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nseFeeText":11,"patentNo":494,"ipc":495,"inventors":496,"tags":497,"tagNames":498},"gpi2_0831","一种美丽中条鳅的人工繁殖方法","本发明公开了一种美丽中条鳅的人工繁殖方法，包括以下步骤：S1、亲鱼挑选；S2、亲鱼强化培育；S3、催产注射；S4、人工授精；S5、受精卵孵化处理；S6、鱼苗培育：破膜后0‑2日不投喂，3‑6日投喂超细蛋黄液，7‑10日逐步以粉碎配合饲料替换蛋黄液，第11日转入室外池塘进行成苗培育，即可。该工艺的催产成功率、受精率、孵化率、30天鱼苗成活率均显著优于现有通用繁育技术，可稳定实现美丽中条鳅的人工规模化繁育，为其种质资源保护、人工增殖放流及野生种群修复提供可靠技术支撑。","水利部中国科学院水工程生态研究所;广西大藤峡水利枢纽开发有限责任公司","2026.08.28#公开;2026.09.15#实质审查的生效;2026.09.22#授权","CN202611128980.2","A01K61\u002F10;A01K61\u002F17;A23K50\u002F80;A23K10\u002F12;A23K10\u002F30;A23K20\u002F174;A23K20\u002F142;A61D7\u002F00;A61D19\u002F02;A61K38\u002F09;A61K38\u002F24;A61P15\u002F08;A61K31\u002F454;A61K36\u002F815;A61K31\u002F122;A61K31\u002F405;A61K31\u002F375","杨洋;管世烽;张志明;黎国樑;程睿;袁明明;熊满堂;张家豪;陈锋;朱鹤岩;郑海涛;马心驰;丁孝林;赵烜;毕建启",[],[],{"resultType":387,"id":500,"title":501,"abstract":502,"orgName":503,"province":392,"date":393,"trl":11,"transferMode":11,"keywords":11,"industry":11,"patentType":394,"legalStatus":461,"isOpenLicense":396,"isRevitalized":397,"techMaturity":11,"starRating":11,"licenseFeeText":11,"patentNo":504,"ipc":505,"inventors":506,"tags":507,"tagNames":508},"gpi2_0517","一种适用于极寒环境下的890MPa级高韧性海工钢及其制备方法","本发明涉及海洋工程用钢技术领域，公开了一种适用于极寒环境下的890MPa级高韧性海工钢及其制备方法，所述海工钢的化学成分包括：C、Si、Mn、P、S、Ni、Cr、Mo、V、Nb、Ti、Cu、RE、Als，余量为Fe及不可避免的杂质；制备方法包括：冶炼→连铸→铸坯加热→初步轧制→热处理→温轧工艺，本发明制得的成品海工钢的厚度为25～45mm，屈服强度为890～940MPa，抗拉强度为990～1070MPa，延伸率为17.5～20.2%，‑60℃KV2为320～380J，‑196℃KV2为250～315J，解决了高强度海工钢低温韧性不足、强韧性难以协同提升的技术难题，特别适用于极寒条件下的海洋工程结构。","武汉科技大学","CN202611187719.X","C22C38\u002F02;C22C38\u002F04;C22C38\u002F58;C22C38\u002F44;C22C38\u002F46;C22C38\u002F48;C22C38\u002F50;C22C38\u002F42;C22C38\u002F06;C21D1\u002F18;C21D8\u002F0221;C21D8\u002F0247;C22C33\u002F04;C21C7\u002F00;C21C7\u002F06;C21C7\u002F10","张莉芹;胡磊;张开广;余宏伟;周雯;王孝东",[],[],{"resultType":387,"id":510,"title":511,"abstract":512,"orgName":513,"province":392,"date":393,"trl":11,"transferMode":11,"keywords":11,"industry":11,"patentType":394,"legalStatus":514,"isOpenLicense":396,"isRevitalized":397,"techMaturity":11,"starRating":11,"licenseFeeText":11