Generalize Agent Import Across Platforms · Entire

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When someone runs entire enable and they have existing claude projects corresponding to the repo they enabled entire in, entire should prompt them to see if they want to import their existing claude context.

More detail is in https://github.com/entireio/cli/issues/1336.

Ideally if Claude co-authored commits, we could attach these new checkpoints to those commits, but that's not necessary for a first pass.

The only caveat I'd like to discuss is what these "orphaned" checkpoints are like otherwise since they won't be attached to any commits. There may be some gaps in the code that need to be inspected

3w ago

Base directory for this skill: /Users/ninawork/.claude/plugins/cache/claude-plugins-official/superpowers/6.0.3/skills/brainstorming

Brainstorming Ideas Into Designs

Help turn ideas into fully formed designs and specs through natural collaborative dialogue.

Start by understanding the current project context, then ask questions one at a time to refine the idea. Once you understand what you're building, present the design and get user approval.

Do NOT invoke any implementation skill, write any code, scaffold any project, or take any implementation action until you have presented a design and the user has approved it. This applies to EVERY project regardless of perceived simplicity.

Anti-Pattern: "This Is Too Simple To Need A Design"

Every project goes through this process. A todo list, a single-function utility, a config change — all of them. "Simple" projects are where unexamined assumptions cause the most wasted work. The design can be short (a few sentences for truly simple projects), but you MUST present it and get approval.

Checklist

You MUST create a task for each of these items and complete them in order:

  1. Explore project context — check files, docs, recent commits
  2. Offer the visual companion just-in-time — NOT upfront. The first time a question would genuinely be clearer shown than described, offer it then (its own message); on approval its browser tab opens for you. If no visual question ever arises, never offer it. See the Visual Companion section below.
  3. Ask clarifying questions — one at a time, understand purpose/constraints/success criteria
  4. Propose 2-3 approaches — with trade-offs and your recommendation
  5. Present design — in sections scaled to their complexity, get user approval after each section
  6. Write design doc — save to docs/superpowers/specs/YYYY-MM-DD-<topic>-design.md and commit
  7. Spec self-review — quick inline check for placeholders, contradictions, ambiguity, scope (see below)
  8. User reviews written spec — ask user to review the spec file before proceeding
  9. Transition to implementation — invoke writing-plans skill to create implementation plan

Process Flow

digraph brainstorming {
    "Explore project context" [shape=box];
    "Ask clarifying questions" [shape=box];
    "Propose 2-3 approaches" [shape=box];
    "Present design sections" [shape=box];
    "User approves design?" [shape=diamond];
    "Write design doc" [shape=box];
    "Spec self-review\n(fix inline)" [shape=box];
    "User reviews spec?" [shape=diamond];
    "Invoke writing-plans skill" [shape=doublecircle];

"Explore project context" -> "Ask clarifying questions";
    "Ask clarifying questions" -> "Propose 2-3 approaches";
    "Propose 2-3 approaches" -> "Present design sections";
    "Present design sections" -> "User approves design?";
    "User approves design?" -> "Present design sections" [label="no, revise"];
    "User approves design?" -> "Write design doc" [label="yes"];
    "Write design doc" -> "Spec self-review\n(fix inline)";
    "Spec self-review\n(fix inline)" -> "User reviews spec?";
    "User reviews spec?" -> "Write design doc" [label="changes requested"];
    "User reviews spec?" -> "Invoke writing-plans skill" [label="approved"];
}

The terminal state is invoking writing-plans. Do NOT invoke frontend-design, mcp-builder, or any other implementation skill. The ONLY skill you invoke after brainstorming is writing-plans.

The Process

Understanding the idea:

Exploring approaches:

Presenting the design:

Design for isolation and clarity:

Working in existing codebases:

After the Design

Documentation:

Spec Self-Review: After writing the spec document, look at it with fresh eyes:

  1. Placeholder scan: Any "TBD", "TODO", incomplete sections, or vague requirements? Fix them.
  2. Internal consistency: Do any sections contradict each other? Does the architecture match the feature descriptions?
  3. Scope check: Is this focused enough for a single implementation plan, or does it need decomposition?
  4. Ambiguity check: Could any requirement be interpreted two different ways? If so, pick one and make it explicit.

Fix any issues inline. No need to re-review — just fix and move on.

User Review Gate: After the spec review loop passes, ask the user to review the written spec before proceeding:

"Spec written and committed to <path>. Please review it and let me know if you want to make any changes before we start writing out the implementation plan."

Wait for the user's response. If they request changes, make them and re-run the spec review loop. Only proceed once the user approves.

Implementation:

Key Principles

Visual Companion

A browser-based companion for showing mockups, diagrams, and visual options during brainstorming. Available as a tool — not a mode. Accepting the companion means it's available for questions that benefit from visual treatment; it does NOT mean every question goes through the browser.

Offering the companion (just-in-time): Do NOT offer it upfront. Wait until a question would genuinely be clearer shown than told — a real mockup / layout / diagram question, not merely a UI topic. The first time that happens, offer it then, as its own message:

"This next part might be easier if I show you — I can put together mockups, diagrams, and comparisons in a browser tab as we go. It's still new and can be token-intensive. Want me to? I'll open it for you."

This offer MUST be its own message. Only the offer — no clarifying question, summary, or other content. Wait for the user's response. If they accept, start the server with --open so their browser opens to the first screen automatically. If they decline, continue text-only and don't offer again unless they raise it.

Per-question decision: Even after the user accepts, decide FOR EACH QUESTION whether to use the browser or the terminal. The test: would the user understand this better by seeing it than reading it?

A question about a UI topic is not automatically a visual question. "What does personality mean in this context?" is a conceptual question — use the terminal. "Which wizard layout works better?" is a visual question — use the browser.

If they agree to the companion, read the detailed guide before proceeding: skills/brainstorming/visual-companion.md

3w ago·1m·6 calls

I've launched three parallel exploration agents to map the enable flow, the checkpoint/commit-attachment model (the key question for your "orphaned checkpoint" concern), and the Claude transcript discovery/parsing code. I'll synthesize their findings when they return and come back with the design questions.

ad291152bfec2200c toolu\_01FQjH79o5bybAwwEyuwfyMG /private/tmp/claude-502/-Users-ninawork-entire-devenv-cli/b1e13e56-e9ae-469a-a30d-7c57d70e2f1f/tasks/ad291152bfec2200c.output completed Agent "Map entire enable flow" finished A task-notification fires each time this agent stops with no live background children of its own. The user can send it another message and resume it, so the same task-id may notify more than once. Perfect! Now I have enough information. Let me compile the comprehensive response:

entire enable Command Analysis

1. File Paths & Functions

Main implementation file:

  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/setup.go

Key functions:

  • newEnableCmd() — lines 753–935 (command constructor)
  • runSetupFlow() — lines 384–401 (initial setup for fresh repos)
  • runEnableInteractive() — lines 1054–1187 (interactive enable with agent selection + settings)
  • runManageAgents() — lines 414–518 (agent selection/management)
  • detectOrSelectAgent() — lines 1382–1534 (agent auto-detection + user selection)
  • promptTelemetryConsent() — lines 1871–1909 (telemetry consent prompt)
  • maybePromptVercelDeploymentDisable() — lines 1911–1993 (Vercel deployment prompt)
  • setupEntireDirectory() — lines 1708–1733 (creates .entire dir + .gitignore)
  • runEnable() — lines 1200–1215 (lightweight re-enable for already-enabled repos)

Supporting packages:

  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/paths/paths.go — WorktreeRoot() at line 70
  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/interactive/interactive.go — CanPromptInteractively() at line 34
  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/utils.go — NewAccessibleForm() at line 26
  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/config.go — IsEnabled() at line 58, LoadEntireSettings() at line 32

2. Step-by-Step Flow of entire enable

Entry Point (line 770–893)

The enable command's RunE function performs these steps:

  1. Bootstrap Detection (lines 793–829)
    • Checks if current directory is a git repository via paths.WorktreeRoot(ctx)
    • If not a git repo and user hasn't declined (--no-init-repo), offers bootstrap flow (init git + optional GitHub repo creation)
    • Bootstrap runs in two phases: phase 1 (git init + identity) before agent setup, phase 2 (commit + push) after
  2. Validate Flags (line 831)
    • Ensures --local and --project aren't both specified
  3. External Agent Discovery (lines 835–838)
    • Calls external.DiscoverAndRegisterAlways(ctx) to find external agents on $PATH
  4. Non-interactive Agent Setup (lines 840–856)
    • If --agent &lt;name&gt; flag provided: validates agent name, then calls setupAgentHooksNonInteractive() and returns
    • Skips the interactive flow entirely
  5. Re-enable Path for Already-Setup Repos (lines 860–889)
    • If settings.IsSetUpAny(ctx) returns true (Entire already configured):
  • Checks if any setup-mutating flags were used (via enableUsesSetupFlow())
    • If flags present: updates settings/agents as needed via updateStrategyOptions() or runManageAgents()
    • If just re-enabling: calls lightweight runEnable() to toggle .Enabled flag
    • Displays enabled status
  1. Fresh Repo Setup (lines 891–892)
    • Calls runSetupFlow() for interactive full setup

Full Setup Flow (Fresh Repos) — runSetupFlow() (lines 384–401)

  1. Discovers external agents
  2. Calls detectOrSelectAgent() to prompt for agent selection (or auto-detect single agent)
  3. Calls runEnableInteractive() with selected agents

Interactive Enable — runEnableInteractive() (lines 1054–1187)

Sequence:

