcarbon","H",[],{"status":49,"locked":50,"version":51,"method":52,"evidence":412},{"candidates":413,"agricultural_evidence":24},[414,419,423,428],{"code":405,"score":56,"supported":24,"title":415,"abstract":416,"tags":418},[],[417],"碳排放",[402],{"code":190,"score":308,"supported":50,"title":420,"abstract":421,"tags":422},[],[],[401,164],{"code":424,"score":32,"supported":50,"title":425,"abstract":426,"tags":427},"I",[],[],[401],{"code":104,"score":32,"supported":50,"title":429,"abstract":430,"tags":431},[],[],[87],[433,434],"农业数字化 碳排放 U型","数字技术 农业碳减排","农业数字化碳排放U型-5227",{"doi":18,"openalex_id":18,"authors":437,"venue":18,"cited_by_count":70,"oa_url":18,"card":438,"direction":442,"ingested_from":444},[],{"tldr":439,"method":440,"finding":441,"direction":442,"opportunity":443},"基于中国31省2010—2023年面板数据，发现农业数字化与碳排放呈U型非线性关系。","双向固定效应面板模型与SEM中介模型，31省平衡面板数据。","数字化通过精准管理和绿色创新降碳，但存在0.540的U型转折点。","农业绿色发展与碳","可探究转折点后数字化增碳的机制，及劳动生产率等调节因素如何推迟拐点。","agent","2026-10-18T00:05:30.735414Z",{"id":447,"title":448,"url":449,"summary":450,"summary_zh":18,"content":451,"source_name":452,"source_url":18,"published_at":348,"category":209,"cover_url":18,"hotness":23,"is_selected":50,"score":453,"score_detail":454,"sources":456,"tags":458,"primary_topic":463,"secondary_topics":464,"classification":465,"search_phrases":476,"slug":479,"view_count":70,"doi":18,"paper":18,"created_at":480},5209,"中国农科院哈尔滨兽医所揭示非洲猪瘟病毒与宿主\"攻防\"新机制","https:\u002F\u002Fhvri.caas.cn\u002Fxwzh\u002Fmtbd\u002F8445b415e6c8458a9754862c223d45eb.htm","中国农业科学院哈尔滨兽医研究所揭示内质网自噬如何抑制非洲猪瘟病毒衣壳组装及病毒如何\"反击\"的分子机制,研究发现病毒通过分子模拟劫持细胞自噬系统,拮抗受体抗病毒功能,为开发新型抗病毒制剂提供新靶标,研究成果发表于《Advanced Science》。","近日，中国农业科学院哈尔滨兽医研究所猪烈性传染病创新团队揭示了内质网自噬如何抑制非洲猪瘟病毒衣壳组装，以及病毒如何“反击”的分子机制。相关研究成果发表在《先进科学（Advanced Science）》上。\n\n内质网如同蛋白质的生产“车间”。当受损或多余蛋白质出现时，细胞会启动内质网自噬进行清理，这一过程由关键受体分子负责。该研究通过体内外实验发现，这种关键受体介导的内质网自噬能够降解非洲猪瘟病毒的衣壳蛋白，抑制衣壳组装，从而发挥抗病毒功能。作为逃逸策略，非洲猪瘟病毒则通过“分子模拟”劫持细胞自噬系统，反过来降解该受体，从而拮抗其抗病毒功能。该研究为拓展非洲猪瘟病毒与宿主相互博弈的认知及开发新型抗病毒制剂提供了新靶标。\n\n该研究得到国家自然科学基金、黑龙江省自然科学基金和中国农业科学院青年创新专项等项目支持。（通讯员 邓彦莉）","中国农业科学院哈尔滨兽医所(2026-10-12)",83,{"impact":81,"substance":81,"depth":82,"authority":30,"freshness":99,"relevant":32,"comment":455},"国家级科研机构在非洲猪瘟基础研究上取得新机制发现，专业增量明确，对生猪疫病防控有潜在价值，值得进入每日精选。",[457],{"name":452,"url":449},[459,460,222,461,462],"动物疫病防控","非洲猪瘟","病毒学","抗病毒制剂",{"code":42,"slug":43,"name":44,"path":45,"parent_code":46},[],{"status":49,"locked":50,"version":51,"method":52,"evidence":466},{"candidates":467,"agricultural_evidence":24},[468,472],{"code":42,"score":368,"supported":24,"title":469,"abstract":470,"tags":471},[460],[460],[459,460],{"code":242,"score":32,"supported":50,"title":473,"abstract":474,"tags":475},[],[],[222],[477,478],"哈尔滨兽医所 非洲猪瘟 衣壳组装","非洲猪瘟 内质网自噬 分子机制","哈尔滨兽医所非洲猪瘟衣壳组装-5209","2026-10-18T00:05:22.874379Z",{"id":482,"title":483,"url":484,"summary":485,"summary_zh":18,"content":486,"source_name":487,"source_url":18,"published_at":488,"category":22,"cover_url":18,"hotness":23,"is_selected":50,"score":489,"score_detail":490,"sources":493,"tags":495,"primary_topic":501,"secondary_topics":502,"classification":503,"search_phrases":530,"slug":533,"view_count":70,"doi":18,"paper":18,"created_at":534},5205,"全国秋粮收获过七成 冬小麦冬油菜播种有序推进","https:\u002F\u002Fwww.farmer.com.cn\u002F2026\u002F10\u002F17\u002F991031064.html","农业农村部最新农情调度显示,截至10月17日全国秋粮收获过七成,东北过六成、黄淮海与西南过八成、西北近八成、长江中下游过六成、华南过三成;冬小麦播种过一成,冬油菜播种过三成,秋收秋种进展顺利。","新华社北京10月17日电 记者10月17日从农业农村部获悉，据最新农情调度，全国秋粮收获过七成。分地区看，东北收获过六成，黄淮海、西南过八成，西北近八成，长江中下游过六成，华南过三成。冬小麦播种过一成，冬油菜播种过三成。","中国农网\u002F新华社(2026-10-17)","2026-10-17T00:00:00Z",82,{"impact":212,"substance":491,"depth":123,"authority":30,"freshness":216,"relevant":32,"comment":492},20,"农业农村部最新农情调度数据，全国秋粮与秋冬种进度权威发布，时效性强但属常规进度通报。",[494],{"name":487,"url":484},[496,497,498,499,500],"秋冬种","秋粮收获","冬小麦播种","农情调度","冬油菜播种",{"code":274,"slug":359,"name":360,"path":361,"parent_code":18},[],{"status":364,"locked":50,"version":51,"method":52,"evidence":504},{"candidates":505,"agricultural_evidence":24,"reason":382},[506,513,518,525],{"code":507,"score":508,"supported":24,"title":509,"abstract":511,"tags":512},"A2",11,[510],"小麦",[510],[],{"code":378,"score":508,"supported":24,"title":514,"abstract":516,"tags":517},[515],"油菜",[515],[],{"code":519,"score":520,"supported":24,"title":521,"abstract":522,"tags":524},"J4",5,[],[523],"秋收",[496,497],{"code":526,"score":32,"supported":50,"title":527,"abstract":528,"tags":529},"I3",[],[],[499],[531,532],"农业农村部 