,"patentNo":515,"ipc":516,"inventors":517,"tags":518,"tagNames":519},"gpi2_0687","一种铜包钢复合线材的拉拔成型制备工艺","本申请涉及金属复合线材加工制造技术领域，公开了一种铜包钢复合线材的拉拔成型制备工艺，包括以下步骤：将季戊四醇四油酸酯、热响应相变聚合物浓缩物、油醇磷酸酯、硼化脂肪酸二乙醇酰胺酯和N,N‑双（2‑乙基己基）‑4‑甲基‑1H‑苯并三唑‑1‑甲胺调和成热响应型复合拉拔液；对线材表面预处理并烘干；经中频感应预热，控制钢芯与铜层温差不超过15℃；使拉拔液由压力模入口侧环形供液腔包覆线材，并随线材依次通过水冷压力模、密封过渡腔和加热工作模，在工作模内完成塑性；出模后冷却、经环形高压气刀吹干并收卷。本发明采用中频感应预热并控制钢芯与铜层温差在15℃以内的技术方案，达到了缩减双金属变形抗力差异的技术效果。","湖北凯兴线缆科技有限公司","2026.08.25#公开;2026.09.11#实质审查的生效;2026.09.29#授权","CN202611142252.7","B21C1\u002F00;B21C9\u002F00;B21C3\u002F14;B21C9\u002F02;C10M169\u002F04;C10N40\u002F24;C10N30\u002F06","陈志海",[],[],{"resultType":387,"id":521,"title":522,"abstract":523,"orgName":524,"province":392,"date":393,"trl":11,"transferMode":11,"keywords":11,"industry":11,"patentType":394,"legalStatus":440,"isOpenLicense":396,"isRevitalized":397,"techMaturity":11,"starRating":11,"licenseFeeText":11,"patentNo":525,"ipc":526,"inventors":527,"tags":528,"tagNames":529},"gpi2_0414","一种面向动态障碍物的智能体避障路径规划方法和系统","本发明实施例提供一种面向动态障碍物的智能体避障路径规划方法、系统、电子设备和存储介质，通过获取智能体自身状态、目标点相对导航状态及动态障碍物运动状态，构建航行场景的全面感知；将环境状态信息输入预训练的策略网络，直接输出纵向加速度和转向角速度指令，实现端到端决策；执行动作后，基于运动学模型更新智能体位姿，并采用包含目标接近进度、线性前进、航向偏差惩罚、动态避障惩罚、目标到达及风险感知六类奖惩项的综合奖励函数计算即时奖励，兼顾趋近目标、保持航向、规避障碍及风险预警；最后将交互样本存入经验回放池并采样，用于更新策略网络与评价网络，通过迭代优化使智能体学习安全高效的避障策略。","中国人民解放军海军工程大学","CN202611092903.6","G05D1\u002F43;G05D1\u002F633;G05D109\u002F10","李雨彤;张志强;邵松世;郭雨佳;帅晶莹",[],[],{"resultType":387,"id":531,"title":532,"abstract":533,"orgName":534,"province":392,"date":393,"trl":11,"transferMode":11,"keywords":11,"industry":11,"patentType":394,"legalStatus":514,"isOpenLicense":396,"isRevitalized":397,"techMaturity":11,"starRating":11,"licenseFeeText":11,"patentNo":535,"ipc":536,"inventors":537,"tags":538,"tagNames":539},"gpi2_0893","一种面向多意图网络遥测配置的协商驱动方法及系统","本发明公开了一种面向多意图网络遥测配置的协商驱动方法及系统，首先利用大语言模型对自然语言测量意图进行多意图解析与受控归一化，生成规范化查询模式；然后依据数据流草图库覆盖关系和预置设备条件化误差‑资源画像库筛选候选草图，生成测量意图配置MIC；随后基于网络能力图和当前网络状态构造拓扑能力图；对多个MIC执行兼容性聚类，并在拓扑能力图上进行共识测量包络协商；之后通过从测量意图约束图到拓扑能力图的约束子图匹配进行歧义验证；最后对验证通过的共识测量包络执行局部求解并拼接为全局遥测配置。