  1. Remove deselected agents (lines 1056–1058)
    • Uninstalls hooks for any agents that were previously installed but are not in the selected list
  2. Set up agent hooks (lines 1061–1065)
    • For each selected agent: setupAgentHooks() → calls ag.InstallHooks(ctx, localDev, forceHooks)
    • Scaffolds search subagent if needed
    • Prints results
  3. Create .entire directory (lines 1068–1070)
    • Calls setupEntireDirectory() → creates .entire/ folder + .gitignore
  4. Load or create settings (lines 1072–1095)
    • Loads existing settings (or creates empty EntireSettings{})
    • Sets Enabled = true
    • Applies flags: LocalDev, AbsoluteGitHookPath
    • Auto-enables ExternalAgents if any selected agent is external
    • Applies strategy options from flags
  5. Determine settings file target (lines 1097–1108)
    • If settings.json exists but we're doing first setup: redirects to settings.local.json with notification
    • Otherwise: writes to settings.json
  6. Save settings (lines 1110–1120)
    • Calls saveSettingsToTarget() → writes to chosen file (JSON format)
  7. Install git hook (lines 1122–1128)
    • Calls strategy.InstallGitHook(ctx, true, settings.LocalDev, settings.AbsoluteGitHookPath)
    • Warns about hook managers if needed (e.g., pre-commit framework)
  8. Prompt for Vercel deployment disable (lines 1137–1143)
    • If vercel.json or .vercel/ detected: offers to update settings to block Vercel deploys on metadata branch
    • maybePromptVercelDeploymentDisable() — see prompting pattern below
  9. Prompt for telemetry consent (lines 1145–1162)
    • If --yes flag: auto-sets based on --telemetry=false or env var ENTIRE_TELEMETRY_OPTOUT
    • Otherwise: calls promptTelemetryConsent() for interactive form
    • Saves settings again after consent
  10. Ensure strategy setup (lines 1164–1166)
    • Calls strategy.EnsureSetup(ctx) to create necessary session state dirs
  11. Print done message (lines 1168–1184)
    • Prints "Ready." (unless SuppressDoneMessage set by bootstrap)
    • Checks if repo is empty and prints note about needing commits

3. Interactive Prompt Patterns & Code Excerpts

Pattern 1: Agent Selection (Multi-Select Form)

Location:detectOrSelectAgent() lines 1499–1517 (re-enable path) and lines 1382–1534 (main agent selector)

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form := NewAccessibleForm(
    huh.NewGroup(
        huh.NewMultiSelect[string]().
            Title("Select the agents you want to use").
            Description("Use space to select, enter to confirm.").
            Options(options...).
            Validate(func(selected []string) error {
                if len(selected) == 0 {
                    return errors.New("please select at least one agent")
                }
                return nil
            }).
            Value(&amp;selectedAgentNames),
    ),
)
if err := form.Run(); err != nil {
    return nil, fmt.Errorf("agent selection cancelled: %w", err)
}

How it works:

  • NewAccessibleForm() wraps huh.NewForm() and auto-detects ACCESSIBLE=1 env var (via uiform.New())
  • Multi-select allows space to toggle items, Enter to confirm
  • Pre-selected agents are marked with .Selected(true) before form creation (lines 1471–1475)
  • Non-interactive fallback: if selectFn provided (e.g., --yes), skips the form and calls selectFn(availableNames) instead

Detection of agents:

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agentNames := agent.List()  // Get registered agent names
for _, name := range agentNames {
    ag, err := agent.Get(name)
    // Filter: only hook-supporting agents, skip test-only agents
    if _, ok := agent.AsHookSupport(ag); !ok {
        continue
    }
    if to, ok := ag.(agent.TestOnly); ok &amp;&amp; to.IsTestOnly() {
        continue
    }
    // Build huh.Option from each agent
}

Available agents (from agent package registrations): claude-code, codex, cursor, copilot-cli, factoryaidroid, geminicli, plus external agents discovered via external.DiscoverAndRegisterAlways()

Pattern 2: Telemetry Consent (Confirm Form)

Location:promptTelemetryConsent() lines 1891–1909

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consent := true  // Default to Yes
form := NewAccessibleForm(
    huh.NewGroup(
        huh.NewConfirm().
            Title("Help improve Entire CLI?").
            Description("Share anonymous usage data. No code or personal info collected.").
            Affirmative("Yes").
            Negative("No").
            Value(&amp;consent),
    ),
)

if err := form.Run(); err != nil {
    return fmt.Errorf("telemetry prompt: %w", err)
}

settings.Telemetry = &amp;consent  // Store boolean pointer

Skipped if:

  • --telemetry=false flag provided (line 1873)
  • Settings already have Telemetry != nil (line 1880)
  • ENTIRE_TELEMETRY_OPTOUT env var set (line 1885)
  • --yes flag used (auto-sets based on flag + env var; see line 1148–1154)

Pattern 3: Vercel Deployment Disable (Confirm Form)

Location:promptVercelDeploymentDisable() lines 1995–2013

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disableDeployments := true  // Default to Yes
form := NewAccessibleForm(
    huh.NewGroup(
        huh.NewConfirm().
            Title("Disable Vercel deployments for Entire metadata branch?").
            Description("This automatically creates a vercel.json in the Entire metadata branch.").
            Affirmative("Yes").
            Negative("No").
            Value(&amp;disableDeployments),
    ),
)

if err := form.Run(); err != nil {
    return false, fmt.Errorf("run vercel deployment disable form: %w", err)
}

return disableDeployments, nil

Triggered by:maybePromptVercelDeploymentDisable() (line 1911) detects vercel.json or .vercel/ directory and prompts

Skipped if:

  • Non-interactive mode detected (line 1968): interactive.CanPromptInteractively() returns false
  • promptFn function override provided (line 1967)

Pattern 4: Shell Completion (Select Form)

Location:promptShellCompletion() lines 1808–1837

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var selected string
form := NewAccessibleForm(
    huh.NewGroup(
        huh.NewSelect[string]().
            Title(fmt.Sprintf("Enable shell completion? (detected: %s)", shellName)).
            Options(
                huh.NewOption("Yes", "yes"),
                huh.NewOption("No", "no"),
            ).
            Value(&amp;selected),
    ),
)

if err := form.Run(); err != nil {
    return nil
}

if selected != "yes" {
    return nil
}

4. Repo Root & Agent Detection

Repo Root Detection

Via paths.WorktreeRoot(ctx context.Context) (line 70 of paths.go):

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cmd := exec.CommandContext(ctx, "git", "rev-parse", "--show-toplevel")
output, err := cmd.Output()
if err != nil {
    return "", fmt.Errorf("failed to get git worktree root: %w", err)
}
root := strings.TrimSpace(string(output))
// Cached per working directory

Used in enable command:

  • Line 793: if _, err := paths.WorktreeRoot(ctx); err == nil — checks if in a git repo
  • Passed as context throughout to resolve relative paths like .entire/settings.json
  • Handles git worktrees correctly (returns worktree root, not main repo root)

Agent Configuration

Detection:

  1. agent.List() — returns all registered agent names (lines 1456, 1448)
  2. agent.Get(name) — retrieves agent instance
  3. agent.DetectAll(ctx) — auto-detects agents present in $PATH (line 1388)
  4. external.IsExternal(ag) — checks if agent is external (line 1537, 1089, 1449)
  5. agent.AsHookSupport(ag) — filters to hook-supporting agents only (line 1464, 455)

Auto-enable external_agents:

  • Lines 1087–1092: If any selected agent is external, auto-sets settings.ExternalAgents = true
  • External agents discovered via external.DiscoverAndRegisterAlways(ctx) (line 388, 445, 838)

5. Non-Interactive Detection

Conditions for Non-Interactive Mode

  1. --agent &lt;name&gt; flag (lines 840–856)
    • Single targeted agent setup
    • No agent selection form, no telemetry prompt, no Vercel prompt
    • Calls setupAgentHooksNonInteractive()
  2. --yes flag (line 908)
    • Accepts all defaults
    • Sets opts.Yes = true
    • Affects:
      • Agent selection: calls selectAllAgents() instead of form (line 391, 405)
      • Telemetry prompt: auto-answers Yes (unless --telemetry=false or env var; line 1148–1154)
      • Vercel prompt: passed vercelPromptFn = func() (bool, error) { return true, nil } (line 1139)
  3. TTY Detection (via interactive.CanPromptInteractively(), line 34 of interactive.go)
    • Checks in order:
      1. ENTIRE_TEST_TTY=1 (force interactive ON) or any other value (force OFF)
      2. testing.Testing() — false in tests to prevent hanging
      3. Agent subprocess env vars: GEMINI_CLI, COPILOT_CLI, PI_CODING_AGENT, GIT_TERMINAL_PROMPT=0
      4. CI env var set to non-empty, non-false value
      5. /dev/tty probe — attempts to open /dev/tty
    • Returns true if user can be prompted, false otherwise
  4. No TTY in Already-Setup Path (lines 1415–1437)
    • If Entire already enabled and CanPromptInteractively() == false:
  • Agent selection keeps currently installed agents (line 1416–1426)
    • Or falls back to auto-detected agents (line 1428–1429)
    • Or uses default agent (line 1431–1436)
  1. Bootstrap Non-Interactive (line 794, 908)
    • --yes flag propagates to bootstrapOpts.Yes
    • Bootstrap can initialize git repo non-interactively

Recommended Location for New Interactive Prompt

Best placement: End of runEnableInteractive(), after telemetry prompt and before the "Ready." message

Suggested lines: Between line 1162 (telemetry save) and line 1174 (print "Ready.")

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// After line 1162: saveSettings() for telemetry
// NEW PROMPT HERE:

if err := promptImportClaudeContext(ctx, w, opts); err != nil {
    return err
}

// Before line 1174: print "Ready."

