标签：#Git

GitHub热门项目 | AirLLM 70B inference with single 4GB GPU | Stars: 23,152 | 242 stars today | 语言: Jupyter Notebook

GitHub热门项目 | LIBERATED AI CHAT | Stars: 9,367 | 63 stars today | 语言: TypeScript

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

DoltHub has recently released Dolt 2.0, a major update to the open source version-controlled SQL database. The latest major version adds automatic storage optimization, including garbage collection and compression, along with improved support for large and vector data types. By Renato Losio

In my previous post about a cost budget advisor , I built a mechanism that checks how much quota is left before it runs anything. This time I want to take that idea one step further: instead of cycling a single Codex through jobs one after another, run several of them at the same time as a swarm. I'll walk through the actual code for a three-layer protocol where workers declared in plan.json are expanded by orchestrate-worktrees.js into a tmux session plus git worktrees, so each Codex runs in parallel without interfering with the others. The problem: running Codex serially on the same branch When you run Codex jobs one after another on a single repository, you hit issues like: A commit from the previous job changes the preconditions for the next one Task B keeps waiting until Task A finishes When a conflict happens, the "which change is correct" decision bounces back to a human Separating branches with git worktree reduces the conflict risk to zero. Combining that with tmux to launch everything in parallel is the design for this post. The big picture: a three-layer protocol plan.json ← declaration layer (what goes to which worker) ↓ orchestrate-worktrees.js ← orchestrator layer (creates worktrees, launches tmux) ↓ orchestrate-codex-worker.sh ← worker layer (runs Codex, writes artifacts) The orchestrator doesn't know about the workers, and the workers don't know about each other. Artifacts are consolidated into three files under .orchestration/{session}/{worker_slug}/ . File Role task.md Work instructions for the worker (generated by the orchestrator) status.md State: not started → running → completed / failed handoff.md Codex output + git status (written by the worker) Declaring the plan in plan.json { "sessionName" : "refactor-sprint" , "repoRoot" : "~/my-project" , "worktreeRoot" : "~/worktrees" , "coordinationRoot" : "~/my-project/.orchestration" , "baseRef" : "HEAD" , "replaceExisting" : true , "launcherCommand" : "bash ~/.claude/scripts/orchestrate-codex-worker

The pipeline died at 5:07 on a Friday I still catch myself alt-tabbing back to the browser every time a pipeline breaks. Terminal, editor, browser, until I have hunted down the failing job and pasted a stack trace somewhere I can actually think about it. GitLab has made that dance a bit shorter. The Duo CLI reached general availability with GitLab 19.2 on July 16, 2026, and the pitch is simple: Duo Agentic Chat, in the shell you were already in. What actually shipped The short version, straight from the announcement: Duo CLI carries the Duo Agent Platform into the terminal, and your sessions travel with you. Start a plan in the CLI, keep it going in the web UI, pick it back up in an editor extension. Same context, same permissions, different surface. That continuity is the piece I care about most, because it stops me from re-explaining the same problem to the same agent three times in one afternoon. There are two shapes to work in. Interactive mode is the conversational one you would expect, with plan and build capabilities for iterating on a change. Headless mode is the one CI teams should look at, because it drops the same agent into a job or a script, no TTY required. Two built-in slash commands worth knowing on day one: /doctor for a setup check and /mcp to inspect the MCP configuration it is wired to. Two ways to install, one auth story The install decision is refreshingly small. If you already run glab , the GitLab CLI, then glab duo cli gets you moving and glab handles authentication for you. If you would rather have the agent as its own binary, you can install duo standalone and hand it a personal access token. Both paths reach the same tool. Both work on GitLab.com, Self-Managed and Dedicated, and admins get an instance-level toggle to switch access on or off for their org. The gating detail your finance-adjacent brain will want: you need Premium or Ultimate with the Duo Agent Platform turned on, and usage draws from the GitLab Credits already included with

GitHub热门项目 | Sourcebot is a self-hosted tool that helps humans and agents understand your codebase. | Stars: 3,590 | 5 stars today | 语言: TypeScript

GitHub热门项目 | The most advanced free and open-source browser fingerprinting library | Stars: 27,868 | 33 stars today | 语言: TypeScript

GitHub热门项目 | A browser based code editor | Stars: 46,370 | 10 stars today | 语言: JavaScript

GitHub热门项目 | a free and opensource app that lets you gain an unfair advantage | Stars: 5,473 | 57 stars today | 语言: JavaScript

GitHub热门项目 | The HIP Environment and ROCm Kit - A lightweight open source build system for HIP and ROCm | Stars: 1,145 | 6 stars today | 语言: Python

GitHub热门项目 | | Stars: 6,237 | 17 stars today | 语言: Python

GitHub热门项目 | Open source DocuSign alternative. Create, fill, and sign digital documents ✍️ | Stars: 17,719 | 152 stars today | 语言: Ruby

GitHub热门项目 | Protocol Buffers - Google's data interchange format | Stars: 71,510 | 11 stars today | 语言: C++

GitHub热门项目 | | Stars: 1,499 | 37 stars today | 语言: TypeScript

GitHub热门项目 | Master programming by recreating your favorite technologies from scratch. | Stars: 526,862 | 1,070 stars today | 语言: Markdown

A new technical analysis published by the Cloud Native Computing Foundation (CNCF) argues that the future of agentic AI will be built not on entirely new infrastructure, but on the mature cloud-native ecosystem that already powers modern distributed applications By Craig Risi