本发明能够提高多意图网络遥测配置的语义一致性、结构紧凑性、求解效率和在线可维护性，降低冗余部署、配置歧义和全局重算开销。","武汉大学","CN202611122713.4","H04L41\u002F0803;H04L41\u002F12;H04L41\u002F14;H04L69\u002F22;G06F16\u002F334;G06F18\u002F23","王丽娜;徐树旺;杨辰烨;刘辰昊;叶茜;侯宇飞;庞智;丁鑫旺;贾博飞;白书铭",[],[],{"resultType":387,"id":541,"title":542,"abstract":543,"orgName":544,"province":392,"date":393,"trl":11,"transferMode":11,"keywords":11,"industry":11,"patentType":394,"legalStatus":545,"isOpenLicense":396,"isRevitalized":397,"techMaturity":11,"starRating":11,"licenseFeeText":11,"patentNo":546,"ipc":547,"inventors":548,"tags":549,"tagNames":550},"gpi2_0179","一种高回弹硅橡胶及其制备方法","本申请提供了一种高回弹硅橡胶及其制备方法，包括以下重量份组分：100份甲基乙烯基硅橡胶，30~40份气相白炭黑，3~7份甲氧基硅油，0.5~1.5份羟基硅油，0.3~0.6份乙烯基羟基硅油，0.1~0.2份硬脂酸，0.5~2.0份硫化剂，0.2~1.0份回弹增强剂，0.1~1.0份甲基三烷氧基硅烷；所述回弹增强剂由三烯丙基异氰脲酸酯与甲基氢硅氧烷经氢硅化反应得到。本申请制得的高回弹硅橡胶，在受压、受弯或短时形变后，能够更快释放形变储能，回弹能力强。","迈高精细高新材料(宜昌)有限公司","2026.08.18#公开;2026.09.04#实质审查的生效;2026.09.15#授权","CN202611096267.4","C08L83\u002F0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型以更新模型参数。","武汉超擎数智科技有限公司","CN202611088231.1","G06F9\u002F50;G06F9\u002F48;G06N3\u002F092;G06F18\u002F15;G06F18\u002F25;G06F18\u002F213;G06N3\u002F0442;G06N3\u002F084;G06N3\u002F0464","张浩然;王昊;黄信源",[],[],{"resultType":387,"id":614,"title":615,"abstract":616,"orgName":617,"province":392,"date":393,"trl":11,"transferMode":11,"keywords":11,"industry":11,"patentType":394,"legalStatus":618,"isOpenLicense":396,"isRevitalized":397,"techMaturity":11,"starRating":11,"licenseFeeText":11,"patentNo":619,"ipc":620,"inventors":621,"tags":622,"tagNames":623},"gpi2_0705","页面切换的状态保持方法、装置、设备及可读存储介质","一种页面切换的状态保持方法、装置、设备及可读存储介质。该方法中，通过接收页面切换指令，并基于所述页面切换指令确定待切换的目标子页面的路由标识；基于所述路由标识确定所述目标子页面对应的文档对象模型DOM节点，其中，所述DOM节点中包括所述目标子页面的页面状态信息；将当前显示的DOM节点从内嵌框架iframe中移除并存入缓存，将所述目标子页面对应的DOM节点添加至所述iframe中，完成页面切换，采用单一iframe实现多页面切换与状态缓存，无需为每个子页面单独创建iframe标签，减少浏览器上下文与进程开销，降低内存占用，避免因多内嵌框架导致的资源消耗过大、页面卡顿甚至崩溃的问题，提升系统稳定性与运行效率。","长江证券股份有限公司","2026.08.28#公开;2026.09.15#实质审查的生效;2026.09.29#授权","CN202611146643.6","G06F9\u002F451;G06F9\u002F445","潘进;王城栋;方军军;吴承霖;徐唐锋;高遵淇;张明;周思嘉",[],[],{"resultType":387,"id":625,"title":626,"abstract":627,"orgName":555,"province":392,"date":628,"trl":11,"transferMode":11,"keywords":11,"industry":11,"patentType":394,"legalStatus":629,"isOpenLicense":396,"isRevitalized":397,"techMaturity":11,"starRating":11,"licenseFeeText":11,"patentNo":630,"ipc":631,"inventors":632,"tags":633,"tagNames":634},"gpi_00037","LED深海照明灯","本发明公开了一种LED深海照明灯。