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Agent Skill · 研究检索

ml-experimentation(毫升实验)

ml-experimentation 用于查找、检索和筛选相关信息,适合在 Codex、Claude、Cursor、Gemini CLI 中需要根据关键词、任务场景或来源线索快速定位候选结果时使用。可结合来源仓库、安装命令和原始 README 继续核验具体用法。安装前建议确认权限范围、维护状态,以及是否会触发联网、命令执行或文件读写。

ml-experimentation 是研究检索类 Agent Skill,可用宿主为 Codex、Claude、Cursor、Gemini CLI,通过GitHub 仓库获取,权限为执行命令;许可证信息还不明确,第三方扫描已通过,按安装量在研究检索类的 73,675 个 Skill 里排第 73,540。

总安装 4周安装 12GitHub Stars 32下载 97核验 2026-05-01

安装说明

本站只整理中文说明,不托管安装包,也不代用户安装。
GitHub
许可证
unknown

安装方式

通过对话安装

复制提示词发给支持本地命令或 Skills 的 AI 助手,先确认命令和权限,再让它执行。

请帮我安装这个 Agent Skill:ml-experimentation(毫升实验)
来源仓库:https://github.com/ericmjl/skills
仓库路径:skills/ml-experimentation
安装命令:
npx skills add https://github.com/ericmjl/skills --skill ml-experimentation
安装前请先检查当前环境是否支持对应 CLI,并向我确认将要执行的命令、安装目录、联网范围和文件读写权限;确认后再执行。

命令行安装

复制命令到本机终端执行。该命令会通过 npx skills 从第三方来源获取 Skill;本站只展示命令,不托管安装包,也不自动执行。

skills.shnpx skills
npx skills add https://github.com/ericmjl/skills --skill ml-experimentation

这个 Skill 是做什么的

研究检索类 Skill 主要解决「找资料、核对事实、把来源整理清楚」的问题,通常会让助手先检索再总结。

ml-experimentation 用于查找、检索和筛选相关信息,适合在多种 AI 宿主中快速定位候选结果。适用于 Codex、Claude、Cursor、Gemini CLI 等平台的关键词搜索与线索整理场景。使用 npx skills add 命令从指定 GitHub 仓库安装。

安装前应核实权限边界、维护状态及潜在的文件读写风险。适用宿主包括 Codex、Claude、Cursor、Gemini CLI,接入前应确认版本、权限和运行环境要求。

来源仓库内路径:skills/ml-experimentation

上手步骤

4 步
  1. 1

    确认自己的宿主工具

    公开资料标注支持 Codex、Claude、Cursor、Gemini CLI;先确认自己用的是其中之一,再按对应工具的 Skills 目录放置。

  2. 2

    拿到安装命令

    可以直接复制的命令是 npx skills add https://github.com/ericmjl/skills --skill ml-experimentation;命令里的占位符换成自己的路径或密钥再执行。

  3. 3

    安装后重启宿主

    命令执行完要完全退出宿主工具再打开,让新装的 Skill 被重新扫描到,否则列表里可能看不到。

  4. 4

    按最小权限试用

    它需要执行命令,先在测试目录或测试账号里跑,确认没问题再放到正式项目。

常见问题

6 条

ml-experimentation 怎么安装?

在终端执行 npx skills add https://github.com/ericmjl/skills --skill ml-experimentation。装完完全退出宿主工具再打开,让它重新扫描本地 Skill。

ml-experimentation 支持哪些 AI 工具?

公开资料标注支持 Codex、Claude、Cursor、Gemini CLI。其他工具只要能读取本地 Skill 目录,一般也能手动放进去,但要自己确认触发方式是否一致。

ml-experimentation 需要什么权限?

权限级别是执行命令。安装流程涉及命令执行,可能通过 npx skills add https://github.com/ericmjl/skills --skill ml-experimentation 联网下载 Skill 或依赖。用户安装前应确认命令来源、仓库内容和执行环境。

ml-experimentation 是免费的吗?

