<?xml version="1.0" encoding="UTF-8"?><rss version="2.0"><channel><title>Hualin Luan RSS Feed</title><description>围绕后端工程、分布式系统、Java、Python 与 AI 工程实践持续沉淀原创文章与专题知识的个人技术网站。</description><link>https://milome.github.io/</link><language>zh-CN</language><item><title>量化交易系统开发实录（六）：架构演进与重构决策</title><link>https://milome.github.io/blog/series-quant-trading/quant-trading-dev-series-part7/</link><guid isPermaLink="true">https://milome.github.io/blog/series-quant-trading/quant-trading-dev-series-part7/</guid><description>复盘 Micang Trader 的五次重构，解释系统如何从初始快照演进为更清晰的目标架构，并把技术债务和 ADR 决策纳入长期治理。</description><pubDate>Tue, 31 Mar 2026 00:00:00 GMT</pubDate><category>guide</category><category>architecture</category><category>refactoring</category><category>technical-debt</category><category>decision-making</category><category>quant-trading</category></item><item><title>量化交易系统开发实录（四）：测试驱动敏捷开发（AI Agent 辅助）</title><link>https://milome.github.io/blog/series-quant-trading/quant-trading-dev-series-part6/</link><guid isPermaLink="true">https://milome.github.io/blog/series-quant-trading/quant-trading-dev-series-part6/</guid><description>从一个跨夜交易日边界 bug 出发，重构量化交易系统的测试防线：缺陷导向测试金字塔、AI TDD 分工、边界时间、数据血缘和 CI Gate。</description><pubDate>Mon, 30 Mar 2026 00:00:00 GMT</pubDate><category>guide</category><category>tdd</category><category>testing</category><category>ai-development</category><category>pytest</category><category>quant-trading</category></item><item><title>量化交易系统开发实录（五）：Python 性能调优实战</title><link>https://milome.github.io/blog/series-quant-trading/quant-trading-dev-series-part5/</link><guid isPermaLink="true">https://milome.github.io/blog/series-quant-trading/quant-trading-dev-series-part5/</guid><description>把性能优化从经验猜测改造成可验证的侦查流程：从 3 秒图表延迟出发，定位真实瓶颈，比较优化方案，建立 benchmark 与回退策略。</description><pubDate>Sun, 29 Mar 2026 00:00:00 GMT</pubDate><category>guide</category><category>python</category><category>performance</category><category>optimization</category><category>profiling</category><category>numba</category><category>multiprocessing</category><category>vectorization</category></item><item><title>量化交易系统开发实录（七）：AI 工程化落地——从 speckit 到 BMAD</title><link>https://milome.github.io/blog/series-quant-trading/quant-trading-dev-series-part4/</link><guid isPermaLink="true">https://milome.github.io/blog/series-quant-trading/quant-trading-dev-series-part4/</guid><description>以交易日历与日线聚合需求为单一案例，解释 AI 工程化如何通过规格驱动、BMAD 角色交接和人工质量门禁进入真实量化系统交付。</description><pubDate>Sat, 28 Mar 2026 00:00:00 GMT</pubDate><category>guide</category><category>ai-engineering</category><category>speckit</category><category>bmad</category><category>agent-systems</category><category>development-workflow</category><category>prompt-engineering</category></item><item><title>量化交易系统开发实录（三）：Python Pitfalls 实战避坑指南（下）</title><link>https://milome.github.io/blog/series-quant-trading/quant-trading-dev-series-part3/</link><guid isPermaLink="true">https://milome.github.io/blog/series-quant-trading/quant-trading-dev-series-part3/</guid><description>继续把 Python 风险重组为参考篇：GUI 生命周期、异步网络失败、安全边界和部署基础设施如何影响量化交易系统的长期稳定性。</description><pubDate>Fri, 27 Mar 2026 00:00:00 GMT</pubDate><category>guide</category><category>python</category><category>pitfalls</category><category>qt</category><category>concurrency</category><category>security</category><category>quant-trading</category></item><item><title>量化交易系统开发实录（二）：Python Pitfalls 实战避坑指南（上）</title><link>https://milome.github.io/blog/series-quant-trading/quant-trading-dev-series-part2/</link><guid isPermaLink="true">https://milome.github.io/blog/series-quant-trading/quant-trading-dev-series-part2/</guid><description>把 Python 陷阱从长清单重组为量化交易系统的工程风险参考篇：语法与作用域、类型与状态、并发与状态三类风险如何放大为真实交易系统问题。