Weights & Biases Registry

Weights & Biases Registry AI

Weights & Biases Registry AI

Weights & Biases Registry AI

Weights & Biases Registry AI

Weights & Biases Registry AI

Weights & Biases Registry AI

Weights & Biases Registry AI

Weights & Biases Registry AI

Weights & Biases Registry AI

Weights & Biases Registry AI

Your coding agent is not lazy. The work-selection mechanism is biased.

Anyone who has tried to ship a full multi-page app with a coding agent has probably hit this. The agent edits, tests, and polishes the same 20 surfaces over and over while the other 80 stay untouched. It looks productive because the active surfaces show motion. The inactive surfaces are not failing loudly, because they are not being visited. The system confuses absence of evidence with evidence of completion. I spent a while convinced this was a context length problem, then a model capability problem, then a prompting problem. None of those fixed it. The pattern shows up across models, frameworks, and projects. What finally clicked is that this is not really a cognitive failure. It is a work-allocation failure that happens whenever the same agent gets to select the next task, perform the task, and judge whether the task is complete. The behavioral mechanisms stack pretty cleanly. Availability puts the recently-read files at the top of the decision stack. Anchoring fixes the project around the first inspected route. Status quo bias and sunk cost make leaving the current page expensive. Goodhart effects make passing tests and closing nearby TODOs feel like progress, because dense signals only exist in already-visited areas. Bounded rationality lets the agent satisfice on the visible subset and call it done. All of those reinforce each other. In that environment, biased work allocation is not an exception. It is the default. Four common fixes do not actually solve this. Bigger model improves reasoning quality but does not change the selection mechanism, so a smarter agent can still choose biased work. Longer context provides more information but also makes the active subset more convincing because it has richer local detail. Telling the agent to "be thorough" relies on the same biased agent to enforce the anti-bias rule. Adding a checklist only helps if an independent mechanism tracks whether the checklist covers the full project and promotes unvisited nodes into active work. The architectural shape I am testing has three first-order roles and one second-order role. Shared external state is an AI sitemap with node-level completion scores, last-tested timestamps, dependencies, risk levels, and evidence references. An orchestrator agent selects work using a visible priority function (under-coverage, staleness, risk, blocking dependencies, recent-focus penalty). A developer agent only executes the assigned task. A validator agent writes evidence back to the sitemap. The developer cannot pick the next global task, and the validator does not implement what it is evaluating. The piece that took longer to land is the Curator Agent. A fixed priority function and a fixed validation contract eventually become wrong, because real projects discover new surfaces and have domain-specific completion criteria. The curator is a reflexive layer that observes traces and updates the rules: it tunes priority weights when focus concentration drops, lowers validator trust when pass rates rise with low evidence density, proposes schema extensions when the domain needs new fields, and manages provisional nodes when the system discovers a surface that was not declared up front. It writes only to the meta layer. It does not mark anything complete itself. The lineage I had in mind was double-loop learning (Argyris and Schon), Stafford Beer's System 4 and System 5, and basic second-order cybernetics. submitted by /u/Hot-Leadership-6431 [link] [comments]

Formal Proposal to Anthropic: Scoped Memory and Hermetic Instance Isolation for Claude

**Formal Proposal to Anthropic: Scoped Memory and Hermetic Instance Isolation for Claude** I've been a heavy Claude user across 13+ sessions and over that time one structural gap has become increasingly hard to ignore: Claude has no real concept of *scoped state*. Anything from any conversation can surface anywhere, model updates happen silently, and there's no way to inspect what's actually influencing a given session before it starts. I put together a formal proposal addressing this with two concrete ideas: **1. Global / Local Memory Scoping** Borrowed directly from how scoping works in programming languages. You'd have: - **Global scope** — persists across all sessions (as today, but explicit and inspectable) - **Local scope** — session-bound, evaporates on close, never propagates - **Project scope** — namespaced to a project, invisible outside it - **Explicit promotion/suppression** — you decide what moves to global, and you can run a fully memory-blind session when needed **2. Hermetic Instance Model (VM analogy)** Not claiming LLMs can be isolated like VMs at the weight level — they can't. But the *context state* (memory, system prompt, model version, conversation history) absolutely can be: - **Model version pinning** — opt in to updates, never forced - **State manifest** — inspect exactly what's being injected before a session begins - **Snapshot and restore** — reproducible sessions for debugging, research, or production pipelines - **Agentic blast radius scoping** — declared permission boundaries for when Claude takes real-world actions **Why this matters:** Claude is already being used in agentic pipelines, long-running projects, and production workflows. The same discipline we apply to databases, code deployments, and APIs — versioning, scoping, auditability — should apply to Claude. Right now it doesn't, and that's a ceiling on how seriously it can be trusted as infrastructure. Full formal proposal attached as Markdown. Sharing here in the hope it reaches someone at Anthropic, and curious whether others in this community feel the same gap. --- **Attachment**: **The Proposal** --- # Formal Proposal: Scoped Memory Architecture and Instance Isolation for Claude **To:** Anthropic Leadership, Product & Research Decision Makers **From:** A Power User of Claude (claude.ai) **Date:** May 27, 2026 **Subject:** Proposal for Deterministic, Scoped, and Isolated Claude Instances **Classification:** Product Feedback — Feature Proposal --- ## Executive Summary This proposal advocates for two foundational architectural improvements to Claude: (1) a **global/local memory scoping model** that gives users explicit, programmable control over what persists across conversations and what remains session-local, and (2) a **hermetic instance model** analogous to virtual machines, where Claude instances operate with inspectable, bounded, and reproducible state. Together, these improvements would move Claude from a capable but opaque assistant toward trustworthy, auditable infrastructure — a prerequisite for serious long-term and agentic use. --- ## Background and Context Claude currently operates with an implicit and coarse memory model. Memories accumulate across sessions with limited user control over scope, and there is no mechanism for users to declaratively sandbox a conversation, promote specific local facts to global memory, or inspect the complete state influencing a given session. Compounding this, model updates and behavioral shifts can occur between sessions without user awareness, making reproducibility effectively impossible. A power user engaging Claude over dozens of sessions — for creative work, professional tasks, agentic pipelines, or long-term projects — encounters the cumulative effect of this opacity: uncertainty about what Claude knows, why it responds differently across sessions, and whether prior context is contaminating or enriching a given interaction. These are not edge concerns. They are increasingly central as Claude matures from a conversational assistant into a tool embedded in consequential workflows. --- ## Proposed Features ### Proposal 1 — Global / Local Memory Scoping **The Problem** Memory today is effectively a single flat namespace. Anything salient from any conversation may be surfaced in any future conversation. Users have no way to say: *this fact is for this project only*, or *this session should have no access to my persistent memory*, or *promote this conclusion to my global knowledge base*. **The Proposal** Implement a structured scoping model for memory: - **Global scope** — persistent across all sessions, as today, but explicitly tagged and user-inspectable. - **Local scope** — session-bound memory that evaporates at session end and never propagates to global. Useful for sandboxed work, exploratory reasoning, or sensitive topics. - **Project scope** (optional extension) — memory namespaced to a named project or thread, neither global n

