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I run Claude Code most of the day. The thing that kept biting me wasn't the model getting dumber. It was the model forgetting what we'd already settled, then confidently redoing it wrong. You've probably hit it. You write a CLAUDE.md , you keep notes, you tell it "we decided X." A few prompts later it relitigates X, or quietly breaks something it fixed an hour ago. Bigger context windows didn't fix it for me either. A 1M window just means more room for stale instructions to rot in. Here's the reframe that actually held: stop treating the model as the place the state lives. The model is a worker, not a filing cabinet A context window is working memory, not a record. It's lossy, it drifts, and every new turn re-derives the world from whatever's in front of it. If "what's done and what's half-broken" only exists in that window, you're trusting the most forgetful part of the system to remember the most important thing. So I moved the state out of the model and into the work. Two pieces did most of it: A frozen spec the agent re-reads. Not a chat message it might compress away. An actual file that says what we're building and what's already decided. When it starts drifting, the spec is the source of truth, not its memory of the conversation. A checklist it can only tick after something is verified. [ ] becomes [x] when a test passes or I've confirmed the change, never because the model "thinks" it's done. The checklist carries the progress. The model just moves it forward one verified step at a time. The difference is subtle but it's the whole game. Before, the work was a side effect of the conversation. After, the conversation is a side effect of the work. The agent can lose the whole thread and reload from the spec plus the checklist and basically pick up where it left off. A number that surprised me When I actually measured my own sessions, almost none of my tokens were fresh input. The bulk was cache reads and re-reading instructions that hadn't changed. So the "cont

7 daily crons, 2 starvation incidents that triggered the rewrite Health checks before work, not after, catch silent failures Queue-low alarm fires at 5 items, not at zero A cron is ignorable for 3 weeks only when failures are loud I run 7 GitHub Actions crons every day, and for two months I never looked at them. Then a content queue starved silently and I posted nothing for 4 days before noticing. Here is what I changed so a cron can stay green and be ignorable for 3 weeks straight. The Two Incidents That Forced The Rewrite The first starvation happened on a Tuesday. My image generation cron pulled prompts from a queue, made the assets, and pushed them to a publish queue. The image API returned a 429 (rate limited) and the job exited cleanly with a green checkmark. GitHub Actions reported success. The workflow logs said "0 prompts processed" in a line I never read. For 4 days the publish queue drained and nothing refilled it. I found out because a follower asked why I went quiet. The second incident was sneakier. A cron that calls an external API hit an auth token that had expired. The script caught the error, logged it, and returned exit code 0 because I had wrapped the whole thing in a try/except that swallowed everything. Green check, no work done. This one ran for 6 days before I caught it during an unrelated debug session. Both failures shared one root cause: a green checkmark in GitHub Actions means the process exited zero, not that the work happened. Those are completely different claims. A cron that catches its own errors and exits clean is lying to you in the most polite way possible. After the second incident I sat down and wrote out what I actually wanted. I wanted to never look at these workflows unless something was wrong. I wanted "wrong" to be loud. And I wanted the loudness to arrive before the damage, not after. That meant three changes. First, the exit code had to reflect real work, so swallowed exceptions had to re-raise or set a failure flag. Sec

The problem Just saying "hi" to Claude Code costs ~31,000 tokens . I was paying $500+/month in API costs and had no idea where the tokens were going. So I built tokenwise — a free CLI that shows exactly where your AI coding agent wastes tokens. What it does tokenwise audit — Scan your instruction files It scans your CLAUDE.md, AGENTS.md, and rules files, then shows: How many tokens each file costs per message Boilerplate the AI already knows ("Always write clean code") ALL-CAPS emphasis that doesn't help (NEVER, ALWAYS, MUST) Duplicate sections Unscoped rules that load when they shouldn't tokenwise scan — Analyze your sessions It reads your latest session logs and shows: Token breakdown by component (system prompt, history, tool output) Cache hit rate Top 3 "token hogs" with actionable tips Monthly cost projection The key insight Most people try to compress context (which makes the AI dumber). tokenwise measures first, then applies safe fixes. You can't optimize what you can't measure. Quick start npx @davizin713/tokenwise audit npx @davizin713/tokenwise scan Zero API calls. Zero LLM inference. 100% local. Free forever. Works with 11 agents Claude Code, OpenCode, Cursor, Aider, Cline, Codex CLI, Goose, Continue.dev, Windsurf, Augment, and Kilocode. Links GitHub: github.com/davi713albano-coder/tokenwise npm: npmjs.com/package/@davizin713/tokenwise Built with TypeScript / Node.js js-tiktoken for token counting sql.js for reading OpenCode sessions MIT licensed If you use Claude Code or any AI coding agent, try it and let me know what you think! ⭐