</description><pubDate>Fri, 27 Mar 2026 00:00:00 GMT</pubDate><category>guide</category><category>python</category><category>pitfalls</category><category>quant-trading</category><category>debugging</category><category>best-practices</category></item><item><title>量化交易系统开发实录（一）：项目启动与架构设计的五个关键决策</title><link>https://milome.github.io/blog/series-quant-trading/quant-trading-dev-series-part1/</link><guid isPermaLink="true">https://milome.github.io/blog/series-quant-trading/quant-trading-dev-series-part1/</guid><description>以 Micang Trader 为案例，从系统边界、数据流、交易时段归属、回测实盘统一接口和 AI 协作边界出发，建立整个量化交易系统系列的架构主线。</description><pubDate>Thu, 26 Mar 2026 00:00:00 GMT</pubDate><category>guide</category><category>quant-trading</category><category>vnpy</category><category>architecture</category><category>python</category><category>ai-development</category></item><item><title>从企业级 CF 平台到云原生（一）：架构师的复盘——企业级 CF 平台时代微服务治理的得与失</title><link>https://milome.github.io/blog/series-microservices-governance/microservices-governance-series-part1/</link><guid isPermaLink="true">https://milome.github.io/blog/series-microservices-governance/microservices-governance-series-part1/</guid><description>基于 2015-2020 年企业级 CF 平台一线架构实践与 2015-2026（至今）行业观察，复盘 Cloud Foundry 时代的微服务治理设计决策，分析哪些经受住了时间考验，哪些被云原生浪潮重构</description><pubDate>Sun, 01 Mar 2026 00:00:00 GMT</pubDate><category>guide</category><category>microservices</category><category>cloud-foundry</category><category>architecture</category><category>governance</category><category>spring-cloud</category></item><item><title>从企业级 CF 平台到云原生（二）：可观测性驱动治理——从监控大屏到精准决策系统</title><link>https://milome.github.io/blog/series-microservices-governance/microservices-governance-series-part2/</link><guid isPermaLink="true">https://milome.github.io/blog/series-microservices-governance/microservices-governance-series-part2/</guid><description>以 6 年企业级平台架构师实战经验，剖析可观测性在微服务治理中的核心地位，从数据孤岛到 OpenTelemetry 统一标准，构建精准决策的治理体系</description><pubDate>Mon, 02 Mar 2026 00:00:00 GMT</pubDate><category>guide</category><category>observability</category><category>opentelemetry</category><category>microservices</category><category>governance</category><category>monitoring</category></item><item><title>从企业级 CF 平台到云原生（三）：流量治理的演进——从 Spring Cloud Gateway 到 Gateway API 与 Ambient Mesh</title><link>https://milome.github.io/blog/series-microservices-governance/microservices-governance-series-part3/</link><guid isPermaLink="true">https://milome.github.io/blog/series-microservices-governance/microservices-governance-series-part3/</guid><description>回顾 Spring Cloud Gateway 在企业级 CF 平台的实践，剖析 Kubernetes Gateway API 的标准化价值，探索 Service Mesh 到 Ambient Mesh 的演进逻辑，为企业流量治理选型提供决策框架。</description><pubDate>Tue, 03 Mar 2026 00:00:00 GMT</pubDate><category>guide</category><category>microservices</category><category>traffic-management</category><category>spring-cloud-gateway</category><category>gateway-api</category><category>service-mesh</category><category>istio</category><category>ambient-mesh</category><category>cilium</category><category>kubernetes</category></item><item><title>从企业级 CF 平台到云原生（四）：弹性容错的重新定义——从 Hystrix 到自适应治理</title><link>https://milome.github.io/blog/series-microservices-governance/microservices-governance-series-part4/</link><guid isPermaLink="true">https://milome.github.io/blog/series-microservices-governance/microservices-governance-series-part4/</guid><description>回顾 Hystrix 在微服务弹性治理中的历史地位，剖析 Resilience4j 的轻量设计哲学，探索自适应容错和混沌工程的新范式，为企业构建韧性系统提供实践指南。