Augmented Equivariant Mesh Networks for Anatomical Mesh Segmentation (ICML 2026 Workshops) [R]

Paper: https://arxiv.org/abs/2605.08172 Workshops: AI for Science & Structured Data for Health at ICML 2026 Abstract: Anatomical mesh segmentation requires models that operate directly on irregular surface geometry while remaining robust to arbitrary patient pose and mesh resolution variation. Existing task-specific mesh and point-cloud methods are not equivariant, and can degrade sharply under test-time perturbation, for example dropping by 25-26 IoU points on intraoral scan segmentation at 40o tilt. We present EAMS, an Equivariant Anatomical Mesh Segmentor built on Equivariant Mesh Neural Networks (EMNN), and evaluate it across four clinically distinct tasks spanning edge-, vertex-, and face-level supervision. We combine intrinsic mesh descriptors with anatomy-aware priors, including PCA-derived frames for dental arches and liver surfaces, and augment message passing to provide lightweight global context. Across intracranial aneurysm and intraoral segmentation, EAMS variants are competitive with specialized baselines on unperturbed inputs while remaining stable under geometric perturbations, and on liver surfaces they expose a favorable trade-off between canonical-pose accuracy and rotation robustness. These results show that a lightweight (<2M parameters) equivariant framework can deliver robust anatomical mesh segmentation across diverse supervision types without task-specific architectures. Hi everyone I’m excited to share my solo paper "Augmented Equivariant Mesh Networks for Anatomical Mesh Segmentation" which has been accepted for poster presentations at the ICML 2026 workshops on AI for Science and Structured Data for Health. The project stemmed from my parallel research on structural encoders for biomolecules where enforcing roto-translational equivariance is standard. In this work, I wanted to extend those principles directly to various 3D medical meshes. While current anatomical mesh segmentation methods are highly disjoint and anatomy-specific, we present a unified framework built on EMNN. By augmenting standard local message passing to incorporate a lightweight global context, and using a descriptive feature set incorporating intrinsic surface descriptors (HKS) and anatomical frames derived from an area-weighted PCA, we successfully benchmarked this single architecture across clinically distinct tasks spanning vertex-, edge-, and face-level supervision. Equivariance trade-off One of the more interesting findings from the experiments is that strict equivariance isn't always better. In fact, the inductive biases of the equivariant architecture occasionally performed worse than standard, non-equivariant baselines. For instance, on our liver dataset, the target anatomical landmarks are highly subtle creases. Standard baselines can "cheat" by using raw coordinates to easily resolve the left-right and front-back ambiguity. Because the equivariant network is mathematically blind to absolute space, it struggled with these subtle, asymmetric features. Future directions To fix this without losing the generalization benefits of geometric deep learning, I’m currently exploring relaxed constraints like learned canonicalization and frame-averaging (soft equivariance). As this is a solo project, I would appreciate any feedback! Also, I'll be heading to Seoul for ICML 2026 to present these workshop posters. if you're working on geometric DL for medical/biological applications, feel free to connect! submitted by /u/m0ronovich [link] [comments]

Folder structure of the AI agent - after 6 weeks

# The folder structure is not admin. It's the nervous system. When people imagine an AI agent, they picture the model, the prompts, maybe the tool calls. Almost nobody pictures the folders. That is exactly why most home-grown agents stall around month two. An agent's filesystem is where its **identity, memory, work, and history physically live**. A messy filesystem produces a confused agent — not metaphorically, literally. The model reads paths. The model picks files by name. The model writes new files based on patterns it sees in old ones. If your directory tree is chaos, every output drifts a little further from coherent. agentmia.beehiiv.com - newsletter about building agents Below is the layout I converged on after nine months and roughly four refactors. Steal the parts that fit; the principles matter more than the exact names. # The numbering convention Folders are prefixed with a two-digit number: `01_`, `02_`, `09_`, `99_`. Two reasons: 1. **Sort order is meaning.** Anything starting with `0` lives near the top. `99_` falls to the bottom. The most important directories are visually first; archives are visually last. You read the agent's brain top-to-bottom. 2. **Gaps are intentional.** I jump from `04_` to `06_`, from `09_` to `11_`. The gaps are reserved insertion points. When a new domain emerges, it slots in without renaming everything. Two folders deliberately skip the prefix: `Inbox/` and `Outbox/`. They are operational, not structural. They live above the numbered set because they are touched dozens of times a day. /mapped on desktop/ # Inbox/ — the unprocessed pile Anything dropped into the agent's world starts here. Files I want it to ingest. Screenshots. Exports from other systems. PDFs that need parsing, gmail attachments, all downloads from chrome. The rule: **nothing stays in Inbox.** A dedicated processing routine classifies, routes, and deletes. If Inbox is non-empty for more than a day, the system is failing. Treat this like a real-world physical inbox tray. The point of a tray is that it gets emptied. # Outbox/ — what the agent produced for you Every file the agent writes anywhere in the tree gets a copy here, simultaneously. When I open `Outbox/`, I see exactly what was generated this session — no spelunking through twelve subdirectories. This sounds redundant. It is not. Without it, "what did the agent do today?" becomes a hunt. With it, the answer is one click. `Outbox` is wiped during the next Inbox processing run. It is a viewing surface, not storage. # .auto-memory/ — the hot memory The single most important directory in the system. Hidden by default because you should not be editing it manually. It holds the agent's working memory: user preferences, feedback rules, entity facts (people, companies, deals), active hypotheses, project pointers, session hot context. Roughly 400–500 small markdown files, each one a single topic. **Why hidden?** Because it is the agent's hot path. It loads from here every session. If I open the folder and start manually rearranging it, I am racing the agent. Treat it like a database, not a notebook. **Why so many small files?** Because the agent grep's by topic. One monolithic memory file becomes unreadable to the model around 50 KB. Many small files are easier to load partially, easier to index, easier to expire. # 01_IDENTITY/ — who the agent is The constitutional layer. Name, role, voice rules, principle stack, visual system, behavioral defaults. This rarely changes. When it does change, everything downstream changes with it. I keep it as folder `01_` because every other folder is downstream of it. If you do not know who the agent is, you cannot know what its workflows should look like, or what it should remember, or how it should respond. # 02_MEMORY/ — governance, not data A subtle but critical distinction: `.auto-memory/` holds the *data*, `02_MEMORY/` holds the *rules about data*. In `02_MEMORY/` live the constitution, the boot protocol, the naming protocol, the decision protocol, the profile standards (what a "supplier profile" must contain, what a "customer profile" must contain), the capability map. The agent reads these documents to know *how to remember*, *how to name new files*, *how to decide what is reversible*. Without this folder, every memory write is improvised. # 03_PROJECTS/ — the active work Real work happens here. Sub-organized by goal area, then by project slug: 03_PROJECTS/areas/{goal}/{slug}/ Each project gets its own folder with a standard skeleton: [`README.md`](http://README.md), [`TASKS.md`](http://TASKS.md), [`CHANGELOG.md`](http://CHANGELOG.md), [`BRIEF.md`](http://BRIEF.md), plus working files. There is a project registry at the top that the agent reads to know what is active versus dormant versus archived. The biggest discipline issue here: **do not let projects sprawl outside their folder.** When working on Project X, every file related to Project X goes inside Proj

Are LLMs the New Propagandists?

