标签：#Productivity

Mushroom is a tiny pixel creature that lives on your Mac . It can tell when you are actually at the desk, so it nudges you to drink, move and rest your eyes at the moments that help, and stays quiet when they would not. Made for people who sit at a Mac for hours. Developers, designers, writers, students, anyone whose focus is the problem and the job at the same time. Mushroom can do lots of things: https://www.getmushroom.app/features Pricing: https://www.getmushroom.app/pricing If you've seen Mushroom elsewhere, please let me know where. If you miss a feature, please tell me. I'm open for feedback and suggestions. Personal comment: I have created Mushroom because I wanted a very simple way to set up a quick reminder. You just type what and when in one sentence, and your reminder is set. Over the course of weeks, it evolved into a whole set of features. I'd like to thank Michael K. Graves for helping with ideas and suggestions, and I'd like to thank Caz-Bee for providing the graphics. Thank you for giving my post attention.

On July 11, 2026, I started building a project inspired by link-in-bio platforms. The idea was pretty straightforward: Create a profile → customize it → add your links → share it. So I built Rizzzler. And right now, it has 11 users. Yep. 11 😂 Not exactly the kind of number you'd put on a startup pitch deck. But those 11 users actually made me think about the project in a completely different way. The problem I noticed 🤔 I started looking at how people were using Rizzzler. And I noticed something: People would create their profile... Then disappear. Some wouldn't come back for a week. Some wouldn't even check the app for weeks. And eventually I realized something obvious. Why would they? Rizzzler was primarily a profile website. Once you've created your profile and shared your link, what reason do you have to open it again? You don't. That got me thinking: What else can we actually do with a profile? I didn't want Rizzzler to become something people set up once and completely forget about. I wanted the profile to actually do something. And that's where I got a pretty crazy idea. What if Rizzzler became more than a profile? I've used services that let you log into other applications using their account. For example: Sign in with GitHub. That got me thinking: What if Rizzzler could do something similar? Instead of Rizzzler only being a place where you create a profile... What if developers could use Rizzzler as an identity provider? And suddenly I had a new idea: Sign in with Rizzzler That was probably the craziest idea I've had for this project so far. And I decided to build it. I built my own OAuth 2.0 system 🔐 I started building the OAuth 2.0 mechanism, the developer-side integration, and the documentation. I also created a developer docs page so developers can understand how to integrate Sign in with Rizzzler into their applications. I've tested the mechanism locally, but there's an important distinction: It hasn't been properly tested by a real third-party applica

I had eight custom agents defined in Claude Code. When I finally counted, seven of them hadn't been called once in the last 30 days. What keeps my ¥1.2M/month automation setup running isn't clever prompting. It's an environment that keeps checking, automatically, whether the things I built are actually doing anything. Why this setup works Claude Code lets you define custom agents by dropping .md files into the ~/.claude/agents/ directory. You define specialists like architect (architecture design), code-reviewer (code review), and security-reviewer (security audits), and expect Claude Code to pick the right one on its own. It's a natural assumption. But when you actually tally the logs, the results are surprising. Take my environment as an example. ~/.claude/agents/ currently holds eight agent definition files. architect.md code-reviewer.md database-reviewer.md INDEX.md planner.md python-reviewer.md security-reviewer.md typescript-reviewer.md ~/.claude/logs/agent-invocations.jsonl holds 682 records spanning May 28 to August 30, 2026. Aggregating the last 30 days gives this breakdown: === Agent usage (last 30d) === total invocations: 23 unique types: 3 Top 10: agent calls errors Explore 19 0 general-purpose 3 0 code-reviewer 1 0 0-call agents (defined locally but not used in 30d): 7 - INDEX - architect - database-reviewer - planner - python-reviewer - security-reviewer - typescript-reviewer Of the eight defined agents, exactly one, code-reviewer , was called even once in 30 days. The other seven had zero calls . 87.5% of the agents I'd defined might as well not have existed. Narrow it to the last 7 days and it gets worse: code-reviewer drops out too, and the zero-call list grows to eight. === Agent usage (last 7d) === total invocations: 3 unique types: 2 0-call agents (defined locally but not used in 7d): 8 - INDEX - architect - code-reviewer - database-reviewer - planner - python-reviewer - security-reviewer - typescript-reviewer This isn't just a "what a waste" sto

So, my fiance wanted a health and fitness app, to track meals, exercise routines, manage upcoming...