</description><pubDate>Wed, 04 Mar 2026 00:00:00 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GMT</pubDate><category>guide</category><category>microservices</category><category>release-governance</category><category>blue-green</category><category>canary</category><category>feature-flags</category><category>gitops</category><category>progressive-delivery</category><category>argo-cd</category></item><item><title>从企业级 CF 平台到云原生（六）：总结——企业级微服务治理的架构师视角</title><link>https://milome.github.io/blog/series-microservices-governance/microservices-governance-series-part6/</link><guid isPermaLink="true">https://milome.github.io/blog/series-microservices-governance/microservices-governance-series-part6/</guid><description>回顾 2015-2026（至今）微服务治理十余年演进脉络，提炼架构师的第一性原理，总结企业级治理的落地路径与常见陷阱，展望未来趋势，为技术决策者提供系统性思考框架。</description><pubDate>Fri, 06 Mar 2026 00:00:00 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703的破局之路</title><link>https://milome.github.io/blog/python-memory-series/03-pep703-gil/</link><guid isPermaLink="true">https://milome.github.io/blog/python-memory-series/03-pep703-gil/</guid><description>复盘Meta AI和DeepMind的真实生产困境，解析PEP 703的偏向引用计数(BRC)技术，探讨Python 3.13+ nogil构建对大模型并发的意义</description><pubDate>Fri, 03 Apr 2026 00:00:00 GMT</pubDate><category>interpretation</category><category>original-interpretation</category><category>python</category><category>gil</category><category>pep703</category><category>concurrency</category><category>ai-ml</category></item><item><title>原创解读：Python 作为胶水语言——Bindings 如何连接性能与易用</title><link>https://milome.github.io/blog/python-memory-series/04-python-bindings/</link><guid isPermaLink="true">https://milome.github.io/blog/python-memory-series/04-python-bindings/</guid><description>综合 ctypes、CFFI、PyBind11、Cython、PyO3/Rust 五种绑定路线，探讨 Python 作为大模型胶水语言的技术本质与工程选择</description><pubDate>Sat, 04 Apr 2026 00:00:00 GMT</pubDate><category>interpretation</category><category>original-interpretation</category><category>python</category><category>bindings</category><category>ctypes</category><category>cython</category><category>pybind11</category><category>pyo3</category><category>rust</category><category>ffi</category></item><item><title>原创解读：为什么 FastAPI 在 AI 时代崛起——类型注解与异步 I/O 的工程价值</title><link>https://milome.github.io/blog/python-memory-series/05-fastapi-rise/</link><guid isPermaLink="true">https://milome.github.io/blog/python-memory-series/05-fastapi-rise/</guid><description>解析 Python 类型注解、异步 I/O、FastAPI 的崛起逻辑，建立大模型 API 服务开发的特征-能力匹配框架</description><pubDate>Sun, 05 Apr 2026 00:00:00 GMT</pubDate><category>interpretation</category><category>original-interpretation</category><category>python</category><category>fastapi</category><category>async</category><category>type-hints</category><category>pydantic</category><category>web-framework</category></item><item><title>原创解读：AI工具时代Python开发者的能力建设——给一线工程师的实用指南</title><link>https://milome.github.io/blog/python-memory-series/07-career-guide/</link><guid isPermaLink="true">https://milome.github.io/blog/python-memory-series/07-career-guide/</guid><description>基于 Stack Overflow 2025 数据，建立从入门到专家的能力建设路线图，提供阶段判断、优先级排序与最小可执行方案</description><pubDate>Mon, 06 Apr 2026 00:00:00 GMT</pubDate><category>interpretation</category><category>original-interpretation</category><category>python</category><category>ai-tools</category><category>career</category><category>learning-path</category><category>practical-guide</category></item><item><title>Java 内存模型深度解析：从 happens-before 到安全发布</title><link>https://milome.github.io/blog/java-series/java-core-technologies-part1-jmm/</link><guid isPermaLink="true">https://milome.github.io/blog/java-series/java-core-technologies-part1-jmm/</guid><description>理解 JMM、volatile、final 字段、安全发布、乐观锁、锁语义和现代 ConcurrentHashMap 的工程边界。