<?xml version="1.0" encoding="UTF-8"?><rss version="2.0"><channel><title>仲德精密技术资料</title><description>精密制造、AI液冷、人形机器人和光模块结构件的工程技术文章。</description><link>https://www.zdpmt.com/zh</link><language>zh-CN</language><item><title>具身智能是什么？从同一个智能体进入不同机器人形态，到关节执行器与精密制造</title><link>https://www.zdpmt.com/zh/resources/embodied-ai-humanoid-robot-precision-manufacturing</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/embodied-ai-humanoid-robot-precision-manufacturing</guid><description>从制造工程角度理解具身智能：同一个智能体如何部署到人形、四足、移动操作、工业和专用机器人中，并解析 AI 指令如何经过电机、减速器、轴承、编码器和关节结构转化为真实动作。</description><pubDate>Thu, 13 Aug 2026 00:00:00 GMT</pubDate><category>行业应用</category><category>人形机器人关节</category><category>具身智能</category><category>Embodied AI</category><category>智能体</category><category>人形机器人</category><category>关节执行器</category><category>精密加工</category><category>CTQ</category><category>尺寸链</category><author>仲德精密工程团队</author></item><item><title>渔轮握丸怎么选材？碳纤维、铝合金、钛合金、工程塑料与定制制造</title><link>https://www.zdpmt.com/zh/resources/fishing-reel-handle-knob-material-selection-custom-manufacturing</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/fishing-reel-handle-knob-material-selection-custom-manufacturing</guid><description>从握持面积、重量、海水耐蚀、外观、轴承接口和量产工艺出发，对比碳纤维、Forged Carbon、铝合金、钛合金、不锈钢、工程塑料、EVA等渔轮握丸材料，并解析宽掌T型碳素握丸的定制制造与CTQ。</description><pubDate>Thu, 13 Aug 2026 00:00:00 GMT</pubDate><category>行业应用</category><category>通用精密制造</category><category>渔轮握丸</category><category>碳纤维握丸</category><category>T型握丸</category><category>Power 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Robot</category><category>机器人关节</category><category>关节执行器</category><category>精密加工</category><category>CTQ</category><category>尺寸链</category><author>仲德精密工程团队</author></item><item><title>渔轮铝合金外观件如何做表面处理？阳极氧化、抛光与颜色一致性控制</title><link>https://www.zdpmt.com/zh/resources/fishing-reel-aluminum-anodizing-cosmetic-finish-control</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/fishing-reel-aluminum-anodizing-cosmetic-finish-control</guid><description>解析渔轮机身、侧盖、线杯和摇臂等铝合金外观件在CNC、抛光或喷砂、阳极氧化后的颜色与外观差异来源，并说明功能配合区、遮蔽、膜层、限度样和量产批次控制。</description><pubDate>Wed, 12 Aug 2026 00:00:00 GMT</pubDate><category>行业应用</category><category>通用精密制造</category><category>渔轮表面处理</category><category>铝合金阳极氧化</category><category>渔轮外观件</category><category>抛光</category><category>颜色一致性</category><category>外观质量</category><author>仲德精密工程团队</author></item><item><title>渔轮机身和侧盖为什么容易变形？薄壁铝合金CNC加工与尺寸控制</title><link>https://www.zdpmt.com/zh/resources/fishing-reel-frame-side-plate-deformation-control</link><guid 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GMT</pubDate><category>工艺知识</category><category>通用精密制造</category><category>液冷Manifold</category><category>交叉孔加工</category><category>去毛刺</category><category>配流</category><category>O-ring密封</category><category>清洁度</category><author>鹤山市仲德精密制造科技有限公司</author></item><item><title>一二次融合柱上断路器为什么采用铸铝密封壳体？ZL104-T6、气密与CNC接口解析</title><link>https://www.zdpmt.com/zh/resources/primary-secondary-fusion-circuit-breaker-cast-aluminum-housing</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/primary-secondary-fusion-circuit-breaker-cast-aluminum-housing</guid><description>以ZW68-12一二次融合柱上断路器为案例，解析ZL104-T6铸铝密封壳体为什么用于干燥空气绝缘全封闭结构，以及法兰、O-ring槽、轴承座、机构孔、铸造缺陷、气密和量产CTQ。</description><pubDate>Mon, 10 Aug 2026 00:00:00 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Sidecar</category><category>DC/DC</category><category>Busbar</category><category>电源模块</category><category>精密加工</category><author>仲德精密工程团队</author></item><item><title>CPO为什么把光模块搬进AI交换机内部？精密结构件、热管理与CTQ会发生什么变化？</title><link>https://www.zdpmt.com/zh/resources/cpo-ai-switch-precision-structures-thermal-management</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/cpo-ai-switch-precision-structures-thermal-management</guid><description>从可插拔光模块到CPO，光引擎被推进到距离Switch ASIC仅毫米级的位置。本文基于英语、中文、日语、德语和法语公开资料，分析Optical Engine Carrier、Heat Spreader、Switch Cold Plate、Fiber Management、外置激光器结构等精密部件的加工需求、CTQ、失效模式，以及仲德适合切入的制造解决方案。</description><pubDate>Sat, 08 Aug 2026 00:00:00 GMT</pubDate><category>行业应用</category><category>光模块精密结构件</category><category>CPO</category><category>共封装光学</category><category>AI交换机</category><category>光引擎</category><category>精密结构件</category><category>热管理</category><category>交换机冷板</category><category>光纤管理</category><category>CTQ</category><category>硅光</category><author>仲德精密工程团队</author></item><item><title>双臂具身机器人如何分拣快递？