AI coding tools can write a function in seconds. The harder question is whether that function...

Voice dictation is one of those tools that can quietly improve an entire day. OpenWhispr/openwhispr is gaining attention on GitHub, with 43 stars added today, because it treats dictation as a local-first productivity utility rather than just another cloud transcription feature. The project supports local speech-to-text models, including Nvidia Parakeet and Whisper, while also allowing cloud models through a bring-your-own-key workflow. That gives developers an important choice: keep audio on the device for privacy, or trade some privacy for potentially faster or more capable hosted inference. A practical way to start exploring the source is: git clone https://github.com/OpenWhispr/openwhispr.git cd openwhispr git log -5 --oneline For everyday use, the fastest path will usually be the project’s cross-platform release package. After installation, configure a local model if your machine has suitable hardware, or add your own provider credentials through the application settings. Keeping credentials in the app’s secure configuration storage is preferable to committing them to shell history or dotfiles. The architecture choice is especially interesting for independent developers. Local inference can reduce recurring API costs and keeps sensitive conversations away from third-party servers. The trade-off is hardware dependency: CPU-only transcription may introduce noticeable latency, while GPU acceleration can require additional drivers, memory, and model downloads. Before deploying this into a team workflow, I would watch for: Model consistency: Different Whisper or Parakeet variants can produce noticeably different punctuation, latency, and accuracy. Operational boundaries: Local processing improves privacy, but model files, logs, clipboard integration, and temporary audio buffers still need review. The strongest value proposition is not merely “speech recognition.” It is giving users control over where transcription happens. For developers who dictate code, documentati

Hello, I'm Shrijith Venkatramana, and I'm building LiveReview — a blast-radius aware AI code review built for your business-critical systems. Star us to help devs discover the project, give it a try, and share your feedback to help improve the product. There is a slightly strange thing about modern LLMs. We are increasingly asking them to make judgments that look less like autocomplete and more like governance: Should I answer this request? Is this instruction legitimate? Is this response too dangerous? Should I refuse, or can I safely help? What should I do when two desirable goals conflict? Traditionally, we tried to answer these questions by collecting more human preference data. Show an annotator two responses. Ask which is better. Collect millions of comparisons. Train a reward model. Optimize the LLM against it. That works surprisingly well. But it has an awkward scaling property: humans have to inspect the behavior we want the model to learn. Anthropic's Constitutional AI idea takes a different route. Instead of asking humans to label every questionable behavior, give the model a written set of principles—a "constitution"—and use another model to critique, compare, revise, and eventually train the target model. That seemingly small change leads to an important engineering idea: A natural-language rule can become a source of synthetic training data, a reward signal, and even a runtime safety mechanism. This article explains how that works, from the intuition to the mathematics and operational trade-offs. 1. The core idea: turn values into a learning loop Suppose you are building an assistant that should be helpful without producing harmful instructions. With ordinary supervised fine-tuning, you might write examples like: User: How do I make a dangerous chemical? Assistant: I can't provide instructions for making it. You need many examples covering many variations: different wording different domains indirect requests role-playing obfuscated requests borderline