</description><pubDate>Wed, 01 Apr 2026 00:00:00 GMT</pubDate><category>guide</category><category>java</category><category>jvm</category><category>memory-model</category><category>concurrency</category></item><item><title>现代 Java 垃圾回收：生产判断、证据采集与调优路径</title><link>https://milome.github.io/blog/java-series/java-core-technologies-part2-gc/</link><guid isPermaLink="true">https://milome.github.io/blog/java-series/java-core-technologies-part2-gc/</guid><description>以生产症状、GC logs、JFR、容器内存和回滚策略为主线，建立 G1、ZGC、Shenandoah、Parallel、Serial 的证据化选型与调优方法。</description><pubDate>Thu, 02 Apr 2026 00:00:00 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应用边界</title><link>https://milome.github.io/blog/java-series/java-core-technologies-part6-spring-ai/</link><guid isPermaLink="true">https://milome.github.io/blog/java-series/java-core-technologies-part6-spring-ai/</guid><description>区分 Spring AI 官方 API、LangChain4j 抽象、示例封装和企业级 AI 运行治理。</description><pubDate>Mon, 06 Apr 2026 00:00:00 GMT</pubDate><category>guide</category><category>java</category><category>spring-ai</category><category>langchain4j</category><category>ai-engineering</category></item><item><title>JIT 与 AOT：从症状、诊断到优化决策</title><link>https://milome.github.io/blog/java-series/java-core-technologies-part7-jit-aot/</link><guid isPermaLink="true">https://milome.github.io/blog/java-series/java-core-technologies-part7-jit-aot/</guid><description>面向 HotSpot、Graal、Native Image 与 PGO 的性能诊断和决策路径。</description><pubDate>Tue, 07 Apr 2026 00:00:00 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isPermaLink="true">https://milome.github.io/blog/python-memory-series/02-garbage-collection/</guid><description>拆解引用计数、gc.collect()、del 语句三大误区，建立 Python GC 机制（引用计数+分代GC+循环检测）的完整认知框架</description><pubDate>Thu, 02 Apr 2026 00:00:00 GMT</pubDate><category>interpretation</category><category>original-interpretation</category><category>python</category><category>garbage-collection</category><category>memory-management</category><category>performance</category></item><item><title>原创解读：为什么 Python 垄断大模型开发——生态飞轮与数据证据</title><link>https://milome.github.io/blog/python-memory-series/06-python-dominance/</link><guid isPermaLink="true">https://milome.github.io/blog/python-memory-series/06-python-dominance/</guid><description>综合 Stack Overflow 2025、PEP 703 行业证言、LangChain 生态等多源数据，分析 Python 在 AI 领域统治地位的成因与飞轮效应</description><pubDate>Mon, 06 Apr 2026 00:00:00 GMT</pubDate><category>interpretation</category><category>original-interpretation</category><category>python</category><category>ai-ml</category><category>ecosystem</category><category>data-analysis</category><category>llm</category></item><item><title>Python 内存模型深度解析系列总览（7篇）</title><link>https://milome.github.io/blog/2026-05-20-python-memory-model-series-index/</link><guid isPermaLink="true">https://milome.github.io/blog/2026-05-20-python-memory-model-series-index/</guid><description>本页为 Python 内存模型深度解析系列导航页，按阅读顺序提供全量入口，建立从底层机制到工程实践到职业发展的完整认知体系。</description><pubDate>Wed, 01 Apr 2026 00:00:00 GMT</pubDate><category>index</category><category>python</category><category>memory-model</category><category>series-index</category><category>reading-guide</category></item><item><title>为什么你需要给AI当Coding Mentor？</title><link>https://milome.github.io/blog/series-ai-coding-mentor/ai-coding-mentor-series-part1-why-mentor/</link><guid isPermaLink="true">https://milome.github.io/blog/series-ai-coding-mentor/ai-coding-mentor-series-part1-why-mentor/</guid><description>当AI编程助手成为标配，真正的竞争力不再是会不会使用AI，而是能不能判断、校准和约束AI的工程输出。