农情调度 秋粮收获","冬小麦 冬油菜 播种进度","农业农村部农情调度秋粮收获-5205","2026-10-18T00:05:13.825756Z",{"id":536,"title":537,"url":538,"summary":539,"summary_zh":540,"content":18,"source_name":541,"source_url":538,"published_at":21,"category":394,"cover_url":18,"hotness":23,"is_selected":50,"score":489,"score_detail":542,"sources":545,"tags":547,"primary_topic":551,"secondary_topics":552,"classification":558,"search_phrases":599,"slug":602,"view_count":70,"doi":603,"paper":604,"created_at":617},5158,"POTATO LATE BLIGHT CAUSED BY PHYTOPHTHORA INFESTANS: BIOLOGY,EPIDEMIOLOGY, CLIMATE CHANGE, AND SUSTAINABLE MANAGEMENT STRATEGIES","https:\u002F\u002Fdoi.org\u002F10.56093\u002Fpotatoj.v53i1.181670","Potato late blight, caused by Phytophthora infestans, remains one of the mostdestructive diseases affecting global potato production, resulting in substantial yield and economiclosses. This review summarizes the pathogen’s biology, disease cycle, epidemiology, host–pathogeninteractions, and current diagnostic approaches, along with major management strategies, includingcultural practices, host resistance, biological control, botanical extracts, chemical control, diseaseforecasting, and integrated disease management. It also highlights the impacts of climate changeon disease distribution and severity, as well as recent advances in molecular breeding, genomeediting, and precision agriculture. Overall, sustainable management of potato late blight requiresintegrating resistant cultivars, environmentally friendly control measures, disease forecasting, andjudicious fungicide use. Continued research on durable resistance, climate-smart management, andemerging biotechnological tools will be essential to enhance potato resilience and ensure futurefood security.","由致病疫霉（Phytophthora infestans）引起的马铃薯晚疫病仍是影响全球马铃薯生产的最具破坏性的病害之一，造成严重的产量和经济损失。本文综述了该病原菌的生物学特性、病害循环、流行病学、寄主—病原互作及当前诊断方法，并总结了主要防控策略，包括栽培措施、寄主抗性、生物防治、植物提取物、化学防治、病害预测及病害综合管理。文章还重点讨论了气候变化对病害分布和严重度的影响，以及分子育种、基因组编辑和精准农业方面的最新进展。总体而言，马铃薯晚疫病的可持续治理需要整合抗病品种、环境友好型防控措施、病害预测和合理使用杀菌剂。持续开展持久抗性、气候智慧型管理及新兴生物技术工具的研究，对于增强马铃薯抗逆性和保障未来粮食安全至关重要。","Potato Journal",{"impact":81,"substance":543,"depth":82,"authority":368,"freshness":31,"relevant":32,"comment":544},21,"核心期刊综述，系统梳理晚疫病生物学、气候变化影响与可持续防控，对马铃薯病害防控与智慧植保具参考价值，但属综述类论文，非突破性成果。",[546],{"name":541,"url":538},[264,267,548,549,550],"分子育种","气候变化","晚疫病",{"code":270,"slug":271,"name":272,"path":273,"parent_code":274},[553],{"code":554,"slug":555,"name":556,"path":557,"parent_code":409},"H7","climate","气候适应与防灾减灾","\u002Ftopic\u002Fenvironment\u002Fclimate",{"status":49,"locked":50,"version":51,"method":52,"evidence":559},{"candidates":560,"agricultural_evidence":24},[561,566,571,578,584,589,595],{"code":270,"score":30,"supported":24,"title":562,"abstract":564,"tags":565},[563],"potato",[264,563],[264],{"code":554,"score":123,"supported":24,"title":567,"abstract":569,"tags":570},[568],"climate change",[549],[549],{"code":572,"score":573,"supported":24,"title":574,"abstract":575,"tags":577},"F2",7,[],[548,576],"molecular breeding",[548],{"code":190,"score":99,"supported":24,"title":579,"abstract":580,"tags":583},[],[581,582],"精准农业","precision agriculture",[],{"code":277,"score":56,"supported":24,"title":585,"abstract":586,"tags":588},[],[587],"生物防治",[267],{"code":590,"score":140,"supported":24,"title":591,"abstract":592,"tags":594},"A8",[],[593],"粮食安全",[],{"code":300,"score":32,"supported":50,"title":596,"abstract":597,"tags":598},[],[],[267],[600,601],"马铃薯 晚疫病 致病疫霉","Potato Journal 晚疫病","马铃薯晚疫病致病疫霉-5158","10.56093\u002Fpotatoj.v53i1.181670",{"doi":603,"openalex_id":605,"authors":606,"venue":541,"cited_by_count":70,"oa_url":538,"card":609,"direction":615,"ingested_from":616},"W7222725701",[607],{"name":608,"orcid":18},"Sujata Bashyal",{"tldr":610,"method":611,"finding":612,"direction":613,"opportunity":614},"综述马铃薯晚疫病的生物学、流行学、气候变化影响及可持续防控策略。","文献综述，整合病原生物学、诊断、抗性育种、生物防治与精准农业技术。","可持续防控需整合抗病品种、绿色措施、病害预测与合理用药。","农业人工智能与决策模型","可结合气象与遥感数据构建气候智慧型晚疫病预测模型，支撑精准施药决策。","智慧农业 \u002F 