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NO.5所示序列的第290位碱基，此分子标记的多态性表现为C或T，基因型包括CC、CT、TT。通过关联分析验证可知，CC基因型的降香黄檀树高显著高于CT基因型以及TT基因型的个体。本发明还提供了用于检测所述SNP分子标记的试剂盒及其在降香黄檀树高性状辅助筛选方面的应用。借助该分子标记，能够在降香黄檀幼苗阶段快速且精准地鉴定出优势基因型个体，可显著提高降香黄檀的育种效率，对于培育快速生长的降香黄檀具有重要价值。","海南大学三亚南繁研究院","460000;海南省","2026-10-12T01:10:42.529Z",null,"发明专利","2026.08.28#公开;2026.09.15#实质审查的生效;2026.09.22#授权",false,true,"CN202611132566.9","C12Q1\u002F6895;C12Q1\u002F6858;C12N15\u002F11","陈金辉;林伊琳;涂志华;赵圣和;吴坤霖",[],[],{"resultType":8,"id":26,"title":27,"abstract":28,"orgName":29,"province":13,"date":14,"trl":15,"transferMode":15,"keywords":15,"industry":15,"patentType":16,"legalStatus":30,"isOpenLicense":18,"isRevitalized":19,"techMaturity":15,"starRating":15,"licenseFeeText":15,"patentNo":31,"ipc":32,"inventors":33,"tags":34,"tagNames":35},"gpi2_0617","一种凡纳滨对虾生长性状的SNP分子标记、检测引物、试剂盒及其应用","本发明公开了一种凡纳滨对虾生长性状的SNP分子标记、检测引物、试剂盒及其应用。SNP分子标记如SEQ ID NO.1所示，SEQ ID NO.1自5’端起第497位碱基的多态性为A\u002FG；该SNP分子标记能同时筛选体长和体重以进行凡纳滨对虾育种，也可以根据SEQ ID NO.1序列设计的引物或制备成试剂盒检测该SNP分子标记。同时，能够利用本申请所提供的SNP分子标记Chr25_11409188的AA基因型对凡纳滨对虾亲本进行选择，进一步提高育种群体的体长和体重的生长速度，为凡纳滨对虾的分子育种提供创新工具，缩短育种周期，助力产业发展和效率提升。","中国海洋大学三亚海洋研究院;海南省种业实验室","2026.08.28#公开;2026.09.15#实质审查的生效;2026.09.29#授权","CN202611149705.9","C12Q1\u002F6888;C12Q1\u002F6858;C12N15\u002F11","包振民;滕铭轩;曾启繁;王浩;赵明洋;黄永裕",[],[],{"resultType":8,"id":37,"title":38,"abstract":39,"orgName":40,"province":13,"date":14,"trl":15,"transferMode":15,"keywords":15,"industry":15,"patentType":16,"legalStatus":41,"isOpenLicense":18,"isRevitalized":19,"techMaturity":15,"starRating":15,"licenseFeeText":15,"patentNo":42,"ipc":43,"inventors":44,"tags":45,"tagNames":46},"gpi2_0755","一种基于AUV的多源协同海底探测系统","本发明涉及海洋工程地质调查与海洋岩土工程技术领域，具体涉及一种基于AUV的多源协同海底探测系统，包括机体、吸力锚和探杆组件，所述吸力锚安装在所述机体的底部，所述探杆组件安装在所述机体内，所述吸力锚具有一用于与海底接触并形成密封腔室的罩壳；第一操纵舵和第二操纵舵，所述第一操纵舵安装在所述机体的底部，所述第二操纵舵安装在所述机体的尾部，所述第一操纵舵与第二操纵舵连接，具备坐底能力，能够提供贯入所需的反力，以满足测试要求。","浙江大学海南研究院","2026.08.25#公开;2026.09.11#实质审查的生效;2026.09.25#授权","CN202611137773.3","B63C11\u002F52;B63B21\u002F27;B63G8\u002F20","洪义;王立忠;张鑫海;刘硕;陆婧昭;周鑫帅;郑华荣",[],[],{"resultType":8,"id":48,"title":49,"abstract":50,"orgName":51,"province":13,"date":14,"trl":15,"transferMode":15,"keywords":15,"industry":15,"patentType":16,"legalStatus":52,"isOpenLicense":18,"isRevitalized":19,"techMaturity":15,"starRating":15,"licenseFeeText":15,"patentNo":53,"ipc":54,"inventors":55,"tags":56,"tagNames":57},"gpi2_0607","一种基于无人机多光谱遥感的转基因玉米庇护所比例监测方法及系统","本申请实施例提供一种基于无人机多光谱遥感的转基因玉米庇护所比例监测方法及系统。