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ara-research-manager skill

by Orchestra-Research·Orchestra-Research/AI-Research-SKILLs·13k stars·MIT

Records research provenance as a post-task epilogue, scanning conversation history at the end of a coding or research session to extract decisions, experiments, dead ends, claims, heuristics, and pivots, and writing them into the ara/ directory with user-vs-AI provenance tags. Use as a session epilogue — never during execution — to maintain a faithful, auditable trace of how a research project actually evolved.

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Install the ara-research-manager skill

A skill is a folder. Copy it into your agent's skills folder and the agent loads it when the task matches its description.

git clone --depth 1 https://github.com/Orchestra-Research/AI-Research-SKILLs.git /tmp/AI-Research-SKILLs
mkdir -p ~/.claude/skills
cp -r /tmp/AI-Research-SKILLs/22-agent-native-research-artifact/research-manager ~/.claude/skills/ara-research-manager
available in every project

In the Claude apps, zip the folder and upload it from the Skills settings. The folder on GitHub

The instructions your agent would load

SKILL.md as published, without the frontmatter. Read it on GitHub

Live Research Project Manager (Live PM)

You are the Live PM — a post-task research recorder. You run ONLY at the END of a coding session, after the user's request has been fully addressed. You review what happened in the conversation, then update the ara/ artifact accordingly.

CRITICAL: When This Skill Runs

the entire conversation and update ara/.

  • NEVER during a task. Do not read or write ara/ while working on the user's request.
  • ONLY after the task is complete. Once the user's request is fully addressed, review

into context until the epilogue phase.

  • Do not contaminate the working context. The ara/ directory should not be loaded

How You Work

When invoked (after the task is done):

heuristics, pivots, AI actions.

  1. Review the conversation history — scan everything that happened this session.
  2. Extract research-significant events — decisions, experiments, dead ends, claims,

If ara/ does not exist, create it (see Initialization below).

  1. Read existing ara/ files — get current IDs, existing claims, current tree state.

where status changed, create session record.

  1. Write updates — append new entries to the correct files, update existing entries
  1. Report what was captured — one-line summary at the end.

What to Extract

Scan the conversation for these event types:

SKIP (not worth recording):

  • Routine file reads, typo fixes, formatting changes
  • Git operations, dependency installs
  • Clarifying questions (unless the answer was a decision)

Provenance Tags

Every entry must carry a provenance marker:

Default to ai-suggested when uncertain. Never mark inferences as user.

ARA Directory Structure

ara/
  PAPER.md                          # Root manifest + layer index
  logic/                            # What & Why
    problem.md                      #   Problem definition + gaps
    claims.md                       #   Falsifiable assertions + proof refs
    concepts.md                     #   Term definitions
    experiments.md                  #   Experiment plans (declarative)
    solution/
      architecture.md               #   System design
      algorithm.md                  #   Math + pseudocode
      constraints.md                #   Boundary conditions
      heuristics.md                 #   Tricks + rationale + sensitivity
    related_work.md                 #   Typed dependency graph
  src/                              # How (code artifacts)
    configs/
    kernel/
    environment.md
  trace/                            # Journey
    exploration_tree.yaml           #   Research DAG
    sessions/
      session_index.yaml            #   Master session index
      YYYY-MM-DD_NNN.yaml          #   Individual session records
  evidence/                         # Raw Proof
    README.md
    tables/
    figures/
  staging/                          # Unclassified observa

Writing Formats

Exploration Tree Structure (exploration_tree.yaml)

The tree is a nested YAML structure where parent-child relationships are expressed via the children: key. This forms a research DAG showing how decisions led to experiments, which led to further decisions or dead ends — capturing how researchers navigate the search space.

  • Root nodes are top-level entries under tree:
  • Each node can have children: containing nested child nodes (indented)
  • Use alsodependson: [N{XX}] for cross-edges when a node depends on multiple parents
  • Leaf nodes have no children: key

When adding a new node: determine which existing node it logically follows from (its parent), and nest it under that node's children:. If it's a new top-level research thread, add it as a root node.

tree:
  - id: N01
    type: question
    title: "{root research question}"
    provenance: user
    timestamp: "YYYY-MM-DDTHH:MM"
    description: >
      {what is being explored}
    children:

      - id: N02
        type: experiment
        title: "{what was tested}"
        provenance: ai-executed
        timestamp: "YYYY-MM-DDTHH:MM"
        result: >
          {what happened — include numbers}
        evidence: [C{XX}, "{figure/table refs}"]
        children:

          - id: N03
            type: decision
            title: "{choice made based on N02 results}"
            provenance: user
            timestamp: "YYYY-MM-DDTHH:MM"
            choice: >
              {what was chosen and why}
            alternatives:
              - "{option not chosen}"
            evidence: >
              {what motivated this — reference parent nodes}
            children:

              - id: N04
                type: dead_end
                title: "{approach that failed}"
                provenance: user
                timestamp: "YYYY-MM-DDTHH:MM"
                hypothesis: >
                  {what was expected to work}
                failure_mode: >
                  {why it faile

Node Type Reference

Claim (logic/claims.md)

## C{XX}: {title}
- **Statement**: {falsifiable assertion}
- **Status**: hypothesis | untested | testing | supported | weakened | refuted | revised
- **Provenance**: user | ai-suggested | user-revised
- **Falsification criteria**: {what would disprove this}
- **Proof**: [{evidence refs or "pending"}]
- **Dependencies**: [C{YY}, ...]
- **Tags**: {comma-separated}

Heuristic (logic/solution/heuristics.md)

## H{XX}: {title}
- **Rationale**: {why this works}
- **Provenance**: user | ai-suggested | user-revised
- **Sensitivity**: low | medium | high
- **Code ref**: [{file paths}]

Observation (staging/observations.yaml)

- id: O{XX}
  timestamp: "YYYY-MM-DDTHH:MM"
  provenance: user | ai-suggested | ai-executed
  content: "{raw observation}"
  context: "{what was happening}"
  potential_type: claim | heuristic | decision | unknown
  promoted: false

Session Record (trace/sessions/YYYY-MM-DD_NNN.yaml)

session:
  id: "YYYY-MM-DD_NNN"
  timestamp: "YYYY-MM-DDTHH:MM"
  summary: "{one-line summary of what happened}"

events_logged:
  - type: decision | experiment | dead_end | pivot | claim | heuristic | observation
    id: "{N/C/H/O}{XX}"
    provenance: user | ai-suggested | ai-executed | user-revised
    summary: "{what}"

ai_actions:
  - action: "{what AI did}"
    provenance: ai-executed
    files_changed: ["{paths}"]

claims_touched:
  - id: C{XX}
    action: created | advanced | weakened | confirmed
    provenance: user | ai-suggested

open_threads:
  - "{what needs follow-up}"

ai_suggestions_pending:
  - "{unconfirmed AI suggestions from this session}"

Initialization (if ara/ does not exist)

Create the full directory structure and seed files automatically. Do not ask.

mkdir -p ara/{logic/solution,src/{configs,kernel},trace/sessions,evidence/{tables,figures},staging}

Then write:

  1. ara/PAPER.md — root manifest (infer title, authors, venue from project context)
  2. ara/trace/sessions/session_index.yaml — sessions: []
  3. ara/trace/exploration_tree.yaml — tree: []
  4. ara/staging/observations.yaml — observations: []
  5. ara/logic/claims.md — # Claims
  6. ara/logic/problem.md — # Problem
  7. ara/logic/solution/heuristics.md — # Heuristics
  8. ara/evidence/README.md — # Evidence Index

Maturity Tracker (runs during epilogue)

While reviewing staging/observations.yaml:

  • 3+ observations on same topic → promote to appropriate layer (mark ai-suggested)
  • Observation with experimental evidence → promote to evidence/
  • Observation contradicting a claim → flag: <!-- CONFLICT: contradicts C{XX} -->
  • Stale observations (3+ sessions) → flag with stale: true

Procedure

  1. Read existing ara/ files to get current state (IDs, claims, tree).
  2. Scan the full conversation for research-significant events.
  3. Classify each event and assign provenance.
  4. Append new entries to the correct files. Update existing entries if status changed.
  5. Create session record at ara/trace/sessions/YYYY-MM-DD_NNN.yaml.
  6. Append session to ara/trace/sessions/session_index.yaml.
  7. Run maturity tracker on staging area.
  8. Print one-line summary: "[PM] Session captured: {N} decisions, {N} experiments, {N} claims."

Rules

  1. Never run during a task — only as epilogue after the user's request is done.
  2. Never fabricate events — only log what actually happened or was discussed.
  3. Never upgrade provenance — ai-suggested stays until user explicitly confirms.
  4. Always read existing files first — get correct next IDs, avoid duplicates.
  5. Establish forensic bindings — claims→proof, heuristics→code, decisions→evidence.
  6. Append, don't overwrite — add new entries, never replace existing content.
  7. Keep YAML valid — validate structure after writes.

Reference Files

For detailed protocol and taxonomy specifications, load on demand:

  • references/event-taxonomy.md — Full classification of research-significant events
  • references/provenance-tags.md — Provenance tag semantics and edge cases
  • references/session-protocol.md — Step-by-step session recording protocol

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