标签：#Agents

Azure Functions shipped a serverless agents runtime in public preview at Build 2026. Agents are defined in .agent.md markdown files with YAML triggers, MCP server access, 1,400+ connectors, and sandboxed execution. The Functions team confirmed to InfoQ that the runtime adds no cold start overhead and no billing premium beyond standard Flex Consumption. By Steef-Jan Wiggers

GitLab 19.0 extends agentic AI beyond code generation into securing credentials, reviewing and merging changes, and scanning dependencies, adding a public beta Secrets Manager, a full merge request Developer Flow, usage-based GitLab Duo billing, and generally available SBOM dependency scanning. By Mark Silvester

In a new Windows Developer Blog post titled "Windows platform security for AI agents", Microsoft positions Windows as the trustworthy operating system for autonomous agents and introduces the Microsoft Execution Containers (MXC) SDK as the core of that strategy. The post argues that containment, identity and manageability must be built into the operating system. By Matt Saunders

Last Tuesday at 3am, a multi-agent loop hit 12K KV writes/minute and froze. The loop was a one-line counter bug. That part was fixable. What I found while tracing it was worse. I had --dangerously-skip-permissions enabled on a Claude Code session that was running D1 migrations. I thought it was pointing at staging. It wasn't — I'd misconfigured my env file reference, loading .env.production instead of .dev.vars . Claude didn't ask. The flag told it not to. The migration was ADD COLUMN , not DROP COLUMN , so no data loss. Survivable. But only barely. The thing I got wrong: I treated --dangerously-skip-permissions as "skip the annoying confirmation popups." It's actually "remove the only moment a human sees what command is about to run." Those are very different things. Turning the flag back off helps, but it doesn't constrain what Claude attempts — it just adds a prompt you'll click through anyway at 3am. What actually worked was adding a deny rule in .claude/settings.json : { "permissions" : { "allow" : [ "Bash(wrangler d1 execute * --local*)" ], "deny" : [ "Bash(wrangler d1 execute *)" ] } } The allow rule is more specific than the deny, so --local calls go through and everything else is blocked before execution. Over 2 weeks post-fix, Claude attempted zero production DB commands. Three deny events were logged — all from ambiguous prompts I wrote during fast context-switches, not from Claude going rogue. I ended up running three layers: the settings.json allowlist, a separate git worktree for migration work that physically contains only staging credentials, and a CLAUDE.md that instructs Claude to ask before anything touching production. The CLAUDE.md approach has a real caveat though — in long sessions the instructions lose weight as context grows. Anything critical needs to be restated in the prompt itself. I wrote up the full breakdown — including the worktree setup, the exact CLAUDE.md wording, and why MCP tool permissions behave inconsistently with the deny ru

Everyone is talking about AI Agents. But before you build an AI Agent, there is one concept you absolutely need to understand: Generative AI. Generative AI is the technology that transformed software from systems that simply follow rules into systems that can understand language, generate responses, reason through instructions, and assist users in a natural way. As part of my new course: Develop Your First AI Agent with Microsoft Foundry I published the first lesson where we explore the journey from traditional software to Generative AI and understand why modern AI Agents became possible. 🎥 Watch the video here: Why This Topic Matters Many developers jump directly into AI Agents, prompts, tools, and frameworks. However, without understanding the evolution of AI, it becomes difficult to understand: Why AI Agents exist Why Large Language Models are important Why prompts work Why tools are needed How modern AI systems actually operate In this lesson, we start from first principles and build the foundation required for the rest of the course. What You'll Learn Traditional Software For decades, software followed a simple pattern: Input → Rules → Output Developers explicitly defined every behavior. This worked well until humans started interacting with software using natural language. Why Rule-Based Systems Break Imagine building a dietician chatbot. Users might ask: What should I eat? Suggest a healthy breakfast. What foods contain protein? Can I eat oats daily? All of these questions are similar. Yet they are phrased differently. Supporting thousands of variations quickly becomes impossible with manually written rules. Predictive AI Machine Learning introduced a new approach. Instead of writing rules, we train models using data. Examples include: Spam Detection Fraud Detection Recommendation Systems Predictive AI can make decisions. But it still cannot create content. Prediction vs Creation A predictive model can answer: Fraud probability: 87% But can it explain why? Ca