该方法包括：获取田块边界及无人机多光谱影像；对影像进行预处理及非玉米区域掩膜处理，得到多波段反射率正射影像；构建包含原始波段反射率、植被指数、纹理特征和空间形态特征的多源识别特征集，结合样本建立庇护所识别模型；对分类结果进行连通域分析和区域规整，获得常规玉米庇护所区域与转基因玉米主栽区域；统计面积并计算庇护所比例，依据预设阈值进行多尺度合规性评价，输出分布图、统计表及评价结果。该方法可实现庇护所比例的自动化、客观化监测，提升识别精度与面积统计稳定性，支持地块与局部多尺度合规评价，显著提高监管效率与结果可靠性。","三亚中国农业科学院国家南繁研究院;中国农业科学院植物保护研究所","2026.08.28#公开;2026.09.15#实质审查的生效;2026.09.25#授权","CN202611151705.2","G06V10\u002F764;G06V10\u002F25;G06V10\u002F54;G06V10\u002F774;G06V10\u002F52;G06V10\u002F80;G06V20\u002F17;G06V20\u002F10;G06T5\u002F70;G06T7\u002F62","孟麟;张浩文;杨现明;康国栋;孙义舒;吴孔明",[],[],{"resultType":8,"id":59,"title":60,"abstract":61,"orgName":62,"province":13,"date":14,"trl":15,"transferMode":15,"keywords":15,"industry":15,"patentType":16,"legalStatus":63,"isOpenLicense":18,"isRevitalized":19,"techMaturity":15,"starRating":15,"licenseFeeText":15,"patentNo":64,"ipc":65,"inventors":66,"tags":67,"tagNames":68},"gpi2_0423","一种基于气候时序分析的榴莲园智能喷灌调度方法","本发明公开了一种基于气候时序分析的榴莲园智能喷灌调度方法，涉及智能喷灌控制技术领域，包括，采集榴莲园各喷灌分区的状态感知数据，并对状态感知数据进行时序整理和分区对应，结合分区环境条件识别各喷灌分区所处的气候演变控制状态，形成分区控制状态序列；将分区控制状态序列按雨情变化和需水变化进行分类对应，为各喷灌分区配置雨前保留控制窗口、雨后核验控制窗口及补灌重排控制窗口，并按照各控制窗口对应的调度目标执行窗口控制处理，形成窗口调度表。本发明通过为各喷灌分区配置雨前保留控制窗口、雨后核验控制窗口及补灌重排控制窗口，使喷灌安排不再停留于单点判断，有助于减少无效喷灌、重复喷灌以及雨后漏灌。","海南省鸿翔农业集团优旗投资有限公司","2026.08.25#公开;2026.09.11#实质审查的生效;2026.09.18#授权","CN202611088986.1","A01G25\u002F16;G06F18\u002F2431;G06F18\u002F24;G05D27\u002F02","贾新;谢伟超;张喜来",[],[],{"resultType":8,"id":70,"title":71,"abstract":72,"orgName":73,"province":13,"date":14,"trl":15,"transferMode":15,"keywords":15,"industry":15,"patentType":16,"legalStatus":30,"isOpenLicense":18,"isRevitalized":19,"techMaturity":15,"starRating":15,"licenseFeeText":15,"patentNo":74,"ipc":75,"inventors":76,"tags":77,"tagNames":78},"gpi2_0621","一种声波核磁联测煤岩含气饱和度评价模型获取方法","本发明提供了一种声波核磁联测煤岩含气饱和度评价模型获取方法，涉及煤岩气评价技术领域。该方法中，可以获取声波核磁联测装置的参考容器和样品容器的自由体积和分别注入吸附气和游离气之后平衡的气压，基于体积法计算得到第一饱和度值。另外，通过声波核磁联测装置中的声波模块和核磁模块来测得不同气压下的声波数据和核磁数据。第一饱和度值和基于核磁数据计算得到的第二饱和度值可以得到修正的参考饱和度，依据参考饱和度和基于声波数据计算得到的弹性敏感度参数可以建立用于评价煤岩中含气饱和度的模型。