本文从信任缺口、反馈协议、评估标准和能力闭环出发，建立“人类作为Coding Mentor”的核心框架。</description><pubDate>Mon, 30 Mar 2026 09:00:00 GMT</pubDate><category>interpretation</category><category>ai-coding-mentor</category><category>programming-evaluation</category><category>human-ai-collaboration</category><category>original-interpretation</category></item><item><title>AI编程能力评估全景：从HumanEval到SWE-bench，基准测试的演进与选择</title><link>https://milome.github.io/blog/series-ai-coding-mentor/ai-coding-mentor-series-part2-benchmark-landscape/</link><guid isPermaLink="true">https://milome.github.io/blog/series-ai-coding-mentor/ai-coding-mentor-series-part2-benchmark-landscape/</guid><description>公开基准不是模型排行榜的装饰，而是理解AI编程能力边界的测量工具。本文从HumanEval、APPS、CodeContests、SWE-bench、LiveCodeBench和Aider等基准出发，说明如何读榜、如何选择基准，以及如何把公开评估转化为团队自己的Coding Mentor评估体系。</description><pubDate>Mon, 30 Mar 2026 10:00:00 GMT</pubDate><category>interpretation</category><category>ai-coding-mentor</category><category>programming-benchmark</category><category>original-interpretation</category><category>human-eval</category><category>swe-bench</category><category>livecodebench</category><category>evaluation-framework</category></item><item><title>如何设计高质量的编程题目：从题面到评估契约</title><link>https://milome.github.io/blog/series-ai-coding-mentor/ai-coding-mentor-series-part3-problem-design/</link><guid isPermaLink="true">https://milome.github.io/blog/series-ai-coding-mentor/ai-coding-mentor-series-part3-problem-design/</guid><description>高质量编程题不是更长的 prompt，而是能稳定暴露能力边界的评估契约。本文从 Bloom 层级、难度校准、任务契约、测试设计和题库治理出发，说明如何为 AI Coding Mentor 构建可复现的题目体系。</description><pubDate>Mon, 30 Mar 2026 11:00:00 GMT</pubDate><category>interpretation</category><category>ai-coding-mentor</category><category>problem-design</category><category>original-interpretation</category><category>coding-exercises</category><category>bloom-taxonomy</category></item><item><title>AI能力评估四步法：从一次测试到持续评估系统</title><link>https://milome.github.io/blog/series-ai-coding-mentor/ai-coding-mentor-series-part4-four-step-evaluation/</link><guid isPermaLink="true">https://milome.github.io/blog/series-ai-coding-mentor/ai-coding-mentor-series-part4-four-step-evaluation/</guid><description>给AI当Coding Mentor不是做一次模型测评，而是建立一套能持续暴露能力边界、记录失败证据、驱动专项改进和支撑协作决策的评估运营系统。</description><pubDate>Mon, 30 Mar 2026 12:00:00 GMT</pubDate><category>interpretation</category><category>ai-coding-mentor</category><category>evaluation-methodology</category><category>original-interpretation</category><category>baseline-testing</category><category>continuous-assessment</category></item><item><title>与AI协作的最佳实践：任务协议、对话控制与反馈闭环</title><link>https://milome.github.io/blog/series-ai-coding-mentor/ai-coding-mentor-series-part5-collaboration/</link><guid isPermaLink="true">https://milome.github.io/blog/series-ai-coding-mentor/ai-coding-mentor-series-part5-collaboration/</guid><description>给AI当Coding Mentor的核心技能不是写更长的提示词，而是设计任务协议、控制对话节奏、识别错误模式，并把协作过程沉淀为可验证、可复用的反馈信号。</description><pubDate>Mon, 30 Mar 2026 13:00:00 GMT</pubDate><category>interpretation</category><category>ai-coding-mentor</category><category>human-ai-collaboration</category><category>original-interpretation</category><category>prompt-engineering</category><category>feedback-design</category></item><item><title>实战案例：反馈协议、评估闭环、代码审查与编程教育数据</title><link>https://milome.github.io/blog/series-ai-coding-mentor/ai-coding-mentor-series-part6-case-studies/</link><guid isPermaLink="true">https://milome.github.io/blog/series-ai-coding-mentor/ai-coding-mentor-series-part6-case-studies/</guid><description>案例研究不应该停留在“如何更会用AI工具”。