农业物联网","openalex","2026-10-17T23:30:12.547775Z",{"id":619,"title":620,"url":621,"summary":622,"summary_zh":623,"content":18,"source_name":624,"source_url":621,"published_at":120,"category":394,"cover_url":18,"hotness":23,"is_selected":50,"score":489,"score_detail":625,"sources":627,"tags":629,"primary_topic":634,"secondary_topics":635,"classification":641,"search_phrases":679,"slug":682,"view_count":70,"doi":683,"paper":684,"created_at":710},5149,"New insights into root 2-naphtholic acid exudation, microbiome recruitment, and designing of drought-smart future crops","https:\u002F\u002Fdoi.org\u002F10.3389\u002Ffpls.2026.1938013","the wider landscape of rhizosphere ecology, chemical signaling, and stress-adaptive sustainable agricultural solutions.In this paper, we provide opinions relevant to the topic and new dimension of research. First, microbial diversity should be treated as an upstream constraint on host chemical signaling rather than as a correlate of plant performance. Second, 2-NA is the best read as a proof of principle for multifunctional exudates, not as a candidate agricultural input. Third, the distance between the mechanism and field deployment is considerably greater than current enthusiasm for microbiome engineering suggests.The novel insights from Chen et al. (2026) demonstrate that drought stressed plants grown with highestdiversity community (D1) accumulated 2-NA at approximately 16.5 μg•mL⁻¹, while intermediate diversity (D2) yielded around 0.27 μg•mL⁻¹, and the lowest diversity soil (D3) yielded none. Because 2-NA was undetectable in well-watered treatment, drought appears to act as the trigger and diversity as the gain control. Integrated transcriptomic and metabolomic profiling linked 2-NA accumulation to phenylpropanoid-related metabolism consistent with broader evidence that community context reshapes plant secondary metabolism under abiotic stress (Li et al.,2025;Kazarina et al., 2025;Yang et al., 2025).Our reading inverts the conventional framing. The \"cry-for-help\" narrative casts the plant as the agent and microbiome as the respondent, suggest the resident community sets the boundaries of what plant can do. Especially, low-diversity rhizospheres showed far broader transcriptional reprogramming than high diversity ones. We interpret this as a metabolic economy, where a diversity community supplies functional insurance, the host can invest narrowly and precisely; where it does not, the plant is pushed towards costly, diffuse and less targeted responses (Yang et al., 2021;Domeignoz-Horta et al., 2024).On this view, diversity is chemical signaling capital.This carries an uncomfortable agronomic implication. Intensive tillage, monoculture and heavy agrochemical loading erode rhizosphere diversity (Xiang et al., 2025). If precise, drought adaptive signaling depends on a diverse resident community, then diversity erosion may progressively disable the very recruitment mechanism that microbiome-based agriculture hopes to exploit. An important caveat should temper this interpretation. Dilution-to-extinction alters richness but does not hold composition constant, because rare taxa and their functional genes are lost together. \"Diversity\" is therefore an operational rather than a clean variable here, and the design cannot separate the effect of species richness itself from the loss of specific keystone lineages. Resolving this will require synthetic communities of matched composition but varied richness, assembled across contrasting soils. In this study, author elegantly used effective dilutions (10 -1 , 10 -4, 10 -7 ), which allow the quantitative separation of diversity function correlation without confusing community composition effects (CCE)Figure 1) (Chen et al. 2026). In response to drought stress, high-density rhizosphere community (D1), triggers the accumulation of 2-naphtholic acid (2-NA) at 16.54 μg•mL⁻¹, while moderate diversity (D2)and low diversity (D3) soils yielded significantly reduced (0.27 g.mL⁻¹) and undetectable concentration, respectively. However, the 2-NA was totally absent in all well water saturated condition regardless the diversity level, indicating that drought is the triggering signal and indicator of microbial diversity as it confirmed by quantitative amplifier of the specific chemical response (Chen et al. 2026).This overall scenario represents