The silicon race is heating up amid the struggle to keep up with demand.

devtools #infrastructureascode #cdk #aws Index TL;DR Major Features Bedrock AgentCore — From Alpha to Stable Fn::GetStackOutput & Weak Cross-Stack References Validations Framework Performance Improvements CloudWatch PromQL Alarms CLI Improvements New L2 Constructs Service Enhancements Community Highlights Community Content & Resources How Can You Be Involved Hey CDK community! Here's an update covering everything that shipped in April and May 2026. TL;DR Bedrock AgentCore graduated to stable — production-ready AI agent infrastructure with semver guarantees. Cross-region references got a major upgrade with native Fn::GetStackOutput support and weak cross-stack references. The new Validations framework replaces policyValidationBeta1 with a richer plugin system. And file fingerprinting is ~33% faster with persistent asset caching. These features are available in aws-cdk-lib v2.247.0 through v2.257.0 and aws-cdk CLI v2.1116.0 through v2.1125.0. Full changelogs on GitHub Releases ( Library | CLI ). Major Features Bedrock AgentCore — From Alpha to Stable The @aws-cdk/aws-bedrock-agentcore-alpha module has graduated to aws-cdk-lib/aws-bedrockagentcore — stable APIs, semver guarantees, production-ready. If you've been building AI agents with Bedrock but held off on CDK because of the alpha label, it's time to upgrade. ( #37876 ) AgentCore provides the core infrastructure for building AI agents: runtimes, gateways, identity management, observability, and online evaluation. The Policy submodule remains in alpha as it continues to evolve rapidly. ┌─────────────────────────────────────────────────────┐ │ Bedrock AgentCore (Stable) │ ├─────────────────────────────────────────────────────┤ │ │ │ ┌──────────┐ ┌──────────┐ ┌──────────────────┐ │ │ │ Runtime │ │ Gateway │ │ Identity │ │ │ │ (L2) │ │ (L2) │ │ (L2) │ │ │ └────┬─────┘ └────┬─────┘ └────────┬─────────┘ │ │ │ │ │ │ │ ▼ ▼ ▼ │ │ ┌──────────┐ ┌──────────┐ ┌──────────────────┐ │ │ │Observa- │ │Online │ │ Policy Engine │ │ │

One of the most powerful upgrades you can give any AI developer Introduction AI coding assistants are dazzling on a single file and surprisingly lost on a large one. Point a capable agent at a mature, multi-package codebase and you watch the same pattern every session: it greps for a symbol, opens a dozen files to work out how they fit together, and burns a large slice of its context window simply rediscovering the shape of the system before it can do any actual work. That orientation phase — the crawling, the grepping, the file-by-file reconstruction of structure the codebase already encodes — is the single biggest waste of tokens in most AI-assisted workflows. And it repeats every session, because nothing persists. The fix is straightforward: give the agent a map. Model your codebase as a knowledge graph and let the agent query the map instead of crawling the territory. This article explains what that looks like, why it works, and what it actually finds when you run it on a real system. TL;DR A code-graph should map your architecture not just your code. Converting grep to graph minimises token usage and saves you time. Find bugs, security mistakes, and omissions in your codebase in seconds. Plan upgrades quickly and with far more accuracy. Using deep-memory's vocabulary simplifies usage for your AI. Use deep-memory free. Check out the full example code-graph-guide.md What is a code-graph A code-graph is a graph database representation of your system. I use the word system and not code deliberately — the real power comes from driving architectural insights, not just building a faster file search. Code graphs are becoming popular. There are some impressive repositories where the author has scripted a process to mirror a codebase into a graph DB, capturing files, imports, and call relationships. That approach is useful for dependency visualisation. But mirroring syntax only scratches the surface. What separates a useful code-graph from an elaborate directory listing

Our infrastructure "documentation" was a Google Sheet. Anyone on the team could edit it. Nobody...