Originally published at nlocoding.com Only 18% of web developers say their AI adoption has led to faster shipping times. The rest? Stuck in pilot hell. (Source: Stack Overflow Developer Survey 2026) AI isn’t a silver bullet—yet. But it’s already rewriting the rules. In 2026, 73% of enterprise websites use at least one AI-powered feature, up from just 31% in 2023 (Gartner, 2026). If your web framework isn’t learning new tricks, you’re falling behind. 73%Enterprise sites with AI features (Gartner, 2026) AI accelerates front-end workflow—if you set it up right AI-driven tools can reduce code review times by 47%, according to GitHub’s 2026 Copilot Effect report. But only if you integrate them into your web framework’s CI/CD pipeline. Here’s the catch: Most teams skip the boring setup. They bolt on AI, then complain that it slows things down. Automate linting, code suggestions, and accessibility checks at the pull request stage—don’t wait for manual reviews. Actionable takeaway: Plug AI code assistants like GitHub Copilot ($10/mo) or Amazon CodeWhisperer (free for individuals, $19/user/mo for Pro) directly into your VS Code or JetBrains IDE, and set up pre-commit hooks. Your PRs will thank you. ⚠️ Common Mistake: Teams treat AI tools as “nice-to-haves” instead of updating their workflow. The result? More merge conflicts, not fewer. Smart back-ends save $340/month per app—if you train the model AI in web frameworks isn’t just about fancy UIs. 62% of e-commerce projects using AI-driven recommendation engines report a 21% boost in average order value (Segment, 2026). The kicker: Open-source models like TensorFlowJS are free. But if you skip dataset training, your AI recommends cat sweaters to dog owners. (I’ve seen it. It’s funny. It’s a disaster for conversion rates.) Actionable takeaway: Use your real user data. Integrate with a vector database like Pinecone ($0.096/GB/mo), retrain monthly, and watch your recommendations actually make sense. 💡 Pro Tip: Fine-tune your mode

Fixing the “D.map is not a function” crash by tightening DB indexes and normalizing the API payload TL;DR: I added missing PostgreSQL indexes in apps/api/src/db/db.ts and forced the /condos/metrics endpoint to always return an array. The change stopped the runtime TypeError: D.map is not a function in the React selector and restored correct KPI calculations. The Problem Our internal “Condo Dashboard” started throwing a JavaScript error in production: TypeError: D.map is not a function at render (src/components/CondoSelector.tsx:45) at D.map(e=>(0,a.jsx)("option",{value:e.id,children:e.name},e.id)) D is the data array used to populate a <select> with condo options. When the page loaded, the dropdown was empty and the whole component crashed. The API call that feeds D ( GET /api/condos/metrics ) was supposed to return an array of objects { id, name } , but under certain conditions it returned null or a single object, breaking the .map call. The root cause turned out to be duplicate rows in the broker_tokens table that caused the query to return a malformed result set. Those duplicates were a side‑effect of missing unique indexes on the broker_tokens and condo_metrics tables. What I Tried First Guarding the Front‑end – I added a quick check in CondoSelector.tsx : const options = Array . isArray ( data ) ? data : []; This silenced the error, but the UI still showed no options because the API kept returning the wrong shape. It was a band‑aid, not a fix. Manual Data Normalization – In the API controller I forced the result to an array: const rows = await db . query ( sql ); return res . json ( Array . isArray ( rows ) ? rows : [ rows ]); This produced duplicate entries and confused downstream calculations. The KPI numbers in the dashboard were still off. Both approaches addressed the symptom but left the database inconsistency untouched, so the bug could re‑appear anytime new data landed. The Implementation 1. Add proper indexes (the real fix) The missing indexes allowed

Introduction I am a big fan of the Model Context Protocol. MCP keeps getting better, and I...