从广州邮政1200件/小时看物流自动化新方向</title><link>https://www.zdpmt.com/zh/resources/dual-arm-embodied-robot-parcel-sorting</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/dual-arm-embodied-robot-parcel-sorting</guid><description>从广州邮区中心具身分拣机器人案例出发，解析固定工位双臂机器人如何处理不同尺寸和材质的包裹，以及关节、臂体、末端执行器和量产制造的关键问题。</description><pubDate>Sat, 08 Aug 2026 00:00:00 GMT</pubDate><category>行业应用</category><category>人形机器人关节</category><category>双臂机器人</category><category>物流分拣机器人</category><category>具身智能</category><category>机器人关节</category><category>精密加工</category><author>鹤山市仲德精密制造科技有限公司</author></item><item><title>人形机器人关节正在平台化：标准执行器会如何改变精密零件供应链？</title><link>https://www.zdpmt.com/zh/resources/humanoid-robot-actuator-platform-standardization</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/humanoid-robot-actuator-platform-standardization</guid><description>从Schaeffler XXS到XL旋转执行器平台出发，分析人形机器人关节从定制开发走向规格族、平台复用和量产后，Housing、Shaft、Flange等精密零件的订单形态、CTQ、工艺和供应链会发生什么变化。</description><pubDate>Sat, 08 Aug 2026 00:00:00 GMT</pubDate><category>行业应用</category><category>人形机器人关节</category><category>人形机器人执行器平台</category><category>标准化关节模组</category><category>机器人量产</category><category>关节壳体</category><category>输出轴与法兰</category><category>精密零件供应链</category><category>Schaeffler</category><author>仲德精密工程团队</author></item><item><title>IGBT/SiC功率模块冷板如何制造？平面度、流道、接合、气密与腐蚀控制</title><link>https://www.zdpmt.com/zh/resources/igbt-sic-power-module-cold-plate-manufacturing</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/igbt-sic-power-module-cold-plate-manufacturing</guid><description>面向PCS、SVG和大功率变流器的IGBT/SiC液冷板制造指南，解析安装面平面度、流道、Manifold、真空钎焊与FSW、气密耐压、清洁度、腐蚀以及从样件到量产的CTQ控制。</description><pubDate>Sat, 08 Aug 2026 00:00:00 GMT</pubDate><category>工艺知识</category><category>通用精密制造</category><category>IGBT冷板</category><category>SiC冷板</category><category>功率模块液冷</category><category>冷板制造</category><category>FSW</category><category>真空钎焊</category><author>鹤山市仲德精密制造科技有限公司</author></item><item><title>为什么高功率PCS开始采用液冷？IGBT/SiC功率模块冷板与Manifold解析</title><link>https://www.zdpmt.com/zh/resources/liquid-cooled-pcs-igbt-sic-cold-plate-manifold</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/liquid-cooled-pcs-igbt-sic-cold-plate-manifold</guid><description>从400kW至500kW级液冷PCS案例出发，解析IGBT/SiC功率模块为什么采用液冷，以及Cold Plate、Manifold、平面度、流道、接合、气密、腐蚀和量产制造的关键工程问题。</description><pubDate>Sat, 08 Aug 2026 00:00:00 GMT</pubDate><category>行业应用</category><category>AI服务器液冷</category><category>液冷PCS</category><category>IGBT冷板</category><category>SiC液冷</category><category>功率电子热管理</category><category>Manifold</category><author>鹤山市仲德精密制造科技有限公司</author></item><item><title>从90%到100% Heat 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GMT</pubDate><category>工艺知识</category><category>铝合金外观件</category><category>喷砂</category><category>拉丝</category><category>阳极氧化</category><category>喷涂</category><category>表面处理选择</category><category>尺寸装配</category><category>外观量产控制</category><author>仲德精密工程团队</author></item><item><title>铝合金零件为什么会变形：残余应力、装夹、去料顺序与精加工控制</title><link>https://www.zdpmt.com/zh/resources/aluminum-part-machining-distortion-control</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/aluminum-part-machining-distortion-control</guid><description>从毛坯残余应力、切削热、刀具状态、侧向夹紧、下压防浮、对称去料、中间稳定化和自由状态检测，说明薄壁铝件如何控制松夹后与表面处理后的变形。</description><pubDate>Thu, 06 Aug 2026 00:00:00 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GMT</pubDate><category>工艺知识</category><category>阳极氧化</category><category>尺寸补偿</category><category>膜厚</category><category>配合公差</category><category>遮蔽</category><category>螺纹</category><category>CNC铝件</category><category>表面处理DFM</category><author>仲德精密工程团队</author></item><item><title>高外观精密零件抛光后怎么清洗：除蜡、脱脂、超声波、纯水漂洗与洁净度控制</title><link>https://www.zdpmt.com/zh/resources/cleaning-polished-high-cosmetic-precision-parts</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/cleaning-polished-high-cosmetic-precision-parts</guid><description>说明研磨抛光后的精密清洗为什么需要化学作用与物理作用协同，分析抛光蜡、磨料、金属粉、溜光化合液、电解液、盲孔残液和二次污染，并给出预清理、除蜡、加热清洗、超声、喷淋、多级漂洗、纯水终洗、干燥和量产验证方法。