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限公司;陕西长风智能科技有限公司;西安长风富钠科技有限公司;西安长风航进科技有限公司","CN202611162915.1","H02J3\u002F32;E03B3\u002F28;H02J7\u002F35;H02J3\u002F466;G05B19\u002F042;H02J7\u002F80;H02J101\u002F24","唐欢童;王东芹;王金胜",[],[],{"resultType":387,"id":613,"title":614,"abstract":615,"orgName":616,"province":392,"date":393,"trl":11,"transferMode":11,"keywords":11,"industry":11,"patentType":394,"legalStatus":441,"isOpenLicense":396,"isRevitalized":397,"techMaturity":11,"starRating":11,"licenseFeeText":11,"patentNo":617,"ipc":618,"inventors":619,"tags":620,"tagNames":621},"gpi2_0400","基于有限元的大尺寸钛合金锻件锻造工艺参数优化方法","本发明涉及钛合金锻件锻造技术领域，具体涉及基于有限元的大尺寸钛合金锻件锻造工艺参数优化方法。该方法获取钛合金基础相关数据建立有限元仿真模型；根据多组预设参数进行有限元仿真计算，获取关键位置仿真数据；基于基础数据确定安全成形区间和最优晶粒细化区间，并结合关键位置的成形缺陷风险获取各组参数对应的参考综合适配程度；以此训练代理模型并计算预测精度，基于预测精度、代理模型输出的模型综合适配程度及参数相关性方向获取更新锻造工艺参数；基于更新锻造工艺参数、有限元仿真模型和代理模型，获取最优锻造工艺参数。本发明能有效兼顾大尺寸锻件的宏观成形质量与微观组织均匀性，有效降低试制废品率。","西安科技大学","CN202611088072.5","G06F30\u002F23;G06F119\u002F14","师玉璞;杜慧玲;杜娴;吴亮;李卓",[],[],{"resultType":387,"id":623,"title":624,"abstract":625,"orgName":626,"province":392,"date":393,"trl":11,"transferMode":11,"keywords":11,"industry":11,"patentType":394,"legalStatus":408,"isOpenLicense":396,"isRevitalized":397,"techMaturity":11,"starRating":11,"licenseFeeText":11,"patentNo":627,"ipc":628,"inventors":629,"tags":630,"tagNames":631},"gpi2_0069","基于状态空间模型的电弧炉熔炼过程时序预测方法及系统","本发明公开了基于状态空间模型的电弧炉熔炼过程时序预测方法及系统，包括：采集当前电弧炉炉次的炉次过程数据并构建电弧炉炉次时序序列；通过PELT变点检测算法的代价最小化准则识别候选变点位置，分段统计候选变点前后分段长度，确定候选变点邻域并判定稳定分段时刻、阶段迁移时刻、孤立突变时刻和其他采样时刻；在Mamba模型的选择性状态空间层中加设时刻类别编码支路、步长修正映射支路和步长融合支路，生成步长修正系数和基础选择性步长参数，乘法融合得到修正选择性步长参数，并执行状态更新输出状态预测结果。本发明通过采样时刻类别对选择性步长进行约束修正，用于表征电弧炉炉次时序中阶段迁移和孤立突变对状态递推过程的影响。","西冶科技集团股份有限公司","CN202611105816.X","G06F18\u002F2415;F27B3\u002F28;G06F18\u002F2431;G06F18\u002F213;G06F18\u002F25;G07C3\u002F00;G06N3\u002F0464;G06N3\u002F042;G06N3\u002F09;G06F123\u002F02","代军峰",[],[],{"resultType":387,"id":633,"title":634,"abstract":635,"orgName":451,"province":392,"date":393,"trl":11,"transferMode":11,"keywords":11,"industry":11,"patentType":394,"legalStatus":636,"isOpenLicense":396,"isRevitalized":397,"techMaturity":11,"starRating":11,"licenseFeeText":11,"patentNo":637,"ipc":638,"inventors":639,"tags":640,"tagNames":641},"gpi2_0801","基于皮尔格温轧制备的钼铼合金梯度组织管材及方法","一种基于皮尔格温轧制备的钼铼合金梯度组织管材及方法，属于金属材料加工技术领域，解决钼铼合金管全断面均匀细晶无法兼顾室温力学性能与高温抗蠕变性能、轴向成分梯度存在界面失效风险、轧制工艺变形抗力大且流程长以及皮尔格轧制技术尚无主动构建径向组织梯度思路等核心问题，包括以下步骤：S1、制备管坯；S2、管坯预处理；S3、皮尔格轧机温轧；S4、退火；S5、精整。