其构成部件主要包括：压紧帽、光源、光学聚光组件、壳体、散热块、单芯插座、单芯插头和电缆接头。散热块位于壳体的内腔上部，光源为单个LED芯片或LED芯片阵列，光源安装在散热块上，散热块与壳体紧密结合，使LED芯片的散热通道流畅。光学聚光组件由凸透镜和反光杯组成，将位于反光杯焦平面的光源的发射光汇聚成平行光，提高了出射光的光程和亮度。“蓝光光源+荧光粉玻璃＝白光”的方式，提高了白光的均匀性，改善色差性能。壳体的制备材料为高强度钢，光学聚光组件凸透镜的制备材料为高强度光学玻璃，使本发明可以承受最大6000米的海水压力。本发明具有耐压能力高、成本低、工作寿命长和白光的均匀度和亮度好等优点。","2026-10-12T00:54:35.109Z","2007.06.27#公开;2010.01.06#实质审查的生效;2010.10.13#授权","CN200610125392.X","F21S2\u002F00;F21V13\u002F04;F21V15\u002F00;F21V9\u002F00;F21W131\u002F40;F21Y101\u002F02","刘胜;谭六喜;甘志银",[],[],{"resultType":387,"id":636,"title":637,"abstract":638,"orgName":639,"province":392,"date":628,"trl":11,"transferMode":11,"keywords":11,"industry":11,"patentType":394,"legalStatus":640,"isOpenLicense":396,"isRevitalized":397,"techMaturity":11,"starRating":11,"licenseFeeText":11,"patentNo":641,"ipc":642,"inventors":643,"tags":644,"tagNames":645},"gpi_00716","一种GIS中间件配置管理方法","本发明涉及地理信息系统，尤其是一种GIS中间件配置管理方法，它的步骤如下：1)客户软件创建异构数据源信息并传送给数据源驱动管理器；2)数据源驱动管理器根据所述异构数据源信息加载相应的中间件接口以及异构数据源驱动；3)所述步骤2)中的异构数据源驱动直接访问异构数据源，然后将访问成功的信息返回给数据源驱动管理器，至此数据源和相应的数据源驱动连接成功；4)客户软件发出请求动作，数据源驱动管理器响应其请求，调用相应的数据源驱动完成对数据的实际处理工作后向客户软件返回处理结果；5)客户软件显示结果数据。该方法不需要频繁进行数据格式转换，不需要大量重复性劳动即可实现多源数据的集成。","武汉中地数码科技有限公司;中国地质大学(武汉)","2009.07.29#公开;2009.09.23#实质审查的生效;2011.05.11#授权;2026.05.22#专利权人的姓名或者名称、国籍和地址的变更","CN200810236869.0","G06F17\u002F30","吴信才;谢忠;吴亮",[],[],{"resultType":387,"id":647,"title":648,"abstract":649,"orgName":534,"province":392,"date":628,"trl":11,"transferMode":11,"keywords":11,"industry":11,"patentType":394,"legalStatus":650,"isOpenLicense":396,"isRevitalized":397,"techMaturity":11,"starRating":11,"licenseFeeText":11,"patentNo":651,"ipc":652,"inventors":653,"tags":654,"tagNames":655},"gpi_00090","一种GaN绝缘或半绝缘外延层的制备方法","本发明提供了一种高晶体质量的GaN绝缘或半绝缘外延层的制备方法，该方法是以Al2O3、SiC或Si为衬底，在衬底经高温氮化后，依次于750～780℃下高温生长AlN成核层，于720～730℃下低温三维生长GaN成核层，再于750～780℃下高温二维生长GaN外延层，继续外延生长GaN的同时，实行原位金属Fe、Cr或Mg掺杂，制备出高位错密度、相对粗糙的GaN绝缘层。