aip-user-stories

作者: astronomer

从AIP生成经过验证的配方剧本(含PR实现,后模式),或从无实现的AIP生成推测性用户故事(前模式)。使用…

npx skills add https://github.com/astronomer/airflow --skill aip-user-stories

AIP-to-User-Stories Playbook

Invocation

/aip-user-stories <AIP-URL-or-pasted-content> [<PR-URL>...] [<file>...]

If no arguments: print this usage synopsis and stop.

Mode Detection

An argument starting with https://cwiki.apache.org/confluence/ is the AIP URL. Arguments starting with https://github.com/apache/airflow/pull/ are PR URLs. Other arguments are local file paths.

  • PR URLs present → post-implementation mode: generates verified recipe playbooks from actual code.
  • No PR URLs → pre-implementation mode: generates speculative user stories to help AIP authors validate design.

PR URLs signal post mode and serve as discovery hints — starting points for finding the implementation in the codebase. They are not an exhaustive list of all PRs for the feature, and the skill must explore beyond the supplied PRs to find the full implementation.

AIP Number

Extract the AIP number from the URL path (e.g., AIP-76 from a URL containing /aip-76 or /AIP-76). If the number cannot be determined from the URL or pasted content, ask the user.

Output Path

Write the final playbook to .claude/aip-{number}.md where {number} is the extracted AIP number. If the file already exists, ask the user before overwriting.


Post-Implementation Mode

Source of truth: the actual implementation in the codebase and PRs — not the AIP specification. When the AIP proposes APIs that differ from what was implemented, the playbook follows the implementation.

Phase 1 — Parse

Separate arguments into:

  • AIP source: a URL to fetch, or pasted content already in the conversation.
  • PR URLs: GitHub pull request URLs (one or more).
  • File paths: local files (example Dags, source files, tests).

AIP content can come from a URL (fetched via WebFetch) or pasted directly by the user — both are equally valid input paths. If a URL fetch returns empty or garbled content, tell the user and ask them to paste the AIP content instead.

At least one PR URL is required in post mode. If none are provided but the mode was forced, ask for PR URLs.

Phase 2 — Fetch & Discover

Retrieve initial sources:

  • AIP content (from URL or already pasted).
  • PR diffs and metadata via gh pr view <number> --json title,body,files and gh pr diff <number>.
  • Local files specified as arguments.

Then use the PRs as discovery seeds: identify which modules, packages, and files the PRs touch, and explore outward from there:

  • Read the touched files in their current state (not just the diff) to understand the full implementation.
  • Follow imports, base classes, and related modules to find connected implementation code.
  • Search for related example Dags, test files, and documentation that may not appear in the PR diffs.
  • Grep for key class names, function names, and configuration keys from the AIP to find implementation spread across files the PRs didn't touch.

The PRs are a starting point, not a boundary. Code may have been implemented in other PRs, refactored since the PR merged, or spread across modules the PR didn't directly modify.

Phase 3 — Analyze

Cross-reference AIP features against the codebase (not the PRs):

  • Which AIP features are implemented (found in the current codebase)?
  • Which AIP features are NOT implemented (proposed in AIP but absent from the codebase)?
  • What patterns exist in tests and example Dags that demonstrate usage?

Version Detection

Search PR diffs for versionadded:: or .. versionadded:: directives. If found, use that version. If not found, ask the user for the target Airflow version.

Phase 4 — Propose

Present a numbered list of recipe candidates, grouped by concept:

**[Concept Group Name]**
1. Recipe Title — one-sentence description of what the user accomplishes
2. Recipe Title — one-sentence description
...

Each recipe maps to one distinct use case — a specific problem the user solves with this feature. If two API classes serve the same use case, combine them. If one class serves multiple use cases, split them.

For AIP features not found in the implementation, list them separately under Not Yet Implemented and ask the user: include with placeholder code, or skip?

Wait for user approval before generating.

Phase 5 — Generate

For each approved recipe, produce content following the template in references/playbook-template.md.

Code block tiers:

  1. Verified — the pattern exists in the codebase (source, example Dags, or tests). Use the code directly. No markers.

  2. Adapted — combines verified components in a new way (e.g., using a verified mapper with a different asset). Clean code, with a brief note below the block: "Adapted from [source file path]".

  3. Unverified — no codebase evidence for this pattern. Use placeholders:

    # TODO: Implement [description]
    # See: [reference or AIP section]
    ...
    

Verification sources: source code under airflow-core/src/, example Dags, and test files.

Phase 6 — Assemble

Combine the overview and recipes into a playbook following the template structure. Write to .claude/aip-{number}.md.

If the user chose to skip unimplemented AIP features during the Propose phase, add a brief "Not Yet Implemented" section at the end listing them with one-line descriptions. Omit this section if all features were covered.


Pre-Implementation Mode

Source of truth: the AIP specification itself. No implementation exists to verify against.

If file paths are provided, warn that they will be ignored (no implementation to reference).

Phase 1 — Parse

Extract the AIP source: a URL to fetch, or pasted content. File path arguments are ignored with a warning.

AIP content can come from a URL or pasted directly — both are equally valid.

URL-based:  /aip-user-stories https://cwiki.apache.org/confluence/display/AIRFLOW/AIP-76
Paste-based: /aip-user-stories (then paste AIP content when prompted)

Phase 2 — Fetch

Retrieve AIP content from URL or accept pasted content. If a URL fetch returns empty or garbled content, ask the user to paste the AIP content.