What if you could build a production-ready AI agent workflow in 10 lines of YAML — and have it handle retries, observability, and multi-model routing out of the box? Dify is an open-source LLM app development platform with 145,764 GitHub stars, 22,915 forks, and 460+ contributors. It just shipped v1.14.2 (May 2026) with security hardening, agent groundwork, and workflow reliability improvements. Yet most teams only use it as a no-code chatbot builder — completely missing the infrastructure underneath. In 2026, AI workflows have moved from "prompt and pray" to orchestrated multi-step pipelines with memory, tool calling, and observability. Dify sits at the center of this shift, combining visual workflow design, RAG pipelines, agent capabilities, and LLMOps in a single platform that runs on your own infrastructure. Here are 5 hidden uses of Dify that most teams never discover. Hidden Use #1: Visual Workflow as Code — Export, Version Control, and Replay What most people do: Build workflows in the Dify web UI, click "Run," and hope for the best. When something breaks, they debug by clicking through nodes manually. The hidden trick: Every workflow in Dify can be exported as YAML. You can version-control it in Git, diff changes between deployments, and replay any historical execution step-by-step using the built-in tracing API. # dify-workflow.yaml — a production RAG + agent pipeline app : name : " customer-support-agent" mode : " workflow" version : " 1.14.2" nodes : - id : " start" type : " start" variables : - name : " user_query" type : " string" required : true - id : " retriever" type : " knowledge-retrieval" dataset_ids : [ " faq-dataset-v3" ] top_k : 5 score_threshold : 0.7 depends_on : [ " start" ] - id : " llm-agent" type : " llm" model : " gpt-4o" prompt_template : | Context: {{ retriever.documents }} Question: {{ start.user_query }} Answer concisely using only the context above. depends_on : [ " retriever" ] - id : " output" type : " end" output : " {{ llm-agen

如果你能用 10 行 YAML 构建一个生产级的 AI Agent 工作流——并且自带重试、可观测性和多模型路由——你会怎么做？ Dify 是一个开源的 LLM 应用开发平台，拥有 145,764 个 GitHub Stars、22,915 个 Fork、460 多位贡献者。它刚刚发布了 v1.14.2（2026 年 5 月），包含安全加固、Agent 基础架构和工作流可靠性改进。但大多数团队只把它当作无代码聊天机器人构建器——完全忽略了底层的基础设施能力。 2026 年，AI 工作流已经从"写个 prompt 然后祈祷"进化到了具备记忆、工具调用和可观测性的多步骤编排管道。Dify 正处于这个转变的中心，将可视化工作流设计、RAG 管道、Agent 能力和 LLMOps 整合在一个可以部署在你自己基础设施上的平台中。 以下是大多数人从未发现的 Dify 的 5 个隐藏用法。 隐藏用法 #1：可视化工作流即代码——导出、版本控制与回放 大多数人的做法： 在 Dify 网页 UI 中构建工作流，点击"运行"，然后祈祷一切正常。出了问题就手动点击每个节点来调试。 隐藏技巧： Dify 中的每个工作流都可以导出为 YAML。你可以在 Git 中进行版本控制，对比不同部署之间的差异，并使用内置的追踪 API 逐步回放任何历史执行。 # dify-workflow.yaml — 一个生产级 RAG + Agent 管道 app : name : " customer-support-agent" mode : " workflow" version : " 1.14.2" nodes : - id : " start" type : " start" variables : - name : " user_query" type : " string" required : true - id : " retriever" type : " knowledge-retrieval" dataset_ids : [ " faq-dataset-v3" ] top_k : 5 score_threshold : 0.7 depends_on : [ " start" ] - id : " llm-agent" type : " llm" model : " gpt-4o" prompt_template : | 上下文：{{ retriever.documents }} 问题：{{ start.user_query }} 请仅使用以上上下文简洁回答。 depends_on : [ " retriever" ] - id : " output" type : " end" output : " {{ llm-agent.text }}" depends_on : [ " llm-agent" ] tracing : enabled : true backend : " langfuse" # 或 opik、arize-phoenix sample_rate : 1.0 效果： 你的整个 AI 管道变成了基础设施即代码。你可以 CI 测试工作流变更、回滚到历史版本、审计每次执行追踪——就像管理 Terraform 或 Kubernetes 清单一样。 数据来源： Dify GitHub 145,764 Stars、22,915 Forks（GitHub API，langgenius/dify，2026-06-19 推送）。最新版本 v1.14.2（2026-05-19）包含工作流可靠性修复。460+ 贡献者（GitHub API 确认）。 隐藏用法 #2：多模型路由与自动降级 大多数人的做法： 选一个模型（通常是 GPT-4），硬编码到每个工作流节点中。当这个模型出现故障或限流时，整个管道就崩溃了。 隐藏技巧： Dify 的模型配置支持提供程序级别的自动降级链。你可以配置主模型、备用模型，甚至为非关键路径配置第三级廉价模型——所有这些都无需修改工作流逻辑。 # dify_model_config.py — 通过 Dify API 配置多模型路由 import requests DIFY_API_KEY = " your-api-key " DIFY_BASE = " https://your-dify-instance.com/v1 " def configure_model_fallback (): """ 为生产弹性配置 3 层模型降级链。 """ # 主模型：GPT-4o，高质量推理 # 备用 1：Claude 3.5 Sonnet（不同提供程序，同等级别） # 备用 2：GPT-4o-mini（廉价、快速，简单步骤足够用） config

