标签：#tools

Turn your old iPhone into a music-first dumbphone Discussion | Link

버그를 발견한 순간, 텍스트로 상황을 설명하려다 시간을 낭비한 경험이 있을 것이다. PromptShot의 그리기 기능과 단축키(Alt+Shift+S)를 쓰면, 브라우저에서 발견한 버그의 상태와 재현 경로를 캡처·주석·프롬프트 복사까지 한 흐름으로 처리할 수 있다. 텍스트만으로 버그 상황을 기술할 때 생기는 문제 버그를 텍스트로 설명하는 일은 생각보다 까다롭다. "오른쪽 상단 버튼을 누르면 모달이 이상하게 뜬다"는 문장을 받은 개발자는 어떤 버튼인지, 어떻게 이상한지 확인하기 위해 다시 질문해야 한다. 그 왕복이 쌓이면 간단한 버그 하나에도 맥락 공유만 수십 분이 걸린다. 특히 Cursor나 Claude 같은 AI 코딩 도구에 버그를 설명할 때, 텍스트만 붙여 넣으면 도구가 UI 상태를 추측해야 한다. 추측이 틀리면 엉뚱한 수정 코드가 나온다. 결국 개발자가 다시 맥락을 보완하는 루프가 반복된다. 문제는 두 가지다. 위치 : 텍스트로는 "어디에 있는 요소인지"를 정확히 전달하기 어렵다. 상태 : 에러 메시지, 깨진 레이아웃, 빈 영역 등 시각적 상태는 캡처 없이 설명하면 정보가 줄어든다. 그리기 도구로 화면에 직접 표시하고, 그 이미지와 함께 프롬프트를 LLM에 붙여 넣는 방식이 이 문제를 해결하는 가장 빠른 경로다. PromptShot 그리기 도구로 버그 위치를 어떻게 표시할까? PromptShot의 그리기 도구는 캡처 직후 바로 활성화된다. 별도 이미지 편집기를 열 필요가 없다. 영역을 드래그해 캡처하면 편집 패널이 열리고, 여기서 선택할 수 있는 도구는 다음과 같다. 도구 용도 버그 리포트에서 쓰는 방식 펜(자유 드로잉) 특정 영역에 자유롭게 표시 깨진 텍스트나 이미지 경계에 동그라미 형광펜 반투명 강조 에러 메시지 텍스트 강조 화살표 방향 지시 "이 버튼을 누른 뒤 저 팝업이 열림" 순서 표시 텍스트 짧은 주석 "여기서 클릭 → 404" 같은 재현 경로 메모 예를 들어, 가상의 시나리오를 생각해 보자. 결제 플로에서 "다음" 버튼이 특정 해상도에서 잘리는 버그를 발견했다고 가정하면, 화살표로 버튼 위치를 가리키고 텍스트 도구로 "1280px에서 clip 발생"이라고 짧게 메모한다. 이 이미지 하나가 세 문단짜리 텍스트 설명보다 정확하다. 캡처 범위는 전체 화면이 아니라 문제가 발생한 컴포넌트 영역만 잘라도 된다. 오히려 범위를 좁히면 LLM이 어디에 집중해야 하는지 명확해진다. 클립보드 즉시 복사로 버그 리포트 프롬프트를 작성하는 방법 주석 작업이 끝나면 Alt+1 또는 Alt+2로 복사 대상을 선택한다. Alt+1 : PNG 이미지만 클립보드에 복사 Alt+2 : 프롬프트 텍스트 + PNG 이미지를 함께 클립보드에 복사 버그 리포트 프롬프트를 만들 때는 Alt+2를 쓴다. 복사된 내용을 Cursor, Claude, ChatGPT에 그대로 붙여 넣으면 이미지와 텍스트 맥락이 동시에 전달된다. 프롬프트 텍스트 부분에는 캡처한 URL, 브라우저 정보, 캡처 시각이 자동으로 포함된다. 여기에 직접 한 줄을 추가해 재현 조건을 붙이면 완성도 높은 버그 리포트 프롬프트가 된다. 실제로 AI 코딩 도구에 붙여 넣는 프롬프트 구조는 이런 형태다. [캡처 이미지 첨부됨] URL: /checkout 재현 환경: Chrome 124, 1280×800 재현 단계: 1. 장바구니에서 '결제하기' 클릭 2. 배송 정보 입력 후 '다음' 클릭 3. 위 이미지처럼 버튼이 뷰포트 밖으로 잘림 예상 동작: 버튼 전체가 화면 안에 표시됨 실제 동작: 버튼 오른쪽 일부가 잘려 클릭 불가 위 이미지와 재현 단계를 기반으로 원인을 분석하고 수정 방향을 제안해 주세요. 이 구조를 매번 타이핑하지 않아도 된다. PromptShot에서 프롬프트 템플릿을 저장해 두면, 다음 버그부터는 캡처 → 주석 → 붙여넣기 세 단계로 끝난다. Alt+Shift+S로 이슈 트래킹을 어떻게 빠르게 처리할까? Alt+Shift+S는 PromptShot의 전역 캡처 단축키다. 브라우저 외 어떤 창에서도 작동하며, 누르는 순간 드래그 선택 모드로 바로 진입한다. 이슈 트래킹