Implementation template:

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// promptImportClaudeContext asks if the user wants to import existing Claude context.
func promptImportClaudeContext(ctx context.Context, w io.Writer, opts EnableOptions) error {
    // Skip in --yes mode (auto-accept default)
    if opts.Yes {
        return nil  // Or auto-set to true/false as needed
    }

// Skip in non-interactive mode
    if !interactive.CanPromptInteractively() {
        fmt.Fprintln(w, "Skipping Claude context import prompt (non-interactive mode).")
        return nil
    }

importContext := false  // Default to No
    form := NewAccessibleForm(
        huh.NewGroup(
            huh.NewConfirm().
                Title("Import existing Claude context?").
                Description("Copy Claude IDE session state and settings from .claude/ if available.").
                Affirmative("Yes").
                Negative("No").
                Value(&amp;importContext),
        ),
    )

if err := form.Run(); err != nil {
        return fmt.Errorf("Claude context import prompt: %w", err)
    }

if importContext {
        // Perform import logic here
        fmt.Fprintln(w, "✓ Imported Claude context")
    }
    return nil
}

Key patterns to follow:

  • Respect opts.Yes flag (auto-accept or skip)
  • Check interactive.CanPromptInteractively() before showing form
  • Use NewAccessibleForm() for accessibility support
  • Handle form cancellation with .Run() error check
  • Print status messages to writer w
  • Return errors for caller to propagate

Summary Table

Aspect Details
Main file /Users/ninawork/entire/devenv/cli/cmd/entire/cli/setup.go
Command constructor newEnableCmd() at line 753
Entry point RunE closure at line 770
Fresh repo flow runSetupFlow() → detectOrSelectAgent() → runEnableInteractive()
Re-enable path runEnable() (lightweight toggle) at line 1200
Repo root detection paths.WorktreeRoot(ctx) using git rev-parse --show-toplevel
Agent selection detectOrSelectAgent() with NewAccessibleForm() + huh.MultiSelect
Interactive detection interactive.CanPromptInteractively() (TTY probe + CI/agent env detection)
Non-interactive modes --agent &lt;name&gt;, --yes, CI env, agent subprocess env
Telemetry prompt promptTelemetryConsent() at line 1871; skipped if --yes, --telemetry=false, or ENTIRE_TELEMETRY_OPTOUT
Vercel prompt maybePromptVercelDeploymentDisable() at line 1911; triggered if vercel.json exists
Accessibility ACCESSIBLE=1 env var → NewAccessibleForm() auto-switches to text prompts
Settings file Writes to .entire/settings.json (project) or .entire/settings.local.json (local)
Git hook installation strategy.InstallGitHook(ctx, true, localDev, absolutePath) at line 1124
Final message "Ready." printed at line 1174 (unless opts.SuppressDoneMessage set by bootstrap)
<subagent_tokens>63535</subagent_tokens><tool_uses>24</tool_uses><duration_ms>88583</duration_ms>

3w ago·14.0s

The enable flow is mapped. Waiting on the other two agents (checkpoint/commit-attachment model and transcript parsing) before I synthesize.

ac06cbf7bc0ed62d8 toolu\_01D5LiusPN6xqhSiAzzafCho /private/tmp/claude-502/-Users-ninawork-entire-devenv-cli/b1e13e56-e9ae-469a-a30d-7c57d70e2f1f/tasks/ac06cbf7bc0ed62d8.output completed Agent "Map Claude transcript discovery & parsing" finished A task-notification fires each time this agent stops with no live background children of its own. The user can send it another message and resume it, so the same task-id may notify more than once. Excellent! Now I have a comprehensive picture. Let me compile my findings into a detailed response with file references and snippets:

Summary

I've thoroughly explored how the Entire CLI locates and parses Claude Code agent transcripts, including the architecture for splitting transcripts into per-turn checkpoints and handling subagent token rollups. Here are the concrete findings:


1. Repo Root → Claude Projects Directory Mapping

Key Function: SanitizePathForClaude (file:line)

  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/agent/claudecode/claude.go:265-267
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func SanitizePathForClaude(path string) string {
    return nonAlphanumericRegex.ReplaceAllString(path, "-")
}

Location Resolution (GetSessionDir)

  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/agent/claudecode/claude.go:95-108
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// GetSessionDir returns the directory where Claude stores session transcripts.
func (c *ClaudeCodeAgent) GetSessionDir(repoPath string) (string, error) {
    homeDir, err := os.UserHomeDir()
    if err != nil {
        return "", fmt.Errorf("failed to get home directory: %w", err)
    }

projectDir := SanitizePathForClaude(repoPath)
    return filepath.Join(homeDir, ".claude", "projects", projectDir), nil
}

Session File Resolution (ResolveSessionFile)

  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/agent/claudecode/claude.go:87-89
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// ResolveSessionFile returns the path to a Claude session file.
// Claude names files directly as &lt;id&gt;.jsonl.
func (c *ClaudeCodeAgent) ResolveSessionFile(sessionDir, agentSessionID string) string {
    return filepath.Join(sessionDir, agentSessionID+".jsonl")
}

Example Path: ~/.claude/projects/Users-ninawork-entire-devenv-cli/&lt;session-id&gt;.jsonl


2. Transcript Parsing (.jsonl Format)

Core Types (transcript.Line)

  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/transcript/types.go:19-27
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// Line represents a single line in a Claude Code or Cursor JSONL transcript.
type Line struct {
    Type    string          `json:"type"`
    Role    string          `json:"role,omitempty"`
    UUID    string          `json:"uuid"`
    Message json.RawMessage `json:"message"`
}

Parse Functions

  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/transcript/parse.go:17-46 — ParseFromBytes() for in-memory parsing
  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/transcript/parse.go:49-98 — ParseFromFileAtLine() for file-based incremental parsing starting from a line offset

Turn/Message Structure (AssistantMessage)

  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/transcript/types.go:34-46
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type AssistantMessage struct {
    Content []ContentBlock `json:"content"`
}

type ContentBlock struct {
    Type  string          `json:"type"`
    ID    string          `json:"id,omitempty"`
    Text  string          `json:"text,omitempty"`
    Name  string          `json:"name,omitempty"`
    Input json.RawMessage `json:"input,omitempty"`
}

Token Usage Extraction (CalculateTokenUsage)

  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/agent/claudecode/transcript.go:140-183

Token usage deduplication by message.id (handles streaming):

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type messageWithUsage struct {
    ID    string       `json:"id"`
    Usage messageUsage `json:"usage"`
}

type messageUsage struct {
    InputTokens              int `json:"input_tokens"`
    CacheCreationInputTokens int `json:"cache_creation_input_tokens"`
    CacheReadInputTokens     int `json:"cache_read_input_tokens"`
    OutputTokens             int `json:"output_tokens"`
}

Timestamp Extraction

  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/paths/transcript.go:48-67 — ParseTimestampFromJSONL() extracts timestamp field from JSONL

Slice by Line Offset

  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/transcript/parse.go:110-143 — SliceFromLine(content, startLine) returns checkpoint-specific portion starting at line N

3. Subagent Token Rollups

Subagent ID Extraction (ExtractSpawnedAgentIDs)

  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/agent/claudecode/transcript.go:200-269

Subagent IDs are found in tool_result blocks with pattern agentId: &lt;id&gt;. Path validation ensures safety:

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// Look for agentId in the text. Drop any ID that isn't path-safe:
if agentID := extractAgentIDFromText(textContent); agentID != "" &amp;&amp; validation.ValidateAgentID(agentID) == nil {
    agentIDs[agentID] = block.ToolUseID
}

Total Token Usage with Subagents (CalculateTotalTokenUsage)

  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/agent/claudecode/transcript.go:383-423
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// Extract spawned agent IDs from the parsed transcript
agentIDs := ExtractSpawnedAgentIDs(parsed)

// Calculate subagent token usage (skip when subagentsDir is empty)
if len(agentIDs) &gt; 0 &amp;&amp; subagentsDir != "" {
    subagentUsage := &amp;agent.TokenUsage{}
    for agentID := range agentIDs {
        agentPath := filepath.Join(subagentsDir, fmt.Sprintf("agent-%s.jsonl", agentID))
        agentUsage, err := CalculateTokenUsageFromFile(agentPath, 0)
        // ... accumulate subagentUsage
    }
}

Subagent File Storage (from lifecycle.go)

  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/lifecycle.go (line ~930)

Subagent transcripts stored at: &lt;session-dir&gt;/&lt;session-id&gt;/subagents/agent-&lt;id&gt;.jsonl


4. Checkpoint Transcript Slicing & Per-Turn Granularity

Session State Tracks Start Offset (SessionState.CheckpointTranscriptStart)

  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/strategy/session_state.go

This is the 0-indexed line number at which the current checkpoint's transcript data begins.