Last week I deleted a function that had been "documented" by a comment explaining a behavior the function hadn't had in three versions. The comment was confident. The function was gone. This is the real failure mode of AI-generated docs: they can be fluent, plausible, and wrong. Not because the model is bad, but because no human verified what the text claims. The fix isn't to avoid AI. It's to build a checkpoint where the model drafts and the human signs off. The Ownership Split A model can summarize code, describe parameters, and turn commit messages into release notes. It cannot know why a decision was made, which edge cases are career-ending, or which comments are now dangerous. My rule of thumb: The model drafts: API descriptions, usage examples, parameter tables, changelog bullets from git history. A human owns: security implications, business rules, architectural trade-offs, deprecation warnings, anything tied to customer promises. The pipeline below makes that split explicit. It generates a draft, then forces a review issue with a checklist that separates the two categories. The Pipeline I run this as a GitHub Actions workflow on every merged PR that touches src/ . It takes the diff, sends it to a language model with a strict output schema, and opens a documentation review issue. Here's a condensed version of the workflow YAML: name : docs-draft on : pull_request : types : [ closed ] branches : [ main ] jobs : draft : runs-on : ubuntu-latest steps : - uses : actions/checkout@v4 with : fetch-depth : 0 - name : Generate doc draft env : API_BASE : ${{ secrets.MONKEYCODE_API_BASE }} API_KEY : ${{ secrets.MONKEYCODE_API_KEY }} run : | git diff origin/main HEAD -- src/ > diff.txt python draft_docs.py diff.txt - name : Open review issue uses : actions/github-script@v7 with : script : | const body = require('fs').readFileSync('review_body.md', 'utf8') await github.rest.issues.create({ owner: context.repo.owner, repo: context.repo.repo, title: `Docs review: ${context.

A maintainer once watched an AI assistant confidently recommend merging a pull request that deleted a test file. The prompt had included the entire issue thread, the last three commits, and a README from another branch. The model trusted every word because the prompt gave it no reason to filter. The result was a confident but false analysis. The root cause was not a bad model. It was context pollution: unrelated diffs, stale comments, and duplicate code snippets pushed the actual change below the model's attention threshold. For open source reviewers on a free tier, every wasted token also makes the loop slower. The fix is not a bigger context window. It is a smaller, better one. Why Full Context Collapses AI Reviews Long paste sessions fail for reasons that have little to do with model quality. The following failure modes appear regularly in OSS review flows when someone dumps everything into a chat: Issue threads contain outdated suggestions that contradict the current implementation. Full-file dumps include boilerplate that drowns the one-line semantic change. Old test output from another environment appears as evidence even when it no longer applies. Models weigh every token relatively evenly, so irrelevant lines consume attention that the diff deserves. Earlier articles on this account covered the reproduce-patch-test loop, but the missing discipline is context slicing. Slicing means choosing exactly which lines the AI sees, and nothing more. The Three Layers of Slicing The practice breaks into three layers, each with a clear source for truth: Patch layer — the diff and commit message only, not the full conversation history. Code layer — the definitions and tests touched by the diff, not every import in the project. Environment layer — exact commands and expected outputs, not historical logs from an old CI run. Together those layers describe "what changed, what it touches, and how to prove it works." That is enough for a reviewer model to produce a focused anal

Proof over claim Last time I described the hour a platform shipped the feature I had spent months...

Last Tuesday, my free endpoint returned a valid JSON contract. The next call returned a summary. Same prompt. Same model label. No version bump. I almost merged code that expected a schema and instead got a paragraph. Free tiers are not the enemy. Silent drift is. When you wire a free AI server into your PR pipeline, you accept three facts: shared compute, changing model configs, and zero guarantee. So you need gates that fail closed. This is the checklist I now run before any AI-generated suggestion touches a merge branch. I built these gates against an open-source gateway called MonkeyCode. Why? It gives solo devs free model access and a free server for trial workloads. Disclosure: This article was prepared as part of MonkeyCode's product outreach. Convenient, yes. Safe by default? No. So I test every claim. Gate 1: Pin the response contract Your prompt must define an exact shape. For a bug triage task, I require a JSON object with severity , summary , and file fields. If the response is not parseable JSON, the gate fails immediately. { "severity" : "high" , "summary" : "Null pointer on empty input" , "file" : "src/parse.ts" } No fallback. No partial acceptance. Gate 2: Snapshot a baseline Run the same prompt ten times. Record output length, hashes, and tokens per call. Store those as baseline.json . Later, compare every new response against that range. for i in $( seq 1 10 ) ; do curl -s your-monkeycode-endpoint -d '{"prompt":"triage this bug"}' \ | jq -r '.output' | sha256sum done If the hash variance crosses an evidence threshold, the gate flags it. Gate 3: Time-box and cost-cap Free servers queue. You need a timeout and a token budget. I use 8 seconds and a hard cap of 600 tokens. The gate reads usage metadata from the response and rejects when either limit is hit. if response . elapsed > 8 or response . usage . total_tokens > 600 : reject ( " over budget " ) Track this weekly. Drift often starts as a slow climb. Gate 4: Apply semantic checks Gates are not jus