本发明通过一道次温轧使内壁的塑性变形程度低于外壁（外壁剧烈塑性变形），经退火处理将变形储能差异转化为晶粒尺寸差异，从而在管材单一横截面上实现从外壁细晶到内壁粗晶过渡的径向梯度组织，根本性地改变了现有技术“消除组织不均匀、追求全断面均匀”的调控思路。","2026.08.25#公开;2026.09.11#实质审查的生效;2026.09.18#授权","CN202611122631.X","B21C37\u002F06;B21B21\u002F00;B21B37\u002F78;B21C37\u002F30;C21D1\u002F26;C21D9\u002F08;C23G3\u002F04","杨恒;冯伟;李恒;刘郁丽",[],[],{"resultType":387,"id":643,"title":644,"abstract":645,"orgName":646,"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":647,"ipc":648,"inventors":649,"tags":650,"tagNames":651},"gpi2_0360","基于边缘计算的算网资源状态多维度感知上报方法","本申请公开了基于边缘计算的算网资源状态多维度感知上报方法，涉及算力网络资源管理技术领域。方法包括：在各算网节点部署轻量化边缘计算单元，就近采集算力、存储、网络、负载和环境维度运行数据；经异常剔除、标准化和分级量化，输出精简资源状态；调取标准任务库，匹配资源需求计算适配度，生成任务适配标签；将精简状态输入时序预测模型，识别异常并划分预警，生成本地预调度方案；封装精简状态、适配标签、预警及方案，以增量方式通过轻量协议上报至中心服务器。本申请解决了现有技术中心服务器计算压力大、数据冗余、实时性差的问题。","联通(陕西)产业互联网有限公司;中国联合网络通信有限公司陕西省分公司","CN202611096063.0","H04L67\u002F56;H04L67\u002F60;H04L41\u002F14;H04L41\u002F147","李佳文;吴曦;剌媛;徐蕾;刘盼;罗倩",[],[],{"resultType":387,"id":653,"title":654,"abstract":655,"orgName":451,"province":392,"date":393,"trl":11,"transferMode":11,"keywords":11,"industry":11,"patentType":394,"legalStatus":408,"isOpenLicense":396,"isRevitalized":397,"techMaturity":11,"starRating":11,"licenseFeeText":11,"patentNo":656,"ipc":657,"inventors":658,"tags":659,"tagNames":660},"gpi2_0229","用于定向能量沉积增材制造航空结构件的性能评估方法和设备","本申请涉及用于定向能量沉积增材制造航空结构件的性能评估方法和设备，包括根据航空结构件的三维结构模型构建结构性能分析模型并在预设服役工况下对载荷条件和边界条件进行解析与定义，然后在结构性能分析模型中引入与DED工艺匹配的制造约束条件并采用建立热力耦合仿真模型以获得仿真结果，然后提取目标结构特征并构建与其对应的模拟试样，进而获取其预设性能参数并通过与仿真结果进行对比建立模型修正参数，对热力耦合仿真模型进行修正；最后基于修正后的仿真模型并结合预设评价指标，对航空结构件整体性能进行综合评估，生成性能判定结果及工艺适配评估结果。本申请能够实现对航空结构件几何精度、残余应力状态及力学性能的整体评估。","CN202611097265.7","G06F30\u002F23;G06F30\u002F15;G16C60\u002F00;G06F111\u002F04;G06F111\u002F10;G06F113\u002F10;G06F119\u002F08;G06F119\u002F14","赵宇凡;彭逸琦;李昊;林鑫;杨海欧;李庆狄;李翔宇;徐光耀",[],[],{"resultType":387,"id":662,"title":663,"abstract":664,"orgName":665,"province":392,"date":393,"trl":11,"transferMode":11,"keywords":11,"industry":11,"patentType":394,"legalStatus":441,"isOpenLicense":396,"isRevitalized":397,"techMaturity":11,"starRating":11,"licenseFeeText":11,"patentNo":666,"ipc":667,"inventors":668,"tags":669,"tagNames":670},"gpi2_0213","用于机载SAR载荷天线的波束中心稳定方法","本发明公开了用于机载SAR载荷天线的波束中心稳定方法，涉及合成孔径雷达相关领域，其中方法包括：获取组合导航模块的监测数据；执行振动感知单元数据交互获取结构振动扰动数据；计算波束中心附加偏移量，将偏移量作为扰动修正量执行波束指向解算修正，输出波束中心初始偏离误差量；对偏离误差量进行频域分离处理建立低频姿态漂移误差分量、高频振动扰动误差分量；将误差分量映射至统一天线视线坐标系下进行方位轴与俯仰轴的联合约束求解建立协同控制量；下发至双轴驱动单元执行波束中心稳定控制。