Checkpoint Metadata (CheckpointTranscriptStart)

  • /Users/ninawork/entire/devenv/cli/api/checkpoint/metadata.go:99 — also called TranscriptLinesAtStart for backward compat
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CheckpointTranscriptStart int    // Transcript line offset at start of this checkpoint's data

Slice Calculation During Finalization (finalizeAllTurnCheckpoints)

  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/strategy/manual_commit_hooks.go:2729-2880
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// Slice to the relevant portion of the full transcript
sliced := transcript.SliceFromLine(transcriptData, startLine)
parsed, err := transcript.ParseFromBytes(sliced)

Per-Turn Checkpoint Creation

  • Checkpoints are created one per user-prompt turn (via PrepareCommitMsg hook adding Entire-Checkpoint-ID trailer)
  • Each TurnCheckpointID stored in SessionState.TurnCheckpointIDs (list of checkpoint IDs from mid-turn commits)
  • On session stop, finalizeAllTurnCheckpoints() updates all turn checkpoints with the full transcript

Compact Transcript Format (optional pre-sliced version)

  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/transcript/compact/parse.go
  • Compact transcript is a condensed format written alongside full transcript
  • Key Insight: metadata also carries compact_transcript_start offset (when compact was generated) so external readers can slice transcript.jsonl rather than reading a separate compact file
  • See /Users/ninawork/entire/devenv/cli/api/checkpoint/metadata.go — the compact_transcript path is optional (omitted if no compact was generated)

5. Agent Abstraction & Transcript Parsing Interface

Core Agent Interface

  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/agent/agent.go:14-88

Agents implement:

  • ReadSession(input *HookInput) (*AgentSession, error) — returns NativeData (raw JSONL bytes)
  • ReadTranscript(sessionRef string) ([]byte, error) — raw transcript read

Optional TranscriptAnalyzer Interface (richer parsing)

  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/agent/agent.go:151-168
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type TranscriptAnalyzer interface {
    Agent
    GetTranscriptPosition(path string) (int, error)
    ExtractModifiedFilesFromOffset(path string, startOffset int) (files []string, currentPosition int, err error)
}

Optional SubagentAwareExtractor Interface

  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/agent/agent.go:341-353
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type SubagentAwareExtractor interface {
    Agent
    ExtractAllModifiedFiles(transcriptData []byte, fromOffset int, subagentsDir string) ([]string, error)
    CalculateTotalTokenUsage(transcriptData []byte, fromOffset int, subagentsDir string) (*TokenUsage, error)
}

Claude Code Implementation implements all three:

  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/agent/claudecode/claude.go:121-148 — ReadSession()
  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/agent/claudecode/claude.go:276-308 — GetTranscriptPosition()
  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/agent/claudecode/transcript.go:383-473 — subagent-aware methods

6. Is There Existing Import/Backfill Code?

No historical import from Claude's native projects exists in this repo, but there is backfill infrastructure for incomplete checkpoints:

Transcript Backfill (post-hoc writes)

  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/checkpoint/persistent_write.go — backfillTranscript()
  • Called when a checkpoint's transcript data is missing but other metadata exists

Prompt Backfill (from transcript)

  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/lifecycle.go (line ~520+) — reads prompt.txt, falls back to extracting prompts from transcript if missing

Attribution Backfill (post-commit via CheckpointAttribution)

  • /Users/ninawork/entire/devenv/cli/cmd/entire/cli/checkpoint/persistent_write.go — backfillAttribution()

No "import all pre-existing Claude Code transcripts" command exists, but the architecture already supports:

  • Reading .claude/projects/&lt;slug&gt;/*.jsonl files (via SanitizePathForClaude + GetSessionDir)
  • Parsing them with the standard transcript.ParseFromBytes() + CalculateTokenUsage()
  • Splitting by turn (via CheckpointTranscriptStart offset + SliceFromLine())
  • Extracting metadata (files, prompts, tokens, skill events, subagents)

Key References Summary

Aspect File Function/Lines
Path Sanitization claudecode/claude.go SanitizePathForClaude:265-267
Session Dir Resolution claudecode/claude.go GetSessionDir:95-108
Session File Resolution claudecode/claude.go ResolveSessionFile:87-89
Transcript Parsing (bytes) transcript/parse.go ParseFromBytes:17-46
Transcript Parsing (file+offset) transcript/parse.go ParseFromFileAtLine:49-98
Token Usage Extraction claudecode/transcript.go CalculateTokenUsage:140-183
Token Usage (with subagents) claudecode/transcript.go CalculateTotalTokenUsage:383-423
Subagent ID Extraction claudecode/transcript.go ExtractSpawnedAgentIDs:200-269
Subagent File Paths lifecycle.go subagentsDir := filepath.Join(..., "subagents") (~line 930)
Slice by Line Offset transcript/parse.go SliceFromLine:110-143
Checkpoint Start Tracking strategy/manual_commit_hooks.go finalizeAllTurnCheckpoints:2729-2880
Compact Transcript Schema transcript/compact/parse.go Types + BuildCondensedEntries:46-114
Agent Interface agent/agent.go Agent:14-88, TranscriptAnalyzer:151-168, SubagentAwareExtractor:341-353

This architecture is ready for import: you'd iterate over ~/.claude/projects/&lt;slug&gt;/*.jsonl, parse each as per the Claude Code transcript format, extract metadata (tokens, files, prompts), and split by turn using the existing utilities—no new parsing logic needed. <subagent_tokens>72604</subagent_tokens><tool_uses>33</tool_uses><duration_ms>89418</duration_ms>

3w ago·13.2s

Transcript discovery/parsing is mapped. Waiting on the third agent (the checkpoint/commit-attachment model) — that's the one that directly addresses your "orphaned checkpoint" concern.

a132fd723fa489e14 REDACTED /private/tmp/claude-502/-Users-ninawork-entire-devenv-cli/b1e13e56-e9ae-469a-a30d-7c57d70e2f1f/tasks/a132fd723fa489e14.output completed Agent "Map checkpoint storage & commit attachment" finished A task-notification fires each time this agent stops with no live background children of its own. The user can send it another message and resume it, so the same task-id may notify more than once. Now let me write up the comprehensive findings. I have all the information I need:

Comprehensive Checkpoint/Session Storage Model - Exploration Report

Based on my thorough exploration of the checkpoint and session storage architecture in /Users/ninawork/entire/devenv/cli, here are the findings on how the manual-commit strategy manages checkpoints and the critical assumptions about commit linkage.


1. On-Disk / On-Branch Layout

entire/checkpoints/v1 Branch Structure

This is the permanent checkpoint branch (an orphan with no merge base). It stores condensed session logs after user commits.

entire/checkpoints/v1 (orphan branch, no merge history)
├── &lt;checkpoint-id[:2]&gt;/          # Shard directory (first 2 hex chars, 256 max)
│   └── &lt;checkpoint-id[2:]&gt;/      # Full checkpoint directory
│       ├── metadata.json         # CheckpointSummary (aggregated, root-level)
│       ├── 0/                    # First session (0-based indexing)
│       │   ├── metadata.json     # Session-specific Metadata
│       │   ├── full.jsonl        # Raw agent transcript
│       │   ├── transcript.jsonl  # Compact transcript (pre-sliced to checkpoint portion)
│       │   ├── prompt.txt        # User prompts for this checkpoint
│       │   └── content_hash.txt  # sha256 hash of full.jsonl
│       ├── 1/                    # Second session (concurrent)
│       └── 2/                    # Third session...

Key file: /api/checkpoint/metadata.go (lines 394-439) defines CheckpointSummary:

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type CheckpointSummary struct {
    CheckpointID        id.CheckpointID
    CheckpointVersion   string
    Strategy            string
    Branch              string
    CheckpointsCount    int
    FilesTouched        []string
    Sessions            []SessionFilePaths  // Maps session IDs to file paths
    TokenUsage          *types.TokenUsage
    CombinedAttribution *Attribution
}

Session-level metadata (Metadata, lines 286-366) lives in &lt;session-index&gt;/metadata.json:

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type Metadata struct {
    CheckpointID        id.CheckpointID
    SessionID           string
    Strategy            string
    CreatedAt           time.Time
    Branch              string
    CheckpointsCount    int
    SaveStepCount       int          // Number of shadow-branch SaveStep commits (0 = no real work)
    FilesTouched        []string
    Agent               types.AgentType
    Model               string
    TurnID              string
    IsTask              bool
    ToolUseID           string
    CheckpointTranscriptStart int  // Offset into full.jsonl
    // ... token usage, skill events, attribution, summary, kind, review/investigation fields
}

Shadow Branches (Ephemeral)

refs/heads/entire/&lt;base-commit[:7]&gt;-&lt;worktree-hash[:6]&gt;
├── (full worktree files)
└── .entire/metadata/
    ├── &lt;session-id-1&gt;/
    │   ├── full.jsonl
    │   ├── prompt.txt
    │   └── tasks/&lt;tool-use-id&gt;/
    │       ├── checkpoint.json
    │       └── incremental/
    │           ├── 001-TodoWrite.json
    │           ├── 002-Edit.json
    │           └── ...
    └── &lt;session-id-2&gt;/          # Multiple concurrent sessions
        ├── full.jsonl
        └── ...