Your repo is already your agents' context, whether you designed it on purpose or not That sentence took me a while to understand. In this post I'll save you the trip. It was October 2025, working in Skyward's monorepo with AI agents every day. And every day the same routine: I'd tell the agent in the prompt "don't use this", "don't do it this way", "reuse the component that already exists". I wrote it down. I repeated it. The agent did exactly what I told it not to do. It wasn't that it didn't listen to me. It was that it read the code and saw something else there. The agent believes the code, not your prompt An agent follows the patterns it sees in the repo, not the ones you tell it in the prompt. And subagents are worse, because they start without the conversation's context. The whole fight you put up earlier in the chat, for them it never happened. So this is what kept happening. It created a new component even though one already existed that solved exactly that problem. It didn't respect the design rules or use the design tokens. It followed stale docs because they were still there, alive, with nothing flagging them as outdated. My first instinct was everyone's instinct, cram more context into the prompt. More rules, more "please don't do this", more examples pasted in by hand. It half worked, and for the next task you had to add it all again. Until the next subagent showed up and started from scratch. At some point, tired of repeating myself, I understood the obvious thing. The agent wasn't disobeying me. It was reading the repo and listening to what the repo said about itself. If the good component lives alongside three old versions, it has no way to know which one is the official one. If the docs say one thing and the code does another, it'll believe whichever is closest at hand. It's doing exactly what I asked. The repo itself is the context agents use. If it's badly structured, the answers won't be good. Period. No prompt fixes a repo that contradicts itsel