I've been working as Software Developer mainly focussed on Java and builts many application using Eclipse RCP framework or VS Code Application. Almost all the time I had to deal with multiple large files (either read/generate/validate) them which seemed very difficult and some of them almost impossible as most of them would be dependant on each other and would be referencing each other (just like how java files work together). Now assume client1 requires the same content in multiple Json files and client2 needs it in xml files. We couldn't go on writing a different application or go on adding if conditions and blah blah blah !!!! Wouldn't it be easier if as soon as I execute the application it generates the content in whatever format I choose and also taking care of dependencies/ references (like adding import statements). Additionally integrate with features of IDE and provide proposals, perform validations on the fly. Rela World Examples : Try googling Arxml once (Trust me I've dealing with these files for almost 7 years and it's always a nightmare to debug these) Solution: Xtext framework In this tutorial, I will show you how to use Eclipse Xtext and Xtend to build a simple, readable DSL that automatically generates Java boilerplate for you. Fair Warning: There will be no running executions screenshots or anything. You are gonna have to run it yourself and check the results and of course questions are always welcome in the comments section. But if for some reason you are unable to replicate this then let me know I'll try to explain further. I believe the best way to learn is by doing it yourself. The Goal: What are we building? Instead of writing 100 lines of Java with private fields, getters, and setters, we want our developers to write 5 lines of code in our own custom language (basically you can create your own programming language with your own custom syntax), like this: entity User { var name : String var age : Integer } When this file (assume file extension

Many Python beginners can write basic programs but get stuck when they try to run a real project on their own laptop. The issue is not always coding. Sometimes the real problem is setup . You may know loops, functions, and lists, but still face problems like: ModuleNotFoundError Python is not recognized Package installed but not working in VS Code Wrong interpreter selected These are common beginner setup issues. Why online compilers are not enough Online compilers are good for quick practice. But real Python projects need: project folders multiple files external packages virtual environments dependency files terminal commands debugging tools Git basics So, when the goal is to build real projects, it is better to move to a local Python setup early. Basic Python project setup flow A simple Python project setup flow looks like this: Install Python Install VS Code Create project folder Create virtual environment Activate virtual environment Install packages Save requirements.txt This setup may look basic, but it prevents many beginner-level errors later. Example folder structure A beginner-friendly Python project folder can look like this: python-project/ │ ├── main.py ├── requirements.txt ├── README.md └── venv/ Here is what each file or folder means: main.py is the main Python file. requirements.txt stores project dependencies. README.md explains the project. venv/ contains the virtual environment. Create a virtual environment Create a virtual environment using: python -m venv venv Activate it on Windows: venv \S cripts \a ctivate Activate it on Mac/Linux: source venv/bin/activate A virtual environment keeps each project’s packages separate. This helps avoid package conflicts when working on multiple Python projects. Install a package After activating the virtual environment, install packages using pip . Example: pip install requests Now create a Python file: import requests response = requests . get ( " https://api.github.com " ) print ( response . status_code ) If

AWS released Blocks in public preview, an open-source TypeScript framework where each Block bundles application code, local mocks, and AWS infrastructure. Designed for AI agents to write correct backends from the start, it runs locally without an AWS account and deploys the same code to Lambda, DynamoDB, Aurora, and Bedrock with zero changes. By Steef-Jan Wiggers

Today, I’m talking with Jack Conte, the CEO of Patreon. Jack last joined me on the show almost exactly five years ago, in the summer of 2021, and a lot has changed on the internet and in the creator landscape since then, so I was very excited to talk to him again, especially since his […]

A stat from 2026 that should stop you cold: 88% of organizations reported a confirmed or suspected AI agent security incident in the past year (92.7% in healthcare). And more than half of all agents run with no security oversight and no logging — naked. The problem isn't that the AI isn't smart enough. It's that almost nobody welded boundaries around it. And boundaries are exactly where rigor lives. The incident list: speed flooring it, boundaries naked The last couple of weeks of security signals line up scarily well: 88% of orgs reported confirmed/suspected AI agent incidents in the past year; healthcare 92.7% ; over half of agents have no security oversight or logging. Supply chain is the front door. A plugin-ecosystem supply-chain attack harvested agent credentials from 47 enterprise deployments ; attackers used them to reach customer data, financial records, and proprietary code — undetected for six months. A public skills marketplace at one point hosted 824 of 10,700 malicious "skills." Config is an attack surface. Check Point disclosed remote code execution in a popular coding agent via poisoned repository config files ; MCP (Model Context Protocol) is the connective tissue across nearly every incident this year — poisoned configs, malicious marketplace skills, unauthenticated exposed MCP servers. By early 2026, at least ten public incidents across six major AI coding tools were attributed to " agents acting with insufficient boundaries. " The industry's own summary: AI agent security in 2026 is a supply chain problem first, a prompt-injection problem second. And every one of these shares a single root cause — the agent can act, but there's no architectural boundary on what it can touch, change, or call. Why "naked" is inevitable: bolt-on boundaries always leak Why do half the agents run with no oversight? Because in the mainstream approach, boundaries are bolt-ons : an allow-list here, a gateway there, logs you read after the fact. The trouble: The tools an

