标签：#Development

AI is disrupting career progression by eliminating the learning opportunities at each rung while simultaneously enabling people to perform above their experience level, Alasdair Allan explained in his talk Engineering Progression When AI Ate the Middle at QCon London. Fewer junior developers join the industry, and AI slows hiring at the entry level. By Ben Linders

Astro 7 focuses on build performance, utilizing native tooling and a rewritten compiler in Rust. The new version includes faster Markdown processing and stricter HTML rules. Recent updates introduced advanced routing and incremental builds, while issues around legacy file compatibility and dependency counts were raised in feedback. Astro targets content-driven sites with minimal JavaScript. By Daniel Curtis

If you have ever needed to send an email, process a payment, or generate a report without making your user wait, you have probably run into Celery. Celery is a tool that lets you run jobs in the background, away from your main app. This article breaks down how it works, step by step, in plain language. What Is Celery, In Simple Terms Think of Celery like a restaurant kitchen. Your app (the waiter) takes an order from a customer. Instead of cooking the food itself, the waiter drops the order into a queue (the kitchen order rail). A cook (the worker) picks up the order from the rail and prepares it. When the food is ready, it goes to a pickup counter (the result backend) where anyone can come check if it's done. Celery has four main players: The Producer - your app, the one that creates tasks. The Broker - the message queue that holds tasks until a worker is free. The Worker - the process that picks up and runs the tasks. The Result Backend - where results are stored, if you need them later. In short: your app sends a task message to the broker. The broker holds it until a worker is free. The worker picks it up, runs the actual function, and (if you set one up) writes the result to the result backend. Your app can then go back and check that result backend to see what happened. Now let's go through each part. 1. How Tasks Get Registered Before Celery can run a task, it needs to know the task exists. This is called registration , and it happens the moment your Python code is imported - not when the task runs. The @app.task decorator You create a Celery app instance, then decorate any function with @app.task . That decorator does not run the function immediately. Instead, it wraps the function and adds it to a task registry - basically a dictionary that Celery keeps internally, mapping a task name to the actual function. from celery import Celery app = Celery ( " myproject " ) @app.task def send_welcome_email ( user_id ): # logic to send an email print ( f " Sending wel

There are two ways to work with an AI agent and I had tried both. Write the thing yourself and hand over only the tedious parts. Or hand over the whole task and audit whatever comes back at the end. The first is slow. The second is fast right up until it is wrong, and by then the wrong thing is finished. I expected this series to be about forcing a third option into existence. Nine parts of making an agent follow a workflow it would rather skip. That is not what happened. I never had to enforce it once. The queue that started this had a payload contract nobody had verified, and each phase after that cost me something before it gave anything back. A plan that would not move until the risk register named the provider contract the brief had only guessed at. A build that missed nothing except what my own brief left out. A review that stopped handing back a feeling and started handing back a verdict on every requirement I had already called done. A matrix instead of a trusted green run. A rollback with a name on it before anything got called shipped. And a retrospective that would not let a lesson through until it had checked itself against the trail. Eight parts of that. What I did not expect was which part turned out to be automatic. The Fight I Expected Never Started By the time I finish writing a requirement, I already know roughly what it is going to cost. Most engineers do. You can feel the difference between a one-line fix and something that is going to touch four files and a migration before you have written a single line of it. What I assumed was that the agent could not feel that, and that policing the gap would be my job forever. Reminding it to run the chain. Catching it when it decided a spike was small enough to skip. It has not needed the reminder. Small bugs do not trigger a brief and a plan, and they should not. A standard requirement, a spike, anything long or cross-cutting, runs the full cycle in order. The classification lands where I would have put i

JetBrains has described how it began centralising AI usage after development-related spending increased roughly tenfold in six months. Rather than restricting engineers to a small set of approved tools, the company built a shared access and accounting layer intended to preserve tool choice while giving teams greater visibility and control over consumption. By Matt Foster