公开资料没有标注明确许可证,收费和商用限制都无法确认。正式使用前请到来源仓库核对授权说明。

ml-experimentation 用的人多吗?

公开数据是累计安装 4 次,近一周安装 12 次,下载 97 次,GitHub 32 星。这些数字来自第三方目录统计,只能当作热度参考,不代表质量或安全性。

ml-experimentation 安全吗?

第三方扫描结果为通过,但这只覆盖已知的静态检查项,不能替代自己读一遍源码和安装命令。

值得选的地方和要先想清楚的地方

值得选的地方

  • 同时适配 4 种工具,换客户端不用重新找替代品。
  • 第三方扫描已通过,常见的高风险行为没有命中。

先想清楚的地方

  • 需要执行命令,装到常用环境前要先评估影响面。
  • 许可证没有明确标注,能不能商用、能不能再分发都不确定。
  • 第三方目录整理,版本更新和行为细节以来源仓库为准。

适不适合你

更适合

  • 已经在用 Codex,想直接扩展它能力的人。
  • 需要处理研究检索类任务、又不想每次都手写提示词的人。

不太适合

  • 不能接受 Skill 在你机器上执行命令的人。
  • 需要明确授权才能用到公司项目里的场景。
  • 需要厂商级技术支持和 SLA 的生产系统。

研究检索类 Skill 对比

6 个同类
Skill总安装GitHub 星权限许可证扫描
find-skills

寻找技能 · Codex、Claude

31,199,81316,486操作浏览器MIT有提醒
self-improving-agent

自我改进 Agent · OpenClaw

16,464,0023,396接触敏感数据MIT-0通过
soultrace

灵魂追踪 · Codex、Claude

7,588,94412需要联网未明确有提醒
self-improving

自我完善 · OpenClaw

6,829,2841,046需要联网MIT-0通过
microsoft-foundry

微软代工厂 · Codex、Claude

6,614,144764调用外部服务未明确有提醒
ml-experimentation

毫升实验 · 本页

432执行命令未明确通过

按安装量取同分类前几名;数字来自第三方目录统计,只作热度参考,不代表质量结论。

SKILL.md 原文

ML Experimentation

This skill guides a hypothesis-driven ML experiment life cycle: planning, fast iteration, script execution, targeted logging, journaling, diagnostic visualization, and scientific report writing.

Usage

Use this skill when the user wants to run an ML experiment, test a model or idea, or write up experiment results. First decide: new experiment (different question → new experiment directory) or new run (same question, tweaks → new run under runs/). See references/experiment-setup.md for that disambiguation, hypothesis scoping, and the fast-iteration checklist.

Requirements

  • Python 3.11+ with uv or pixi for running scripts: uv run script.py or, when pixi is the environment manager, pixi run python script.py (pixi reads pyproject.toml or pixi.toml).
  • Dependencies declared via PEP723 inline script metadata in each script (or, with pixi, in pyproject.toml / pixi.toml).
  • Respect the user's training framework (PyTorch, JAX, TensorFlow, etc.). Run scripts in a GPU-enabled environment wherever possible: with uv use GPU-enabled deps (e.g. JAX GPU extras, PyTorch via [[tool.uv.index]] CUDA index in the script block); with pixi use a GPU-enabled environment defined in pyproject.toml or pixi.toml. Fall back to CPU only when GPU is unavailable. See references/script-patterns.md.