</description><pubDate>Thu, 06 Aug 2026 00:00:00 GMT</pubDate><category>工艺知识</category><category>通用精密制造</category><category>精密清洗</category><category>抛光后清洗</category><category>除蜡</category><category>超声波清洗</category><category>纯水漂洗</category><category>洁净度控制</category><category>高外观零件</category><category>表面处理前清洗</category><author>仲德精密工程团队</author></item><item><title>压铸后精加工与整料CNC怎么选：模具、成本、气孔、变形与量产边界</title><link>https://www.zdpmt.com/zh/resources/die-casting-plus-machining-vs-billet-cnc</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/die-casting-plus-machining-vs-billet-cnc</guid><description>从零件形状、批量、模具投入、压铸气孔、加工余量、功能基准、表面处理和质量验证，说明何时采用压铸后关键接口CNC，何时继续使用整料CNC。</description><pubDate>Thu, 06 Aug 2026 00:00:00 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GMT</pubDate><category>工艺知识</category><category>通用精密制造</category><category>高外观零件</category><category>打磨抛光</category><category>机器人研磨</category><category>布轮抛光</category><category>滚筒研磨</category><category>等离子电解抛光</category><category>压铸外观</category><category>表面处理</category><author>仲德精密工程团队</author></item><item><title>铝合金压铸件如何实现高外观阳极：外观标准、制造课题与量产解决方案</title><link>https://www.zdpmt.com/zh/resources/high-cosmetic-anodizing-die-cast-aluminum</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/high-cosmetic-anodizing-die-cast-aluminum</guid><description>先定义高外观阳极的颜色、光泽、纹理、缺陷与批量一致性要求，再分析压铸合金、模流、气孔、脱模剂、压铸面与CNC面色差等课题，并说明从合金、模具、压铸、加工、喷砂到阳极量产的解决方法。</description><pubDate>Thu, 06 Aug 2026 00:00:00 GMT</pubDate><category>工艺知识</category><category>通用精密制造</category><category>铝合金压铸</category><category>高外观阳极</category><category>压铸表面</category><category>A级外观面</category><category>气孔控制</category><category>CNC修正</category><category>喷砂阳极</category><category>量产验证</category><author>仲德精密工程团队</author></item><item><title>人形机器人机身外壳怎么选：镁合金温冲压、工程塑料注塑与碳纤维成形对比</title><link>https://www.zdpmt.com/zh/resources/humanoid-robot-body-shell-magnesium-plastic-carbon-fiber</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/humanoid-robot-body-shell-magnesium-plastic-carbon-fiber</guid><description>从外壳功能、模具投入、轻量化、结构集成、装配CTQ、表面处理、粉尘安全和量产节拍出发，对比人形机器人镁合金温冲压、工程塑料注塑与碳纤维外壳的制造路线。</description><pubDate>Thu, 06 Aug 2026 00:00:00 GMT</pubDate><category>材料知识</category><category>人形机器人关节</category><category>人形机器人外壳</category><category>镁合金温冲压</category><category>工程塑料注塑</category><category>碳纤维外壳</category><category>CFRP</category><category>机器人轻量化</category><category>外壳制造工艺</category><category>模具与量产</category><author>仲德精密工程团队</author></item><item><title>人形机器人工程塑料外壳如何注塑：材料、翘曲、嵌件与装配缝隙控制</title><link>https://www.zdpmt.com/zh/resources/humanoid-robot-plastic-body-shell-injection-molding</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/humanoid-robot-plastic-body-shell-injection-molding</guid><description>从外壳分片、PC-ABS等材料选择、壁厚与筋位、浇口和熔接线、翘曲收缩、嵌件、喷涂、EMI、装配缝隙与量产验证，说明人形机器人塑料机身外壳如何从样件进入稳定注塑生产。</description><pubDate>Thu, 06 Aug 2026 00:00:00 GMT</pubDate><category>工艺知识</category><category>人形机器人关节</category><category>人形机器人外壳</category><category>工程塑料注塑</category><category>PC-ABS</category><category>注塑模具</category><category>翘曲控制</category><category>金属嵌件</category><category>装配缝隙</category><category>外观件量产</category><author>仲德精密工程团队</author></item><item><title>人形机器人骨骼材料怎么选：铝合金、钛合金、镁合金、PA66、PA10T、PEEK与碳纤维复合材料全解析</title><link>https://www.zdpmt.com/zh/resources/humanoid-robot-skeleton-material-selection</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/humanoid-robot-skeleton-material-selection</guid><description>以对比表、选材矩阵和工程决策段落系统说明钢、铝、镁、钛、PA66-GF、PA66-CF、PA10T、PEEK、PPS、连续CFRP与CFRTP在人形机器人主承力骨架、次承力框架、功能件和外罩中的适用边界，以及疲劳、蠕变、吸湿、纤维方向、连接、跌倒冲击和量产验证。</description><pubDate>Thu, 06 Aug 2026 00:00:00 GMT</pubDate><category>材料知识</category><category>人形机器人关节</category><category>人形机器人骨骼</category><category>轻量化材料</category><category>PA66</category><category>PA10T</category><category>PEEK</category><category>碳纤维复合材料</category><category>CFRP</category><category>CFRTP</category><category>铝合金</category><category>材料选型</category><author>仲德精密工程团队</author></item><item><title>6061、6063与7075铝合金怎么选：功能、毛坯、加工、阳极与量产稳定性</title><link>https://www.zdpmt.com/zh/resources/6061-6063-7075-aluminum-alloy-selection</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/6061-6063-7075-aluminum-alloy-selection</guid><description>从零件功能、材料状态、板棒管挤型等毛坯形态、CNC加工、阳极氧化和量产风险出发，对比6061、6063与7075铝合金的合理应用边界，并说明RFQ应提供的材料信息。</description><pubDate>Wed, 05 Aug 2026 00:00:00 GMT</pubDate><category>材料知识</category><category>AI服务器液冷</category><category>人形机器人关节</category><category>光模块精密结构件</category><category>通用精密制造</category><category>6061铝合金</category><category>6063铝合金</category><category>7075铝合金</category><category>铝合金选材</category><category>CNC铝件</category><category>铝挤型材</category><category>阳极氧化</category><category>材料状态</category><category>量产稳定性</category><category>RFQ</category><author>仲德精密工程团队</author></item><item><title>800G与1.6T光模块有什么区别？