Spent the week redesigning my portfolio’s blog layout and nuking thousands of stale notes in my Obsidian vault. Between the UI polish and some deep dives into libp2p DHT de-flaking, I pushed 36 commits and managed to delete almost 16,000 lines of clutter. TL;DR I’ve always believed that your digital space needs a good pruning every now and then to stay healthy. This week was the embodiment of that philosophy. I pushed 36 commits across four primary projects, resulting in over 23,000 additions and nearly 16,000 deletions. Most of that churn came from a massive redesign of my portfolio's blog and a long-overdue "fresh start" for my Obsidian vault. On the open-source side, I spent some quality time in the weeds of py-libp2p , chasing down flaky DHT tests and proposing better subnet diversity limits. What I Built Portfolio Redesign: The Typography Pivot My main focus this week was my portfolio. I’ve been feeling like the blog layout was getting a bit cluttered, so I opened and merged PR #15, which was all about "typographic hierarchy instead of decoration." I’m moving away from unnecessary borders and boxes and letting the type do the heavy lifting. I spent a lot of time in components/blog and app/blog refining the layout. I implemented borderless filter pills and full-width rows to give the content more room to breathe. One of the bigger technical shifts was moving the blog list to be fully server-rendered. It feels snappier, and it allowed me to implement more "honest" dates and better hover states on the rows. I also added a real focus ring for accessibility (because we’ve all been frustrated by keyboard navigation that feels like a guessing game). By the time I was done, I’d touched over 200 files in that repo alone. The Obsidian Purge I also took a metaphorical chainsaw to my obsidian-vault . I nuked nearly 10,000 lines of stale content. I removed entire directories for "Projects," "Rust," and "Backend" notes that were just gathering digital dust. It’s easy to let

A compiled application cannot hot-reload itself if its main loop, window context, and memory allocations live inside the binary being recompiled. The application must be split into two layers:Host Shell (Stable Execution Root):Statically compiled once.Manages the OS window, render loop, event polling, network sockets, and high-level heap allocations.Exposes a dynamic symbol loader (dlopen / LoadLibrary or a dynamic WebAssembly runtime execution context).Guest Module (Hot-Swappable Logic):Compiled as a shared dynamic library (.so, .dylib, .dll) or an isolated WebAssembly (.wasm) module.Contains frame updates, business rules, rendering instructions, and component tree logic.Exports explicit interface hooks (init, update, render, pre_reload, post_reload).The Hot-Reload PipelineWhen a developer edits source code in a compiled language (e.g., modifying a Rust UI render function or a C# algorithm), the dev server orchestrates a zero-downtime swap through this explicit pipeline:1.File Watcher & Fast Incremental Compile:Sub-second artifact generation.The watcher detects source changes and invokes an incremental compilation pass using dynamic linking configurations (e.g., -rdynamic, dynamic C-runtime links, or fast lld/mold linkers) to output a versioned binary artifact (logic_v2.so).2.Live Manifest Update:Atomic state & symbol mapping emit.The dev server emits an updated JSON manifest containing module hash, exposed symbol tables, binary payload locations, and updated asset hashes over a WebSocket/IPC stream to the Host Shell.3.State Snapshot & Freeze:Preserving user context.The Host Shell signals pre_reload() to the currently loaded logic_v1.so. The guest logic serializes volatile runtime state into a host-managed memory buffer or leaves pointers active inside a host arena.4.Dynamic Unload & Library Swap:Operating system symbol rotation.The Host Shell unloads logic_v1.so (releasing file locks via temporary copy paths on OS platforms like Windows), loads logic_v2.so, and re

I used to think AI was making me lazy. I was wrong. AI wasn't making me lazy I was using AI as an...

Angular v22, Google's TypeScript-first framework, has introduced API stabilizations, ergonomic templates, and tooling enhancements for AI integration. Key developments include the stabilization of Signal Forms, improved change detection strategies, and a new @Service() decorator for dependency injection. The release supports TypeScript 6 and removes deprecated features. By Daniel Curtis

The AI policies across the Linux ecosystem are very heterogeneous, ranging from the GCC’s restrictiveness, the Linux kernel’s pragmatism, to the more open disclosure-based utility model of Kubernetes' landscape. From core infrastructure to high-level orchestration, these distinct approaches highlight a shared commitment: ensuring the human maintainer remains the indispensable guardian of the code. By Olimpiu Pop

Originally published on hexisteme notes . A predecessor note diagnosed three production features that passed every dedicated unit test and never executed at all, and why a unit test structurally can't see that gap. That note answered three cases I already knew about, because I'd already tripped over them. It didn't answer the question that matters once you've found three: how do you find the rest — the ones nobody happened to notice yet? This is that search: the tool that actually works, what it found across seven projects, and a fourth failure shape that the predecessor note's two fixes don't reach at all, because in that fourth shape the code was never the thing that was broken. The query, before the argument Before any of the specifics, here is the shape of the query, so you can run something like it against your own tables in under a minute: SELECT COUNT ( * ) AS total , SUM ( some_column IS NOT NULL ) AS filled FROM some_table ; If that comes back near 100%, this note may simply not apply to your codebase, and that's a real result, not a failure to reproduce it. Keep that in mind through the rest of this — every finding below is downstream of a query shaped like this one, not downstream of reading code and guessing. Grep is not the detector My first instinct, the same one the predecessor note's fixes point toward, was to grep for the failure shape — a default value, an unpopulated argument, a call site missing a keyword. In one afternoon it produced both a false positive and a false negative. The sharper miss: a literal grep for a write path failed to find an INSERT OR REPLACE statement that was, in fact, live and doing exactly the writing I was looking for. Grep matched the shape of the bug I expected walking in, not the shape the code actually had. Everything that survived scrutiny below came from asking a database a question, not from asking a shell how a string was spelled. The question that works is: of all the rows that exist, how many have this column fi