What It Does

  1. Planning – Decide new experiment (different question) vs new run (same question, tweaks). Extract one testable hypothesis, define success criteria, identify metrics to log; create experiment directory and JOURNAL.md (new experiment) or add a run under runs/ (new run).
  2. De-risking – Keep runs under ~60 seconds; scale down data, epochs, or model size before longer runs
  3. Scripts – Disposable scripts with PEP723 metadata, run with uv run or pixi run (GPU-enabled environment preferred)
  4. Logging – Log only what the hypothesis needs; avoid verbose or redundant logs
  5. Journal – Read JOURNAL.md before each action; record observations, anomalies, hunches
  6. Plots and report – Generate plots from logged data only; write a scientific report (abstract, intro, methods, results, discussion, conclusion) with no hallucination or editorialization

How It Works

Phase 1: Experiment Planning

  • New experiment vs new run: If the user is answering a different question → start a new experiment (new directory, JOURNAL.md, canonical tree). If they are tweaking to answer the same question → add a new run under the existing experiment; name it full ISO datetime + descriptive string YYYY-MM-DDTHH-MM-SS-<descriptive-string> (e.g. runs/2025-02-03T09-00-00-retry). See references/experiment-setup.md.
  • Extract a single, testable hypothesis from the user’s goal. Reject vague or multi-part goals; narrow to one claim that can be verified.
  • Define success and failure criteria before running anything.
  • List metrics to log that map directly to the hypothesis and criteria.
  • For a new experiment: Create an experiment directory and add JOURNAL.md (see Phase 5). Use the canonical tree: experiment → runs/YYYY-MM-DDTHH-MM-SS-<descriptive-string>/ → logs/, plots/, checkpoints/, data/. For a new run: Create only the new run directory under runs/ (e.g. runs/2025-02-03T09-00-00-retry/) with logs/, plots/, checkpoints/, data/.

Phase 2: De-risking Loop (Fast Iteration)

  • Target: single run completes in under 60 seconds. If a run would take longer, scale down first.
  • Scale down by: smaller data subset (representative, not just “first N”), fewer epochs, simpler or smaller model, or fewer evaluation steps.
  • Sanity-check data loading, training loop, and evaluation on the scaled-down setup before committing to longer runs.
  • If something would take > 2 minutes, find a proxy that finishes in under 1 minute.
  • Before each run, verify the fast-iteration checklist in references/experiment-setup.md.
  • Each run is a directory under runs/ named full ISO datetime + descriptive string YYYY-MM-DDTHH-MM-SS-<descriptive-string> (e.g. runs/2025-02-02T14-30-00-de-risk, runs/2025-02-02T15-00-00-full, runs/2025-02-03T09-00-00-retry). Keep a running log; never overwrite an existing run. See references/experiment-setup.md for the canonical tree.
  • To ignore failed or irrelevant runs without deleting: list them in IGNORED_RUNS.md (or JOURNAL.md “Ignored runs”). See references/experiment-setup.md.

Phase 3: Script Execution

  • All Python scripts use PEP723 inline script metadata and are run with uv run script.py or, when pixi is the environment manager, pixi run python script.py (pixi uses pyproject.toml or pixi.toml). Always run train/eval in a GPU-enabled environment when possible (uv: CUDA index or jax[cuda*] in script block; pixi: GPU-enabled env in pyproject.toml or pixi.toml).
  • Run scripts with CWD = experiment directory so paths like runs/2025-02-02T14-30-00-de-risk, runs/2025-02-02T15-00-00-full are relative to the experiment. Scripts accept only the descriptive name (e.g. uv run train.py de-risk or pixi run python train.py de-risk); datetime is auto-calculated. The training script (train.py) creates the run directory (logs/, plots/, checkpoints/, data/) so the experiment is self-contained—no external scaffold; see references/script-patterns.md for the Typer-based train scaffold.
  • Longer runs: When executing a run that will take more than a minute or two, pass a custom timeout to the shell/bash tool used to run the script (e.g. the tool’s timeout parameter), otherwise the tool may hit its default execution timeout and the run may be killed before completion.
  • Scripts are disposable: they are experiment artifacts, not production code. Include any synthetic data generation scripts in <experiment>/ (e.g. generate_data.py); run them with CWD = experiment directory.
  • Train and eval scripts: Use the user's chosen framework and prefer GPU-enabled dependencies (JAX GPU extras, PyTorch via [[tool.uv.index]] CUDA index when using uv; GPU deps in pyproject.toml/pixi.toml when using pixi) so runs are performant; fall back to CPU only when GPU is unavailable.
  • Use the patterns in references/script-patterns.md for data loading, training, and evaluation.