GitOps policy drift is what happens when a control plane keeps a policy perfectly reconciled long after the reason for that policy has stopped being true. Every commit is applied. Every pull request is merged cleanly. Every dashboard reads green. And the rule being enforced no longer reflects anything anyone would choose to enforce today — it just hasn't been told to stop. That gap is the subject of this post. Not configuration drift — the thing GitOps was built to kill — but a second, quieter failure mode that lives one layer above it: the policy is right by every technical measure and wrong by every practical one, and nothing in the reconciliation loop is capable of telling the difference. The Promise GitOps Actually Kept GitOps earned its place in the infrastructure as code architecture stack by solving a real and expensive problem: state drift. Before declarative reconciliation, infrastructure diverged from its source of truth constantly — a console change here, an emergency hotfix there, a manual override nobody logged. The git repository said one thing. Production said another. Reconciling the two was a forensic exercise. GitOps closed that gap with a simple, durable mechanism: a controller that continuously compares declared state to actual state and corrects the difference without waiting for a human to notice. That's not a small win. It's the reason platform teams can run infrastructure at a scale that would have been operationally unmanageable a decade ago, and it's why GitOps controllers sit at the center of nearly every modern infrastructure as code architecture built since. This post isn't an argument against that mechanism. It's an argument that the mechanism's success created a blind spot nobody designed for. What GitOps Never Promised to Solve Here's the boundary GitOps was never built to cross: reconciliation proves that declared state and actual state match. It says nothing about whether the declared state should still exist in its current form. A

Choosing a learning path is one of the most critical decisions you make as a beginner. When I set out to learn web development, I knew exactly what I needed: resources that were thorough, accessible 24/7, and completely free—both online and in print. Before settling on my 2026 learning path, I experimented with a few popular options. Here is a look at what I tried, why they didn’t quite stick, and where I ultimately landed. What Didn’t Work for Me Scrimba Scrimba offers highly interactive introductory courses in web development. However, I realized a bit too late that the platform isn't entirely free; a paywall kicks in shortly after you begin the core HTML and CSS sections. Because I was looking for fully open resources, I had to move on. Frontend Mentor Frontend Mentor is an excellent platform for practicing UI design, but it operates on a freemium model. While the basic learning paths are free, accessing project solutions, starter files, and advanced challenges requires a paid upgrade. 100Devs 100Devs is a free, self-paced, community-taught bootcamp led by Leon Noel. Originally broadcast live on Twitch, the full 30-week course repository is now available on YouTube and communitytaught.org. I actually joined the inaugural cohort in 2020 and attempted subsequent restarts. Leon is an engaging instructor, but the live-stream format presents some hurdles for self-paced learners. The videos are several hours long and include significant time spent interacting with the live chat, managing stream tangents, and breaking away from the core curriculum. Ultimately, the pacing made it difficult for me to stay focused and build momentum. (Note: I also found myself misaligned with some of the community’s culture and leadership choices over time, which made it easier to look for a fresh start elsewhere.) What did I choose? Ultimately, I chose The Odin Project (TOP) as my primary framework, and I couldn't be happier with the decision. The Odin Project checks every single box for