Originally published at https://ninadpathak.com/articles/technical-documentation-template/ . Creating documentation often forces several decisions at once: where readers begin, how they complete the first task, where exact details belong, and how they recover when a step fails. A template reduces that first pass to a structure you can inspect and adapt. I built this template to solve a narrow problem: an empty documentation repository leaves every contributor to invent navigation, page responsibilities, and release checks again. It provides five focused pages, a local validator, and a strict build path so the structure is useful before the product-specific writing begins. Download the technical documentation template Download the template Unpack the archive, then replace the placeholders with evidence from your product. The remaining sections show what belongs in each page and how to verify the result. What a technical documentation template should include A technical documentation template is a reusable starting structure for product or engineering documentation. It should tell a contributor where a reader begins, where they complete a task, where they look up stable details, and where they recover from a known failure. A table of contents alone cannot do that work. It can label a page “Getting started” without establishing prerequisites, a tested command, an expected result, or a recovery path. The starter contains five pages because they create a complete first route without pretending every product needs the same collection. Page Reader job Evidence to add before publishing index.md Choose the first useful task A direct route to the right starting page getting-started.md Complete first setup Prerequisites, a tested command, expected output guides/send-a-request.md Perform one bounded task A full request and response or observable state reference/configuration.md Look up stable details Names, types, defaults, and constraints troubleshooting.md Recover from a know

My expense app finally has a point of view on what I'm spending money on. No AI yet — just honest keyword rules, a nullable column, and one interface that means I can bolt an LLM on later without ripping anything out. Here's the build, three "empty value" bugs that bit me, and the habits that kept it clean. Index Where we left off The plan: rules first, AI behind the same door Step 1 — A nullable column (and why nullable matters) Step 2 — The migration: generate → review → apply Step 3 — A dumb-but-working categorize() Step 4 — Wiring it into create (with override precedence) Step 5 — The seam: extracting behind a Categorizer interface Step 6 — The UI loop: show, add, edit 🐛 The war story: three ways "empty" lied to me Thinking like an attacker Learning shortcut vs. production Key habits to keep Next up: Phase 7b Where we left off Phase 6 gave me the receipts — date-range reports and CSV export. I ended that post with a promise: Next up: Phase 7, where categories finally enter the schema and the app starts to get opinionated about what I'm spending on. This is that. But it turned into a bigger beast than one post, so I'm splitting it: Phase 7a (this post): the schema, a rules-based categorizer, the interface seam, and the full UI loop. Phase 7b (next): the actual LLM — an LLMCategorizer that slots in behind the same interface, with caching and a rules fallback. Doing rules first isn't a cop-out. It's the whole strategy. The plan: rules first, AI behind the same door The temptation with "AI categorization" is to reach straight for the API key. I didn't. Here's the order I actually built in, and why: Step What Why this order 1 Nullable category column The app needs somewhere to store a category before it can fill one 2 Rules categorize() A working, free, offline fallback — and a baseline to test against 3 Extract behind an interface So the LLM can slot in later without touching call sites 4 UI loop (show / add / edit) Give the human final say, no matter how smart the

I'm a few months into a job search after a layoff, and I kept running into the same two problems: I was spending too long deciding whether a job listing was worth my time, and my resume was drifting out of sync with what was actually landing in interviews. So I built two Claude Code skills , reusable, file-based instructions Claude Code follows every time I invoke a slash command, to close both gaps. This is a walkthrough of how they work, why they're structured the way they are, and what I learned building them. If you haven't used Claude Code skills before: a skill is just a markdown file with YAML frontmatter ( name and description ) that lives in .claude/skills/{skill-name}/SKILL.md . The description field is what Claude uses to decide when to trigger the skill automatically, and you can always invoke it explicitly with /skill-name . The problem Job searching produces a lot of repetitive judgment calls: Is this listing worth 20 minutes of my time? Every JD needs to be read against my actual background, not against wishful thinking. Once I've scored 30+ listings, what do they add up to? Patterns emerge: the same gap gets flagged five times, the same bullet gets written from scratch in every cover letter, but nobody's collecting those patterns into resume improvements. Two skills, one for each problem: /score-job and /resume-sharpener . They're designed to work as a pair, the first generates raw signal, the second mines it. Skill 1: /score-job Input: paste a JD or give a URL. Output: one markdown file, job-search/scored-listings/YYYY-MM-DD-{company}-{role}.md . Reading the right context every time The skill starts by reading a fixed set of source files in parallel: my resumes (I keep four: engineering, PM, FDE/presales pivot, and a PeopleSoft-specific one), a profile doc, a skills inventory, and a filters doc that encodes what counts as a disqualifier. Critically, it re-reads these every run rather than caching anything, because they evolve as I update my resume o