OSFP、QSFP-DD、散热与结构件变化</title><link>https://www.zdpmt.com/zh/resources/800g-vs-1-6t-optical-transceivers</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/800g-vs-1-6t-optical-transceivers</guid><description>从总带宽、单通道速率、OSFP与QSFP-DD封装、功耗密度、散热路径和精密结构件CTQ出发，说明800G升级到1.6T时真正发生的工程变化，以及样件、量产和RFQ阶段需要控制的风险。</description><pubDate>Wed, 05 Aug 2026 00:00:00 GMT</pubDate><category>行业应用</category><category>光模块精密结构件</category><category>800G光模块</category><category>1.6T光模块</category><category>OSFP</category><category>QSFP-DD</category><category>200G每通道</category><category>光模块散热</category><category>精密结构件</category><category>热界面CTQ</category><category>AI数据中心互连</category><author>仲德精密工程团队</author></item><item><title>精密CNC零件的工艺路线怎么制定：功能基准、装夹、工序与检测</title><link>https://www.zdpmt.com/zh/resources/cnc-machining-process-planning-datum-fixturing-inspection</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/cnc-machining-process-planning-datum-fixturing-inspection</guid><description>从零件功能和装配接口出发，说明如何确定CTQ、功能基准、毛坯、装夹、粗精加工顺序、表面处理和检测节点，并避免样件路线直接复制到量产。</description><pubDate>Wed, 05 Aug 2026 00:00:00 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GMT</pubDate><category>行业应用</category><category>光模块精密结构件</category><category>AI光模块产业链</category><category>InnoLight</category><category>Eoptolink</category><category>Coherent</category><category>Lumentum</category><category>800G光模块</category><category>1.6T光模块</category><category>CPO</category><category>硅光</category><category>光模块结构件</category><author>仲德精密工程团队</author></item><item><title>高速光模块由哪些精密结构件组成？壳体、散热上盖、底座、拉环与功能接口解析</title><link>https://www.zdpmt.com/zh/resources/high-speed-optical-transceiver-precision-parts</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/high-speed-optical-transceiver-precision-parts</guid><description>从散热上盖、精密底座、外部散热器、前面板、光口、拉环和锁止结构出发，解释高速光模块中哪些接口真正决定热传导、装配、插拔、EMI与量产稳定性，以及供应商应如何控制CTQ。</description><pubDate>Wed, 05 Aug 2026 00:00:00 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GMT</pubDate><category>工艺知识</category><category>AI服务器液冷</category><category>液冷板</category><category>液冷冷板</category><category>冷板流道</category><category>冷板材料</category><category>制造CTQ</category><author>仲德精密工程团队</author></item><item><title>可插拔光模块、LPO、NPO与CPO有什么区别？AI网络光互连架构、热管理与精密制造机会</title><link>https://www.zdpmt.com/zh/resources/pluggable-optics-lpo-npo-cpo-comparison</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/pluggable-optics-lpo-npo-cpo-comparison</guid><description>从信号处理边界、光引擎位置、激光器、热管理、可维护性和精密结构件出发，对比传统Retimed Pluggable、LPO、NPO与CPO，并说明其对光模块壳体、光引擎载体、冷板、液冷接口、装配和RFQ的影响。</description><pubDate>Wed, 05 Aug 2026 00:00:00 GMT</pubDate><category>行业应用</category><category>光模块精密结构件</category><category>可插拔光模块</category><category>LPO</category><category>NPO</category><category>CPO</category><category>共封装光学</category><category>AI网络</category><category>光引擎</category><category>硅光</category><category>液冷</category><category>精密结构件</category><author>仲德精密工程团队</author></item><item><title>服务器液冷系统由哪些部件组成：冷板、歧管、CDU与快接</title><link>https://www.zdpmt.com/zh/resources/server-liquid-cooling-components</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/server-liquid-cooling-components</guid><description>按服务器、机架和设施接口拆解液冷系统BOM，说明液冷板、服务器歧管、机架歧管、快速接头、软管、CDU、传感器和安装结构件的功能、制造接口与验收重点。</description><pubDate>Wed, 05 Aug 2026 00:00:00 GMT</pubDate><category>行业应用</category><category>AI服务器液冷</category><category>服务器液冷</category><category>液冷系统部件</category><category>液冷板</category><category>冷却歧管</category><category>CDU</category><category>快速接头</category><author>仲德精密工程团队</author></item><item><title>硅光与EML光模块有什么区别？光源、调制、封装、散热与精密结构解析</title><link>https://www.zdpmt.com/zh/resources/silicon-photonics-vs-eml-optical-transceivers</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/silicon-photonics-vs-eml-optical-transceivers</guid><description>从光源和调制原理出发，对比硅光与EML在800G、1.6T光模块中的光引擎布局、热源分布、光纤接口、精密底座、散热上盖、CTQ、样件验证与量产制造要求。