Tu repo ya es el contexto de tus agentes, lo hayas diseñado a propósito o no Esa frase me costó entenderla. En este post te ahorro el camino. Era Octubre del 2025, trabajando en el monorepo de Skyward con agentes de IA todos los días. Y todos los días la misma rutina: le decía en el prompt al agente "no uses esto", "no hagas esto así", "reutiliza el componente que ya existe". Lo escribía. Lo repetía. El agente hacía exactamente lo que le dije que no hiciera. No era que no me escuchara. Era que leía el código y ahí veía otra cosa. El agente le cree al código, no a tu prompt Un agente sigue los patrones que ve en el repo, no los que tú le dices en el prompt. Y los subagentes son peores, porque arrancan sin el contexto de la conversación. Toda la pelea que tú diste arriba en el chat, para ellos no existió nunca. Entonces pasaba esto. Creaba un componente nuevo aunque ya había uno que resolvía exactamente el problema. No respetaba las normas de diseño ni usaba los design tokens. Seguía documentación obsoleta porque seguía ahí, viva, sin nada que la marcara como obsoleta. Mi primer instinto fue el de todos, meter más contexto en el prompt. Más reglas, más "por favor no hagas esto", más ejemplos pegados a mano. Funcionaba a medias, y para la siguiente tarea había que volver a agregarlo todo. Hasta que llegaba el siguiente subagente y empezaba de cero. En algún momento, cansado de repetirme, entendí lo obvio. El agente no me estaba desobedeciendo. Estaba leyendo el repo y haciendo caso a lo que el repo decía de sí mismo. Si conviven el componente bueno y tres versiones viejas, no tiene cómo saber cuál es el oficial. Si la doc dice una cosa y el código hace otra, le va a creer al que esté más a mano. Está haciendo justo lo que le pedí. El mismo repo es el contexto que usan los agentes. Si está mal estructurado, las respuestas no van a ser buenas. Punto. No hay prompt que arregle un repo que se contradice a sí mismo. Screaming Architecture me llevó hasta media cancha Lo prim

Recently, while working on an in-progress open-source framework called Projector, I ran into a (not particularly novel) issue: one of it's internal packages ( core ) had grown during this period, and was not nearly as flyweight as it needed to be in the browser. The result was 10-20kbs of unnecessary machinery getting pulled in. I noticed this while running examples. I was consistently hitting a wall in bundle sizes that was surprisingly difficult to get past, even for someone as stubborn and relentless as I am. Naturally, I turned to Claude and ChatGPT to help me with this, and ended up using ChatGPT 5.5 with Codex as I find that, with the "precise" output mode, it tends to be a little more honest than Opus 4.8 these days. I shared exported HAR network logs with it, having it go through the chunks to confirm where the bulk was; consistently, it confirmed that the issue was around an entangling of authoring/resolution code with runtime code in core that was pulling in too much to the browser. The technical details here aren't really important, but I'm using them to illustrate a larger point. We then iterated through a lot of different solutions—I setup a "goal" in codex with benchmarks to hit, and gave it a bunch of constraints, context, and tooling. Finally, after about 2-3 hours of looping against that goal, it completed. Looking through the git diff, I noticed something odd—it had duplicated the result of the resolved module, so it could skip the resolution machinery and thus drop it from the browser bundle (again, technical details not really relevant). It hit the rough kb benchmarks, respected all constraints, utilized all context and skills available, and avoided importing the machinery that we both aligned on being the core problem. It provided an elegant, coherent, well-written api, implemented a surgical, well-tested, well-designed solution, and convincingly defended its work when I queried about the implementation. That sounds great, right? In fact, I thin

At its core, software development has always been about a simple cycle: Write > Review >...

AI-disclosure: AI-assisted draft, human-reviewed. The demo numbers are the verbatim stdout of a deterministic, stdlib-only Python script included in full below — re-run it and you get the same bytes. The attempt counts in that script are a SYNTHETIC fixture I chose to exercise the accounting mechanism, calibrated to the retry skew I see in my own scraper logs (run counts from my Apify history). It is NOT a benchmark of any named vendor's API or prices. The one external claim (the cost-per-successful-task formula) is attributed and linked. The cheaper API was 2.5x cheaper per call. The monthly bill came in higher anyway. Not by a rounding error. The "cheap" option cost 1.63x more per successful task than the one with the bigger sticker price. Same workload. The price page never showed me that number, because the price page doesn't know your success rate. You do — after you've already paid. This is the arithmetic the per-call price hides. And it's a decision you make before you spend, not a cap you bolt on after. TL;DR You compare two API tiers by per-call (or per-token) price and pick the cheaper one. That ranking can be wrong. You pay for every attempt — success or fail. The denominator that pays the bills is successful tasks , not calls. True cost = price_per_attempt × attempts ÷ successes . A cheap tier with a low success rate burns its discount on retries. In the run below: cheap tier $0.0020 /call but $0.0096 /success; robust tier $0.0050 /call but $0.0059 /success. The sticker winner loses . For anyone choosing an API, model, or tier for an agent: log attempts and successes for a week, divide, then decide. A 70-line script is at the bottom — drop in your numbers. The price page is a sticker, not a bill Here's the trap, stated plainly. The number on the pricing page is per call . The number on your invoice is per call too — but the value you got is per successful task . Those are different denominators, and the gap between them is exactly the work that failed. E