Cloudflare has introduced Cloudflare Computer, a new open-source runtime designed to give AI agents something closer to a real "computer" instead of just ephemeral containers. It leverages Cloudflare isolates for fast serverless execution, making agents cheaper, faster, and more scalable, according to the company. By Sergio De Simone

Uno Platform 6.6 introduces Native AOT publishing across five target platforms, an optional Vulkan rendering backend, and automatic registration for the framework’s Model Context Protocol servers. The release also reduces XAML boilerplate, expands cross-platform WinUI API coverage, and improves accessibility and multilingual text handling. By Edin Kapić

npm has introduced staged publishing for Node.js, requiring maintainer approval before a version is installable. Versions are queued and must pass a two-factor authentication challenge for release. This feature aims to enhance security amid rising supply chain threats. It is available in npm CLI 11.15.0+ and Node 22.14.0+, alongside new configurable permission flags. By Daniel Curtis

📑 Table of Contents Introduction Why We Created ValidX? Why Choose ValidX? 5-Minute Quick Start Multilingual Support Important: Null/Empty String Handling Thread Safety Supported Validation Annotations Quick Reference Table Basic Validation Identity Validation Financial Validation Education/Professional Qualification Network Validation China-Specific Validation Automotive Validation Book-Related Validation Mobile Device Validation More Validation Annotations Contribution Introduction ValidX is an open-source Java validation library focused on Chinese business scenarios, making validation simple, elegant, and reliable. Built on JSR-380 standards with 90+ specialized annotations for Chinese identity cards, phone numbers, bank cards, and more. 💡 Why We Created ValidX? When developing applications for Chinese users, we frequently encountered these challenges: Pain Point 1: Java Has Too Few Built-in Validation Rules, Far Less Than Other Language Frameworks If you've used web frameworks in other languages, such as PHP's ThinkPHP or JavaScript's Validator.js, you'll notice they come with incredibly rich built-in validation rules: mobile , idcard , zip , alphaNum , etc.—ready to use out of the box, simple and convenient. But in the Java world, standard Bean Validation only provides a handful of generic annotations like @Email and @Pattern . For common Chinese business scenarios—identity cards, phone numbers, bank cards, unified social credit codes—there's absolutely no support. This forces every Java project to reinvent the wheel: Writing complex regular expressions yourself Implementing Luhn algorithm for bank card validation Handling identity card check digit calculations Copy-pasting validation code found online Why can't Java validation be as ready-to-use as other frameworks? This is why ValidX was born. Pain Point 2: Scattered Validation Logic Difficult to Maintain As projects grow, validation logic becomes scattered across: Manual validation in Controller layer Busine

We had a checkout test at my last job that everyone called "the coin flip." Green for a week, red twice on a Tuesday, green again. Someone eventually wrapped it in a retry and it sat like that for eight months before anyone looked at it again. Turned out the real bug was a webhook that occasionally fired before the order record finished writing to the DB - a two-hundred-millisecond gap that only showed up under load. The test wasn't broken. It was the only thing in the entire pipeline that noticed. That's usually the story. Someone blames the test - bad selector, missing wait, a sleep(2) some intern left in there three years ago, and half the time they're right. But when a test flakes repeatedly and nobody can explain why, the test is rarely the actual problem. It's just the part of the system rude enough to say something. A few places I keep finding the real cause hiding. Tests that quietly depend on each other Test A writes a row, Test B reads it and never knew it needed to. Run B by itself, it passes. Run the suite in a different order, or in parallel, and B fails for no reason anyone can point to. I've lost a full afternoon to this exact thing more than once - a cache value from Test 12 leaking into Test 47. The actual fix is annoying and unglamorous: every test gets its own fixtures, its own scoped data, no assumptions about what ran before it. If your suite only goes green in one specific order, you don't have a flaky test. You have an undocumented dependency graph, and it's going to bite someone eventually. The app is racing, not the test Click a button, immediately assert on the result - that's a bet that the UI update lands the instant the click handler returns. It usually does, on your machine, on a good day. Add a debounce, a background job, or just enough network latency and that bet stops paying off. This one's frustrating because the test isn't being paranoid. The app genuinely has a race condition. The test just runs the interaction often enough, acro

Vercel Labs has introduced Zero, an experimental systems programming language aimed at AI rather than human users. It employs unique features like a specific toolchain contract and structured error messages. Reaching version 0.3.4, it compiles to native binaries for major operating systems. The language prioritizes size, speed, and agent usability, though it is still in development. By Daniel Curtis