</description><pubDate>Wed, 05 Aug 2026 00:00:00 GMT</pubDate><category>行业应用</category><category>光模块精密结构件</category><category>硅光</category><category>EML</category><category>光模块</category><category>1.6T光模块</category><category>光引擎</category><category>CW激光器</category><category>热管理</category><category>精密结构件</category><category>光模块封装</category><category>CTQ</category><author>仲德精密工程团队</author></item><item><title>液冷是什么：AI服务器与数据中心液冷完整指南</title><link>https://www.zdpmt.com/zh/resources/what-is-data-center-liquid-cooling</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/what-is-data-center-liquid-cooling</guid><description>完整解释AI服务器与数据中心液冷的原理、风冷与水冷区别、直接芯片液冷、浸没式液冷、系统架构、冷板、歧管、CDU、制造CTQ、验证方法和RFQ要求。</description><pubDate>Wed, 05 Aug 2026 00:00:00 GMT</pubDate><category>行业应用</category><category>AI服务器液冷</category><category>液冷是什么</category><category>数据中心液冷</category><category>直接芯片液冷</category><category>浸没式液冷</category><category>液冷部件制造</category><author>仲德精密工程团队</author></item><item><title>中国人形机器人核心零部件产业链：关节执行器、减速器、电机、传感器与精密制造企业解析</title><link>https://www.zdpmt.com/zh/resources/china-humanoid-robot-core-components-supply-chain</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/china-humanoid-robot-core-components-supply-chain</guid><description>参考国信证券与大公资信的人形机器人产业研究，从上游核心零部件、中游整机集成和下游应用三层，解析减速器、丝杠、电机、轴承、传感器、灵巧手、关节模组与精密结构件的价值分布、代表企业和量产成熟度。</description><pubDate>Tue, 04 Aug 2026 00:00:00 GMT</pubDate><category>行业应用</category><category>人形机器人关节</category><category>中国人形机器人</category><category>人形机器人产业链</category><category>关节执行器</category><category>谐波减速器</category><category>行星滚柱丝杠</category><category>无框力矩电机</category><category>六维力传感器</category><category>灵巧手</category><category>精密制造企业</category><author>仲德精密工程团队</author></item><item><title>液冷板内部清洁度如何控制：颗粒、油污、清洗、干燥与包装</title><link>https://www.zdpmt.com/zh/resources/cold-plate-internal-cleanliness-cleaning-drying-packaging</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/cold-plate-internal-cleanliness-cleaning-drying-packaging</guid><description>从微通道堵塞、金属切屑、加工油、清洗残留、残余水分、冲洗验证和运输防护等方面，说明AI服务器液冷板如何建立可量化、可追溯的内部清洁度控制。</description><pubDate>Tue, 04 Aug 2026 00:00:00 GMT</pubDate><category>质量管理</category><category>AI服务器液冷</category><category>液冷板清洁度</category><category>颗粒控制</category><category>微通道堵塞</category><category>工业清洗</category><category>干燥</category><category>包装防护</category><category>FOD控制</category><author>仲德精密工程团队</author></item><item><title>数据中心液冷系统全解析：架构、关键部件与制造接口</title><link>https://www.zdpmt.com/zh/resources/data-center-liquid-cooling-system-architecture</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/data-center-liquid-cooling-system-architecture</guid><description>从芯片到设施冷却水，解析数据中心液冷系统中的液冷板、服务器歧管、机架歧管、CDU、快接和管路，并说明关键制造接口与质量控制要求。</description><pubDate>Tue, 04 Aug 2026 00:00:00 GMT</pubDate><category>行业应用</category><category>AI服务器液冷</category><category>数据中心液冷</category><category>液冷系统</category><category>液冷板</category><category>冷却歧管</category><category>CDU</category><author>仲德精密工程团队</author></item><item><title>全球领先人形机器人技术路线对比：Tesla Optimus、Unitree G1/H1、Figure 03、Atlas与NEO</title><link>https://www.zdpmt.com/zh/resources/global-humanoid-robot-technology-comparison</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/global-humanoid-robot-technology-comparison</guid><description>基于截至2026年8月的官方公开资料，对比Tesla Optimus、宇树G1/H1、Figure 03、Boston Dynamics Atlas和1X NEO的关节执行器、传动、结构、柔顺安全、AI控制与量产制造路线。</description><pubDate>Tue, 04 Aug 2026 00:00:00 GMT</pubDate><category>行业应用</category><category>人形机器人关节</category><category>全球人形机器人</category><category>Tesla Optimus</category><category>Unitree G1</category><category>Unitree H1</category><category>Figure 03</category><category>Boston Dynamics Atlas</category><category>1X NEO</category><category>人形机器人执行器</category><category>人形机器人量产</category><category>人形机器人技术对比</category><author>仲德精密工程团队</author></item><item><title>人形机器人足部如何制造：踝关节接口、足底框架、力传感器与落地冲击控制</title><link>https://www.zdpmt.com/zh/resources/humanoid-robot-foot-ankle-manufacturing</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/humanoid-robot-foot-ankle-manufacturing</guid><description>从足部载荷路径、踝关节接口、足底框架、六维力传感器安装、柔顺结构、接触面、薄壁加工、跌落冲击和量产校准等方面，说明人形机器人足部如何设计与制造。</description><pubDate>Tue, 04 Aug 2026 00:00:00 GMT</pubDate><category>行业应用</category><category>人形机器人关节</category><category>人形机器人足部</category><category>踝关节</category><category>足底框架</category><category>六维力传感器</category><category>落地冲击</category><category>柔顺足</category><category>足底接触</category><category>精密加工</category><author>仲德精密工程团队</author></item><item><title>人形机器人手部骨骼如何制造：掌骨框架、指骨、关节轴、腱绳与触觉接口</title><link>https://www.zdpmt.com/zh/resources/humanoid-robot-hand-finger-skeleton-manufacturing</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/humanoid-robot-hand-finger-skeleton-manufacturing</guid><description>从手掌框架、拇指对掌、指骨连杆、关节轴、腱绳传动、柔顺设计、触觉传感、摩擦与回差、装配标定和疲劳维护等方面，说明人形机器人灵巧手骨架如何从样件走向量产。