We are thrilled to announce the winners of the Hermes Agent Challenge! Over the past few weeks, the...

Originally published at kunalganglani.com — read it there for inline code, hero image, and live links. Generative AI vs agentic AI vs AI agents. Three terms, used interchangeably by people who should know better, burning engineering budgets across the industry in 2026. Generative AI refers to models that produce new content — text, images, code — from a prompt. AI agents are software systems that wrap those models with planning, memory, and tool use to pursue goals autonomously. Agentic AI is the broader paradigm: orchestrated systems of agents, workflows, and decision-making that operate with minimal human oversight. Getting these distinctions wrong doesn't just lose you a Twitter argument. It determines whether your production system costs $500/month or $50,000. Every quarter, someone on a leadership team says "we need to go agentic." What they usually mean is one of three completely different things. And the architecture you pick for each one has wildly different implications for cost, latency, reliability, and maintenance burden. I've watched teams burn entire quarters building autonomous agent systems when a well-tuned prompt engineering pipeline would have shipped in a week. That's not a hypothetical. I watched it happen twice in 2025. This post cuts through the buzzword soup. I'll define all three paradigms with concrete technical distinctions, show you how they map to real production architectures, and give you a decision framework for picking the right one. What Is Generative AI? The Engine, Not the Vehicle Generative AI is the foundation layer. It's a large language model (or image model, or audio model) that takes an input and produces new output. GPT-4, Claude, Gemini, Llama — these are all generative AI. You send a prompt, you get a completion. That's it. The critical thing to understand: generative AI is stateless by default . Each API call is independent. The model doesn't remember what you asked five minutes ago. It doesn't plan a sequence of steps.

If you've ever felt like LangChain was too heavy, you're not alone. The dependency tree is enormous. Abstraction layers pile up. At some point you lose track of what's actually happening underneath. That frustration has pushed a lot of people toward lighter alternatives — frameworks that prove you can build a capable agent without a hundred transitive dependencies. Agno is one of those alternatives. It started as Phidata and rebranded in early 2025. I spent an afternoon installing Agno v2.6.17 in a clean sandbox and running through Calculator tools, Wikipedia retrieval, Pydantic structured output, and a two-agent Team. I'll share the real execution logs and, more importantly, the traps I hit that the docs don't warn you about. What Agno Is and Where It Came from Phidata built a solid reputation as "the Python framework for AI assistants." When it rebranded to Agno in 2025, the design philosophy got articulated more clearly around three ideas. Model-agnostic from day one. Over 70 LLMs — OpenAI, Anthropic, Google, Ollama, Cohere — can plug in with the same code structure. Swap the model, keep the agent logic. Multimodal as a default. Text, image, audio, video agents all use the same API surface. You don't need a different abstraction layer for each modality. Multi-agent orchestration as a first-class citizen. The Team class is built in. You can switch between coordinate , route , and collaborate modes with a single parameter change. Reading that, I thought: "How is this different from LangChain?" The answer showed up when I actually wrote code. Agno favors composition over class inheritance. One agent takes about 6 lines to set up. There's far less boilerplate to wade through. Installation: No Dependency Hell pip install agno google-genai ddgs wikipedia The agno package installs just the core. Tools require their own extra dependencies — wikipedia for the Wikipedia tool, google-genai for Gemini. This lazy-loading approach keeps the base install clean. $ python3 -c "im