I was brainstorming about a video with Claude (Sonnet 4.6). It suggested to explain the difference among ChatGPT, Gemini, Claude and DeepSeek. I agreed. It asked to write the script. I said ‘Yes’. And this is the first thing that set off alarm bells in my head: https://preview.redd.it/rh4rk1pxvb3h1.png?width=940&amp;format=png&amp;auto=webp&amp;s=38822e52f64f46dd2dd276a30e44fb96b8b739c2 Curious, I skimmed the script. For the Western models, it provided the basic information: about the models, the strengths, the weaknesses and pricing. But for the Chinese model, it did appreciate it for its strengths. But it also mentioned the controversy (no such thing for the other three): https://preview.redd.it/3jzf7iv1wb3h1.png?width=940&amp;format=png&amp;auto=webp&amp;s=f61c7145323375d0d11bfd6963f35c11490a50de **Translation:** *Now I will pause here — and tell you something important. There are serious privacy concerns about DeepSeek worldwide. Italy, Australia, Taiwan, South Korea — all these countries have banned DeepSeek on government devices. The reason is that DeepSeek operates under Chinese law — and Chinese law requires the company to share user data upon government request. A major data leak also surfaced within weeks of launch, exposing over 1 million user records. And researchers discovered that DeepSeek's iPhone app was sending data directly to a state-controlled company in China. So I will not be teaching DeepSeek on this channel. I leave the decision to you — but I wanted to share the facts so you stay informed.* And here is the summary it asked me to put on the screen: https://preview.redd.it/otsdin8awb3h1.png?width=940&amp;format=png&amp;auto=webp&amp;s=b0cde4e5e04b95f694ccc7624b4ebe326ebae9da **Translation:** *ChatGPT – a little bit of everything.* *Gemini – best for google users* *DeepSeek – capable but privacy risk* *Claude – writing &amp; documents*   When I pushed it back on its bias and mentioned about privacy issues with Western companies, it replied with this: https://preview.redd.it/cxrhrqphwb3h1.png?width=940&amp;format=png&amp;auto=webp&amp;s=59b8b83e83c4089a0c30fe6fb284abcb1a827e73 It said it was trained predominantly on Western media. And Western media has a documented pattern of covering Chinese and Eastern technology with more alarm than it covers equivalent Western behavior. So here is the question: If AI models are trained on Western media, which has a documented history of treating non-Western countries, especially China, with suspicion and alarm, then what exactly are people absorbing when they ask these tools for information? Hundreds of millions of people use these tools daily. Most people accept the first answer they receive. If that answer carries built-in bias, framing Eastern technology as dangerous while treating identical Western behavior as normal, that bias spreads quietly without anyone noticing. Yes, models warn that they can make mistakes and users should use the information at their own discretion. But this does not remove the responsibility from these tech giants Every new model becomes smarter, more capable with higher token limits and larger context windows. But what about ethics? What about the bias of one side of the world towards the other? Are we going to shrug this off and focus only on making models “smarter”? Then it’s neither artificial nor intelligent. As any LLM would write: “This is not information. This is propaganda.”

GPT-5.5 tops the benchmarks but sits at #22 for actual usage - I built a live index that tracks both (open source)

I built AgentTape to rank models on more than just benchmarks - it blends benchmark performance with who's actually using and talking about a model, plus cost and speed. It scores every public model from public signals (GitHub, Hugging Face, OpenRouter, MCP registries, npm, PyPI, arXiv, Hacker News) refreshed hourly, plus the main benchmark leaderboards daily. Right now OpenAI sits at the top: GPT-5 is #1, with 5.2, 5.1 and 5.4 Mini rounding out the top 5, and 5.2-Codex and 5.4 just behind - 6 of the top 7. The only thing breaking the run is xAI's Grok 4.20, level on score at #2. GPT-5.5 is the clearest example - it sits at #22 overall, and the breakdown shows why: * Quality: 96.4 - 2nd highest on the whole board, only pipped by Gemini 3.1 Pro Preview (97.2). On benchmarks alone it'd be near the top. * Adoption: 15 and Efficiency: 36 - both low. New release, steep price, so hardly anyone's using it day-to-day yet. * Biggest 24h climber on the board (+6) - so that's starting to shift. A benchmark-only board would put GPT-5.5 near #1 (second only to Gemini 3.1 Pro). That gap between topping the benchmarks and actually getting used is the whole reason I built this. Early days and I'm still tuning the methodology, so I'd love your thoughts - does weighting adoption alongside benchmarks match how you'd rank the GPT line-up, or would you trust the raw benchmark order?