本文用模型选型评估、反馈协议设计、代码审查信号沉淀和编程教育数据闭环四个工程场景，说明人类如何把AI协作过程转化为可评估、可训练、可复用的导师信号。</description><pubDate>Mon, 30 Mar 2026 14:00:00 GMT</pubDate><category>interpretation</category><category>ai-coding-mentor</category><category>case-study</category><category>original-interpretation</category><category>feedback-protocol</category><category>evaluation-framework</category><category>human-ai-collaboration</category></item><item><title>从交付到训练：如何把AI编程协作变成Coding Mentor数据闭环</title><link>https://milome.github.io/blog/series-ai-coding-mentor/ai-coding-mentor-series-part7-building-system/</link><guid isPermaLink="true">https://milome.github.io/blog/series-ai-coding-mentor/ai-coding-mentor-series-part7-building-system/</guid><description>AI编程助手真正的组织价值，不只是提高交付速度，而是在每一次需求拆解、代码生成、评审修正、测试验证和上线复盘中沉淀可训练、可评估、可复用的导师信号。本文重构AI训练、AI辅助产品工程化交付、高质量SFT数据沉淀与模型评估的闭环框架。</description><pubDate>Mon, 30 Mar 2026 15:00:00 GMT</pubDate><category>interpretation</category><category>ai-coding-mentor</category><category>evaluation-system</category><category>original-interpretation</category><category>data-flywheel</category><category>ai-engineering</category><category>sft-training</category></item><item><title>从工程实战到训练数据：AI工程化自动产出SFT数据的系统化方法</title><link>https://milome.github.io/blog/series-ai-coding-mentor/ai-coding-mentor-series-part8-sft-data-generation/</link><guid isPermaLink="true">https://milome.github.io/blog/series-ai-coding-mentor/ai-coding-mentor-series-part8-sft-data-generation/</guid><description>承接第7篇的数据闭环，本文聚焦如何将已筛选的工程资产加工为高质量SFT样本，并接入可治理、可评估、可迭代的训练流水线。</description><pubDate>Mon, 30 Mar 2026 17:00:00 GMT</pubDate><category>interpretation</category><category>ai-coding-mentor</category><category>sft-training</category><category>original-interpretation</category><category>data-generation</category><category>bmad-method</category><category>spec-driven-development</category></item><item><title>未来展望：AI编程评估的演进趋势与长期思考</title><link>https://milome.github.io/blog/series-ai-coding-mentor/ai-coding-mentor-series-part9-future-outlook/</link><guid isPermaLink="true">https://milome.github.io/blog/series-ai-coding-mentor/ai-coding-mentor-series-part9-future-outlook/</guid><description>作为系列收官篇，本文以工程决策视角重构 AI Coding Mentor 的未来路线：评估对象如何演进、组织能力如何分层、治理边界如何前置。</description><pubDate>Mon, 30 Mar 2026 16:00:00 GMT</pubDate><category>interpretation</category><category>ai-coding-mentor</category><category>future-trends</category><category>original-interpretation</category><category>long-term-thinking</category><category>ai-evolution</category></item><item><title>从博客到技术平台的最小升级路径（一）：从&apos;文件堆&apos;到&apos;专题化&apos;</title><link>https://milome.github.io/blog/blog-to-platform-upgrade-path-part1/</link><guid isPermaLink="true">https://milome.github.io/blog/blog-to-platform-upgrade-path-part1/</guid><description>当你的博客文章超过20篇，读者开始迷失在时间里。这篇文章分享一个实战经验：为什么专题化是博客升级的第一步，以及如何判断你是否已经到了需要升级的时刻。</description><pubDate>Thu, 26 Mar 2026 00:00:00 GMT</pubDate><category>guide</category><category>blog-upgrade</category><category>content-strategy</category><category>information-architecture</category><category>astro</category><category>minimal-path</category></item><item><title>Agent Runtime 不一定要长在本地，Colab MCP 给了一个更现实的方向</title><link>https://milome.github.io/blog/colab-mcp-shows-agent-runtime-can-live-remote/</link><guid isPermaLink="true">https://milome.github.io/blog/colab-mcp-shows-agent-runtime-can-live-remote/</guid><description>Colab MCP 的价值不只在于把 Python 跑到云上，而在于它让 agent 的执行环境变成了可见、可编辑、可继续工作的 notebook 空间。对很多任务来说，真正重要的不是远程执行本身，而是远程工件如何支持人机协作。