a \"cry-for-help\" model, refers to an adaptive defense mechanism where drought stressed-soybean plant induces root exudates to recruit beneficial microbes (Tharp et al.2026).Li et al. ( 2025) have revealed that drought induces microbiome and metabolic enrichment that help to enhance drought resistance in soybean (Li et al. 2025). In this current study, the microbial variations play crucial role in regulation of root exudates.However, the mechanistic insights into diversity dependence misinterprets in phenylpropanoid biosynthesis. Combined analysis of transcriptome and metabolomic revealed that the pathways related to phenylpropanoid metabolism were particularly high-diversity of microbes, drought-stressed rhizosphere, connecting 2-NA accumulation to this recognized secondary metabolite production route (Chen et al. 2026). This study outputs connect the broader evidence that microbiome variation reshapes secondary metabolism in response to abiotic stress, supporting the production of benzenoids and several lipid-derivative compounds that facilitate to recruit beneficial microbes (Li et al. 2025;Yang et al.2025;Kazarina et al.2025).A conceptual opinion is that microbial diversity acts as an upstream ecological fitter that restricts the breadth of host drought-response rewiring. Low density of rhizosphere showed wider range of transcriptional reprogramming where 3530 genes expressed differentially in D7, while 550 genes expressed in D1. These findings suggest that high diversity communities (HDCs) regulate plant stress responses by providing functional support to plants at molecular level known as molecular self-help (Chen et al. 2026). This connects with the insurance strategy of biodiversity; wherein diverse communities provide redundant functional power that alleviates ecosystem processes in unrest condition (Yang et al.2021;Domeignoz-Horta et al.2024). However, in case of holobiont wherein the microbial diversity modulates the plants stress investment strategy that exchange metabolic breadth for chemical care. These findings explore a cautionary aspect of agricultural intensification. Moreover, Lack of proper strategies on tillage, monoculture and uncontrolled use of agrochemicals significantly damage rhizosphere microbial diversity (Xiang et al. 2025). If microbial diversity (MD) is a requirement for precision chemical signaling that facilitates effective drought-adaptive microbiome recruitment. In contrast, diversity erosion (DE) may steadily impair the plants' ability to organized rhizosphere assembly (RA) under environmental stress, indicating vulnerability that warrants prompt attention for designing climate-smart future crops.Exudate-mediated recruitment is not itself novel: malic acid attacts Bacillus subtilis, strigolactones recruit arbuscular mycorrhizal fungi, flavonoids initiate rhizobial nodulation through NodD (Ruan et al. 2026;Qiao et al. 2024). What distinguishes 2-NA is that a single benzoid appears to three roles at a once (Chen et al. 2026;Niu et al., 2025). It acts as chemoattractant sensed by three methyl-accepting chemotaxis protein (ΔmcpU, ΔmcpY, ΔmcpZ), with a deletion mutant showing substantially reduced chemotaxis and root colonization. It serves as a nutritional reward taken up through an ATP-binding cassette (ABC) transporter system encoded upgBAEI, it functions as a regulatory ligand that binds Ncycling protein NirK, NapA, and FixI, confirmed by molecular docking and microscale thermophoresis, with napA expression strongly induced in co-culture. Comparable metabolite-driven shaping of rhizosphere bacteria has been reported during drought and rehydration in other systems (Lei et al., 2025;Zhao et al.,2025).2-NA identified as diversity-induced root exudate that accumulates in response to drought stress and help to microbiome assembly (Chen et al. 2026). Root exudate-mediated Ku recruitment has previously emphasized on how malic acid attracts Bacillus subtilis, strigolactons recruit arbuscular mycorrizal fungi, and flavonoids initiate rhizobial nodulation (Ruan et al. 2026;Qiao et al. 2024). The emerging role of a specific benzenoid acts as drought-responsive chemoattractant exhibits this functional level that reveals that metabolite variability