</description><pubDate>Tue, 04 Aug 2026 00:00:00 GMT</pubDate><category>行业应用</category><category>人形机器人关节</category><category>人形机器人手部</category><category>灵巧手</category><category>手掌框架</category><category>指骨连杆</category><category>腱绳传动</category><category>拇指对掌</category><category>触觉传感</category><category>精密装配</category><author>仲德精密工程团队</author></item><item><title>人形机器人髋关节与膝关节如何制造：高扭矩执行器、大腿骨架、冲击载荷与步态标定</title><link>https://www.zdpmt.com/zh/resources/humanoid-robot-hip-knee-joint-manufacturing</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/humanoid-robot-hip-knee-joint-manufacturing</guid><description>结合Tesla Optimus、宇树H1/G1、本田ASIMO和Boston Dynamics Atlas的公开技术，分析髋关节、膝关节、高扭矩执行器、大腿轻量框架、冲击耐载、线束和整腿步态标定。</description><pubDate>Tue, 04 Aug 2026 00:00:00 GMT</pubDate><category>行业应用</category><category>人形机器人关节</category><category>人形机器人髋关节</category><category>人形机器人膝关节</category><category>高扭矩执行器</category><category>大腿骨架</category><category>步态标定</category><category>宇树H1</category><category>Tesla Optimus</category><category>Honda ASIMO</category><category>Boston Dynamics Atlas</category><author>仲德精密工程团队</author></item><item><title>人形机器人为什么这么贵？关节执行器、灵巧手、传感器与核心零件成本拆解</title><link>https://www.zdpmt.com/zh/resources/humanoid-robot-price-core-components</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/humanoid-robot-price-core-components</guid><description>从关节执行器、减速器、电机、编码器、轴承、灵巧手、传感器、计算平台、结构件及装配标定出发，解释人形机器人价格由哪些核心零件决定，以及样机到量产后成本结构如何变化。</description><pubDate>Tue, 04 Aug 2026 00:00:00 GMT</pubDate><category>行业应用</category><category>人形机器人关节</category><category>人形机器人价格</category><category>人形机器人成本</category><category>人形机器人核心零件</category><category>关节执行器</category><category>人形机器人减速器</category><category>无框力矩电机</category><category>灵巧手</category><category>力矩传感器</category><category>人形机器人量产</category><category>精密零件加工</category><author>仲德精密工程团队</author></item><item><title>人形机器人肩部与手臂关节如何制造：三自由度肩关节、上臂轻量化、肘关节与线束布局</title><link>https://www.zdpmt.com/zh/resources/humanoid-robot-shoulder-arm-joint-manufacturing</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/humanoid-robot-shoulder-arm-joint-manufacturing</guid><description>从肩关节自由度、轴线关系、上臂轻量框架、肘关节、减速器与轴承座、线束通道、回差、扭矩传感、模块化装配和整臂标定，说明人形机器人手臂如何从样件走向量产。</description><pubDate>Tue, 04 Aug 2026 00:00:00 GMT</pubDate><category>行业应用</category><category>人形机器人关节</category><category>人形机器人肩关节</category><category>手臂关节</category><category>三自由度肩关节</category><category>上臂轻量化</category><category>肘关节</category><category>轴承座</category><category>线束布局</category><category>整臂标定</category><author>仲德精密工程团队</author></item><item><title>人形机器人骨骼结构如何制造：躯干、骨盆与四肢框架的轻量化设计和精密加工</title><link>https://www.zdpmt.com/zh/resources/humanoid-robot-skeleton-frame-manufacturing</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/humanoid-robot-skeleton-frame-manufacturing</guid><description>从载荷路径、质量分布、拓扑优化、材料与工艺选择、关节接口、薄壁变形、尺寸链和结构验证等方面，说明人形机器人躯干、骨盆、大腿、小腿和手臂骨架如何从样件走向量产。</description><pubDate>Tue, 04 Aug 2026 00:00:00 GMT</pubDate><category>行业应用</category><category>人形机器人关节</category><category>人形机器人骨骼</category><category>机器人骨架</category><category>躯干框架</category><category>骨盆结构</category><category>四肢轻量化</category><category>拓扑优化</category><category>薄壁加工</category><category>关节接口</category><author>仲德精密工程团队</author></item><item><title>人形机器人腰部与躯干关节如何制造：三自由度腰关节、轻量框架、负载路径与整机标定</title><link>https://www.zdpmt.com/zh/resources/humanoid-robot-waist-torso-joint-manufacturing</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/humanoid-robot-waist-torso-joint-manufacturing</guid><description>从腰部自由度、串联与耦合传动、轴承座、同轴度、结构刚度、线束通道、重心、回差、扭矩传感、模块化装配和整机标定，说明人形机器人腰部与躯干如何从样件走向量产。</description><pubDate>Tue, 04 Aug 2026 00:00:00 GMT</pubDate><category>行业应用</category><category>人形机器人关节</category><category>人形机器人腰部</category><category>躯干关节</category><category>三自由度腰关节</category><category>轻量化框架</category><category>轴承座</category><category>负载路径</category><category>线束通道</category><category>整机标定</category><author>仲德精密工程团队</author></item><item><title>关节执行器精密零件与加工CTQ：从旋转中心、轴承配合到编码器基准的完整控制方法</title><link>https://www.zdpmt.com/zh/resources/joint-actuator-precision-parts-machining-ctq</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/joint-actuator-precision-parts-machining-ctq</guid><description>从关节功能链出发，说明壳体、减速器定位座、轴承座、输出法兰、编码器安装结构与电机端盖的关键尺寸关系，并给出基准体系、加工路线、检测方法和量产控制思路。