该声波核磁联测煤岩含气饱和度评价模型获取方法可以改善现有技术中对于煤岩中含气饱和度评价困难以及精准度较差的技术问题。","东北石油大学三亚海洋油气研究院","CN202611149395.0","G01N24\u002F08;G01N29\u002F04;G01N29\u002F44","董旭;柳波;张佳慧;石雪莹;何羽飞;杨仁杰;代金库;牛君素;苏俊磊",[],[],{"resultType":8,"id":80,"title":81,"abstract":82,"orgName":83,"province":13,"date":14,"trl":15,"transferMode":15,"keywords":15,"industry":15,"patentType":16,"legalStatus":84,"isOpenLicense":18,"isRevitalized":19,"techMaturity":15,"starRating":15,"licenseFeeText":15,"patentNo":85,"ipc":86,"inventors":87,"tags":88,"tagNames":89},"gpi2_0534","一种水下机器人推进器防堵转保护及自主自救方法","本发明公开了一种水下机器人推进器防堵转保护及自主自救方法，包括：配置机器人本体、推进器、多源信息协同检测模块、智能分析模块和压载及蓄能气囊模块；多源信息协同检测模块实时采集推进器的输入电压、输入电流、实测桨叶转速、振动信号和声呐图像，智能分析模块基于推进器输入有效功率、桨叶吸收功率、实测桨叶转速和理论参考桨叶转速计算功率残差、振动异常度、异物遮挡比例和电流异常度，得到堵转风险指数；根据堵转风险指数执行对应分级响应动作。该方法把桨叶边缘防护、推进器状态识别和分级自救控制结合在同一控制流程中，可降低复杂水域中推进器缠绕、卡滞和过载失效的风险，并提高水下机器人连续作业和故障回收的可靠性。","上海交通大学三亚崖州湾深海科技研究院;恒生智能科技(广州)有限公司;广东慧眼奇智科技技术有限公司","2026.09.04#公开;2026.09.22#实质审查的生效;2026.09.29#授权","CN202611178534.2","B63B79\u002F10;B63C11\u002F52;B63G8\u002F00;B63G8\u002F24","赵国成;陈松;刘明;陈哲;钟稳;方文;李思",[],[],{"resultType":8,"id":91,"title":92,"abstract":93,"orgName":40,"province":13,"date":14,"trl":15,"transferMode":15,"keywords":15,"industry":15,"patentType":16,"legalStatus":41,"isOpenLicense":18,"isRevitalized":19,"techMaturity":15,"starRating":15,"licenseFeeText":15,"patentNo":94,"ipc":95,"inventors":96,"tags":97,"tagNames":98},"gpi2_0756","一种海底地质探测器控制结构","本发明涉及海洋工程地质调查与海洋岩土工程技术领域，具体涉及一种海底地质探测器控制结构，包括机体、第一操纵舵和第二操纵舵，所述第一操纵舵安装在所述机体的底部，所述第二操纵舵安装在所述机体的尾部，所述第一操纵舵与第二操纵舵连接；还包括第二驱动件，所述第二驱动件与所述第一翼件和所述第二翼件连接，用于同时带动所述第一翼件和所述第二翼件运动，解决了现有自主水下机器人底部固定稳定舵与尾部升降舵独立控制、缺乏联动，导致俯仰调节时附加阻力大、舵效衰减且易受干扰，难以满足坐底贯入作业高精度姿态控制需求的技术问题。","CN202611136125.6","B63G8\u002F18;B63G8\u002F20;B63G8\u002F22;B63G8\u002F00;B63C11\u002F52;B63B21\u002F27;G01V9\u002F00","张鑫海;王立忠;洪义;陆婧昭;刘硕;郑华荣;周鑫帅",[],[],{"resultType":8,"id":100,"title":101,"abstract":102,"orgName":103,"province":13,"date":14,"trl":15,"transferMode":15,"keywords":15,"industry":15,"patentType":16,"legalStatus":104,"isOpenLicense":18,"isRevitalized":19,"techMaturity":15,"starRating":15,"licenseFeeText":15,"patentNo":105,"ipc":106,"inventors":107,"tags":108,"tagNames":109},"gpi2_0876","一种深水气井测试管柱水合物堵塞预测与防控方法和系统","本发明涉及深水油气井流动安全技术领域，具体涉及一种深水气井测试管柱水合物堵塞预测与防控方法和系统。