Pattern:entire/&lt;commit[:7+]&gt;(-&lt;worktree-hash[:6]&gt;)? (7+ hex chars for commit, optional 6-char worktree suffix)

File:/cmd/entire/cli/strategy/cleanup.go (line 62):

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var shadowBranchPattern = regexp.MustCompile(`^entire/[0-9a-fA-F]{7,}(-[0-9a-fA-F]{6})?$`)

2. Lifecycle: How Sessions Attach to Commits

Phase 1: Live Session (No Commit Yet)

A session starts in .git/entire-sessions/&lt;session-id&gt;.json with state:

  • BaseCommit: Initial HEAD (used for shadow branch naming)
  • WorktreeID: Worktree identifier (empty for main worktree)
  • Shadow branch created: entire/&lt;BaseCommit[:7]&gt;-&lt;WorktreeID[:6]&gt; on first SaveStep

File:/cmd/entire/cli/strategy/session.go (lines 85-101):

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type State struct {
    SessionID string
    BaseCommit string         // Initial HEAD; used for shadow branch naming
    WorktreeID string         // Worktree ID (empty for main worktree)
    Phase Phase              // Lifecycle stage (Idle → Active → Ended)
    // ...
}

Phase 2: Prepare Commit Message Hook

Hook:prepare-commit-msg (source: "" | "message" | "template" | "commit" for amend)

File:/cmd/entire/cli/strategy/manual_commit_hooks.go (lines 356-555)

Flow:

  1. Check if there's an active session with content to condense
  2. Generate a fresh 12-hex checkpoint ID (or preserve if amending)
  3. Add Entire-Checkpoint: &lt;12-hex-id&gt; trailer to commit message
  4. User can remove the trailer (breaks the link) or keep it

Critical code: Lines 465-472:

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checkpointID, err := id.Generate()  // Fresh 12-hex ID
// ...
message = addCheckpointTrailer(message, checkpointID)  // Adds "Entire-Checkpoint: abc123def456"

Trailer format:/cmd/entire/cli/trailers/trailers.go (lines 38-41, 227):

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const CheckpointTrailerKey = "Entire-Checkpoint"

// Appended as:
fmt.Sprintf("%s\n\n%s: %s\n", message, CheckpointTrailerKey, cpID.String())

Phase 3: Post Commit Hook (Condensation)

Hook:post-commit

File:/cmd/entire/cli/strategy/manual_commit_hooks.go (lines 878-1040)

Flow:

  1. Extract Entire-Checkpoint: &lt;id&gt; trailer from HEAD commit message
  2. If trailer absent: update BaseCommit only, skip condensation
  3. If trailer present:
  • Find active sessions for the worktree
    • For each session:
      • Condense shadow branch → persistent entire/checkpoints/v1 branch
      • Store metadata at &lt;id[:2]&gt;/&lt;id[2:]&gt;/ path
      • Clean up shadow branch after condensation

Critical section: Lines 905-914:

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checkpointID, found := trailers.ParseCheckpoint(commit.Message)

if !found {
    // No trailer — user removed it or it was never added
    // Still update BaseCommit for active sessions so future commits can match
    s.postCommitUpdateBaseCommitOnly(ctx, head)
    return nil
}
// ... condensation happens here

Condensation Process

File:/cmd/entire/cli/strategy/manual_commit_condensation.go (lines 135-328)

Method:CondenseSession()

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func (s *ManualCommitStrategy) CondenseSession(
    ctx context.Context,
    repo *git.Repository,
    checkpointID id.CheckpointID,    // From Entire-Checkpoint trailer
    state *SessionState,
) (*CondenseResult, error)

Steps:

  1. Extract shadow branch data: Read from entire/&lt;BaseCommit&gt;-&lt;WorktreeID&gt;

  2. Build WriteOptions (lines 258-289):

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writeOpts := cpkg.WriteOptions{
       CheckpointID:        checkpointID,      // The 12-hex ID from trailer
       SessionID:           state.SessionID,
       EphemeralBranch:     shadowBranchName,  // Records shadow branch for provenance
       Strategy:            "manual-commit",
       Transcript:          redactedTranscript,
       // ... token usage, attribution, summary, skill events ...
}
  1. Write to persistent store (line 293):
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if err := store.Write(writeCtx, cpkg.Session(writeOpts)); err != nil { ... }

This writes to entire/checkpoints/v1:&lt;id[:2]&gt;/&lt;id[2:]&gt;/ path

  1. Clean up shadow branch (lines 1025-1035):
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for shadowBranchName := range shadowBranchesToDelete {
       if uncondensedActiveOnBranch[shadowBranchName] {
           // Protect it if other sessions still need it
       } else {
           // Delete the shadow branch after condensation
       }
}

Amend/Rebase Tracking

Hook:post-rewrite (for amend/rebase)

File:/cmd/entire/cli/strategy/manual_commit_hooks.go (lines 189-248)

Purpose: Keep session linkage aligned when commits are rewritten

  • Reads stdin pairs: &lt;old-sha&gt; &lt;new-sha&gt;
  • Remaps state.BaseCommit to new hash
  • Migrates shadow branch to new base commit

3. CRITICAL: Where Code Assumes Commit Linkage

These are the locations where an orphaned (commit-less) checkpoint would break or behave unexpectedly:

A. Shadow Branch Naming & Resolution

File:/cmd/entire/cli/strategy/manual_commit_hooks.go

  • Line 1194: shadowBranchName := getShadowBranchNameForCommit(state.BaseCommit, state.WorktreeID)
    • ASSUMES: BaseCommit is a valid git object hash
    • BREAKS IF: BaseCommit is empty or a fake ID
  • Line 1387: state.BaseCommit = newHead
    • Updates BaseCommit on every commit (amend, post-commit)
    • ASSUMES: Session is tied to a working commit

File:/cmd/entire/cli/strategy/manual_commit_session.go

  • Line 216: if state.BaseCommit == baseCommitSHA { ... }
    • Finds sessions by matching BaseCommit to current HEAD
    • BREAKS IF: Session has no commit to match against
  • Line 67: store.ListCheckpoints(ctx, state.BaseCommit, state.WorktreeID, ...)
    • Lists shadow branch checkpoints by BaseCommit
    • BREAKS IF: BaseCommit doesn't correspond to a real shadow branch

B. Rewind Operations

File:/cmd/entire/cli/strategy/manual_commit_rewind.go

  • Lines 54-92 (GetRewindPoints): Searches for sessions by matching state.BaseCommit == headHash
    • ASSUMES: Session's base commit exists in git history
    • BREAKS IF: Checkpoint has no associated commit
  • Lines 133-210 (GetLogsOnlyRewindPoints): Scans commit history for Entire-Checkpoint trailers
    • ASSUMES: Every persistent checkpoint was created by a commit with a trailer
    • DEPENDS ON: The link from commit → checkpoint ID
    • BREAKS IF: Checkpoint exists with no commit trailer
  • Lines 488-499 (resetShadowBranchToCheckpoint):
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shadowBranchName := getShadowBranchNameForCommit(state.BaseCommit, state.WorktreeID)
  • ASSUMES: BaseCommit is a real git object
    • BREAKS IF: Session/checkpoint has no associated commit

C. Post-Rewrite Hook (Amend/Rebase)

File:/cmd/entire/cli/strategy/manual_commit_hooks.go

  • Lines 189-248 (PostRewrite):
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newBaseCommit, baseChanged := remapRewriteSHA(state.BaseCommit, rewrites)
  • ASSUMES: BaseCommit appears in the rewrite pairs
    • BREAKS IF: Checkpoint not tied to rewritable commits

D. Cleanup Logic

File:/cmd/entire/cli/strategy/cleanup.go

  • Lines 243-248 (protectedShadowBranchForSession):
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return getShadowBranchNameForCommit(s.BaseCommit, s.WorktreeID), true
  • ASSUMES: Every active session has a valid BaseCommit
    • BREAKS IF: Checkpoint imported without BaseCommit
  • Lines 154-196 (CleanupPushedShadowBranches):
    • Only deletes shadow branches for sessions where Phase == PhaseEnded &amp;&amp; FullyCondensed
    • ASSUMES: Sessions have a lifecycle tied to commits
    • BREAKS IF: Orphaned checkpoints exist outside the state machine

E. Session State Queries

File:/cmd/entire/cli/strategy/manual_commit_logs.go

  • Lines 24-66 (GetSessionInfo):
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sessions, err := s.findSessionsForCommit(ctx, head.Hash().String())
shadowBranchName := getShadowBranchNameForCommit(state.BaseCommit, state.WorktreeID)
  • ASSUMES: All sessions are tied to commits in history
    • BREAKS IF: Imported checkpoint has no session state or wrong BaseCommit

F. Commit History Scanning

File:/cmd/entire/cli/strategy/manual_commit_rewind.go

  • Lines 179-210 (GetLogsOnlyRewindPoints):
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iter, err := repo.Log(&amp;git.LogOptions{From: head.Hash(), Order: git.LogOrderCommitterTime})
err = iter.ForEach(func(c *object.Commit) error {
      checkpointID, found := trailers.ParseCheckpoint(c.Message)  // Extract trailer
      if !found { continue }
      // Match persistent checkpoint by ID
      if info, ok := checkpointInfoMap[checkpointID]; ok { ... }
})
  • ASSUMES: Every rewindable persistent checkpoint has a corresponding commit with Entire-Checkpoint trailer
    • BREAKS IF: Checkpoint exists on v1 branch but no commit references it
    • Problem: No way to rewind to commit-less checkpoints this way

G. Session List / Explain Commands

File:/cmd/entire/cli/strategy/common.go

  • Lines 297-317 (ListCheckpoints):
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store, err := s.getPersistentStore(ctx, repo)
committed, err := store.List(ctx)
return checkpointInfosFromCommitted(committed), nil
  • Works OK: Persistent checkpoints on v1 don't require commits

    • But: Listing also includes "logs-only" points (lines 134-231 in GetRewindPoints)
  • Those scan commit history and require Entire-Checkpoint trailers

    • BREAKS IF: Checkpoint exists but is never committed to a rewindable branch

H. Post-Commit Attribution Updates

File:/cmd/entire/cli/strategy/manual_commit_hooks.go

  • Lines 1017-1021 (updateCombinedAttributionForCheckpoint):
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if err := s.updateCombinedAttributionForCheckpoint(ctx, repo, checkpointID, headTree, parentTree, worktreePath)
  • ASSUMES: Checkpoint is tied to HEAD commit tree
    • BREAKS IF: Checkpoint not tied to a commit tree

4. Checkpoint Identification & Linking

Checkpoint ID Format

Type: 12-hex random identifier (e.g., a3b2c4d5e6f7)

Generated: During prepare-commit-msg hook (lines 467-472 in manual_commit_hooks.go)