GitHub announced enterprise-managed OpenTelemetry export for Copilot activity from VS Code and Copilot CLI on July 8, 2026. Primary source: GitHub Changelog, July 8, 2026 . Export availability is only the start. The receiving collector becomes an enterprise ingress point. This is an unexecuted operating plan; signal types, attributes, endpoint requirements, and controls must be checked against current GitHub documentation. Isolate the path managed clients -> private telemetry ingress -> dedicated OTel Collector pool -> field policy + bounded queue -> dedicated backend dataset Do not point every developer client directly at the primary observability backend. Give the collector write-only destination credentials, separate its dataset from production application telemetry, and define retention before rollout. Isolation is not anonymity. Stable user, device, organization, or repository identifiers may still be sensitive. Start with a field budget Category Initial policy Product and version Keep bounded values Operation and status Keep documented enums Timing and counts Keep numeric measures Raw prompts or generated code Drop by default File paths and repository URLs Drop or transform after review User identity Prefer scoped pseudonymous identity Free-form errors Drop raw text; keep reviewed classes These categories are recommendations, not a description of GitHub's payload. Inspect a restricted canary before naming actual keys. processors : memory_limiter : check_interval : 1s limit_mib : 512 spike_limit_mib : 128 attributes/field_budget : actions : # Illustrative keys only; replace after payload review. - key : user.email action : delete - key : file.path action : delete - key : command.arguments action : delete batch : send_batch_size : 512 timeout : 5s Verify processors against the chosen Collector distribution. A valid startup does not prove that records satisfy policy. Drill three failures Backend outage: block the exporter. Retries must be bounded, queue growth vi

GitHub announced Copilot Vision general availability on July 1, 2026, allowing developers to attach screenshots to Copilot conversations as visual context. Primary source: GitHub Changelog, “Copilot Vision is generally available” . A screenshot can shorten “make this component look like that.” It can also become an invisible source of truth: unlabeled attachment controls, image-only requirements, generated markup with no semantics, and an error state communicated only by a thumbnail badge. The accessibility target should be stronger than “a screen reader can upload a file.” A keyboard or screen-reader user must be able to understand the supplied requirements, remove or replace the image, follow processing state, and verify the generated interface. Add a text contract beside the screenshot Use a structured alternative, not a filename: <fieldset> <legend> Reference design </legend> <label for= "shot" > Screenshot </label> <input id= "shot" type= "file" accept= "image/png,image/jpeg" /> <label for= "requirements" > Required behavior and content </label> <textarea id= "requirements" aria-describedby= "requirements-help" ></textarea> <p id= "requirements-help" > Describe text, controls, order, states, and behavior that must not be inferred from appearance alone. </p> <p id= "upload-status" role= "status" aria-live= "polite" ></p> </fieldset> Example text contract: Dialog title: Delete workspace? Body: This cannot be undone. Focus starts on Cancel. Tab order: Cancel, Delete, close button. Escape closes and returns focus to the launch button. Delete is destructive; color is not its only indicator. The screenshot communicates spacing and visual hierarchy. The text carries names, order, behavior, and safety requirements. Model attachment states explicitly type AttachmentState = | { kind : ' empty ' } | { kind : ' reading ' ; name : string } | { kind : ' ready ' ; name : string ; alt : string } | { kind : ' error ' ; name : string ; message : string }; Render each state with

Part 3 of the quantum-audit series. Part 1 | Part 2 * 🌐 Tool: quantum-audit-site.vercel.app Most security tools tell you there's a problem. Then you close the tab and forget about it. The only way to actually fix that is to make the problem block your deployment . quantum-audit exits with a non-zero code when it finds critical quantum-vulnerable cryptography. That means you can drop it into any CI pipeline and have it fail the build automatically. Here's how. The exit code behaviour npx quantum-audit . echo $? # 0 = no critical findings, 1 = critical findings found Exit 0 — no critical findings (safe to deploy) Exit 1 — critical findings detected (block the build) Medium findings (SHA-256, AES-128) don't fail the build — they appear in the output as warnings but don't block deployment. Only CRITICAL findings (RSA, ECDSA, secp256k1) cause a non-zero exit. GitHub Actions Add this to your .github/workflows/ci.yml : name : CI on : push : branches : [ main ] pull_request : branches : [ main ] jobs : quantum-audit : runs-on : ubuntu-latest steps : - name : Checkout uses : actions/checkout@v4 - name : Setup Node.js uses : actions/setup-node@v4 with : node-version : ' 20' - name : Run quantum-audit run : npx quantum-audit . If your project uses ethers , web3 , elliptic , or any other ECDSA/RSA library — the step will fail and your PR cannot be merged until the finding is addressed. JSON output for custom reporting Need to parse the results programmatically? Use the --json flag: npx quantum-audit . --json Output: { "project" : "my-dapp" , "score" : 60 , "grade" : "C — Moderate Exposure" , "findings" : [ { "algorithm" : "ECDSA (secp256k1) signing" , "risk" : "critical" , "weight" : 40 , "file" : "package.json" , "line" : null , "source" : "ethers" }, { "algorithm" : "SHA-256 (crypto.createHash)" , "risk" : "medium" , "weight" : 8 , "file" : "src/utils/hash.js" , "line" : 14 } ] } You can pipe this into a Slack notification, a dashboard, or a custom reporting step. Slack notif