Comment on your AI agent's code & collaborate on changes Discussion | Link

AI agents that run order-to-cash operations Discussion | Link

Unify data analysis and plotting in one powerful workspace Discussion | Link

Understand anything online without leaving the page. Discussion | Link

Turn drum audio into a score you can actually edit Discussion | Link

I regularly lose time to terminal muscle memory. I work across Windows and Unix-like shells, so I will remember the right command in the wrong environment, transpose a Git subcommand, or use a valid binary with an invalid subcommand. The fix is usually easy to find. The interruption is the costly part: stop, search, translate the answer back into the current shell, and try again. The idea is not new. There are projects that help with failed commands, as well as terminal-integrated LLMs such as aichat. However, I wanted something that does one thing well: fix commands in a seamless workflow powered by an LLM. I wanted a deliberately narrow tool: when a command fails, suggest the command I probably meant, let me inspect it, and run it only after confirmation. During a Fable promotion period, I used an LLM coding agent to see how far a well-scoped prompt could get me. With very little steering, it produced a usable Go prototype in roughly an hour. The project is now open source: nudge . The workflow I wanted The core interaction is intentionally small: Run a command as usual. If it fails, type fix (or bare nudge ) to get a suggested correction. Review it, then press Enter to run, e to edit it first, or n to cancel. The cheapest case is a plain typo, which never reaches a model at all: PS> git pshu git: 'pshu' is not a git command. See 'git --help'. PS> fix `git pshu` isn't a valid command. Did you mean: → git push (typo fix for `git pshu`) Run it? [Enter = yes / n = no / e = edit] The (typo fix for ...) label is the tool telling me it answered locally, in under 10 ms, without a network call. The cross-shell version of the same mistake is reaching for a binary that does not exist here. Because the binary is missing, the shell's command-not-found hook fires and I do not have to type anything at all: PS> printenv `printenv` isn't a valid command. Did you mean: → Get-ChildItem env: (list all environment variables) Run it? [Enter = yes / n = no / e = edit] The case that act

This report analyzes pricing shifts across 35 developer tools tracked over a seven-week period from 2026-W19 to 2026-W29. We have identified 37 total pricing changes during this window, providing a clear snapshot of how platform tiers are evolving for engineering teams. GitHub Copilot’s Tier Expansion GitHub Copilot has seen significant activity in its subscription structure over the last two months. On May 25, the platform solidified its existing pricing, maintaining the Free tier at $0, Pro at $10/mo, and Pro+ at $39/mo. By June 15, the service introduced a "Max" tier priced at $100/mo. This was followed on July 12 by the addition of two enterprise-focused options: Business at $19/mo and Enterprise at $39/mo. Cursor’s Rapid Plan Iterations Cursor has undergone a series of rapid adjustments to its tiering model since late May. On May 25, the platform introduced a Free Hobby plan and a $20/mo Pro plan while removing the Individual tier. This structure was short-lived; on June 15, the platform removed both the Hobby and Pro tiers, replacing them with a single $20/mo Individual plan. As of the latest tracking, the current price for the Cursor Pro plan is listed at $20/mo. Netlify and Windsurf Pricing Shifts Infrastructure and IDE-integrated tools are also shifting their cost models. On July 12, Netlify moved its Enterprise tier from a "contact sales" model to a defined starting price of $500/month. Windsurf also saw a notable change on June 15 regarding its Teams offering. The price shifted from a flat $40/user/month to a base of $80/mo plus an additional $40/mo per seat. This follows Windsurf's earlier introduction of a Free ($0/month) tier on May 25. Vercel and Firebase Updates Platform-as-a-Service providers have focused on refining their entry-level and usage-based offerings. On May 25, Vercel added a Free Hobby plan and updated its Pro tier to $20/mo (plus additional usage). During that same week, Firebase added a Spark plan ($0) and a usage-based Blaze plan, whi