本申请解决现有天线波束指向控制存在的难以在动态扰动下持续保持稳定的问题，达到在载体动态扰动下使天线波束中心指向持续保持稳定的效果。","西安晟昕科技股份有限公司","CN202611097618.3","H01Q3\u002F08;G01S7\u002F02;G01S13\u002F90;H01Q1\u002F28","徐章锁;赖礼楚;门兰宁;陈轲;陈国彬;李恺豪;易云;宫徐波",[],[],{"resultType":387,"id":672,"title":673,"abstract":674,"orgName":675,"province":392,"date":676,"trl":11,"transferMode":11,"keywords":11,"industry":11,"patentType":394,"legalStatus":677,"isOpenLicense":396,"isRevitalized":397,"techMaturity":11,"starRating":11,"licenseFeeText":11,"patentNo":678,"ipc":679,"inventors":680,"tags":681,"tagNames":682},"gpi_01206","1,3,5-三取代六氢均三嗪的合成方法","本发明公开了一种1，3，5-三取代六氢均三嗪的合成方法，为了解决1，3，5-三取代六氢均三嗪收率不高的问题。本发明包括以下步骤：将缩甲醛、有机腈和30mL～100mL 1，2-二氯乙烷以及0.1g～5g催化剂，加入三口瓶中，其中有机腈与缩甲醛的摩尔比为3.5～5∶1；在搅拌下加热至反应液回流，持续搅拌2h～20h，停止加热，反应结束。趁热过滤反应液分离出催化剂后，滤液减压除溶剂，室温静置10h～12h，过滤得1，3，5-三取代六氢均三嗪。本发明主要用于1，3，5-三取代六氢均三嗪的合成。","西安近代化学研究所","2026-10-12T00:54:35.109Z","2010.06.09#公开;2011.01.26#实质审查的生效;2012.01.04#授权","CN200910250472.1","C07D251\u002F04","吕剑;杨建明;余秦伟;刘波;李凤仙;谷玉杰",[],[],{"resultType":387,"id":684,"title":685,"abstract":686,"orgName":675,"province":392,"date":676,"trl":11,"transferMode":11,"keywords":11,"industry":11,"patentType":394,"legalStatus":687,"isOpenLicense":396,"isRevitalized":397,"techMaturity":11,"starRating":11,"licenseFeeText":11,"patentNo":688,"ipc":689,"inventors":690,"tags":691,"tagNames":692},"gpi_01884","N-硝基乙酰胺的制备方法","本发明公开一种N-硝基乙酰胺的制备方法，该方法将硝酰胺、乙酰氯加入50mL～200mL有机溶剂中，其中有机溶剂为乙腈、乙醚、乙酸乙酯中的一种，硝酰胺与乙酰氯摩尔比为1∶0.8～1.2，在反应温度20℃～40℃条件下反应6h～10h，反应液蒸除溶剂，所得固体在正己烷中重结晶，干燥后得N-硝基乙酰胺。该方法收率高，反应时间短。主要用于制备N-硝基乙酰胺。","2011.02.16#公开;2011.03.30#实质审查的生效;2013.04.03#授权","CN201010525313.0","C07C243\u002F02;C07C241\u002F00","杨建明;吕剑;李亚妮;刘波;薛云娜;谷玉杰",[],[],{"resultType":387,"id":694,"title":695,"abstract":696,"orgName":675,"province":392,"date":676,"trl":11,"transferMode":11,"keywords":11,"industry":11,"patentType":394,"legalStatus":697,"isOpenLicense":396,"isRevitalized":397,"techMaturity":11,"starRating":11,"licenseFeeText":11,"patentNo":698,"ipc":689,"inventors":699,"tags":700,"tagNames":701},"gpi_01885","N-硝基氨基乙醇的制备方法","本发明公开了一种N-硝基氨基乙醇的制备方法，该方法将环氧乙烷溶解于氯代烃中，缓慢滴加到含有硝酰胺的氯代烃中，其中氯代烃为二氯甲烷、三氯甲烷、四氯化碳中的一种，环氧乙烷与硝酰胺摩尔比为1∶0.8～1.2，在反应温度0℃～30℃条件下反应2h～6h，反应液蒸除溶剂，得N-硝基氨基乙醇，具有反应收率高的特点。","2011.02.16#公开;2011.03.30#实质审查的生效;2013.03.06#授权","CN201010525314.5","杨建明;吕剑;余秦伟;李凤仙;刘波;王伟",[],[],778,1,26]