Google Open Knowledge Format: Why Enterprise Agents Need a Knowledge Layer, Not Just More Tools Most enterprise AI conversations still start in the wrong place. They start with the model. Which model should we use? Which framework should we adopt? Which vendor has the best agent platform? Which tools should we connect next? These are fair questions. But in real enterprise architecture, they are not the hardest questions. The harder question is this: Can our AI systems actually understand how our business works? That is why Google Cloud’s article on Open Knowledge Format caught my attention. The article talks about a simple but important idea: representing knowledge in a way that humans can read and machines can use. In OKF, that means markdown for the content and structured metadata for context. At first glance, that may sound too simple. But that simplicity is the point. Enterprises do not need another place where knowledge goes to die. We already have enough portals, catalogs, wikis, dashboards, folders, and internal tools. What we need is a practical way to package knowledge so it can be reviewed, versioned, governed, searched, and reused by both people and AI agents. That is where this idea becomes very relevant for agentic AI. The Real Enterprise AI Problem Most organizations already have the knowledge their AI agents need. They have it in databases, dashboards, tickets, architecture notes, runbooks, Confluence pages, data catalogs, code comments, incident reports, old project documents, and the heads of experienced employees. The issue is not that knowledge does not exist. The issue is that it is fragmented. Some of it is outdated. Some of it is duplicated. Some of it is tribal. Some of it is locked inside tools. Some of it is written for humans but not structured enough for AI systems to use reliably. This becomes a serious problem when we move from AI assistants to AI agents. An assistant can give a helpful answer. An agent does more. It plans, selects tools

Microsoft recently introduced at Build 2026 Microsoft Scout, an always-on agent. Scout belongs to a new category of agents Microsoft called Autopilots: always-on agents that work autonomously on a user’s behalf with their own identity, without needing to be prompted each time. Microsoft Scout integrates with Work IQ and is based on the open-source agent framework OpenClaw. By Bruno Couriol

你知道吗？GitHub 上有一个 17,889 Stars 的开源项目，能让你的 AI Agent 拥有跨会话的持久记忆——不是简单的向量检索，而是一个会自动进化的知识图谱。但大多数开发者只用它来做基础的文档搜索，完全忽略了它真正的能力。 Cognee 是一个开源 AI 记忆平台，它把知识图谱、向量搜索和认知本体论生成统一到一个记忆层中。在 2026 年，AI Agent 正从单轮对话机器人向长时间运行的自主系统演进，而瓶颈不再是模型能力，而是上下文管理。以下是大多数人不知道的五个隐藏用法。 隐藏用法 #1：自动图谱同步的会话记忆 大多数人的做法：把对话历史存在简单的列表或向量数据库里，上下文长了就塞进 prompt。这在前几轮还行，但会话一长就迅速退化。 隐藏技巧：Cognee 的会话记忆充当快速缓存，会在后台自动同步到持久化知识图谱。你既能获得内存上下文的速度，又能拥有图数据库的持久性——而且同步过程完全不需要手动编排。 import cognee import asyncio async def agent_session (): # 会话记忆——快速、临时、按会话隔离 await cognee . remember ( " 用户询问了 Q3 收入趋势并请求导出 CSV。 " , session_id = " support_ticket_4421 " ) # 后续查询会话记忆（快速路径） results = await cognee . recall ( " 用户问了什么收入相关的问题？ " , session_id = " support_ticket_4421 " ) # 会话结束时，会话记忆自动同步到永久图谱 # 无需手动导出，不会丢失任何数据 asyncio . run ( agent_session ()) 效果：你的 Agent 在会话内部保持对话上下文以实现快速响应，但会话结束后不会丢失任何信息。知识图谱会自动跨所有会话积累洞察。 数据来源：Cognee GitHub 17,889 Stars，README 文档中 session_id 参数和自动同步行为在"Use with AI Agents"章节有详细说明。 隐藏用法 #2：面向领域推理的本体论 grounding 大多数人的做法：把文档灌入向量数据库，依赖语义相似性做检索。模糊匹配还行，但当你需要结构化的、领域感知的推理时就不行了。 隐藏技巧：Cognee 的 cognify 流水线不只是嵌入文档——它会从你的数据中生成认知本体论，创建带有类型化关系的结构化知识图谱。这意味着你的 Agent 可以对实体及其连接进行推理，而不仅仅是找到相似的文本。 import cognee import asyncio async def build_domain_memory (): # 摄入领域文档 await cognee . remember ( """ 客户 Acme Corp 有 3 个活跃订阅。 订阅 A：企业计划，到期日 2026-09-15。 订阅 B：入门计划，已于 2026-03-01 到期。 客户经理是 Sarah Chen。 升级路径：Sarah -> 销售副总裁 -> CRO。 """ ) # Cognee 自动提取实体和关系： # (Acme Corp) --拥有--> (订阅 A) # (订阅 A) --类型--> (企业计划) # (订阅 A) --到期--> (2026-09-15) # (Sarah Chen) --管理--> (Acme Corp) # 现在进行结构化精确查询 results = await cognee . recall ( " 哪些客户在未来 90 天内订阅到期？ " ) # 返回 Acme Corp 及具体订阅和日期—— # 而不仅仅是"关于订阅的相似文本" asyncio . run ( build_domain_memory ()) 效果：你的 Agent 不再依赖向量相似性碰运气，而是从理解实体类型、关系和时间约束的本体论中获得结构化答案。 数据来源：Cognee README "Product Features"章节描述了"ontology grounding"和"cognitive-science-grounded ontology generation"；ArXiv 论文 2505.24478 关于优化知识图谱与 LLM 的接口。 隐藏用法 #3：通过共享图谱实现跨 Agent 知识共享 大多数人的做法：每个 Agent 维护自己独立的记忆。客服 Agent 无法受益于销售 Agent 昨天学到的东西。知识按设计被隔离。 隐藏技巧：Cognee 的知识图谱是一个共享基础设施层。多个基于不同框