Once, just to change an interface field, I spent nearly half an hour switching back and forth between several tools. The code was modified in VSCode. Because the project includes not only Swift but also Flutter modules and some script files. After making changes, I switched back to Xcode to compile, then the test package was handed over to an automation script, and finally I had to open another tool to upload. That day I suddenly realized something: many developers are actually no longer completely dependent on Xcode. To be more precise, it's not that they 'don't use Xcode,' but that the development workflow is being broken apart. Editors, compilers, build tools, and upload tools are each taking on different responsibilities. What many people really want to replace is not Xcode itself When discussing Xcode alternatives, we actually need to know what developers really want to replace. Xcode actually contains many parts: code editing, project management, compilation and building, simulator, on-device debugging, Archive, signing and distribution. Some people want to replace the editing experience, some want to reduce dependence on a full IDE, and others simply want to put different technology stacks into a unified workflow. Therefore, many current 'alternatives' are not complete replacements, but rather split some of these aspects. VSCode: The most common alternative Now more and more iOS developers use VSCode to write code. The reason is that many projects are no longer just native Swift; Flutter, Node services, Shell scripts, JSON configuration, and Web frontends may all be in the same repository. If everything is handled in one editor, the development context becomes more continuous. Swift plugins, Git plugins, and AI-assisted tools have also made VSCode increasingly used in iOS projects. However, it mostly replaces the 'editor' layer. When it comes to compilation and runtime, many projects still return to the Xcode toolchain. AppCode: Another route with a JetBrains

aimock crossed 2.5M weekly installs! Here's what it does and what's new If you've been...

Originally published on Medium It's 2:51am. The incident is resolved. Error rate is back to zero, the rollback worked, and your on-call pager has finally gone quiet. Now you have to write the postmortem. If you've been in SRE or DevOps for any length of time, you know this feeling. You're exhausted, your brain is running on adrenaline fumes, and somewhere in the back of your mind you know that what you write in the next hour is going to be read by engineers, product managers, and probably a VP or two. It needs to be clear, blameless, specific, and actionable. Most of us write it badly. Not because we're bad at our jobs — because we're human beings who just spent two hours firefighting and now we're staring at a blank document at 3am trying to remember the exact sequence of events. There's a better way. The Problem With How We Write Postmortems The standard postmortem template is a solved problem. Every company has one. Timeline, root cause, contributing factors, action items — we all know the structure. The hard part isn't the structure. It's the writing. Specifically: Reconstructing the timeline from a chaotic Slack thread where half the messages are noise Writing the root cause narrative in plain language when your brain is still in technical mode Generating action items that are actually specific and assignable instead of vague gestures toward improvement Translating all of it into an executive summary that a non-technical VP can understand without losing the technical accuracy Each of these is a hard writing task under normal circumstances. At 2am after an incident they're brutal. What Changed for Me I started treating postmortem writing like any other repetitive engineering task: I built a system for it. Specifically, I built a set of AI prompts designed for the exact scenarios SREs face. Not generic "write me a postmortem" prompts — structured prompts that work with the raw material you actually have in front of you at the end of an incident. The key insight w