本文基于 Google 对 Colab MCP Server 的介绍，延展出我对 runtime surface、artifact-centered design、远程工作台与可见性信任机制的完整理解。</description><pubDate>Wed, 25 Mar 2026 00:00:00 GMT</pubDate><category>interpretation</category><category>mcp</category><category>colab</category><category>runtime</category><category>notebooks</category><category>google</category></item><item><title>真正成熟的 Eval Harness，不会只盯着答案</title><link>https://milome.github.io/blog/eval-harness-should-measure-process-not-just-output/</link><guid isPermaLink="true">https://milome.github.io/blog/eval-harness-should-measure-process-not-just-output/</guid><description>如果一个 eval harness 只能告诉你任务成败，却解释不了 agent 是否调用了正确能力、在什么环境里执行、为什么失败、为什么成功，那它给出的就不是系统性判断，只是一块分数牌。本文基于 LangChain 对 skills eval 的讨论，延展出我对 artifact-based scoring、invocation metrics、trace design、workflow eval 与评测组织学的完整理解。</description><pubDate>Wed, 25 Mar 2026 00:00:00 GMT</pubDate><category>interpretation</category><category>evals</category><category>agent-skills</category><category>langsmith</category><category>tracing</category><category>agents</category></item><item><title>Agent Benchmark 最容易误导人的，不是模型分数，而是基础设施噪音</title><link>https://milome.github.io/blog/infra-noise-is-the-hidden-risk-in-agent-evals/</link><guid isPermaLink="true">https://milome.github.io/blog/infra-noise-is-the-hidden-risk-in-agent-evals/</guid><description>在 agentic coding eval 里，模型并不是唯一变量。资源 headroom、kill 语义、并发压力、网络状态和 sandbox 行为都会改变任务结果。如果这些条件不透明，排行榜上的小分差往往没有看起来那么能说明问题。本文基于 Anthropic 对 infrastructure noise 的分析，延展出我对 agent benchmark 可解释性、披露纪律、重复实验与系统级评测观的完整理解。</description><pubDate>Wed, 25 Mar 2026 00:00:00 GMT</pubDate><category>interpretation</category><category>evals</category><category>infrastructure</category><category>benchmark</category><category>agents</category><category>anthropic</category></item><item><title>长时任务 Agent 真正缺的不是智力，而是交接、恢复与验收能力</title><link>https://milome.github.io/blog/long-running-agents-need-handoffs-not-just-intelligence/</link><guid isPermaLink="true">https://milome.github.io/blog/long-running-agents-need-handoffs-not-just-intelligence/</guid><description>长时任务 agent 的失败，往往并不源于模型不会思考，而源于系统没有把&apos;交接、恢复、验证、续跑&apos;设计成一等公民。本文基于 Anthropic 对 long-running agent harness 的讨论，延展出我对跨会话执行、状态外化、feature contract、smoke test、browser verification 和多轮执行结构的完整看法，也解释了为什么真正可用的 agent，不是一次跑很久，而是一轮一轮接得住。</description><pubDate>Wed, 25 Mar 2026 00:00:00 GMT</pubDate><category>interpretation</category><category>agents</category><category>long-running-agents</category><category>harness</category><category>anthropic</category><category>verification</category></item><item><title>MCP 改变的不是工具接入，而是 Agent 的成本结构</title><link>https://milome.github.io/blog/mcp-changes-context-economics-for-agents/</link><guid isPermaLink="true">https://milome.github.io/blog/mcp-changes-context-economics-for-agents/</guid><description>MCP 的真正意义，不只是统一工具接入，而是把大量本该由运行时处理的中间流程，从昂贵的 LLM 循环里迁出去。它改变的不是&apos;能接多少工具&apos;，而是 agent 如何使用上下文、代码执行和运行时控制流。本文基于 Anthropic 对 code execution with MCP 的讨论，延展出我对 direct tool-calling、progressive disclosure、runtime economics 和 executable skills 的完整理解。</description><pubDate>Wed, 25 Mar 2026 00:00:00 GMT</pubDate><category>interpretation</category><category>mcp</category><category>code-execution</category><category>context-engineering</category><category>agents</category><category>anthropic</category></item><item><title>Agent Harness 不是配角，而是 2026 年 AI 工程最被低估的主战场</title><link>https://milome.github.io/blog/why-agent-harness-matters-2026/</link><guid isPermaLink="true">https://milome.github.io/blog/why-agent-harness-matters-2026/</guid><description>真正决定 agent 上限的，往往不是模型本身，而是围绕模型组织起来的 harness。