Ask the user for the target Airflow version (no PR to extract versionadded from).

Phase 3 — Analyze

Extract from the AIP:

  • Proposed features, APIs, and configuration options.
  • Use cases described or implied.
  • Code examples provided in the AIP itself.

No code verification — nothing is implemented yet.

Phase 4 — Propose

Present a numbered list of user story candidates, grouped by concept:

**[Concept Group Name]**
1. Story Title — one-sentence description of the user goal
2. Story Title — one-sentence description
...

Wait for user approval before generating.

Phase 5 — Generate

For each approved story, produce content following the template in references/playbook-template.md (pre-mode section).

ALL code blocks must be marked as speculative:

# PROPOSED API — not yet implemented

Base speculative code on the AIP's own code examples and proposed API as closely as possible.

Each story must include open design questions that probe:

  • API ergonomics — Is this easy to use correctly and hard to misuse?
  • Edge cases — What happens with unusual inputs, empty partitions, or unexpected configurations?
  • Compatibility — How does this interact with existing Airflow patterns (catchup, backfill, dynamic task mapping, sensors, XCom)?
  • Implementation feasibility — What constraints or complexities has the AIP not addressed?

Questions must be specific to the story's use case. Generic questions ("what about error handling?") do not count.

Phase 6 — Assemble

Combine the overview and user stories into a document following the template structure. Write to .claude/aip-{number}.md.


Gotchas

  • Confluence pages often return partial or JavaScript-rendered content via WebFetch. If the fetched AIP content looks incomplete (missing sections, garbled HTML), ask the user to paste the content. Don't generate from partial input.
  • PR diffs can show intermediate code that was later revised. When multiple commits exist in a PR, prefer the final state of files (use gh pr view with --json files and read the current branch/merged code) over the raw diff, which may include since-reverted changes. More broadly, always prefer the current codebase state over PR diffs — PRs are discovery aids, not the source of truth.
  • AIP terminology drifts from implementation. AIPs are written before (or during) implementation. Class names, parameter names, and module paths in the AIP frequently differ from what was actually merged. Always verify names against the codebase, not the AIP text.
  • Test files reveal use cases that examples miss. Example Dags tend to show the happy path. Test files (especially parametrized tests) expose edge cases, error conditions, and alternative configurations that make better recipes.
  • An AIP feature listed as "implemented" in the AIP may not be in the PR. AIPs track overall status, not per-PR scope. Cross-reference each feature against actual PR code, not the AIP's status section.

来自 astronomer 的更多技能

airflow
astronomer
查询、管理和排查Apache Airflow的DAG、运行记录、任务及系统配置。支持30多种命令,涵盖DAG检查、运行管理、任务日志、配置查询及直接REST API访问。通过持久化配置管理多个Airflow实例;自动发现本地和Astro部署。同步(等待完成)或异步触发DAG运行,诊断故障,清除运行记录以重试,并通过重试/映射索引过滤访问任务日志。输出...
official
airflow-hitl
astronomer
在Airflow DAG中使用可延迟操作符实现人工审批关卡、表单输入和分支。四种操作符类型:用于批准/拒绝决策的ApprovalOperator、带表单的多选项选择HITLOperator、人工驱动的任务路由HITLBranchOperator,以及表单数据收集HITLEntryOperator。所有操作符均为可延迟设计,在通过Airflow UI的"必需操作"标签页或REST API等待人工响应时释放工作槽位。支持包括自定义在内的可选功能...
official
airflow-state-store
astronomer
Persists task and asset state across retries and DAG runs using Airflow 3.3's AIP-103 key/value stores (`task_state_store`, `asset_state_store`) and the…
official
analyzing-data
astronomer
查询数据仓库,利用缓存的模式和概念映射来回答业务问题。支持对重复问题类型进行模式查找和缓存,并通过记录结果来改进后续查询。包含概念到表的映射缓存,以及通过INFORMATION_SCHEMA或代码库grep进行表结构发现。提供run_sql()和run_sql_pandas()内核函数,返回Polars或Pandas DataFrame用于分析。提供CLI命令用于管理概念、模式和表缓存,以及...
official
annotating-task-lineage
astronomer
使用入口和出口为Airflow任务标注数据血缘。支持使用OpenLineage Dataset对象、Airflow Assets和Airflow Datasets定义跨数据库、数据仓库及云存储的输入输出。当运算符缺少内置OpenLineage提取器时作为备用方案;遵循四级优先级系统,其中自定义提取器和OpenLineage方法优先。包含针对Snowflake、BigQuery、S3和PostgreSQL的数据集命名辅助工具,以确保一致性...
official
authoring-dags
astronomer
创建Apache Airflow DAG的引导式工作流,集成验证与测试。采用六阶段结构化方法:发现环境与现有模式、规划DAG结构、遵循最佳实践实现、通过af CLI命令验证、经用户同意测试、迭代修复。用于发现(af config connections、af config providers、af dags list)和验证(af dags errors、af dags get、af dags explore)的CLI命令可提供DAG的即时反馈...
official
authoring-go-sdk-tasks
astronomer
Writes Airflow task logic in Go using the Airflow Go SDK. Use when the user wants to implement Airflow tasks in Go, asks about `BundleProvider`/`RegisterDags`,…
official
authoring-java-sdk-tasks
astronomer
使用 Airflow Java SDK 编写 Java、Kotlin 或任何 JVM 语言的 Airflow 任务逻辑。当用户想要在 Java/JVM 中实现 Airflow 任务时使用,询问……
official