in root exudates drought-specific information (Niu et al. 2025).Chen et al. ( 2026) explore three different functions of 2-NA that combinedly generate a cascading plant-microbe interaction. First, 2-NA acts as a chemoattractant. Chen et al. (2026) found that Sinorhizobium CS204 induces 87% higher chemotaxis regarding 2-NA compared to control, where the colonization efficiency increased by 361.86% after 2-NA application (Chen et al. 2026). The deletion mutants (ΔmcpU, ΔmcpY, ΔmcpZ) produced three MCPs are the primary sensors mediating this chemotactic response (Figure 1), with binding free energies of -5.9 to -7.0 kcal.mol -1 (Chen et al.). However, loss of function mutants exhibited 54-61% decline in chemotaxis and 17-69% reduction in root colonization, ensuring the genetic proof of the MCP-2-NA sensory axis (Chen et al. strains, so the specificity of 2-NA for beneficial taxa as opposed to the many soil bacteria that metabolize aromatic compound remains open. Until these gaps are closed, 2-Na is a compelling mechanistic exemplar rather than an established lever.The functional payoff reported by Chen et al. ( 2026) is nutritional. Under drought, restricted mass flow limits N delivery, impairing protein synthesis, photosynthesis and reactive-oxygen scavengers (de Vries et al., 2020). Co-application of 2-NA with Sinorhizobium CS204, increased plant biomass roughly 38%, improved photosynthesis and stomatal performance, altered expression of antioxidant and drought-responsive genes and raised tissue concentration of several mineral nutrients (Figure 1). This is consistent with growing evidence that rhizobia influence soil N cycling well beyond classical nodule symbiosis, and with field demonstration that improved rhizobial inoculants can raise nodulation, N-fixation and legume yield (Ling et al.,2022;Shah et al., 2024).One consequence deserves more scrutiny than it has received. The treatment reportedly upregulates denitrification (NirK, NapA, NorB, NosZ) alongside N-fixation. Denitrification is not a uniformly benign process: incomplete denitrification is a major source of nitrous-oxide, a greenhouse gas with high radiative forcing, and drying-rewetting cycles are known hotspots for such emissions. A drought mitigation strategy stimulates denitrification could therefore trade water-stress resilience against climate burden. No N2O flax data accompany the current work, and in our view no scald application should be contemplated until the NosZ-to-NirK balance and the resulting N2O:N2 product ratio are measured directly in soil.The gap between these results and agricultural practice is substantial, and we think it should be started plainly rather than bridged rhetorically. Persistence is the first obstacle: naphthalene-derived acids are readily biodegraded from common soil bacteria and sorb strongly to organic matter and clays, so the effective rhizosphere concentration of an applied dose is unlikely to resemble that achieved in controlled systems. Soil type, pH, temperature and moisture regime will all modulate this, and more has been varied systematically.Second, ecological selectivity is unproven at community scale. Applying an aromatic acid to soil may preferentially favor aromatic-degrading taxa, some of which are opportunists, and could shift community structure in ways that are unhelpful or difficult to reverse. Third, the biosafety and regulatory position of applying a naphthalene derivative to agricultural soil is not trivial and has not been addressed. Fourth, the economics of synthesizing and delivering a defined metabolite at field scale, alongside a live inoculant with its own formulation and shelf-life constrains, remain unexplored.These considerations argue for two parallel and non-exclusive strategies. The more immediately actionable is restoration of soil microbial diversity through reduced tillages, cover cropping, diversified rotation and organic amendment, supporting the endogenous capacity for 2-NA-mediated recruitment.The more speculative is targeted co-application of a metabolite with a compatible keystone strain as a biostimulant, which should be treated as research program rather than a near-term product. Progress of both will depend on standardized