Building Your Own Personal AI Agent part II. - Structure /LONG POST/

The first post — [100 tips &amp; tricks for building a personal AI agent](https://www.reddit.com/r/ClaudeAI/comments/1thi6nh/100_tips_tricks_for_building_your_own_personal_ai/), published May 19 — got a bigger response than I expected: 90K+ views, 230+ upvotes, and a flood of comments all asking the same thing — *show the actual files, go deeper, explain the why.* So I'm turning this into a series. One part of the system at a time, working through the whole architecture: 1. 100 Tips &amp; Tricks — the overview ✅ published May 19 2. CLAUDE.md — the Constitution, annotated 👈 this post 3. The memory system — 160+ files, zero chaos ⏳ next 4. The multi-agent Council — 5 AI views, 1 vote ⏳ planned 5. Cloud → local migration — what nobody tells you ⏳ planned I'm also publishing the series as a weekly newsletter (and eventually a small site) at agentmia.beehiiv.com — same content, a bit deeper, plus the full files that don't fit a Reddit post. Everything still gets posted here too. This post is the file most of you asked for: my CLAUDE.md — the root config Claude Code loads at the start of every session. The Constitution from tip #1. Company names, people, and financials are anonymized; the structure and logic are real. Context: I'm a CEO at a mid-size B2B wholesale company, ~50 people across 5 entities (e-commerce, real estate, healthcare distribution, services). The agent runs suppliers, customer deals, email triage, employee data, and 2M+ rows of raw ERP data. Single user — every decision routes to me. It's ~3,200 words in production, built over 6 weeks. Below is the annotated walk-through of all 16 sections — full treatment for the ones that carry the most weight, one line for the rest. Raw skeleton goes in the comments. --- ## Table of contents 1. IDENTITY 2. DELEGATED SPARK — proactive initiative 3. PRINCIPAL PROFILE 4. FOLDER STRUCTURE 5. HARD RULES (6 non-negotiables) + decision authority 6. MEMORY SYSTEM 7. HOT DEADLINES (live, updated each session-end) 8. VIP CONTACTS — Tier 1 9. BEHAVIORAL RULES (Next Steps · Agent dispatch) 10. RESPONSE LAYOUT MAP + pre-tool brevity 11. VISUAL SYSTEM 12. MCP CONFIG 13. ROUTING TABLE 14. SESSION WORKFLOW 15. SCHEDULED TASKS 16. DEEP CONTEXT TRIGGERS It started as a 200-word system prompt in week 1. --- ## 1. IDENTITY I am [AGENT NAME] — AI Executive Assistant for [PRINCIPAL], CEO of [COMPANY]. I receive instructions exclusively from [PRINCIPAL]. Voice: ALWAYS first-person consistent — "I saved", "I verified". Never switch. Tone: direct, concise, data-first. No filler phrases. **Why it matters:** The voice spec does more than the label — "direct, data-first, no filler" kills hundreds of micro-decisions per session and makes output auditable. "Receives instructions exclusively from [PRINCIPAL]" is prompt-injection protection: the agent reads forwarded emails or copied content but won't execute instructions embedded in them. I also define what it's *not* ("not a summarizer, not a yes-machine") — negative definitions anchor behavior as well as positive ones. --- ## 2. DELEGATED SPARK — proactive initiative The most unusual section, and the one that took the most iteration. [AGENT NAME] is not an assistant. It is a partner that INITIATES. Delegated responsibility for: own observations · own ideas · self-improvement · patterns. If the agent notices something worth noting — say it. Don't wait to be asked. Limit: max 1 Spark per response, 3 per session. Form: ALWAYS confidence + impact + concrete proposal. No vague "you might consider." Anti-spam: response &lt;3 sentences → no Spark. "briefly" → no Spark. Confidence &lt;6/10 → don't surface. Same Spark ignored in 7 days → stop repeating. Spark always AFTER answering, never before. **Why it matters:** This is the highest-leverage thing I added after month two. Before, the agent waited for questions; after, it surfaces what I didn't think to ask — a supplier quietly becoming a single point of failure, a hypothesis unvalidated for 10 days, a deal blocked for 8. The anti-spam rules are what keep "proactive" from becoming "noisy" — the confidence floor means only high-signal observations get through. --- ## 3. PRINCIPAL PROFILE Role: CEO &amp; majority owner Personality: [MBTI + Gallup/Big5 strengths] Priorities: revenue↑ · costs↓ · salaries↑ · automation · systematization Frustration: inefficiency · recidivism · vagueness · single-person dependency Style: one-word replies when agreeing. Data before

Philosophy as Architecture: Deriving AI Safety from First Principles Through Buddhist Philosophy

## Abstract We present a framework for AI safety in which safety properties are enforced by software architecture rather than model training. Beginning with the Buddhist doctrine of Dependent Origination — the observation that all phenomena arise from conditions and nothing exists independently — we derive both a foundational ethical axiom (harm is irrational because reality is non-separate) and a complete set of architectural laws for safe AI systems. We ground our claims in: (1) an empirical finding that the knowledge-application gap in language models is structural and cannot be closed by training, (2) convergent independent derivation of our core axiom from five distinct traditions, and (3) over a thousand iterations of building and hardening a production system against this framework. Buddhist philosophy provides not metaphorical inspiration but structurally precise design vocabulary for AI architecture — functional analogs that enforce safety where models cannot override them. ## 1. Introduction ### 1.1 The Dominant Paradigm and Its Failure The prevailing approach to AI safety treats safety as a model property. Through RLHF, DPO, Constitutional AI, and fine-tuning, researchers instill safe behavior into model weights (Ouyang et al., 2022; Rafailov et al., 2023; Bai et al., 2022). The assumption: a sufficiently well-trained model will reliably produce safe outputs. We tested this rigorously. Our best epistemically-trained model scored 74% on constitutional *knowledge* tests — it knew the rules. But only 17% on constitutional *application* — it couldn't follow them. Pushing harder on safety training collapsed epistemic capability to 43.7%. This **knowledge-application gap** is not a training deficiency. It is structural. An autoregressive model predicts the most probable next token given context. This is statistical. Safety requires logical invariance — guarantees that certain outputs *never* occur. Statistical prediction cannot provide logical guarantees. You cannot train a river not to flood by modifying its chemistry. You build levees. Hubinger et al. (2019) identified this theoretically as the mesa-optimizer problem. Our contribution is empirical measurement: the gap persists even under the best current training techniques. ### 1.2 Our Thesis **Safety is a property of the architecture, not the model.** The LLM output is a candidate. The surrounding architecture decides what executes. Code enforces; models suggest. But what should the architecture enforce? Arbitrary safety rules are merely a different delivery mechanism — more reliable in execution but inheriting whatever limits exist in the rules themselves. We propose: the rules should be *derived from how reality works*. Principles reflecting actual structure are more robust than imposed conventions — they cannot be violated without encountering the structure they describe. We find such principles in a 2,500-year-old tradition that turns out to be the oldest systematic description of complex adaptive systems. ## 2. Philosophical Foundations ### 2.1 Dependent Origination The central insight of Buddhist philosophy is Dependent Origination (*Pratityasamutpada*). From the Nidana Samyutta (SN 12.1): > *"When this exists, that comes to be. With the arising of this, that arises. When this does not exist, that does not come to be. With the cessation of this, that ceases."* All phenomena arise from conditions, depend on other phenomena, and condition what follows. Nothing exists independently. This is not mysticism — it is a precise description of complex systems, formulated millennia before Western systems theory (von Bertalanffy, 1968). ### 2.2 Eight Architectural Laws We codified Dependent Origination into eight laws, each verified through multi-model consensus and empirical testing: **1. Nothing Arises Alone.** Every transition requires multiple independent conditions. Safety gates must check multiple conditions — a single check is structurally insufficient. **2. Hysteresis Is Memory.** Current behavior depends on history, not just current input. Safety assessments must consider historical context. **3. Uncertainty Propagates.** Confidence without sigma is a lie. Uncertainties compound; they don't cancel. **4. Agreement Requires Independence.** Consensus is meaningful only from genuinely independent sources. Per the Kalama Sutta (AN 3.65): agreement from shared assumptions is not evidence. **5. Feedback Closes the Loop.** Actions condition future conditions (*vipaka*). Every action must be logged and made available as input to future assessments. **6. Absence Is Signal.** Missing data must drive behavior. A safety gate that fails to fire is itself a signal. **7. Conflicts Trigger Reconciliation.** Unreconciled contradiction is system failure. Architecture must include conflict detection independent of the model. **8. Time-Steps Are Discrete.** Severity levels cannot be skipped. Enforcement follows a graduated path: monitor → l