本方法包括以下步骤：结合管柱内多相流动、井筒与地层传热传质规律，得到不同井深、不同时刻的温度场与压力场；引入水合物生成放热带来的局部过冷度正反馈机制，修正有效过冷度，求解水合物实时生成速率；结合湍流作用下的团聚核函数、破碎核函数，获得索特尔平均直径与颗粒壁面碰撞概率；采用拉格朗日方法求解颗粒运动轨迹，结合碰撞动能与粘附功计算颗粒壁面粘附概率，统计各管柱网格单元的水合物沉积通量；基于质量守恒计算沉积层厚度变化求解沉积层渗透率，结合临界管径判据计算各单元堵塞时间与全域安全作业时间窗口以及高危堵塞位置。","东北石油大学三亚海洋油气研究院;海南热带海洋学院;广州海洋地质调查局;江苏正道海洋科技股份有限公司","2026.08.25#公开;2026.09.11#实质审查的生效;2026.09.29#授权","CN202611122377.3","E21B47\u002F001;E21B47\u002F00;E21B37\u002F06;G06F17\u002F11","蒋鉴航;李占东;赵绍东;匡增桂;孟琳;邓炜;陈江华;梁毅鹏;韩博;朱佳文;李吉;李阳;王殿举",[],[],{"resultType":8,"id":111,"title":112,"abstract":113,"orgName":114,"province":13,"date":14,"trl":15,"transferMode":15,"keywords":15,"industry":15,"patentType":16,"legalStatus":115,"isOpenLicense":18,"isRevitalized":19,"techMaturity":15,"starRating":15,"licenseFeeText":15,"patentNo":116,"ipc":117,"inventors":118,"tags":119,"tagNames":120},"gpi2_0083","噻苯隆在提高红掌耐热性中的应用","本申请提供噻苯隆在提高红掌耐热性中的应用，涉及植物生长调节剂技术领域。本发明将噻苯隆应用于提高红掌耐热性，能够有效延缓高温胁迫下红掌佛焰苞的褪色进程，维持红掌良好的观赏性状，同时通过提升抗氧化物酶活性、保护细胞膜完整性，达到提高红掌对高温胁迫的抗性，生长发育良好。本发明提供外源施用噻苯隆即可实现红掌耐热性的有效提高，其施用方法简单，成本低，适合海南等夏季高温地区红掌生产中的应用。","中国热带农业科学院热带作物品种资源研究所","2026.08.21#公开;2026.09.08#实质审查的生效;2026.09.22#授权","CN202611104804.5","A01N47\u002F36;A01G7\u002F06;A01G22\u002F60;A01P21\u002F00","王亚茹;张可欣;牛俊海;魏延琴;冷青云",[],[],{"resultType":8,"id":122,"title":123,"abstract":124,"orgName":125,"province":13,"date":14,"trl":15,"transferMode":15,"keywords":15,"industry":15,"patentType":16,"legalStatus":30,"isOpenLicense":18,"isRevitalized":19,"techMaturity":15,"starRating":15,"licenseFeeText":15,"patentNo":126,"ipc":127,"inventors":128,"tags":129,"tagNames":130},"gpi2_0612","活性氧响应的纳米胡椒基丁醚增效剂复合物及在增效高效氯氰菊酯对蚜虫防控效果中的应用","本发明涉及农药技术领域，拟解决的技术问题是针对高效氯氰菊酯抗药的蚜虫如何提升除虫效果，公开了活性氧响应的纳米胡椒基丁醚增效剂复合物及在增效高效氯氰菊酯对蚜虫防控效果中的应用。本发明的活性氧响应的纳米胡椒基丁醚增效剂复合物由PLGA‑TK‑PEG及其包载的胡椒基丁醚构成。所述活性氧响应的纳米胡椒基丁醚增效剂相比游离胡椒基丁醚具如下优势：速效性增强、稳定性大幅提升，可ROS智能响应释放，具有超高抗性逆转能力，与高效氯氰菊酯敏感协同增效比达54.22，对抗性蚜虫的7天防效从游离PBO处理的61.38%提升至84.06%。且能靶向递送，载体可生物降解，PBO按需释放，可降低用量与环境残留。","中国农业大学三亚研究院;中国农业大学","CN202611150130.2","A01N43\u002F30;A01N53\u002F08;A01N25\u002F10;A01N25\u002F30;A01N25\u002F28;A01P7\u002F04;B82Y30\u002F00;B82Y40\u002F00","朱斌;陈紫涵;袁浩宇;陈泽衔;梁沛",[],[],{"resultType":8,"id":132,"title":133,"abstract":134,"orgName":135,"province":13,"date":14,"trl":15,"transferMode":15,"keywords":15,"industry":15,"patentType":16,"legalStatus":30,"isOpenLicense":18,"isRevitalized":19,"techMaturity":15,"starRating":15,"licenseFeeText":15,"patentNo":136,"ipc":137,"inventors":138,"tags":139,"tagNames":140},"gpi2_0578","考虑压力波时滞与孔隙结构熵的水合物分解方法和系统","本发明涉及水合物降压开采数值模拟技术领域，具体涉及考虑压力波时滞与孔隙结构熵的水合物分解方法和系统。