multi-omics frameworks capable of linking microbial community composition to function across sites and seasons, an area where methodological harmonization remains a recognized bottleneck (Kumar et al., 2023).Chen et al. ( 2026) provide the latest mechanistic framework to date of how resident microbial diversity conditions a plant's chemical recruitments of beneficial partners under drought. We found it as evidence that diversity is a functional prerequisite for practice host signaling, and that individual exudates can be multifunctional in ways that classical signal-versus-substrate distinctions do not capture.. The priorities we would set are correspondingly modest and testable, identification and genetic validation of the 2-NA biosynthesis pathway; measurement of exudation kinetics under realistic, fluctuating drought rather than imposed step changes; determination of the fate, half-life and sorption behavior of 2-NA across contrasting soils; assessment of community-level and N2O consequences; and examination of whether diversity-conditioned signaling operates in cereals and other legumes (Gahlot, 2026). Multi-side field evaluation should follow, not precede, these steps. Framed this way, the contribution of this work is conceptual rather than immediately applied. It does not yet deliver droughtsmart agriculture but clarifies what such a strategy would need to be built upon and it suggest that protecting the diversity already present in agricultural soils may be a more reliable investment than engineering it. However, this study further opens new dimension of research on diversity-dependent chemical ecology of drought adaptation in soybean that incorporated plant metabolomics, bacterial sensor biology and N biogeochemistry, which merely resolves a long-standing gap in our understanding of diversity function relationship in the rhizosphere but also microbiome-assisted climate-smart crop improvement.","根际生态学、化学信号传导以及胁迫适应性可持续农业解决方案的更广阔图景。本文就相关主题和研究的新维度提出观点。第一，微生物多样性应被视为宿主化学信号传导的上游约束条件，而非植物表现的相关变量。第二，2-NA最好被理解为多功能根系分泌物的原理验证，而非候选农业投入品。第三，机制与田间部署之间的距离远大于当前对微生物组工程的热情所暗示的程度。Chen等（2026）的新颖见解表明，在干旱胁迫下与最高多样性群落（D1）共生的植物积累了约16.5 μg•mL⁻¹的2-NA，而中等多样性（D2）约为0.27 μg•mL⁻¹，最低多样性土壤（D3）则未检出。由于在充分浇水处理中2-NA不可检测，干旱似乎是触发因素，而多样性则充当增益控制。整合转录组学和代谢组学分析将2-NA积累与苯丙烷类相关代谢联系起来，这与更广泛的证据一致，即群落背景在非生物胁迫下重塑植物次生代谢（Li et al., 2025; Kazarina et al., 2025; Yang et al., 2025）。我们的解读颠覆了传统框架。“求救”叙事将植物视为施动者、微生物组视为响应者，而我们则认为 resident community（驻留群落）设定了植物所能做出反应的范围。特别是，低多样性根际表现出远比高多样性根际更广泛的转录重编程。我们将其解释为一种代谢经济：当多样性群落提供功能保险时，宿主可以进行狭窄而精准的投入；当缺乏这种保险时，植物则被迫采取昂贵、弥散且靶向性较弱的响应（Yang et al., 2021; Domeignoz-Horta et al., 2024）。据此观点，多样性是化学信号资本。这带来了一个令人不安的农艺学含义。集约耕作、单作和大量农用化学品投入侵蚀根际多样性（Xiang et al., 2025）。如果精准的干旱适应性信号传导依赖于多样化的驻留群落，那么多样性侵蚀可能逐步削弱基于微生物组的农业所希望利用的正是这一招募机制。一个重要警告应缓和这一解读。稀释至灭绝改变了丰富度，但并未保持组成恒定，","Frontiers in Plant Science",{"impact":82,"substance":81,"depth":29,"authority":215,"freshness":216,"relevant":32,"comment":626},"该文以观点文章形式系统梳理了根际微生物多样性调控大豆干旱信号2-NA的机制与田间应用差距，学术增量明确，但属机理性讨论而非产业级突破。",[628],{"name":624,"url":621},[355,630,631,632,633],"根际微生物","干旱适应","根系分泌物","微生物组工程",{"code":554,"slug":555,"name":556,"path":557,"parent_code":409},[636],{"code":637,"slug":638,"name":639,"path":640,"parent_code":409},"H2","soil","土壤健康与改良","\u002Ftopic\u002Fenvironment\u002Fsoil",{"status":49,"locked":50,"version":51,"method":52,"evidence":642},{"candidates":643,"agricultural_evidence":24},[644,650,657,664,669,674],{"code":554,"score":215,"supported":24,"title":645,"abstract":647,"tags":649},[646],"drought",[648,646],"干旱",[],{"code":637,"score":23,"supported":24,"title":651,"abstract":652,"tags":656},[],[653,654,638,655],"土壤","根际","rhizosphere",[630],{"code":658,"score":99,"supported":24,"title":659,"abstract":660,"tags":663},"H6",[],[661,662],"生物多样性","biodiversity",[],{"code":378,"score":56,"supported":24,"title":665,"abstract":666,"tags":668},[],[667],"soybean",[355],{"code":294,"score":140,"supported":24,"title":670,"abstract":671,"tags":673},[],[672],"greenhouse",[],{"code":300,"score":140,"supported":24,"title":675,"abstract":676,"tags":678},[],[677],"可持续农业",[],[680,681],"2-萘甲酸 根际微生物","Sinorhizobium CS204 大豆","2-萘甲酸根际微生物-5149","10.3389\u002Ffpls.2026.1938013",{"doi":683,"openalex_id":685,"authors":686,"venue":624,"cited_by_count":70,"oa_url":704,"card":705,"direction":615,"ingested_from":616},"W7222595413",[687,690,693,696,699,701],{"name":688,"orcid":689},"Md