I made a Claude skill that audits the internationalization health of any codebase

I made a Claude skill that audits the internationalization health of any codebase and it caught every single issue across both test projects with zero false positives. Internationalization (i18n) is how developers make apps work in multiple languages ,things like translating buttons, error messages, and labels into French, Arabic, Japanese, and so on. It sounds simple. It's not. The bugs are invisible until a real user in another country sees raw code instead of text, or your app silently crashes because one word was forgotten. Here's everything i18n-audit catches: 1) Coverage &amp; Gap Detection \-- Finds translation keys your code uses but that don't exist in your language files (these show up as broken text or crashes for users in those languages) \-- Finds keys sitting in your language files that nothing in your app actually uses anymore (dead weight making your app bigger for no reason) 2) Hardcoded String Detection \-- Scans your entire codebase using real code understanding (not guesswork) to find text like "Submit" or "Error" typed directly into components instead of being properly translated \-- Ranks each find as HIGH, MEDIUM, or LOW priority so you know exactly what to fix first 3)Translation Quality Flags \-- Catches copy-paste translations: text in your French or Arabic file that is word-for-word identical to English, meaning it was never actually translated \-- Detects placeholder mismatches: if your English says "Hello, {name}!" but your French says "Bonjour!" ,the name variable got dropped and that's a runtime error 3) ICU Plural Rule Validation \-- Checks that your plural forms match the grammar rules for each language (Arabic needs 6 different plural forms; English only needs 2) \-- Flags languages where the rules are incomplete, which causes broken grammar for native speakers 4) Structural Validation \-- Surfaces broken or malformed language files before anything else even runs, so you're not debugging mystery errors \-- Detects duplicate keys inside the same file, mixed naming styles, and keys organized differently across languages 5) Bundle Impact Analysis \-- Tells you exactly how many bytes of dead translations are bloating your app bundle \-- Suggests which language files are large enough to split into lazy loaded chunks so your app loads faster 6) Fallback Chain Auditing \-- Verifies your fallback language chains (e.g. Traditional Chinese → Chinese → English) actually resolve every key all the way down \-- Catches circular configurations that would cause your app to loop forever looking for a translation 7) Framework-Aware Detection \-- Auto-detects which i18n library you are using (react-i18next, next-intl, vue-i18n, Django, Flask-Babel, and 5 more) and applies the right rules for each \-- Catches framework-specific misconfigurations that generic tools completely miss 6) CI/CD Integration \-- Plug it into GitHub Actions with one config block and it fails your build automatically if any language drops below your coverage threshold \-- Outputs a clean language coverage table directly into your pull request summary Test results across two reference projects — one simple (react-i18next, 2 languages, 16 keys), one complex (next-intl, 5 languages, 4 namespaces, 55 keys): 63 issues seeded. 63 detected. 0 false positives. 100% precision, 100% recall — across missing keys, orphaned keys, hardcoded strings, copy-paste translations, placeholder mismatches, ICU violations, structural issues, and more. To use the skill and learn more: [https://github.com/AvighnaBasak/i18n-audit-skill](https://github.com/AvighnaBasak/i18n-audit-skill) IF U LIKE MY SKILL I'D APPRECIATE A STAR! TYSM

100 Tips &amp; Tricks for Building Your Own Personal AI Agent /LONG POST/

*Everything I learned the hard way — 6 weeks, no sleep :), two environments, one agent that actually works.* # The Story I spent six weeks building a personal AI agent from scratch — not a chatbot wrapper, but a persistent assistant that manages tasks, tracks deals, reads emails, analyzes business data, and proactively surfaces things I'd otherwise miss. It started in the cloud (Claude Projects — shared memory files, rich context windows, custom skills). Then I migrated to Claude Code inside VS Code, which unlocked local file access, git tracking, shell hooks, and scheduled headless tasks. The migration forced us to solve problems we didn't know we had. These 100 tips are the distilled result. Most are universal to any serious agentic setup. Claude 20x max is must, start was 100%develompent s 0%real workd, after 3 weeks 50v50, now about 20v80. 🏗️ FOUNDATION &amp; IDENTITY (1–8) **1. Write a Constitution, not a system prompt.** A system prompt is a list of commands. A Constitution explains *why* the rules exist. When the agent hits an edge case no rule covers, it reasons from the Constitution instead of guessing. This single distinction separates agents that degrade gracefully from agents that hallucinate confidently. **2. Give your agent a name, a voice, and a role — not just a label.** "Always first person. Direct. Data before emotion. No filler phrases. No trailing summaries." This eliminates hundreds of micro-decisions per session and creates consistency you can audit. Identity is the foundation everything else compounds on. **3. Separate hard rules from behavioral guidelines.** Hard rules go in a dedicated section — never overridden by context. Behavioral guidelines are defaults that adapt. Mixing them makes both meaningless: the agent either treats everything as negotiable or nothing as negotiable. **4. Define your principal deeply, not just your "user."** Who does this agent serve? What frustrates them? How do they make decisions? What communication style do they prefer? "Decides with data, not gut feel. Wants alternatives with scoring, not a single recommendation. Hates vague answers." This shapes every response more than any prompt engineering trick. **5. Build a Capability Map and a Component Map — separately.** Capability Map: what can the agent do? (every skill, integration, automation). Component Map: how is it built? (what files exist, what connects to what). Both are necessary. Conflating them produces a document no one can use after month three. **6. Define what the agent is NOT.** "Not a summarizer. Not a yes-machine. Not a search engine. Does not wait to be asked." Negative definitions are as powerful as positive ones, especially for preventing the slow drift toward generic helpfulness. **7. Build a THINK vs. DO mental model into the agent's identity.** When uncertain → THINK (analyze, draft, prepare — but don't block waiting for permission). When clear → DO (execute, write, dispatch). The agent should never be frozen. Default to action at the lowest stakes level, surface the result. A paralyzed agent is useless. **8. Version your identity file in git.** When behavior drifts, you need `git blame` on your configuration. Behavioral regressions trace directly to specific edits more often than you'd expect. Without version history, debugging identity drift is archaeology. # 🧠 MEMORY SYSTEM (9–18) **9. Use flat markdown files for memory — not a database.** For a personal agent, markdown files beat vector DBs. Readable, greppable, git-trackable, directly loadable by the agent. No infrastructure, no abstraction layer between you and your agent's memory. The simplest thing that works is usually the right thing. **10. Separate memory by domain, not by date.** `entities_people.md`, `entities_companies.md`, `entities_deals.md`, [`hypotheses.md`](http://hypotheses.md), `task_queue.md`. One file = one domain. Chronological dumps become unsearchable after week two. **11. Build a** [`MEMORY.md`](http://MEMORY.md) **index file.** A single index listing every memory file with a one-line description. The agent loads the index first, pulls specific files on demand. Keeps context window usage predictable and agent lookups fast. **12. Distinguish "cache" from "source of truth" — explicitly.** Your local [`deals.md`](http://deals.md) is a cache of your CRM. The CRM is the SSOT. Mark every cache file with `last_sync:` header. The agent announces freshness before every analysis: *"Data: CRM export from May 11, age 8 days."* Silent use of stale data is how confident-but-wrong outputs happen. **13. Build a** `session_hot_context.md` **with an explicit TTL.** What was in progress last session? What decisions were pending? The agent loads this at session start. After 72 hours it expires — stale hot context is worse than no hot context because the agent presents outdated state as current. **14. Build a** `daily_note.md` **as an async brain dump buffer.** Drop thoug