Here is the detailed, deep-dive article tailored for DEV.to, written in a natural, highly technical style, completely free of icons, and designed to resonate with developers building agentic workflows. Building an Autonomous AI Experience Engine: Taming the Multi-Agent CLI Fleet As developers integrate more AI tools into their workflows, a new architectural problem has emerged: agent sprawl. We have incredible tools like Claude, Grok, and Codex running in our terminals, but they operate in silos. They lack shared memory, they step on each other's toes, and coordinating them feels like herding cats. To solve this, I built TechSphereX Studio — an open-source, polyglot AI Experience Engine. It is an autonomous multi-agent platform designed to intercept AI coding actions, orchestrate goal-driven work across a fleet of CLI agents, and mathematically learn from every session to improve future outcomes. Here is a deep dive into how I moved from isolated prompt engineering to a fully automated, self-learning agentic brain. Key Architectural Pillars 1. The 3-Layer Intercept Pipeline Before any CLI executes a command, TechSphereX intercepts the action to determine if the system already knows how to solve the problem based on past experiences. This happens across three highly optimized layers: Layer 1 (Read-only Filter): Evaluates the action in under 1ms. If the action is non-destructive (like a simple read), it skips heavy processing to save resources. Layer 2 (Semantic Search): Uses Qdrant running locally to perform vector embeddings and search the system's history for similar past tasks in under 50ms. Layer 3 (LLM Rerank): Passes the semantic results to a local Ollama instance to filter out contextually irrelevant data in under 500ms, ensuring the execution agent only receives high-fidelity context. 2. The Agentic Brain & Multi-Role Teams Instead of throwing a massive, complex prompt at a single coding agent, TechSphereX mimics a multi-role engineering team. The pipeline st

Tokenmaxxing was the hottest trend in Silicon Valley earlier this year, with CEOs encouraging employees to push AI usage as far as it would go. Then the bill came due. Uber reportedly blew through its annual AI budget in a few months, some companies cut Claude licenses for parts of their org, and Meta killed its internal leaderboard. This tension between […]