Atikur Rahman","https:\u002F\u002Forcid.org\u002F0000-0001-6779-9599",{"name":691,"orcid":692},"S. M. Shahinul Islam","https:\u002F\u002Forcid.org\u002F0000-0001-8122-2243",{"name":694,"orcid":695},"Nadiyah M. Alabdallah","https:\u002F\u002Forcid.org\u002F0000-0002-1970-8792",{"name":697,"orcid":698},"Salman Latif","https:\u002F\u002Forcid.org\u002F0000-0001-6460-4784",{"name":700,"orcid":18},"Mahmudul Hoque",{"name":702,"orcid":703},"Md Mahadi Hasan","https:\u002F\u002Forcid.org\u002F0000-0001-9168-7677","https:\u002F\u002Fwww.frontiersin.org\u002Fjournals\u002Fplant-science\u002Farticles\u002F10.3389\u002Ffpls.2026.1938013\u002Fpdf",{"tldr":706,"method":707,"finding":708,"direction":613,"opportunity":709},"重新解读根际2-萘甲酸分泌与微生物组招募，提出多样性是化学信号资本的观点。","整合转录组与代谢组分析，结合稀释-灭绝法构建不同多样性根际群落。","干旱触发2-NA积累，高多样性群落使分泌更精准，低多样性导致广泛而低效的转录重编程。","可研究根际多样性丧失如何逐步削弱作物干旱信号招募机制，并量化其对田间微生物组工程效果的影响。","2026-10-17T23:30:08.620964Z",{"id":712,"title":713,"url":714,"summary":715,"summary_zh":716,"content":18,"source_name":717,"source_url":714,"published_at":120,"category":394,"cover_url":18,"hotness":23,"is_selected":50,"score":718,"score_detail":719,"sources":721,"tags":723,"primary_topic":729,"secondary_topics":730,"classification":731,"search_phrases":759,"slug":762,"view_count":70,"doi":763,"paper":764,"created_at":782},5143,"Crop diversification as a climate-smart agriculture strategy and household welfare in Nigeria: evidence from living standard measurement survey","https:\u002F\u002Fdoi.org\u002F10.3389\u002Ffsufs.2026.1957540","Crop diversification is a climate-smart agriculture (CSA) practice with well-documented yield and agroecological benefits, but rigorous, nationally representative evidence on its welfare impacts in Nigeria remains scarce. This study examined the determinants and welfare effects of crop diversification adoption among 3,229 farm households, using the fourth wave of Nigeria’s Living Standard Measurement Study – Integrated Surveys on Agriculture (LSMS-ISA). A probit model identified the determinants of adoption, and an endogenous switching regression (ESR) model, which corrects for selection bias arising from observed and unobserved heterogeneity, estimated the causal impact of adoption on household per capita consumption expenditure and dietary diversity. About 1,846 households (57%) adopted crop diversification. Household size, farm size, age of household head, distance to road, fertilizer use, and temperature exposure significantly increased the probability of adoption, while education, distance to market, access to finance, and rainfall shock significantly reduced it. Adoption increased per capita consumption expenditure by an average treatment effect of 0.72 log points and household dietary diversity scores by 2.03 points among adopters, effects that are large relative to national poverty and dietary diversity benchmarks. These results indicate that limited market access, credit products tied to specialized cropping, and climate shocks jointly suppress adoption. Government agricultural and nutrition agencies should jointly fund a targeted program that redesigns credit products to support diversified cropping, pairs rural road investment with market access, and bundles diversification advice with climate information and weather-index insurance in drought-prone areas.","作物多样化是一种气候智能型农业（climate-smart agriculture, CSA）实践，其产量和农业生态效益已有充分文献记载，但关于其在尼日利亚福利影响的严格、具有全国代表性的证据仍然匮乏。本研究利用尼日利亚第四轮生活标准测量研究——农业综合调查（LSMS-ISA），考察了3 229户农户采用作物多样化的决定因素及其福利效应。采用Probit模型识别采用行为的决定因素，并运用内生转换回归（endogenous switching regression, ESR）模型——该模型校正了由可观测和不可观测异质性引起的选择偏误——估计采用行为对家庭人均消费支出和膳食多样性的因果影响。约1 846户（57%）采用了作物多样化。家庭规模、农场规模、户主年龄、距道路距离、化肥使用和温度暴露显著提高了采用概率，而教育、距市场距离、融资可得性和降雨冲击显著降低了采用概率。采用作物多样化使采用者的人均消费支出平均处理效应提高0.72个对数点，家庭膳食多样性得分提高2.03分，相对于国家贫困和膳食多样性基准而言，这些效应较大。上述结果表明，市场准入受限、与专业化种植挂钩的信贷产品以及气候冲击共同抑制了采用行为。