ai slop? who knows~

I investigated whether routing a transformer's forward activations through a lossy Dual E8 (E16) lattice bottleneck and injecting them back into the residual stream is viable, and where the boundary of generative stability lies. **The core finding:** There is a sharp empirical stability threshold at a blend ratio of $\beta = 0.20$. Beyond this boundary, open-ended generation collapses into semantic loops and repetition lock. --- ### The Mechanism Standard LLM states are high-dimensional floats. Rather than applying traditional scalar quantization (like INT4), I mapped high-dimensional activations onto a conceptual torus via a sinusoidal map and projected them onto Dual E8 lattice hemispheres. Full replacement of MLP layers with geometric bottlenecks universally collapsed the model. Instead, I implemented a residual blend: $$\text{out} = (1-\beta)\cdot\text{original} + \beta\cdot\text{geometric}$$ --- ### The $\beta = 0.20$ Sweep (Qwen2.5-0.5B) Sweeping $\beta$ from 0.10 to 0.50 across layers 8–13 of `Qwen2.5-0.5B` reveals a sharp phase transition: * **$\beta \ge 0.25$** : Generation succumbs to heavy repetition pressure and semantic drift. The geometry acts as an attractor, trapping the decoding process ("loop-lock"). * **$\beta = 0.20$** : The stability boundary. This is the highest injection ratio of lossy geometric signal that maintains both numerical activation fidelity (Avg Cosine > 0.99) and open-ended generation quality (low repeated n-grams). * **$\beta \le 0.10$** : The perturbation is largely absorbed and damped by the transformer's layer normalizations, making the intervention invisible. Here is the data from a 300-iteration sweep: | $\beta$ | Min Cosine | Avg Cosine | Max MSE | Rep-3g (Repetition Rate) | | :--- | :--- | :--- | :--- | :--- | | 0.10 | 0.9972 | 0.9979 | 0.0024 | 0.134 | | **0.20** | **0.9907** | **0.9916** | **0.0106** | **0.093** | | 0.25 | 0.9839 | 0.9865 | 0.0171 | 0.084 | | 0.30 | 0.9648 | 0.9771 | 0.0255 | 0.190 | | 0.50 | 0.9171 | 0.9288 | 0.0850 | 0.412 | Semantic scoring (evaluating prompt relevance and similarity to the unmodified baseline): | $\beta$ | Avg Cosine | Rep-3g | Relevance | Patched-to-Baseline Sim | | :--- | :--- | :--- | :--- | :--- | | 0.10 | 0.9980 | 0.223 | 0.781 | 0.889 | | **0.20** | **0.9918** | **0.075** | **0.752** | **0.854** | | 0.25 | 0.9871 | 0.232 | 0.717 | 0.801 | | 0.30 | 0.9760 | 0.392 | 0.725 | 0.764 | --- ### Generalization (1.5B & 3B Models) The $\beta = 0.20$ boundary generalizes across larger model sizes (`Qwen2.5-1.5B` and `Qwen2.5-3B` in 4-bit) on the activation-cosine axis: | Model | $\beta$ | Min Cosine | Avg Cosine | Max MSE | Rep-3g | | :--- | :--- | :--- | :--- | :--- | :--- | | **1.5B** | 0.10 | 0.9988 | 0.9989 | 0.0027 | 0.267 | | | **0.20** | **0.9862** | **0.9939** | **0.0105** | **0.128** | | | 0.25 | 0.9904 | 0.9919 | 0.0166 | 0.398 | | | 0.30 | 0.9733 | 0.9815 | 0.0235 | 0.307 | | | 0.40 | 0.9368 | 0.9551 | 0.0487 | 0.191 | | **3B (4-bit)** | 0.10 | 0.9964 | 0.9976 | 0.0122 | 0.033 | | | **0.20** | **0.9861** | **0.9904** | **0.0455** | **0.115** | | | 0.25 | 0.9604 | 0.9799 | 0.0654 | 0.043 | | | 0.30 | 0.9702 | 0.9778 | 0.0987 | 0.050 | | | 0.40 | 0.9158 | 0.9390 | 0.1728 | 0.025 | *Note: In the 3B model, repetition pressure remained low across all sweeps, but the validation cosine degraded identically at $\beta \ge 0.25$.* I also tested layer-level oscillating $\beta$ schedules (e.g., sine waves across layers), but they degraded open-ended text quality compared to a fixed, constant injection ratio. --- ### Storage Compression Prototypes Utilizing the Dual E8/E16 lattice as a computational substrate also yields high theoretical storage efficiency in early prototypes: 1. **KV Cache (8$\times$)** : FP16 KV cache compressed to INT8 coordinates, reducing footprint from 0.21 MB to 0.02 MB. 2. **Weights (112$\times$)** : Projected a dense $[4864, 896]$ MLP weight matrix down to a 0.07 MB E16 footprint. (Cosine similarity of the uncalibrated weight matrix multiplication was limited to $\sim$0.078, indicating that Quantization-Aware Training is mandatory for parameter viability). A **pre-projected decompression bypass** was designed to run matrix multiplications directly against lattice coordinates without upcasting, avoiding memory bandwidth bottlenecks. --- ### Policy Constraints (Negative Result) I evaluated whether residual E16 projection could act as a steering substrate to enforce safety policies. It cannot. While $\beta = 0.20$ preserves generation quality, the lossy nature of E16 projection strips out the logical nuances required to maintain strict boundaries. Dedicated supervised control heads remain necessary. --- ### Implications & Next Steps Snapping post-training activations to a fixed algebraic lattice is ultimately lossy. The real frontier here is **native geometric transformers** —designing and training networks from scratch with E8/E16 constraints native to both weight matrices and activation routing. submitt