</description><pubDate>Tue, 04 Aug 2026 00:00:00 GMT</pubDate><category>质量管理</category><category>人形机器人关节</category><category>关节执行器</category><category>精密零件</category><category>CTQ</category><category>同轴度</category><category>轴承配合</category><category>输出法兰</category><category>编码器基准</category><category>公差链</category><author>仲德精密工程团队</author></item><item><title>宇树G1与H1有什么区别：尺寸、关节扭矩、自由度与应用场景</title><link>https://www.zdpmt.com/zh/resources/unitree-g1-vs-h1-comparison</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/unitree-g1-vs-h1-comparison</guid><description>基于截至2026年8月的宇树官方产品资料，对比G1与H1/H1-2的尺寸、重量、自由度、关节扭矩、速度、负载、开发能力、应用场景及精密制造要求。</description><pubDate>Tue, 04 Aug 2026 00:00:00 GMT</pubDate><category>行业应用</category><category>人形机器人关节</category><category>宇树G1</category><category>宇树H1</category><category>Unitree G1</category><category>Unitree 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GMT</pubDate><category>质量管理</category><category>AI服务器液冷</category><category>液冷板测试</category><category>气密测试</category><category>耐压测试</category><category>平面度</category><category>密封设计</category><author>仲德精密工程团队</author></item><item><title>人形机器人关节执行器由哪些部件组成？关键结构与加工接口解析</title><link>https://www.zdpmt.com/zh/resources/humanoid-robot-joint-actuator-components-machining</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/humanoid-robot-joint-actuator-components-machining</guid><description>从电机、减速器、轴承、编码器到输出法兰和执行器壳体，解析人形机器人关节执行器的扭矩传递、反馈路径、关键装配基准、轻量化及精密加工控制要点。</description><pubDate>Thu, 30 Jul 2026 00:00:00 GMT</pubDate><category>行业应用</category><category>人形机器人关节</category><category>人形机器人关节执行器</category><category>执行器壳体加工</category><category>机器人关节电机</category><category>减速器安装座</category><category>精密轴承座</category><category>输出法兰</category><author>仲德精密工程团队</author></item><item><title>人形机器人关节执行器壳体如何加工：同轴度、轴承安装位与薄壁变形控制</title><link>https://www.zdpmt.com/zh/resources/humanoid-robot-joint-actuator-housing-machining</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/humanoid-robot-joint-actuator-housing-machining</guid><description>从关节功能轴线出发，解析人形机器人关节执行器壳体的同轴度、轴承孔、减速器定位、薄壁变形、装夹、表面处理与最终检测方法。</description><pubDate>Thu, 30 Jul 2026 00:00:00 GMT</pubDate><category>工艺知识</category><category>人形机器人关节</category><category>关节执行器壳体加工</category><category>人形机器人精密加工</category><category>轴承安装位</category><category>同轴度控制</category><category>薄壁加工</category><category>7075铝合金加工</category><category>减速器定位止口</category><author>仲德精密工程团队</author></item><item><title>人形机器人轻量化材料怎么选：7075铝合金、钛合金、PEEK与CFRP对比</title><link>https://www.zdpmt.com/zh/resources/humanoid-robot-lightweight-materials</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/humanoid-robot-lightweight-materials</guid><description>从关节执行器壳体、输出轴、功能件到手臂与腿部连杆，对比7075铝合金、钛合金、PEEK与CFRP的密度、刚度、接口、制造风险和合理应用位置。</description><pubDate>Thu, 30 Jul 2026 00:00:00 GMT</pubDate><category>材料知识</category><category>人形机器人关节</category><category>人形机器人轻量化</category><category>7075铝合金</category><category>钛合金</category><category>PEEK</category><category>CFRP</category><category>机器人材料选择</category><author>仲德精密工程团队</author></item><item><title>从样件到量产：人形机器人精密零件的CTQ、尺寸链与工艺控制</title><link>https://www.zdpmt.com/zh/resources/humanoid-robot-parts-prototype-to-production</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/humanoid-robot-parts-prototype-to-production</guid><description>解析人形机器人关节壳体、轴承座、输出法兰等精密零件如何从样件导入量产：识别CTQ、建立尺寸链、验证量产工艺、测量系统与过程能力，并通过控制计划、SPC、追溯和变更管理稳定复制。</description><pubDate>Thu, 30 Jul 2026 00:00:00 GMT</pubDate><category>质量管理</category><category>人形机器人关节</category><category>通用精密制造</category><category>人形机器人量产导入</category><category>CTQ管理</category><category>尺寸链</category><category>控制计划</category><category>SPC</category><category>Cpk</category><category>测量系统分析</category><category>过程变更管理</category><author>仲德精密工程团队</author></item><item><title>微通道冷板如何加工：结构尺寸与可制造性</title><link>https://www.zdpmt.com/zh/resources/microchannel-cold-plate-manufacturing</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/microchannel-cold-plate-manufacturing</guid><description>从通道宽度、深宽比、翅片厚度、分流结构、加工路线、去毛刺、清洗、封合和验证等方面，系统说明微通道冷板的设计与可制造性。