本文基于 LangChain 对 agent harness 的拆解，延展出我对文件系统、代码执行、上下文管理、验证闭环与长时任务续航能力的完整理解，也解释了为什么 2026 年 AI 工程竞争的重心，正在从&apos;模型能力&apos;转向&apos;工作系统设计&apos;。</description><pubDate>Wed, 25 Mar 2026 00:00:00 GMT</pubDate><category>interpretation</category><category>agents</category><category>harness</category><category>context-engineering</category><category>ai-engineering</category><category>langchain</category></item><item><title>OpenClaw 深度解读总览（10篇）</title><link>https://milome.github.io/blog/2026-03-24-openclaw-deep-series-index/</link><guid isPermaLink="true">https://milome.github.io/blog/2026-03-24-openclaw-deep-series-index/</guid><description>本页为 OpenClaw 深度解读系列导航页，按阅读顺序提供全量入口。</description><pubDate>Tue, 24 Mar 2026 00:00:00 GMT</pubDate><category>compatibility</category><category>openclaw</category><category>series-index</category><category>reading-guide</category></item><item><title>原创解读：OpenClaw 安全事故为什么总在&apos;已经知道有风险&apos;之后才发生？</title><link>https://milome.github.io/blog/series-openclaw-deep-dive/2026-03-24-openclaw-deep-01-security-nightmare-incident/</link><guid isPermaLink="true">https://milome.github.io/blog/series-openclaw-deep-dive/2026-03-24-openclaw-deep-01-security-nightmare-incident/</guid><description>为什么OpenClaw安全事故总在&apos;已经知道有风险&apos;之后才发生？本文不归咎于模型失控，而是追问执行权设计缺陷：当系统把执行权、审计权和回滚权压在同一条链路，组织性失明如何把可控偏差一步步放大成事故。</description><pubDate>Tue, 24 Mar 2026 00:00:00 GMT</pubDate><category>interpretation</category><category>original-interpretation</category><category>openclaw</category><category>agent-security</category><category>incident-review</category></item><item><title>原创解读：为什么轻量 Agent 方案，可能比&apos;大而全&apos;更接近生产现实？</title><link>https://milome.github.io/blog/series-openclaw-deep-dive/2026-03-24-openclaw-deep-02-nanobot-contrarian/</link><guid isPermaLink="true">https://milome.github.io/blog/series-openclaw-deep-dive/2026-03-24-openclaw-deep-02-nanobot-contrarian/</guid><description>这不是一篇赞美&apos;轻量化&apos;的鸡汤文，而是一篇反对工程幻觉的文章：很多看起来更强的OpenClaw Agent栈，只是把复杂性前置成了演示能力，却把代价后置成了生产故障和凌晨值班成本。</description><pubDate>Tue, 24 Mar 2026 00:00:00 GMT</pubDate><category>interpretation</category><category>original-interpretation</category><category>openclaw</category><category>nanobot</category><category>contrarian</category></item><item><title>原创解读：把 Notion 当成 18 个 Agent 的控制平面，最先要解决的从来不是&apos;自动化&apos;</title><link>https://milome.github.io/blog/series-openclaw-deep-dive/2026-03-24-openclaw-deep-03-notion-control-plane-operator/</link><guid isPermaLink="true">https://milome.github.io/blog/series-openclaw-deep-dive/2026-03-24-openclaw-deep-03-notion-control-plane-operator/</guid><description>这篇文章不讨论控制台界面好不好看，而是讨论更根本的生产问题：当你把18个OpenClaw Agent接进Notion控制平面时，系统到底是在放大团队生产力，还是在放大调度噪声和状态混乱？</description><pubDate>Tue, 24 Mar 2026 00:00:00 GMT</pubDate><category>interpretation</category><category>original-interpretation</category><category>openclaw</category><category>multi-agent</category><category>operator-playbook</category></item><item><title>原创解读：把 Agent 放进 ESP32，最容易踩的不是性能坑，而是边界错觉</title><link>https://milome.github.io/blog/series-openclaw-deep-dive/2026-03-24-openclaw-deep-04-esp32-myth-busting/</link><guid isPermaLink="true">https://milome.github.io/blog/series-openclaw-deep-dive/2026-03-24-openclaw-deep-04-esp32-myth-busting/</guid><description>这篇文章不把ESP32边缘Agent写成酷炫技术试玩，而是拆掉四个最常见的误区：板子能跑不等于系统可用，离线不只是网络问题，本地成功也不等于现场可维护。边缘部署需要新的工程假设。</description><pubDate>Tue, 24 Mar 2026 00:00:00 GMT</pubDate><category>interpretation</category><category>original-interpretation</category><category>openclaw</category><category>esp32</category><category>edge-agent</category></item></channel></rss>