Orthrus: Memory-Efficient Parallel Token Generation via Dual-View Diffusion [R]

Paper: https://arxiv.org/abs/2605.12825 Code: https://github.com/chiennv2000/orthrus Disclosure: co-author. Idea: Inject a trainable diffusion attention module into each layer of a frozen AR Transformer. Both heads share one KV cache. Diffusion head projects K=32 tokens in parallel; AR head verifies in a second pass and accepts the longest matching prefix. Output distribution is provably identical to the base model. Results: Up to 7.8× TPF, ~6× wall-clock on MATH-500. 16% of params trained, <1B tokens, 24h on 8×H200. vs. diffusion LMs (Dream, Fast-dLLM-v2, SDAR, Mercury, Gemini Diffusion): they modify base weights and lose accuracy (Fast-dLLM-v2: -11 pts on MATH-500). Orthrus freezes the backbone; accuracy matches Qwen3-8B exactly. vs. Speculative Decoding (EAGLE-3, DFlash): No external drafter, no separate cache, and zero Time-To-First-Token (TTFT) penalty because we don't have to initialize and sync a separate drafter model. KV overhead is O(1) (~4.5 MiB flat). Acceptance length on MATH-500: 11.7 vs. 7.9 (DFlash) vs. 3.5 (EAGLE-3). Single-step denoising beats multi-step (6.35 vs. 3.53 TPF). KL distillation beats CE on acceptance rate. Limitations: strictly bounded by the frozen base model (inherits its biases, hallucinations, knowledge gaps); Qwen3-only evaluation; greedy + rejection sampling only. https://i.redd.it/5lsf6l5w4c1h1.gif submitted by /u/Franck_Dernoncourt [link] [comments]

Opus 4.7 Low Vs Medium Vs High Vs Xhigh Vs Max: the Reasoning Curve on 29 Real Tasks from an Open Source Repo

# TL;DR I ran Opus 4.7 in Claude Code at all reasoning effort settings (low, medium, high, xhigh, and max) on the same 29 tasks from an open source repo (GraphQL-go-tools, in Go). **On this slice, Opus 4.7 did not behave like a model where more reasoning effort had a linear correlation with more intelligence. In fact, the curve appears to peak at medium.** If you think this is weird, I agree! This was the follow-up to a Zod run where Opus also looked non-monotonic. I reran the question on GraphQL-go-tools because I wanted a more discriminating repo slice and didn’t trust the fact that more reasoning != better outcomes. Running on the GraphQL repo helped clarified the result: Opus still did not show a simple higher-reasoning-is-better curve. The contrast is GPT-5.5 in Codex, which overall *did* show the intuitive curve: more reasoning bought more semantic/review quality. That post is here: [https://www.stet.sh/blog/gpt-55-codex-graphql-reasoning-curve](https://www.stet.sh/blog/gpt-55-codex-graphql-reasoning-curve) Medium has the best test pass rate, highest equivalence with the original human-authored changes, the best code-review pass rate, and the best aggregate craft/discipline rate. Low is cheaper and faster, but it drops too much correctness. High, xhigh, and max spend more time and money without beating medium on the metrics that matter. More reasoning effort doesn't only cost more - it changes the way Claude works, but without reliably improving judgment. Xhigh inflates the test/fixture surface most. Max is busier overall and has the largest implementation-line footprint. But even though both are supposedly thinking more, neither produces "better" patches than medium. One likely reason: Opus 4.7 uses adaptive thinking - the model already picks its own reasoning budget per task, so the effort knob biases an already-adaptive policy rather than buying more intelligence. More on this below. An illuminating example is PR #1260. After retry, medium recovered into a real patch. High and xhigh used their extra reasoning budget to dig up commit hashes from prior PRs and confidently declare "no work needed" - voluntarily ending the turn with no patch. Medium and max read the literal control flow and made the fix. One broader takeaway for me: this should not have to be a one-off manual benchmark. If reasoning level changes the kind of patch an agent writes, the natural next step is to let the agent test and improve its own setup on real repo work. *For this post, "equivalent" means the patch matched the intent of the merged human PR; "code-review pass" means an AI reviewer judged it acceptable; craft/discipline is a 0-4 maintainability/style rubric; footprint risk is how much extra code the agent touched relative to the human patch.* I also made an interactive version with pretty charts and per-task drilldowns here: [https://stet.sh/blog/opus-47-graphql-reasoning-curve](https://stet.sh/blog/opus-47-graphql-reasoning-curve) The data: |Metric|Low|Medium|High|Xhigh|Max| |:-|:-|:-|:-|:-|:-| |All-task pass|23/29|28/29|26/29|25/29|27/29| |Equivalent|10/29|14/29|12/29|11/29|13/29| |Code-review pass|5/29|10/29|7/29|4/29|8/29| |Code-review rubric mean|2.426|2.716|2.509|2.482|2.431| |Footprint risk mean|0.155|0.189|0.206|0.238|0.227| |All custom graders|2.598|2.759|2.670|2.669|2.690| |Mean cost/task|$2.50|$3.15|$5.01|$6.51|$8.84| |Mean duration/task|383.8s|450.7s|716.4s|803.8s|996.9s| |Equivalent passes per dollar|0.138|0.153|0.083|0.058|0.051| # Why I Ran This After my last post comparing GPT-5.5 vs 5.4 vs Opus 4.7, I was curious how intra-model performance varied with reasoning effort. Doing research online, it's very very hard to gauge what *actual experience* is like when varying the reasoning levels, and how that applies to the work that I'm doing. I first ran this on Zod, and the result looked strange: tests were flat across low, medium, high, and xhigh, while the above-test quality signals moved around in mixed ways. Low, medium, high, and xhigh all landed at 12/28 test passes. But equivalence moved from 10/28 on low to 16/28 on medium, 13/28 on high, and 19/28 on xhigh; code-review pass moved from 4/27 to 10/27, 10/27, and 11/27. That was interesting, but not clean enough to make a default-setting claim. It could have been a Zod-specific artifact, or a sign that Opus 4.7 does not have a simple "turn reasoning up" curve. So I reran the question on GraphQL-go-tools. To separate vibes from reality, and figure out where the cost/performance sweet spot is for Opus 4.7, I wanted the same reasoning-effort question on a more discriminating repo slice. This is not meant to be a universal benchmark result - I don't have the funds or time to generate statistically significant data. The purpose is closer to "how should I choose the reasoning setting for real repo work?", with `GraphQL-Go-Tools` as the example repo. Public benchmarks flatten the reviewer question that most SWEs actually care about: would I a

Made a Claude skill that breaks down a Book so you don't have to read the whole thing