本方法包括以下步骤：计算孔隙结构熵，构造饱和度与结构熵依赖的时间记忆核，结合分解速率阈值、压力降阈值，形成带预测‑校正机制的分解前缘指示函数；将所述时间记忆核、时空不可分因果核与门限响应函数进行时空卷积运算，基于所述分解前缘指示函数，建立积分形式的非局域记忆水合物分解速率模型；通过网格达西速度计算佩克莱数，将标量特征记忆时间扩展为二阶对称的各向异性记忆时间张量，构造二阶张量型记忆变量并建立演化方程，将所述非局域记忆水合物分解速率模型耦合至能量守恒方程与两相达西渗流压力方程，迭代求解获得分解结果。","海南热带海洋学院;广州海洋地质调查局;江苏正道海洋科技股份有限公司","CN202611161318.7","G06F30\u002F28;G06F30\u002F27;G16C20\u002F30;G16C20\u002F70;G06F111\u002F10;G06F113\u002F08;G06F119\u002F08;G06F119\u002F14","李占东;梁毅鹏;赵绍东;匡增桂;孟琳;邓炜;陈江华;蒋鉴航;韩博;朱佳文;李吉;李阳;王殿举",[],[],{"resultType":8,"id":142,"title":143,"abstract":144,"orgName":73,"province":13,"date":14,"trl":15,"transferMode":15,"keywords":15,"industry":15,"patentType":16,"legalStatus":30,"isOpenLicense":18,"isRevitalized":19,"techMaturity":15,"starRating":15,"licenseFeeText":15,"patentNo":145,"ipc":146,"inventors":147,"tags":148,"tagNames":149},"gpi2_0792","页岩可动流体信号校正方法、装置、电子设备及存储介质","本公开提供了一种页岩可动流体信号校正方法、装置、电子设备及存储介质，其中，所述方法包括：获取待测页岩样品；对所述待测页岩样品进行核磁共振测试，得到实际一维核磁谱和实际二维核磁谱；所述实际一维核磁谱和所述实际二维核磁谱中包括可动流体信号；构造所述待测页岩样品的理想二维核磁谱；对所述理想二维核磁谱进行正演，得到回波串信号；对所述回波串信号进行反演，得到反演核磁谱；基于所述反演核磁谱和所述理想二维核磁谱，确定等待时间校正因子和反演校正因子；基于所述等待时间校正因子和所述反演校正因子，对所述实际一维核磁谱和所述实际二维核磁谱中的可动流体信号进行校正。","CN202611131060.6","G01N24\u002F08","王军杰;张鹏飞;卢双舫;高伟政;王子轶;陈国辉;李文镖;周能武",[],[],{"resultType":8,"id":151,"title":152,"abstract":153,"orgName":154,"province":13,"date":155,"trl":15,"transferMode":15,"keywords":15,"industry":15,"patentType":16,"legalStatus":156,"isOpenLicense":18,"isRevitalized":19,"techMaturity":15,"starRating":15,"licenseFeeText":15,"patentNo":157,"ipc":158,"inventors":159,"tags":160,"tagNames":161},"gpi_00419","牛角瓜中的强心苷化合物的抗肿瘤新用途","本发明涉及医药技术领域，具体为强心苷化合物Frugoside在制备肿瘤治疗药物中的新用途。Frugoside可利用多种常规分离手段从牛角瓜中分离获得或者通过合成以及半合成手段获得。","中国热带农业科学院热带作物品种资源研究所;中国热带农业科学院热带生物技术研究所","2026-10-12T00:54:35.109Z","2009.01.07#公开;2009.05.06#实质审查的生效;2011.10.05#授权","CN200810137823.3","A61K31\u002F585;A61P35\u002F00;A61K36\u002F27","王祝年;戴好富;王茂媛;梅文莉;曾艳波;吴娇;王建荣;晏小霞",[],[],14,1,30]