File:/cmd/entire/cli/checkpoint/id/id.go

Commit ↔ Checkpoint Linkage

The link is one-way but critical:

  1. Commit → Checkpoint (via trailer):
    • Commit message contains: Entire-Checkpoint: abc123def456
    • post-commit hook reads the trailer and creates metadata
    • File:trailers.ParseCheckpoint(commitMessage) (lines 116-130)
  2. Checkpoint → Commit (via metadata):
    • Persistent metadata stored at entire/checkpoints/v1:&lt;id[:2]&gt;/&lt;id[2:]&gt;/
    • Does NOT record commit hash (only branch name, strategy, files)
    • File:/api/checkpoint/metadata.go (Metadata struct, no CommitHash field)
  3. Session ↔ Commit (via trailer):
    • Shadow branch commits have Entire-Session: &lt;session-id&gt; trailer
    • Used to identify which session a checkpoint belongs to
    • File:trailers.ParseSession() (for parsing)

Critical insight: Metadata has NO explicit commit hash field. The link is implicit:

  • The trailer exists → the checkpoint must have been created by that commit
  • GetLogsOnlyRewindPoints relies on scanning commits to find checkpoints

5. Listing & Display Assumptions

entire checkpoint list

File:/cmd/entire/cli/strategy/common.go (lines 297-317)

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func ListCheckpoints(ctx context.Context) ([]CheckpointInfo, error) {
    stores, err := checkpoint.Open(ctx, repo, checkpoint.OpenOptions{})
    committed, err := stores.Persistent.List(ctx)
    return checkpointInfosFromCommitted(committed), nil
}
  • Works on: Committed checkpoints on entire/checkpoints/v1
  • Sorts by:CreatedAt from metadata
  • Does NOT require: Any commit to exist
  • Renders OK: Without commit hash (doesn't display commit SHA anyway)

entire session list

Lists active sessions from .git/entire-sessions/:

File:/cmd/entire/cli/strategy/session_state.go

  • Works on: Session state files
  • Requires: Valid BaseCommit, WorktreeID
  • BREAKS IF:BaseCommit is missing or fake (shadow branch can't be named)

entire checkpoint explain

File:/cmd/entire/cli/strategy/manual_commit_logs.go (lines 24-66, GetSessionInfo)

  • Finds sessions by matching BaseCommit to current HEAD
  • BREAKS IF: Checkpoint not tied to worktree sessions

6. Summary: Critical Assumptions for Commit-Less Checkpoints

If you import historical agent transcripts as orphaned checkpoints (no git commit), the code will break at these points:

Location Issue Severity
Shadow branch naming (manual_commit_hooks.go:1194) Requires valid BaseCommit hash CRITICAL
Session list (manual_commit_logs.go:24-66) Can't find sessions without BaseCommit CRITICAL
Rewind (manual_commit_rewind.go:54-92) Session lookup by BaseCommit fails HIGH
Rewind logs-only (manual_commit_rewind.go:179-210) No commit trailer = not findable HIGH
Cleanup (cleanup.go:243-248) Can't name shadow branch without BaseCommit HIGH
Post-rewrite (manual_commit_hooks.go:189-248) No commits to remap LOW
Checkpoint list (common.go:297-317) Works fine - no commit needed N/A
Checkpoint explain (manual_commit_logs.go:98-105) Works fine - reads from persistent store N/A

What Would Work for Commit-Less Checkpoints

  • Reading checkpoints (explain, list)
  • Searching committed metadata
  • Token usage queries
  • Listing rewind points in the committed store (if you bypass the logs-only scan)

What Would Break

  • Rewinding (no shadow branch to restore to, no worktree-linked session)
  • Session lifecycle (no BaseCommit = no shadow branch naming)
  • Cleanup (can't determine which branches to delete)
  • Amend/rebase linkage (no commits to remap)

Architecture Implication for Import Feature

To support import without commits, you'd need:

  1. Fake/synthetic BaseCommit: Generate a stable hash (e.g., SHA-1 of checkpoint metadata) so shadow branches can be named

    • Or: Store checkpoints with BaseCommit == null and skip shadow-branch operations entirely
  2. Separate import state machine: Don't reuse session state files; store imported metadata in a read-only import directory (entire/imports/)

  3. Bypass session matching: When rewind/explain is requested for an imported checkpoint, fetch directly from persistent store, not via session lookup

  4. Mark checkpoints as importable: Add a Kind field or new field to distinguish imported checkpoints from normal ones

  5. Read-only rewind: Restore files from persistent checkpoint tree (like logs-only points do), skip shadow-branch reset

  6. No cleanup concern: Imported checkpoints live only on v1 branch; no shadow branches to clean up

This approach would let you import transcripts while keeping them visually and functionally separate from agent-created checkpoints. <subagent_tokens>81829</subagent_tokens><tool_uses>30</tool_uses><duration_ms>106141</duration_ms>

3w ago·15m·6 calls

Confirmed the abstraction fits cleanly. PersistentRefs already separates Read (single ref, store.go:73) from Push ([]ReferenceName). "Local-only" maps exactly onto this: put imports on their own ref that's read but never in Push. Opt-in-to-push later becomes "add that ref to Push."

I now have everything I need. Here's the design.


Design: Import existing Claude Code transcripts

1. Goal & shape

  • A hidden/labs command entire import claude-code [--path DIR] [--dry-run] [--since DATE] [--session ID]... [--force].
  • entire enable ends with an interactive prompt that, when existing transcripts for this repo are detected, calls the same import logic with a default 1-month lookback.
  • Imported turns become read-only, commit-less ("orphaned") checkpoints, available to checkpoint list/explain, search, tokens. Not rewindable, not pushed by default.

2. Storage — the orphaned-checkpoint mechanism

  • Imported turns are written with the existing persistent store's Write (same <id[:2]>/<id[2:]>/ sharded layout, full.jsonl + compact transcript.jsonl + prompt.txt + metadata), but onto a dedicated local ref entire/imports/v1, never the live shadow-branch lifecycle.
  • No session-state file, no shadow branch, no commit, noEntire-Checkpoint trailer. Orphaned by construction.
  • Push:entire/imports/v1 is added to PersistentRefs.Read consumers but never to Push. Reading commands union two stores (the v1 store + an imports store opened on the imports ref). I chose a second store over making Read multi-ref because it keeps the local-only ref explicitly separate and leaves v1 semantics untouched.
  • Opt-in to push (future): flip the imports ref into the Push set (or merge its commits onto v1). Out of scope for this pass beyond leaving the seam clean.

3. Metadata: marker + provenance

  • Set the existing Kind field to "imported" (joins agent_review) so list/explain can label and rewind can guard.
  • Add provenance (per the issue thread) to session metadata: source transcript path, line range, Claude session id, turn uuid, parent uuid, content hash, import-version. This gives idempotency and lets explain cite the original JSONL honestly.

4. Idempotency & re-runs

  • Deterministic checkpoint ID per turn: id derived from sha256(sessionID + "/" + turnUUID) (truncated to the 12-hex format). Re-running import skips any turn whose ID already exists on the imports ref; --force re-writes it. content_hash detects a changed source turn.

5. Parsing — pure reuse

  • Discovery: claudecode.GetSessionDir(repoRoot) → ~/.claude/projects/<SanitizePathForClaude(repoRoot)>/*.jsonl; --path overrides.
  • Per file: parse with transcript.ParseFromBytes, split into per-user-prompt turns, SliceFromLine each turn's slice, CalculateTotalTokenUsage (with subagent agent-<id>.jsonl rollup), extract model/timestamps/cwd/prompt. --since/--session filter; --since defaults to ~30 days for the enable prompt.
  • Redaction: run each imported turn through the standard redaction pipeline at import time so data-at-rest is already clean and a future opt-in-to-push is safe.

6. Rewind guard (the real code gap)

  • rewind/GetRewindPoints naturally won't surface imports (they scan commit trailers, which imports lack). Add an explicit guard: if a rewind target resolves to a Kind == "imported" checkpoint, refuse with "imported history is read-only and not rewindable." I'll also do a targeted check that list/explain display logic never assumes a backing commit (low-risk, reading from v1/imports works without one).

7. The enable prompt

  • After the telemetry prompt in runEnableInteractive (setup.go), if interactive and transcripts exist: count turns in the last month and ask huh.NewConfirm via NewAccessibleForm — "Found N past Claude sessions for this repo. Import them as local, read-only history? (stays on your machine)". Respect --yes (default no, to be conservative for a privacy-touching import) and CanPromptInteractively().

8. Testing

  • Unit: discovery/slug, per-turn splitting, deterministic IDs + idempotency, provenance, redaction-applied, rewind-refusal. Integration: import into a temp repo, assert imports land on entire/imports/v1, are listed/explained, are absent from Push, and survive a --dry-run as no-op. Vogon canary for the enable-prompt path.

Two notes on what I'm deliberately not doing (YAGNI, matching your "not necessary for first pass"): no attaching imports to Claude co-authored commits, and no other agents (codex/gemini/etc.) — claude-code only, though the command name leaves room.

Does this design look right? In particular: (a) the separate entire/imports/v1 ref + second-store union, and (b) applying full redaction at import time even though local-only. If both are good I'll write it up as a spec and then a plan.

Looks good

3w ago·14m·2 calls

Spec written to docs/superpowers/specs/2026-06-25-import-claude-code-transcripts-design.md.

Self-review: no placeholders/TBDs, sections are internally consistent (storage ref ↔ push topology ↔ rewind guard all align), scope is bounded to a single plan. One adaptation from the skill's default: I did not auto-commit the doc, since your standing instruction is to commit only when explicitly asked — say the word and I'll commit it.