Phase 4: Logging (Targeted)

  • Log only what the hypothesis and success criteria need.
  • Required: metrics that determine success/failure (e.g. loss, accuracy, F1).
  • Optional: diagnostics that could explain unexpected results (e.g. per-batch stats, timing).
  • Avoid: verbose debug logs, full model state, gradients (unless the hypothesis is about them).
  • Use loguru for logging; write to the run’s logs/ directory (e.g. runs/2025-02-02T14-30-00-de-risk/logs/train.log, runs/2025-02-02T15-00-00-full/logs/eval.log). See references/logging-guide.md.

Phase 5: JOURNAL.md Protocol

  • Before each action (next run, next script, next analysis): read JOURNAL.md.
  • Record: observations, anomalies, unexpected behavior, hunches, follow-ups.
  • Add a timestamp to each entry.
  • Use tags: [WEIRD], [HUNCH], [TODO], [RESOLVED] so entries are scannable.
  • The journal is the primary memory for the experiment; use it to decide the next step and to inform the Discussion section of the final report.

Phase 6: Diagnostic Plots and Reporting

Plots

  • Before plotting: Read IGNORED_RUNS.md (and JOURNAL.md’s “Ignored runs” section if present); exclude any listed runs from plots.
  • Generate only plots that correspond to logged data. Do not invent or assume data.
  • Examples: training curves (loss/accuracy vs step/epoch), metric distributions, comparison bars.
  • Save plots in the run’s plots/ directory (e.g. runs/2025-02-02T15-00-00-full/plots/loss_curve.webp), generated from that run’s logs/.
  • If you log epoch and loss to e.g. runs/2025-02-02T15-00-00-full/logs/train.log, generate runs/2025-02-02T15-00-00-full/plots/loss_curve.webp from that log; do not plot quantities that were not logged.

Scientific Report

  • Before writing: Exclude runs listed in IGNORED_RUNS.md or JOURNAL.md “Ignored runs” from the report narrative and figures; do not delete those runs from disk.
  • Structure: Abstract, Introduction, Methods, Results, Discussion, Conclusion.
  • No hallucination: only refer to data that was actually collected (cite log files, tables, figures).
  • No editorialization: state what happened and what the data show; do not state what you wish had happened.
  • Include highlights from JOURNAL.md (e.g. anomalies, resolved issues) in Discussion.
  • Use the template in references/report-template.md.

Guardrails

  1. No long runs without justification – If a script would take > 2 minutes, either get explicit confirmation or propose a scaled-down run that finishes in under 1 minute. When running a longer run, pass a custom timeout to the shell/bash tool so it does not hit the default execution timeout.
  2. Journal-first – Always read JOURNAL.md before suggesting or taking the next action.
  3. Data-backed plots only – Never generate a plot without corresponding logged data; every curve or point must come from a specified log or file.
  4. Report factuality – Every claim in the report must be tied to a specific log file, table, or figure; no unsupported claims.

平台分布

Codex

35.5%
按下载量换算34

Claude

31.15%
按下载量换算30

Cursor

17.23%
按下载量换算17

Gemini CLI

8.67%
按下载量换算8

安全审计

Gen Agent Trust Hub

通过

Socket

通过

Snyk

通过

权限和风险

执行命令

安装流程涉及命令执行,可能通过 npx skills add https://github.com/ericmjl/skills --skill ml-experimentation 联网下载 Skill 或依赖。用户安装前应确认命令来源、仓库内容和执行环境。

安装前确认

本站仅展示第三方公开信息,不托管安装包,不提供自动安装或运行环境。安装前应自行审查源码、依赖和命令行为。目前只有一个公开来源,建议同时核对源仓库。

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