📖 Originally published on my blog . Part of a series on building with Claude Code. For a while I'd watch the AI work and quietly grumble: a fairly big task, and it would finish one module before starting the next, while I just sat there waiting for it to clear one before the other's turn came up. The work itself was fine—it was just slow. Slow because it was stuck in a queue. Then it clicked: a lot of these modules have nothing to do with each other, so why make them go one after another? Split them up, let several agents work at the same time, done. What I want, and where it stops What I want is simple: the same work, for roughly the same tokens, with the wall-clock time cut way down. But let me put the boundary up front— not every task can be split this way . This is just an approach I've worked out for myself; take what's useful. The prerequisite: a clean architecture For several agents to work at once without stepping on each other, the prerequisite isn't the AI—it's your architecture . That task of mine could be split because it was already several modules, talking to each other through interfaces, with internal implementations that don't affect one another—as long as each one honors the interface contract, it can be built independently. Loosely coupled, highly cohesive, in other words. And I'd nailed that design down together with opus before writing a line: opus helps me think it through and lays out options, but I'm the one who decides . You can't cut corners here. Forcing parallelism onto an architecture you haven't cleanly split is like cutting a tangle of yarn into a few pieces that are all still knotted together—it only gets messier. Who runs the show, who plans, who does the work With the design settled, it's time to assign roles. The split I tend to use: opus runs the show —holds the big picture, hands out work, does the final check; sonnet does the TDD planning —per the design, it lays out how each module gets tested and implemented; haiku writes the

Hello Dev Community! 👋 It is officially Day 50 — a massive half-century milestone on my daily, unbroken streak toward mastering full-stack MERN engineering! Reaching Day 50 feels absolutely incredible. Yesterday, I mapped out dynamic path parameters. Today, I wired the input engine by building a complete asset workflow: Capturing Host "Add New Product" data payloads and committing them to local file storage pipelines! Following Prashant Sir's backend sequence , today was all about bridging the gap between host client forms and backend architecture using the Model-View-Controller framework. 🧠 Key Learnings From Day 50 (Product Ingestion & Storage) Processing data mutations sent from input forms requires tight coordination between parsing middlewares and file serialization engines. Here is how I structured the logic today: 1. Intercepting Form Submissions ( POST /host/add-product ) Set up a clean route mapping inside hostRouter.js to process dynamic data blocks sent by the host. The endpoint parses input parameters securely via backend streams. 2. Utilizing Class Instances for Storage Instead of directly pushing raw unstructured dictionaries into file records, I initialized a new object instance using my Day 48 structural class framework ( new houseList(...) ). This forces incoming data attributes—like name, price, location, and images—to match my exact system layout blueprint. 3. Asynchronous File Serialization Invoked the instance method .save() , which runs a non-blocking background task: it reads the active database layout array inside homesdata.json , appends the newly formulated object safely, and flushes the stringified update back onto the hard drive array using Node's fs operations. javascript // A conceptual look at how my controller hands data over to the model layer today const Product = require("../model/home"); exports.postAddProduct = (req, res) => { const { title, price, location, rating, imageUrl } = req.body; // Instantiating the core class data mold

Feeling overwhelmed by the constant flood of new AI features, MCP servers, and agentic platforms? In a world full of tech noise, it's easy to get exhausted trying to keep up. I just watched an incredible video by Burke Holland where he strips away the hype and shares 10 highly practical, concrete strategies to make AI coding tools actually work for your daily workflow. If you want to stop overcomplicating your setup and start getting better production results, here is the ultimate breakdown. The 10 AI Coding Tips (TL;DR Summary) Huge shoutout and credit to Burke Holland for these insights: 1) Use Visual Studio Code to maximize your environment with powerful themes, extensions, and inline terminal chats. 2) Always turn on YOLO / "allow all" mode so your AI agent can execute commands seamlessly without breaking your flow with constant permission prompts. 3) Never run agents on your own machine , choosing instead to isolate them via remote SSH or dev containers so YOLO mode is completely safe. 4) Prototype and mock everything upfront to map out UI design languages and logic before implementing code. 5) Always plan and grill by leveraging interactive planning modes to answer critical edge-case questions before generating file. 6) Rubber duck your plans across different AI model families (like combining Claude and GPT) to cross-verify solutions and expose blind spots. 7) Utilize autopilot and sub-agents to delegate parallel tasks and route smaller, faster models where appropriate. 8) Use built-in browser tools to visually review live previews and directly prompt structural or stylistic adjustments. 9) Run iterative multi-model reviews on autopilot to catch hidden bugs and refine code quality until reaching a clear point of diminishing returns. 10) Learn from your session history using tools like Chronicle to analyze your prompting habits and continually optimize how you interact with the agent. 📚 Recommended Reading If you are looking to dive deeper into perfecting your