Please review the spec and let me know if you want any changes before I turn it into an implementation plan. A couple of points worth a second look:

  • The entire/imports/v1 ref naming and the second-store union (vs. making Read multi-ref).
  • Default No on the enable prompt — conservative, but it means the common path imports nothing unless the user opts in each enable.

The command should prompt the user to ask if they want to push up the checkpoints. The command should also specify that when it found N claude sessions, it should be "for the past month" (the timespan should be a one month lookback for now). Ensure there are no issues with list or explain. They should filter out Kind: imported if they're unsupported.

3w ago

The command should specify that when it found N claude sessions, it should be "for the past month" (the timespan should be a one month lookback for now). Ensure there are no issues with list or explain. They should filter out Kind: imported if they're unsupported.

Eventually, push up will be an option, but for first pass, it's local-only. We shouldn't engineer ourselves into a box on this: it should be flexible enough to allow pushing up.

3w ago·12m·10 calls

Spec updated to reflect all three points. Summary of the changes:

  1. "Past month" framing — the enable prompt now reads "Found N past Claude sessions for this repo from the past month." The one-month lookback is the explicit default for both the prompt and the command's --since, with "from the past month" called out as required so the count is never read as full history.

  2. No issues with list/explain + filter Kind: imported where unsupported — added a Kind-aware filtering section with two layers: (a) structural — imports live on a separate ref, so existing v1 consumers (cleanup, rewind, lifecycle) never see them; (b) defensive — a shared filter helper next to checkpointInfosFromCommitted so supported commands (list/explain/search/tokens) render imported entries with a label, while every other consumer drops Kind == "imported". Tests now include cleanup not seeing imports and a "merged onto v1" case proving unsupported consumers still filter them.

  3. Local-only first pass, but no box — reframed the push section as "Push topology and the no-box constraint" with two concrete future paths (push the imports ref, or merge onto v1), and made clear the Kind filter is exactly what keeps both paths safe. No push prompt/--push flag ships now, but the seam is explicit.

Please review the spec at docs/superpowers/specs/2026-06-25-import-claude-code-transcripts-design.md. If it's good, I'll hand it to the writing-plans skill to produce the implementation plan (and I can commit the spec then, or now if you'd like).

We don't need --since for now. What do you mean "no box"?

3w ago·1m·11 calls

Done. To recap your two points:

  • "No box" — explained above; it was just my shorthand for your "don't engineer ourselves into a box." Renamed the section to "Push topology (keeping push cheap to add later)" and dropped the jargon throughout.
  • --since removed — the command is now entire import claude-code [--path DIR] [--dry-run] [--session ID]... [--force], and the one-month lookback is a fixed internal constant used by both the command and the enable prompt.

The push design itself is unchanged: still local-only this pass, with the two future paths intact.

Spec is at docs/superpowers/specs/2026-06-25-import-claude-code-transcripts-design.md. Good to review — if it's right, I'll hand it to writing-plans for the implementation plan (and commit the spec whenever you want).

What does --force entail here? I think we can remove that

3w ago·40.8s·5 calls

--force removed. Command is now entire import claude-code [--path DIR] [--dry-run] [--session ID]..., and re-running is purely additive/idempotent (skip already-imported turns). content_hash stays as provenance for honest explain citations and logs a mismatch rather than rewriting.

Spec is current at docs/superpowers/specs/2026-06-25-import-claude-code-transcripts-design.md. Anything else to adjust, or shall I hand it to writing-plans for the implementation plan?

Implementation plan yes

3w ago·13.7s·1 call

I'll hand the spec to the writing-plans skill.

Base directory for this skill: /Users/ninawork/.claude/plugins/cache/claude-plugins-official/superpowers/6.0.3/skills/writing-plans

Writing Plans

Overview

Write comprehensive implementation plans assuming the engineer has zero context for our codebase and questionable taste. Document everything they need to know: which files to touch for each task, code, testing, docs they might need to check, how to test it. Give them the whole plan as bite-sized tasks. DRY. YAGNI. TDD. Frequent commits.

Assume they are a skilled developer, but know almost nothing about our toolset or problem domain. Assume they don't know good test design very well.

Announce at start: "I'm using the writing-plans skill to create the implementation plan."

Context: If working in an isolated worktree, it should have been created via the superpowers:using-git-worktrees skill at execution time.

Save plans to:docs/superpowers/plans/YYYY-MM-DD-<feature-name>.md

  • (User preferences for plan location override this default)

Scope Check

If the spec covers multiple independent subsystems, it should have been broken into sub-project specs during brainstorming. If it wasn't, suggest breaking this into separate plans — one per subsystem. Each plan should produce working, testable software on its own.

File Structure

Before defining tasks, map out which files will be created or modified and what each one is responsible for. This is where decomposition decisions get locked in.

  • Design units with clear boundaries and well-defined interfaces. Each file should have one clear responsibility.
  • You reason best about code you can hold in context at once, and your edits are more reliable when files are focused. Prefer smaller, focused files over large ones that do too much.
  • Files that change together should live together. Split by responsibility, not by technical layer.
  • In existing codebases, follow established patterns. If the codebase uses large files, don't unilaterally restructure - but if a file you're modifying has grown unwieldy, including a split in the plan is reasonable.

This structure informs the task decomposition. Each task should produce self-contained changes that make sense independently.

Task Right-Sizing

A task is the smallest unit that carries its own test cycle and is worth a fresh reviewer's gate. When drawing task boundaries: fold setup, configuration, scaffolding, and documentation steps into the task whose deliverable needs them; split only where a reviewer could meaningfully reject one task while approving its neighbor. Each task ends with an independently testable deliverable.

Bite-Sized Task Granularity

Each step is one action (2-5 minutes):

  • "Write the failing test" - step
  • "Run it to make sure it fails" - step
  • "Implement the minimal code to make the test pass" - step
  • "Run the tests and make sure they pass" - step
  • "Commit" - step

Plan Document Header

Every plan MUST start with this header:

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# [Feature Name] Implementation Plan

> **For agentic workers:** REQUIRED SUB-SKILL: Use superpowers:subagent-driven-development (recommended) or superpowers:executing-plans to implement this plan task-by-task. Steps use checkbox (`- [ ]`) syntax for tracking.

**Goal:** [One sentence describing what this builds]

**Architecture:** [2-3 sentences about approach]

**Tech Stack:** [Key technologies/libraries]

## Global Constraints

[The spec's project-wide requirements — version floors, dependency limits,\
naming and copy rules, platform requirements — one line each, with exact\
values copied verbatim from the spec. Every task's requirements implicitly\
include this section.]

---

Task Structure

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### Task N: [Component Name]

**Files:**
- Create: `exact/path/to/file.py`
- Modify: `exact/path/to/existing.py:123-145`
- Test: `tests/exact/path/to/test.py`

**Interfaces:**
- Consumes: [what this task uses from earlier tasks — exact signatures]
- Produces: [what later tasks rely on — exact function names, parameter\
  and return types. A task's implementer sees only their own task; this\
  block is how they learn the names and types neighboring tasks use.]

- [ ] **Step 1: Write the failing test**

```python
def test_specific_behavior():
    result = function(input)
    assert result == expected
```

- [ ] **Step 2: Run test to verify it fails**

Run: `pytest tests/path/test.py::test_name -v`
Expected: FAIL with "function not defined"

- [ ] **Step 3: Write minimal implementation**

```python
def function(input):
    return expected
```

- [ ] **Step 4: Run test to verify it passes**

Run: `pytest tests/path/test.py::test_name -v`
Expected: PASS

- [ ] **Step 5: Commit**

```bash
git add tests/path/test.py src/path/file.py
git commit -m "feat: add specific feature"
```

No Placeholders

Every step must contain the actual content an engineer needs. These are plan failures — never write them:

  • "TBD", "TODO", "implement later", "fill in details"
  • "Add appropriate error handling" / "add validation" / "handle edge cases"
  • "Write tests for the above" (without actual test code)
  • "Similar to Task N" (repeat the code — the engineer may be reading tasks out of order)
  • Steps that describe what to do without showing how (code blocks required for code steps)
  • References to types, functions, or methods not defined in any task

Remember

  • Exact file paths always
  • Complete code in every step — if a step changes code, show the code
  • Exact commands with expected output
  • DRY, YAGNI, TDD, frequent commits

Self-Review

After writing the complete plan, look at the spec with fresh eyes and check the plan against it. This is a checklist you run yourself — not a subagent dispatch.

1. Spec coverage: Skim each section/requirement in the spec. Can you point to a task that implements it? List any gaps.

2. Placeholder scan: Search your plan for red flags — any of the patterns from the "No Placeholders" section above. Fix them.

3. Type consistency: Do the types, method signatures, and property names you used in later tasks match what you defined in earlier tasks? A function called clearLayers() in Task 3 but clearFullLayers() in Task 7 is a bug.

If you find issues, fix them inline. No need to re-review — just fix and move on. If you find a spec requirement with no task, add the task.

Execution Handoff

After saving the plan, offer execution choice:

"Plan complete and saved to docs/superpowers/plans/<filename>.md. Two execution options:

1. Subagent-Driven (recommended) - I dispatch a fresh subagent per task, review between tasks, fast iteration

2. Inline Execution - Execute tasks in this session using executing-plans, batch execution with checkpoints

Which approach?"