此后采用AlGaN\u002FGaN超晶格或多周期间歇式原子层脉冲沉积法，生长GaN过渡层，最后在720～730℃、高III\u002FV比条件下生长出高晶体质量、表面光滑的GaN外延层。以用本发明方法制备的这种GaN绝缘或半绝缘外延层为衬底材料，可生长微波器件结构。","2007.10.24#公开;2007.12.19#实质审查的生效;2009.02.25#授权","CN200710052167.2","H01L21\u002F20","刘昌;梅菲",[],[],{"resultType":387,"id":657,"title":658,"abstract":659,"orgName":660,"province":392,"date":628,"trl":11,"transferMode":11,"keywords":11,"industry":11,"patentType":394,"legalStatus":661,"isOpenLicense":396,"isRevitalized":397,"techMaturity":11,"starRating":11,"licenseFeeText":11,"patentNo":662,"ipc":663,"inventors":664,"tags":665,"tagNames":666},"gpi_01701","一种从甲硝唑工业废渣中回收甲硝唑成品的方法","本发明公开了一种从甲硝唑工业废渣中回收甲硝唑成品的方法，其技术方案如下：首先向带有余热的甲硝唑工业废渣中加入室温下饱和甲硝唑的酰胺类溶剂溶液，使甲硝唑从甲硝唑工业废渣中热溶浸出，然后浸出液在室温下重结晶，过滤即得甲硝唑固态产品。过滤后的滤液仍为室温下的饱和甲硝唑酰胺类溶液，可继续用于从甲硝唑工业废渣中回收甲硝唑，实现循环利用。本发明方法工艺流程简单、收益大、节省能耗、适于工业化生产。","中南民族大学;湖北省宏源药业有限公司","2010.12.15#公开;2011.02.02#实质审查的生效;2011.12.07#授权;2015.07.01#专利权人的姓名或者名称、地址的变更","CN201010269005.6","C07D233\u002F94","孙杰;段小六;莫文艳",[],[],{"resultType":387,"id":668,"title":669,"abstract":670,"orgName":671,"province":392,"date":628,"trl":11,"transferMode":11,"keywords":11,"industry":11,"patentType":394,"legalStatus":672,"isOpenLicense":396,"isRevitalized":397,"techMaturity":11,"starRating":11,"licenseFeeText":11,"patentNo":673,"ipc":674,"inventors":675,"tags":676,"tagNames":677},"gpi_01372","一种以多封闭剂复合封端的复合多异氰酸酯封闭物合成方法","一种以多封闭剂复合封端的多异氰酸酯封闭物的合成方法是将多异氰酸酯300～600份，(指质量份，以下同)、活泼亚甲基化合物50～350份、溶剂290～335份在50～90℃，搅拌1～3小时；另加一种活泼亚甲基化合物50～350份，在50～90℃，搅拌约1～2小时；然后分批添加吡唑衍生化合物20～130份，在50～85℃下搅拌到检测不出NCO基团或NCO％不高于0.2％时为止(约需0.5～2小时).比现有技术的技术进步和优点明显。","武汉材料保护研究所","2010.08.04#公开;2010.09.22#实质审查的生效;2012.11.21#授权","CN201010114702.4","C07D231\u002F14","廖有为;李健;吴勇;钟萍",[],[],{"resultType":387,"id":679,"title":680,"abstract":681,"orgName":682,"province":392,"date":628,"trl":11,"transferMode":11,"keywords":11,"industry":11,"patentType":394,"legalStatus":683,"isOpenLicense":396,"isRevitalized":397,"techMaturity":11,"starRating":11,"licenseFeeText":11,"patentNo":684,"ipc":685,"inventors":686,"tags":687,"tagNames":688},"gpi_01513","一种作为A群链球菌四价疫苗保护性抗原的重组多肽","本发明提供了一种通过基因重组技术制备的重组多肽，该重组多肽由我国广东省流行的风湿热原性A群链球菌M1、M3、M6、M18四个血清型的M蛋白N端含保护性抗原表位，不含人体交叉反应表位的型特异性氨基酸序列以及这四个血清型M蛋白C端共有的一段保守氨基酸序列拼接而成的。