Đối với một developer, trackpad không chỉ là thiết bị điều hướng mà còn là công cụ tối ưu hóa workflow. Khi làm việc với các IDE nặng như VS Code hay IntelliJ, khả năng phản hồi của trackpad quyết định tốc độ xử lý tác vụ. Trong bài so sánh giữa ROG Zephyrus G14 GA403 hay MSI Creator 16 AI? Đâu là lựa chọn cho sáng tạo chuyên nghiệp? , trải nghiệm trackpad là một điểm nhấn quan trọng. Trải nghiệm cử chỉ và độ chính xác trong lập trình Khi làm việc với code, các cử chỉ như chuyển đổi desktop ảo (Virtual Desktops) là cực kỳ quan trọng để tách biệt môi trường chạy Docker, trình duyệt và editor. Vuốt 3-4 ngón: Cả hai dòng máy đều hỗ trợ tốt, nhưng trên MSI Creator 16 với diện tích lớn hơn, việc nhận diện cử chỉ vuốt ngang giữa các workspace mượt mà hơn đáng kể. Độ chính xác chọn văn bản: Với một developer, việc bôi đen một đoạn code dài hoặc chọn chính xác một ký tự nhỏ là yếu tố sống còn. Trackpad trên G14 có độ nhạy cao nhờ kích thước gọn nhẹ, trong khi Creator 16 cho cảm giác vững chãi, ít bị trượt hơn khi thao tác nhanh. Độ trễ (Latency): Cả hai đều đạt chuẩn cao, tuy nhiên trên Windows, trải nghiệm đôi khi không mượt bằng macOS. Để khắc phục, việc sử dụng driver tùy chỉnh là cần thiết. So sánh hệ điều hành và mẹo cấu hình cho Developer Trải nghiệm trackpad thay đổi rõ rệt giữa Windows và Linux : Windows: Hỗ trợ tốt Precision Drivers. Bạn nên vào Settings > Bluetooth & devices > Touchpad để tinh chỉnh độ nhạy.\n- Linux: Nếu bạn dùng Ubuntu hay Fedora, hãy cài đặt libinput . Để tối ưu hóa cho workflow code, bạn có thể cấu hình file .wslconfig nếu chạy môi trường Windows Subsystem for Linux nhằm đảm bảo tài nguyên không bị nghẽn khi thao tác giao diện.\n Thông số kỹ thuật tóm tắt: ROG Zephyrus G14 GA403: Ryzen 9 8945HS, RTX 4070, 32GB LPDDR5X, OLED 14" 120Hz, nặng 1,5 kg. MSI Creator 16 AI Studio: Core Ultra 9 185H, RTX 4080/4090, lên đến 64GB DDR5, Mini LED 16" 120Hz, nặng 2,1-2,5 kg. Bài viết này là bản tóm tắt kỹ thuật. Xem chi tiết tại bài gốc.

The morning my own file lied to me Wednesday, May 21, start of session, coffee next to the keyboard. I ask the agent where we stand on the DEV.to series. Clean answer, articulated, "Four articles on stand-by, ready to publish." I reread. Half a second of unease, because I think I saw two or three of them go through DEV.to last week, but I slept in between and I'm no longer sure. I type the question that changes everything, "Are you sure articles remain to publish?" The agent re-queries the DEV.to API in parallel, opens scripts/devto/state.json , crosses the two. The four articles have been published for two or three days. What I just read wasn't a hallucination. The agent did exactly what was expected of it, namely open articles/backlog.md , read the table, restitute what it said. I'm the one who had stopped updating that file. sync-backlog.ts hadn't run after the pushes of last week. The markdown said "stand-by" while production said "published" . The typist didn't lie. She read faithfully a file I had written myself and that I was treating as authority while nothing was maintaining it. A summary is a Cache without a refresher This is the most common failure mode of a solo project that lasts. Each day produces two flows. On one side the matter that moves, made of commits, deploys, rows in the database, statuses that transition. On the other side the writings we draft to keep our bearings, namely backlog.md , the root MEMORY.md , the Sunday-night session note, the README of the folder we refactored last week. These writings are produced quickly, in the gesture that closes a sprint, and they are maintained slowly, or not at all, because nothing in the pipeline triggers to close them. R6 of the Counterpart Toolkit says it for SQL columns, Live / Snapshot / Cache mandatory . Any column derivable from other data must declare its category in the commit that creates it. If it's a Cache, the refresher mechanism ( GENERATED ALWAYS AS , SQL trigger, materialized view with pl