</description><pubDate>Thu, 30 Jul 2026 00:00:00 GMT</pubDate><category>工艺知识</category><category>AI服务器液冷</category><category>微通道冷板</category><category>液冷板加工</category><category>CNC微铣削</category><category>扩散接合</category><category>液冷系统</category><category>可制造性</category><author>仲德精密工程团队</author></item><item><title>从样件到量产：光模块精密结构件的CTQ、尺寸链与批量控制</title><link>https://www.zdpmt.com/zh/resources/optical-transceiver-ctq-production-control</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/optical-transceiver-ctq-production-control</guid><description>围绕光模块散热上盖、精密底座、热扩散件和定位壳体，说明如何从样件验证走向稳定量产：识别CTQ、建立功能尺寸链、验证测量系统与过程能力，并通过首件、巡检、SPC、批次追溯和变更管理持续控制。</description><pubDate>Thu, 30 Jul 2026 00:00:00 GMT</pubDate><category>质量管理</category><category>光模块精密结构件</category><category>通用精密制造</category><category>光模块量产导入</category><category>CTQ管理</category><category>尺寸链</category><category>批量控制</category><category>SPC</category><category>Cpk</category><category>测量系统分析</category><category>过程追溯</category><category>变更管理</category><author>仲德精密工程团队</author></item><item><title>光模块散热器材料怎么选：铝挤型材、CNC铝件、铜材与铜铝组合</title><link>https://www.zdpmt.com/zh/resources/optical-transceiver-heatsink-material-selection</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/optical-transceiver-heatsink-material-selection</guid><description>从热扩散、鳍片效率、重量、结构自由度、加工路线和量产成本出发，比较光模块散热器采用6063铝挤型材、6061类CNC铝件、高导铜材及铜铝组合结构的适用场景与制造风险。</description><pubDate>Thu, 30 Jul 2026 00:00:00 GMT</pubDate><category>材料知识</category><category>光模块精密结构件</category><category>通用精密制造</category><category>光模块散热器</category><category>铝挤型材</category><category>CNC铝件</category><category>6063铝合金</category><category>6061铝合金</category><category>铜材</category><category>铜铝组合</category><category>热扩散</category><category>散热结构设计</category><author>仲德精密工程团队</author></item><item><title>光模块散热结构件表面处理：阳极氧化、化学镍、遮蔽与导热面保护</title><link>https://www.zdpmt.com/zh/resources/optical-transceiver-surface-treatment</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/optical-transceiver-surface-treatment</guid><description>从热路径、耐腐蚀、尺寸变化、膜层均匀性、遮蔽边界和处理后复检出发，说明光模块散热器、上盖和导热结构件如何选择阳极氧化、化学镍及关键导热面保护方案。</description><pubDate>Thu, 30 Jul 2026 00:00:00 GMT</pubDate><category>工艺知识</category><category>光模块精密结构件</category><category>通用精密制造</category><category>光模块散热结构件</category><category>阳极氧化</category><category>化学镍</category><category>无电解镍</category><category>遮蔽</category><category>导热面保护</category><category>表面处理</category><category>接触热阻</category><category>处理后复检</category><author>仲德精密工程团队</author></item><item><title>光模块热接触面如何控制：平面度、粗糙度、TIM与接触热阻</title><link>https://www.zdpmt.com/zh/resources/optical-transceiver-thermal-interface-control</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/optical-transceiver-thermal-interface-control</guid><description>从实际接触热阻出发，解释高速光模块散热上盖、热扩散板和骑乘式散热器之间如何协同控制平面度、表面粗糙度、TIM厚度、装配压力、表面处理与量产检测。</description><pubDate>Thu, 30 Jul 2026 00:00:00 GMT</pubDate><category>质量管理</category><category>光模块精密结构件</category><category>通用精密制造</category><category>光模块热管理</category><category>热接触面</category><category>平面度</category><category>表面粗糙度</category><category>TIM</category><category>接触热阻</category><category>Bond Line Thickness</category><category>光模块散热器</category><author>仲德精密工程团队</author></item><item><title>AI服务器液冷板制造工艺：CNC、钎焊与微通道怎么选</title><link>https://www.zdpmt.com/zh/resources/ai-server-cold-plate-manufacturing-processes</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/ai-server-cold-plate-manufacturing-processes</guid><description>从流道结构、密封方式、热性能、加工精度、气密测试与量产稳定性等方面，对比AI服务器液冷板的CNC、钎焊和微通道制造路线。</description><pubDate>Wed, 29 Jul 2026 00:00:00 GMT</pubDate><category>工艺知识</category><category>AI服务器液冷</category><category>液冷板</category><category>冷板加工</category><category>CNC加工</category><category>钎焊</category><category>微通道</category><author>仲德精密工程团队</author></item><item><title>铝液冷板与铜液冷板：材料、性能与工艺对比</title><link>https://www.zdpmt.com/zh/resources/aluminum-vs-copper-liquid-cold-plates</link><guid isPermaLink="true">https://www.zdpmt.com/zh/resources/aluminum-vs-copper-liquid-cold-plates</guid><description>简洁比较铝液冷板与铜液冷板在导热、重量、成本、加工性、腐蚀管理和适用场景上的差异，并说明何时适合采用铝铜混合结构。</description><pubDate>Wed, 29 Jul 2026 00:00:00 GMT</pubDate><category>材料知识</category><category>AI服务器液冷</category><category>铝液冷板</category><category>铜液冷板</category><category>液冷板选材</category><category>微通道</category><author>仲德精密工程团队</author></item></channel></rss>