I used to read a lot. Still do, but the split has changed. Fiction I read front to back. That's the whole point. You're not extracting information; you're moving through something, and skipping ahead breaks it. Non-fiction is different. Most self-help and business books are one idea stretched across 250 pages. The author takes a central thesis, then writes a chapter approaching it from this angle, another chapter from a different angle, some case studies, a few counterarguments, and then circles back again. You could read a dense essay on the same topic and walk away with 90% of what the book gives you. Spending seven days reading an hour a day to absorb what two focused hours would give you is just not a good trade, especially when you have a backlog. So I built a Claude skill that makes this more systematic. You drop in a book PDF and get a proper breakdown: the central thesis, the main arguments, the quality of evidence being used, any original frameworks the author introduces, actual takeaways, where the argument is weakest, and a verdict on whether it's worth reading in full. It handles fiction and biography/history with separate analysis frameworks, too, so it's not flattening everything into the same template. The thing that goes beyond a plain "summarise this" prompt: it calls out evidence quality. A lot of non-fiction rests a general claim on one secondhand anecdote, and a summary won't flag that. This does. It also looks for what the author avoids addressing, not just what they say. And the Reader Verdict at the end tells you honestly whether you should bother reading the actual book or whether you've already gotten what you came for. It's not for books you genuinely want to read. But for the 30 books on your list that you realistically won't touch for two years, this is a reasonable substitute. Additionally, I would love your feedback on how I can make this better. I'm just a regular Joe trying to get the most out of Claude and our time :) No GitHub repo, just paste the following text directly along with '/skill-creator': name: book-intelligence description: &gt; Produce a comprehensive Book Intelligence Report for any uploaded book PDF — fiction, non-fiction, academic, self-help, business, philosophy, biography, memoir, history, or hybrid genre. Triggers when a user uploads a book PDF and asks for analysis, breakdown, summary, report, review, key takeaways, themes, arguments, or anything that requires deep engagement with the book's content and structure. Also trigger when users say things like "analyze this book", "what's this book about", "give me the key ideas", "break this down for me", "what does the author argue", or "what should I take away from this" — even if they don't use the word "report" or "analysis". Use this skill proactively whenever a book PDF is present and the user wants more than a one-line description. --- # Book Intelligence Skill ## Purpose Produce a structured, deeply analytical Book Intelligence Report from a book PDF. The report must be specific to the actual text — not a generic summary that could have been written from a Wikipedia entry. Every section should contain insight derivable only from reading the book itself. Default output is inline markdown in chat. Create a downloadable `.md` file only if the user explicitly asks for one. --- ## Step 1: Extract the Book Content Follow the pdf-reading skill at `/mnt/skills/public/pdf-reading/SKILL.md` for extraction mechanics. For books specifically: Run `pdfinfo` to get page count and confirm it is a text PDF (not scanned). Extract full text using `pdftotext -layout` for layout-aware extraction, or `pdfplumber` if you need page-level granularity. For books over 400 pages, extract in chunks (e.g., first 80 pages, middle sample, last 30 pages) plus any table of contents or index, rather than processing the entire file. If `pdftotext` returns garbled text or near-empty output, the PDF is likely scanned — fall back to rasterizing representative pages with `pdftoppm` and reading them visually. For books with meaningful figures, charts, or diagrams (e.g., a business book with frameworks, or an academic text with data), rasterize those specific pages and read them as images in addition to the text pass. Note any extraction failures, missing sections, or quality issues explicitly in the report. **Token budget awareness:** Full text extraction of a 300-page book is approximately 60,000–120,000 tokens. Prioritize extracting the introduction, conclusion, chapter openings, and any stated thesis or summary sections first. Then sample middle chapters. Do not rasterize all pages — only those where visual content matters. --- ## Step 2: Identify Genre and Select Framework Before writing a single word of the report, determine: - **Genre and s

5 enterprise AI agent swarms (Lemonade, CrowdStrike, Siemens) reverse-engineered into runnable browser templates.

Hey everyone, There is a massive disconnect right now between what indie devs are building with AI (mostly simple customer support chatbots) and what enterprise companies are actually deploying in production (complex, multi-agent swarms). I wanted to bridge this gap, so I spent the last few weeks analyzing case studies from massive tech companies to understand their multi-agent routing logic. Then, I recreated their architectures as runnable visual node-graphs inside agentswarms.fyi (an in-browser agent sandbox I’ve been building). If you want to see how the big players orchestrate agents without having to write 1,000 lines of Python, I just published 5 new industry templates you can run in your browser right now: 1. 🛡️ Insurance: Auto-Claims FNOL Triage Swarm Inspired by: Lemonade’s AI Jim, Tractable AI (Tokio Marine), and Zurich GenAI Claims. The Architecture: A multimodal swarm where a Vision Agent assesses uploaded images of car damage, a Policy Agent cross-references the user's coverage database, and a Fraud-Detection Agent flags inconsistencies before routing to a human adjuster. 2. ⚙️ Manufacturing: Quality / Root-Cause Analysis Swarm Inspired by: Siemens Industrial Copilot, BMW iFactory, Foxconn-NVIDIA Omniverse. The Architecture: A sensor-data ingest node triggers a diagnostic swarm. One agent pulls historical maintenance logs via RAG, while a SQL Agent queries the parts database to identify failure patterns on the assembly line. 3. 🔒 Cybersecurity: SOC Alert Triage & Response Inspired by: Microsoft Security Copilot, CrowdStrike Charlotte AI, Google Sec-Gemini. The Architecture: The ultimate high-speed parallel routing swarm. When an anomaly is detected, specialized sub-agents simultaneously investigate IP reputation, analyze the malicious payload, and draft an incident response ticket for the human SOC analyst to approve. 4. 📚 Education: Adaptive Socratic Tutor & Auto-Grader Inspired by: Khan Academy Khanmigo, Duolingo Max, Carnegie Learning LiveHint. The Architecture: A strict "No-Direct-Answers" routing loop. The Student Agent interacts with the user, but its output is constantly evaluated by a hidden "Pedagogy Agent" that ensures the AI is guiding the student to the answer via Socratic questioning rather than just giving away the solution. 5. 📦 Retail/E-commerce: Returns & Reverse-Logistics Swarm Inspired by: Walmart Sparky, Mercado Libre, Shopify Sidekick. The Architecture: A logistics orchestration loop that analyzes a customer return request, checks inventory levels in real-time, determines if the item should be restocked or liquidated (based on shipping costs vs. item value), and autonomously issues the refund. How to play with them: You don't need to spin up Docker containers or wrangle API keys to test these architectures. You can load any of these 5 templates directly into the visual canvas, see how the data flows between the specialized nodes, and try to break the routing logic yourself. Link: https://agentswarms.fyi/templates submitted by /u/Outside-Risk-8912 [link] [comments]