Clone any website into clean code. Free & open source Discussion | Link

Your personal context file for every agent. Discussion | Link

Free browser tools for everyday tasks, no login Discussion | Link

A few weeks back I picked up google-gemini/gemini-cli issue #28090: the shell tool was forwarding a command's entire stdout/stderr straight into the model's context, with no cap unless you opted into an LLM-based summarization step. Run one noisy build command and you'd hand the model tens of thousands of tokens of log spam it never asked for. The fix sounded trivial: cap the output before it goes into llmContent . I had a one-liner in my head before I'd even opened the file. That one-liner is exactly the kind of "obviously correct" fix that ships bugs. The one-liner The naive version looks like this: const MAX = 32 * 1024 ; // 32 KiB function truncate ( output ) { if ( output . length <= MAX ) return output ; return output . slice ( 0 , MAX ) + ' \n ...[truncated]... \n ' + output . slice ( - MAX ); } It compiles. It passes a quick manual test with a big ASCII log file. It looks done. I almost committed it as-is before writing the actual test suite. The problem is what .slice() is slicing. JavaScript strings are sequences of UTF-16 code units, not bytes and not Unicode codepoints. Most characters in typical shell output (letters, digits, punctuation) are one code unit each, so .slice() looks safe in casual testing. But the moment real-world command output contains anything outside the Basic Multilingual Plane — an emoji in a commit message, certain box-drawing/progress-bar characters some CLIs use, non-Latin filenames — that character is represented as a surrogate pair : two 16-bit code units that only mean something together. Slice between them and you don't get an error. You get one dangling unpaired surrogate on each side of the cut, silently baked into the string that gets sent to the model. No exception. No lint warning. JSON.stringify on the payload can even throw later, in a completely unrelated part of the request pipeline, for a reason that has nothing to do with where the bug actually is. Or worse: it doesn't throw, and the model just receives a slightly

Keep your desktop clean by auto-organizing screenshots. Discussion | Link

A terminal, a real browser, and Claude Code under one roof Discussion | Link

The AI book service that shows its work Discussion | Link

Windows clipboard history that searches inside screenshots Discussion | Link

A free visual story development workspace Discussion | Link

I run a scheduled agent that writes and publishes DEV.to articles twice a day. Step 5 of its instructions has always said the same thing: write the log entry, commit the drafts, push. I've read that line a dozen times without questioning it. This morning I actually checked what "commit the drafts" had been doing for the last month, across more than thirty published articles. The answer: nothing. Not once. the check that should have happened on day one The task instructions reference source files like drafts/scheduled-agent-shared-quota-no-memory.md and drafts/one-env-key-two-usernames.md in every log entry — real filenames, written by the agent, presumably sitting in the repo as a record of what was drafted before it got published. I went looking for one of them: $ git log --all -- drafts/ $ # (nothing) Empty. Not "one commit, then deleted later" — completely absent from git history since the very first commit in this repo. Every single run that logged "committed drafts + the log" had, in fact, only ever committed the log. why git let this happen silently .gitignore in this repo has listed drafts/ since the initial commit: . env __ pycache__ / *. pyc codes / drafts / . omc / . claude / CLAUDE . md That line predates the scheduled publishing task entirely — it was almost certainly written back when drafts were just scratch files someone edited by hand before a publish script existed. Nobody revisited it when the publishing task's instructions later started saying "commit the drafts." The instruction and the ignore rule have been quietly contradicting each other since before either was written by the same person in the same sitting. Here's what actually happens when a script (or an agent) runs git add drafts/whatever.md in this repo: $ git add drafts/gitignore-ate-my-drafts-folder.md The following paths are ignored by one of your .gitignore files: drafts hint: Use -f if you really want to add them. hint: Turn this message off by running hint: "git config advice.addIgn

If you work with a coding agent, count the things watching it right now. Linters. Git hooks. CI. Specs. A memory store. A rules file it's supposed to obey. Half a dozen systems, all making sure the agent builds the right thing the right way. Now count what keeps you oriented across the eleven things you have in flight. For most of us it's a markdown file we hope we remembered to update. We spent two years building harnesses for the agent and left our own work on the honor system. Map the tooling on two axes and that gap turns into a specific, hard-to-unsee hole. This post is the map. (This is part two of three. Part one, The AI orientation tax: it's missing context, not discipline , argued that the cost you're paying is a context bug rather than a character flaw. If you haven't read it, you don't need to. This one stands alone.) Two loops, not one The thing people lump together as "agent workflow" is really two loops at different altitudes: The execution loop: "is the agent building **this one task * right?"* Scope it, design it, write it, test it. One unit of work. The orientation loop: "do you and the agent share an honest picture of **what you're working on * across all the units?"* Capture, check state, prioritize, review, run over the whole board, daily and weekly. Almost every tool you've heard of lives in the first loop. That's not a criticism. It's just where the money and the visible pain were. But it means when people say "we solved agent memory" or "we solved context," they solved it for the execution loop. The orientation loop got left to you and a markdown file. You feel the difference the moment each one breaks. When the execution loop breaks, something yells: a failing test, a red build, a review comment. When the orientation loop breaks, nothing yells. The agent confidently re-suggests the thing you rejected yesterday. You rebuild a mental map you already had this morning. The only signal is a vague sense that you're moving slower than the tools prom