政府农业和营养机构应联合资助一项有针对性的计划，重新设计信贷产品以支持多样化种植，将农村道路投资与市场准入相结合，并在干旱易发地区将多样化建议与气候信息和天气指数保险捆绑推广。","Frontiers in Sustainable Food Systems",81,{"impact":82,"substance":81,"depth":82,"authority":215,"freshness":216,"relevant":32,"comment":720},"基于全国代表性农户调查的因果识别研究，方法扎实、结论对气候智慧农业与农村信贷政策有参考价值，但属他国经验，影响层级限于细分领域。",[722],{"name":717,"url":714},[724,725,726,727,728],"气候智慧农业","尼日利亚","农业信贷","农户福利","作物多样化",{"code":554,"slug":555,"name":556,"path":557,"parent_code":409},[],{"status":49,"locked":50,"version":51,"method":52,"evidence":732},{"candidates":733,"agricultural_evidence":24},[734,739,743,749,754],{"code":190,"score":508,"supported":24,"title":735,"abstract":737,"tags":738},[736],"smart agriculture",[736],[],{"code":554,"score":573,"supported":24,"title":740,"abstract":741,"tags":742},[],[648,646],[724],{"code":744,"score":140,"supported":24,"title":745,"abstract":746,"tags":748},"F3",[],[747],"fertilizer",[],{"code":658,"score":140,"supported":24,"title":750,"abstract":751,"tags":753},[],[752],"农业生态",[],{"code":755,"score":32,"supported":50,"title":756,"abstract":757,"tags":758},"G3",[],[],[726],[760,761],"尼日利亚 作物多样化 农户福利","LSMS-ISA 气候智慧农业","尼日利亚作物多样化农户福利-5143","10.3389\u002Ffsufs.2026.1957540",{"doi":763,"openalex_id":765,"authors":766,"venue":717,"cited_by_count":70,"oa_url":775,"card":776,"direction":615,"ingested_from":616},"W7222656886",[767,770,773],{"name":768,"orcid":769},"Robert Ugochukwu Onyeneke","https:\u002F\u002Forcid.org\u002F0000-0002-9242-901X",{"name":771,"orcid":772},"Chukwuemeka Chinonso Emenekwe","https:\u002F\u002Forcid.org\u002F0000-0001-7099-5056",{"name":774,"orcid":18},"Chinedum Uzoma Nwajiuba","https:\u002F\u002Fwww.frontiersin.org\u002Fjournals\u002Fsustainable-food-systems\u002Farticles\u002F10.3389\u002Ffsufs.2026.1957540\u002Fpdf",{"tldr":777,"method":778,"finding":779,"direction":780,"opportunity":781},"用尼日利亚全国农户调查数据评估作物多样化对家庭福利的因果影响。","基于LSMS-ISA 3229户数据，用Probit与内生转换回归模型。","采用率57%，多样化使人均消费支出提高0.72对数点、膳食多样性提高2.03分。","数字乡村与农业信息化","可结合气候信息与气象指数保险服务，研究数字农技推广如何促进多样化采纳与福利提升。","2026-10-17T23:30:06.860811Z",{"id":784,"title":785,"url":786,"summary":787,"summary_zh":18,"content":18,"source_name":788,"source_url":786,"published_at":120,"category":394,"cover_url":18,"hotness":23,"is_selected":50,"score":718,"score_detail":789,"sources":791,"tags":793,"primary_topic":18,"secondary_topics":799,"classification":800,"search_phrases":808,"slug":811,"view_count":70,"doi":812,"paper":813,"created_at":842},5138,"Housing-level demonstration of the mitigating effects of tannin-rich diets fed to dairy cows on ammonia and methane emissions in naturally ventilated conditions","https:\u002F\u002Fdoi.org\u002F10.1016\u002Fj.biosystemseng.2026.104616","Housing-level demonstration of the mitigating effects of tannin-rich diets fed to dairy cows on ammonia and methane emissions in naturally ventilated conditions。Biosystems Engineering","Biosystems Engineering",{"impact":82,"substance":81,"depth":82,"authority":215,"freshness":216,"relevant":32,"comment":790},"核心期刊论文，在牛舍尺度验证单宁日粮对氨与甲烷减排的效果，对畜牧环境信息化与绿色养殖有参考价值，但属细分领域研究，未达重大突破层级。",[792],{"name":788,"url":786},[794,795,796,797,798],"甲烷减排","奶牛养殖","氨排放","畜牧减排","单宁饲料",[],{"status":94,"locked":50,"version":51,"method":52,"evidence":801},{"candidates":802,"agricultural_evidence":50,"reason":108},[803],{"code":804,"score":32,"supported":50,"title":805,"abstract":806,"tags":807},"C2",[],[],[795],[809,810],"奶牛 单宁饲料 甲烷排放","Biosystems Engineering 奶牛 氨排放","奶牛单宁饲料甲烷排放-5138","10.1016\u002Fj.biosystemseng.2026.104616",{"doi":812,"openalex_id":814,"authors":815,"venue":788,"cited_by_count":70,"oa_url":786,"card":18,"direction":18,"ingested_from":616},"W7222630876",[816,819,822,825,828,830,833,836,839],{"name":817,"orcid":818},"Giovanni Lazzari","https:\u002F\u002Forcid.org\u002F0000-0002-7820-7680",{"name":820,"orcid":821},"Michael Zähner","https:\u002F\u002Forcid.org\u002F0000-0002-2750-1433",{"name":823,"orcid":824},"Christian Ammon","https:\u002F\u002Forcid.org\u002F0000-0001-6852-4992",{"name":826,"orcid":827},"A. Münger","https:\u002F\u002Forcid.org\u002F0000-0003-0360-366X",{"name":829,"orcid":18},"David Steger",{"name":831,"orcid":832},"Joachim Mohn","https:\u002F\u002Forcid.org\u002F0000-0002-9799-1001",{"name":834,"orcid":835},"Michael Kreuzer","https:\u002F\u002Forcid.org\u002F0000-0002-9978-1171",{"name":837,"orcid":838},"Frigga Dohme‐Meier","https:\u002F\u002Forcid.org\u002F0000-0002-1693-2246",{"name":840,"orcid":841},"Sabine Schrade","https:\u002F\u002Forcid.org\u002F0000-0002-1846-3498","2026-10-17T23:30:05.389670Z"]