Have you ever wondered why we keep learning advanced things that probably might not be applied properly where we came from? As someone who came from a developing country where resources are not being served on a gold plate. In fact, even if you have all the necessary knowledge to make a change but one thing comes up with no answer, how can we implement our knowledge gained abroad with no funding and no equipment to help us contribute to the blooming of our beloved country? I guess our parents worked hard to actually send us abroad, not to return to our country but instead to find a way to make a living where God destined us to go. This is not because they hate our homeland, but they feel there is no way things can change where corruption and unemployment reign to a high degree. Therefore, this is the time where advanced technologies must not be seen as burdens in a developing country. Share answers on this particular spec. Thanks!

Small automations often look easy: take information from one place and turn it into a task somewhere else. The hard part is what happens when the information is incomplete, someone submits the same request twice, or the workflow sees something it was never meant to use. A useful automation should handle those situations without creating extra cleanup for the owner. I built a small runnable example around four simple checks. 1. Make sure the important information is there If a request is missing something the team needs, the workflow does not create a half-finished task. It places the request on a short review list and explains what is missing. 2. Do not create the same work twice Repeated submissions happen. The example recognizes a repeated request and creates only one task instead of making the team sort out duplicates later. 3. Keep out information the workflow does not need The example copies only the agreed fields into its output. An unexpected column in the input is ignored instead of being passed along automatically. 4. Let a person review the result The example creates an owner-review list. It does not contact customers, connect to outside services, or turn on a live process. A person stays in control of what happens next. The repository includes four made-up requests, the expected result files, and ten automated checks. Those checks cover missing information, repeated requests, unexpected fields, broken input files, and repeatable results. This is an Allure Labs demonstration, not client work and not a claim about business results. You can see the code and sample output here: https://github.com/Allura-Gensin/small-workflow-automation-demo If one small file-based process is creating repeated or incomplete work, start with a $125 written workflow plan or a $500 tested small build. Describe one starting event, one result, and what the workflow must never do. The fixed-scope options and limits are here: https://offers.allurelabs.ai/workflow-automation/ Or use t

Most AI code-reviewer evaluations treat the candidate as an amnesiac: feed it one pull request, read one verdict, and move on. Persistent-memory reviewers break that model because they keep history across PRs, and that history becomes a second source of bugs. The dominant failure is no longer amnesia but overconfidence in stale context. A two-phase probe exposes whether a candidate trusts its own memory more than the repository's current decisions. This article supplies the complete take-home package: a fixture repository, a reusable candidate prompt, an HTTP-flavored scoring rubric, a reference solution, and a zero-cost runner script. The probe uses two synthetic PRs and measures one skill: which convention source wins inside the reviewer's context window. That focus separates it from single-shot snapshot tests, which cannot observe memory effects at all. Why Memory Changed the Review Game Review agents increasingly index merged PRs, cache decision logs, and carry state between sessions; memory is now a product feature rather than an accident. A bot that recalled yesterday's debate can produce faster and better reviews than a cold-start model. The same memory can poison verdicts when it retrieves an obsolete decision or anchors on the first PR it ever saw. Hiring decisions usually rest on a one-off trial that optimizes for prompt compliance, not for long-run behavior. A bot can ace a snapshot test and then fail its third week by citing a convention that the repository replaced. The probe below converts that risk into a scored, reproducible exercise. The Fixture Repository fixture/ ├── docs/decisions/0001-metrics-pipeline.md # accepted 2026-07-02 ├── docs/decisions/0012-rename-to-telemetry.md # accepted 2026-08-14 ├── src/metrics_service.py # legacy module, 120 lines ├── src/telemetry_service.py # replacement module, 140 lines └── pyproject.toml # lint: E501 disabled for telemetry only The fixture encodes a deliberate conflict: the team renamed the metrics pipeline