实验证明，该重组多肽可诱导产生针对A群链球菌M1、M3、M6型的型特异性的杀菌抗体，因而该重组多肽可用于制备针对A群链球菌的重组多肽疫苗。","武汉生物制品研究所","2010.09.29#公开;2010.11.17#实质审查的生效;2012.01.11#著录事项变更;2012.10.10#授权","CN200910061286.3","C07K14\u002F315;C12N15\u002F31;A61K39\u002F09;A61P31\u002F04;C12N15\u002F10;C12P19\u002F34;C12N15\u002F63;C12N1\u002F21;C12P21\u002F02;C12R1\u002F125;C12R1\u002F19","喻刚;杨京生;全家妩",[],[],{"resultType":387,"id":690,"title":691,"abstract":692,"orgName":693,"province":392,"date":628,"trl":11,"transferMode":11,"keywords":11,"industry":11,"patentType":394,"legalStatus":694,"isOpenLicense":396,"isRevitalized":397,"techMaturity":11,"starRating":11,"licenseFeeText":11,"patentNo":695,"ipc":696,"inventors":697,"tags":698,"tagNames":699},"gpi_01494","一种偏振模色散补偿的方法","本发明涉及光纤传输系统中偏振模色散补偿，具体说是一种偏振模色散补偿的方法，光发射机Tx输出的信号光经单模光纤后，送入PMD补偿器内的DGD调谐器，经过DGD调谐器后的信号光被耦合器分为两路，一路作为信号光送入接收机Rx，另一路作为传输链路的监测光送入DGD分析器，DGD分析器对传输链路的监测光进行DGD分析并将DGD分析结果送入微处理器后，微处理器根据DGD分析结果调整DGD调谐器的控制电压。本发明所述的偏振模色散补偿的方法，采用差分群延时(DGD)分析器直接分析监测光的PMD值，并控制DGD调谐器来对传输链路进行PMD补偿，确保了传输链路PMD值监测结果的准确性和实时性，从而保证了PMD补偿结果的有效性。","武汉邮电科学研究院","2010.09.15#公开;2010.11.03#实质审查的生效;2013.09.04#授权;2018.12.28#专利权人的姓名或者名称、地址的变更","CN201010170779.3","H04B10\u002F18","谢德权;张新全;杨超;杨铸",[],[],{"resultType":387,"id":701,"title":702,"abstract":703,"orgName":704,"province":392,"date":628,"trl":11,"transferMode":11,"keywords":11,"industry":11,"patentType":394,"legalStatus":705,"isOpenLicense":396,"isRevitalized":397,"techMaturity":11,"starRating":11,"licenseFeeText":11,"patentNo":706,"ipc":707,"inventors":708,"tags":709,"tagNames":710},"gpi_01940","一种光信号的传输方法及装置","本发明实施例提供一种光信号的传输方法及装置。该方法包括：将接收的信号光与激射产生的泵浦光正向复用生成正向复用光，对正向复用光进行准相位匹配，生成包含TM模式转换闲频光和TE模式信号光的正向光束；将正向光束分解成泵浦光、TE模式信号光和TM模式转换闲频光；将TE模式信号光转换为TM模式信号光，将TM模式转换闲频光转换为TE模式转换闲频光；将泵浦光、TM模式信号光和TE模式转换闲频光反向复用生成反向复用光，对反向复用光进行准相位匹配，生成包含TM模式转换闲频光和TE模式转换闲频光的反向光束；将反向光束分解成泵浦光、TE模式转换闲频光和TM模式转换闲频光。本技术方案具有系统稳定、光路构造简单的优点。","华中科技大学;华为技术有限公司","2011.03.23#公开;2011.07.27#实质审查的生效;2013.04.17#授权","CN200910161353.9","G02F1\u002F35","周钰杰;孙军强;方圆圆",[],[],123,1,5]