If Subagent-Driven chosen:

  • REQUIRED SUB-SKILL: Use superpowers:subagent-driven-development
  • Fresh subagent per task + two-stage review

If Inline Execution chosen:

  • REQUIRED SUB-SKILL: Use superpowers:executing-plans
  • Batch execution with checkpoints for review

3w ago·1m·3 calls

Three extraction agents are running in parallel to pull the exact signatures for the store/metadata API, transcript parsing/redaction, and the enable flow + command registration + read-command call sites. I'll write the implementation plan once they return.

a6d51aff08382492f REDACTED /private/tmp/claude-502/-Users-ninawork-entire-devenv-cli/b1e13e56-e9ae-469a-a30d-7c57d70e2f1f/tasks/a6d51aff08382492f.output completed Agent "Extract checkpoint store + metadata API" finished A task-notification fires each time this agent stops with no live background children of its own. The user can send it another message and resume it, so the same task-id may notify more than once. Perfect! Now let me compile all the verbatim code blocks for the user:

EXACT VERBATIM SIGNATURES AND STRUCT DEFINITIONS

1. Checkpoint Persistent Store API

cmd/entire/cli/checkpoint/open.go: lines 9-62

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// OpenOptions configures Open. The zero value uses the default committed-ref
// topology and attaches no blob fetcher.
type OpenOptions struct {
    // BlobFetcher is the CLI-level on-demand blob fetcher. The checkpoint
    // package cannot resolve it itself, so the CLI layer injects it here and
    // Open attaches it to the constructed store(s). nil leaves on-demand
    // fetching off.
    BlobFetcher BlobFetchFunc

// Refs overrides the default committed-ref topology. A non-nil value wins,
    // e.g. attach pins reads to Primary via PrimaryAsRead().
    Refs *PersistentRefs
}

// Stores is the facade returned by Open: the persistent store plus the git-only
// ephemeral (shadow-branch) capability and resolved committed-ref topology.
type Stores struct {
    // Persistent is the committed store that serves permanent reads and writes.
    Persistent PersistentStore

ephemeral EphemeralStore
    refs      PersistentRefs
}

// Open resolves the checkpoint storage topology and constructs the backing
// store. It keeps ref resolution and blob-fetcher wiring in one place.
//
//nolint:unparam // Callers treat store construction as fallible at this boundary; the git backend has no fallible setup today.
func Open(ctx context.Context, repo *git.Repository, opts OpenOptions) (*Stores, error) {
    refs := resolveOpenRefs(ctx, opts)
    store := NewGitStore(repo, refs)
    if opts.BlobFetcher != nil {
        store.SetBlobFetcher(opts.BlobFetcher)
    }
    return &amp;Stores{
        Persistent: store,
        ephemeral:  newEphemeralStore(repo, refs),
        refs:       refs,
    }, nil
}

// Refs returns the resolved committed-ref topology.
func (s *Stores) Refs() PersistentRefs { return s.refs }

cmd/entire/cli/checkpoint/store.go: lines 48-53

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// NewGitStore creates a checkpoint store backed by the given git repository
// and committed-metadata topology. Pass DefaultV1Refs() for the v1-only default
// or ResolveRefs(ctx) in code paths that honor settings.
func NewGitStore(repo *git.Repository, refs PersistentRefs) *GitStore {
    return &amp;GitStore{repo: repo, refs: refs}
}

cmd/entire/cli/checkpoint/persistent_refs.go: lines 12-26

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// PersistentRefs is the committed-metadata ref topology.
type PersistentRefs struct {
    Primary plumbing.ReferenceName
    Read    plumbing.ReferenceName
    Push    []plumbing.ReferenceName
}

// DefaultV1Refs returns the v1-only topology.
func DefaultV1Refs() PersistentRefs {
    v1Branch := plumbing.NewBranchReferenceName(paths.MetadataBranchName)
    return PersistentRefs{
        Primary: v1Branch,
        Read:    v1Branch,
        Push:    []plumbing.ReferenceName{v1Branch},
    }
}

cmd/entire/cli/checkpoint/persistent_write.go: lines 8-25

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// Write dispatches a persistent write request to the matching git operation.
// The request types and Writer interface are defined in the api/checkpoint
// contract (re-exported here via aliases). Unknown request types are a
// programmer error, surfaced rather than ignored.
func (s *GitStore) Write(ctx context.Context, req WriteRequest) error {
    switch r := req.(type) {
    case Session:
        return s.writeSession(ctx, WriteOptions(r))
    case SessionTranscript:
        return s.backfillTranscript(ctx, UpdateOptions(r))
    case SessionSummary:
        return s.backfillSummary(ctx, r.CheckpointID, r.Summary)
    case CheckpointAttribution:
        return s.backfillAttribution(ctx, r.CheckpointID, r.Attribution)
    default:
        return fmt.Errorf("checkpoint: unsupported write request %T", req)
    }
}

2. WriteOptions and Metadata API

api/checkpoint/metadata.go: lines 14-168

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// WriteOptions contains options for writing a persistent checkpoint.
type WriteOptions struct {
    // CheckpointID is the stable 12-hex-char identifier
    CheckpointID id.CheckpointID

// SessionID is the session identifier
    SessionID string

// CreatedAt is when the checkpoint was originally created.
    // When zero, writers use the current time.
    CreatedAt time.Time

// Strategy is the name of the strategy that created this checkpoint
    Strategy string

// Branch is the branch name where the checkpoint was created (empty if detached HEAD)
    Branch string

// Transcript is the session transcript content (full.jsonl).
    // Must be pre-redacted (via redact.JSONLBytes or redact.AlreadyRedacted for trusted sources).
    Transcript redact.RedactedBytes

// Prompts contains the raw user prompts from the session. Run through
    // redactedJoinedPrompts before persisting — the writer does this
    // inside writeSessionToSubdirectory.
    Prompts []string

// FilesTouched are files modified during the session
    FilesTouched []string

// CheckpointsCount is the displayed "steps" count for this session: the number
    // of user prompts attributed to this checkpoint (floored at 1). Despite the
    // historical name/JSON tag, it is no longer a count of checkpoints.
    CheckpointsCount int

// SaveStepCount is the number of SaveStep-recorded steps (shadow-branch
    // commits) for this session. Distinct from CheckpointsCount (the displayed
    // prompt count): this is the honest "did real checkpoint work happen" signal
    // used to gate combined attribution. 0 means a commit-only / fallback session.
    SaveStepCount int

// EphemeralBranch is the shadow branch name (for manual-commit strategy)
    EphemeralBranch string

// AuthorName is the name to use for commits
    AuthorName string

// AuthorEmail is the email to use for commits
    AuthorEmail string

// MetadataDir is a directory containing additional metadata files to copy
    // If set, all files in this directory will be copied to the checkpoint path
    // This is useful for copying task metadata files, subagent transcripts, etc.
    MetadataDir string

// Task checkpoint fields (for task/subagent checkpoints)
    IsTask    bool   // Whether this is a task checkpoint
    ToolUseID string // Tool use ID for task checkpoints

// Additional task checkpoint fields for subagent checkpoints
    AgentID                string // Subagent identifier
    CheckpointUUID         string // UUID for transcript truncation when rewinding
    TranscriptPath         string // Path to session transcript file (alternative to in-memory Transcript)
    SubagentTranscriptPath string // Path to subagent's transcript file

// Incremental checkpoint fields
    IsIncremental       bool   // Whether this is an incremental checkpoint
    IncrementalSequence int    // Checkpoint sequence number
    IncrementalType     string // Tool type that triggered this checkpoint
    IncrementalData     []byte // Tool input payload for this checkpoint

// Commit message fields (used for task checkpoints)
    CommitSubject string // Subject line for the metadata commit (overrides default)

// Agent identifies the agent that created this checkpoint (e.g., "Claude Code", "Cursor")
    Agent types.AgentType

// Model is the LLM model used during the session (e.g., "claude-sonnet-4-20250514")
    Model string

// TurnID correlates checkpoints from the same agent turn.
    TurnID string

// Transcript position at checkpoint start - tracks what was added during this checkpoint
    TranscriptIdentifierAtStart string // Last identifier when checkpoint started (UUID for Claude, message ID for Gemini)
    CheckpointTranscriptStart   int    // Transcript line offset at start of this checkpoint's data

// CheckpointTranscriptStart is written to both Metadata.CheckpointTranscriptStart
    // and the deprecated Metadata.TranscriptLinesAtStart for backward compatibility.

// TokenUsage contains the token usage for this checkpoint
    TokenUsage *types.TokenUsage

// SkillEvents records explicit native skill signals observed in this session.
    SkillEvents []types.SkillEvent

// SessionMetrics contains hook-provided session metrics (duration, turns, context usage)
    SessionMetrics *SessionMetrics

// Attribution is line-level attribution calculated at commit time
    // comparing checkpoint tree (agent work) to committed tree (may include human edits)
    Attribution *Attribution

// PromptAttributionsJSON is the raw PromptAttributions data, JSON-encoded.
    // Persisted for diagnostic purposes — shows exactly which prompt recorded
    // which "user" lines, enabling root cause analysis of attribution bugs.
    // Uses json.RawMessage to avoid importing session package.
    PromptAttributionsJSON json.RawMessage

// CombinedAttribution is holistic attribution across all sessions.
    // Used during migration to preserve v1 root summary attribution.
    // During normal condensation this is nil (computed post-commit via a CheckpointAttribution write).
    CombinedAttribution *Attribution

// Summary is an optional AI-generated summary for this checkpoint.
    // This field may be nil when:
    //   - summarization is disabled in settings
    //   - summary generation failed (non-blocking, logged as warning)
    //   - the transcript was empty or too short to summarize
    //   - the checkpoint predates the summarization feature
    Summary *Summary

// Kind identifies the session purpose (e.g., "agent_review"). Empty for normal sessions.
    Kind string

// ReviewSkills is the snapshot of skills used (only meaningful when Kind is a review kind).
    // May be empty when a review is attached post-hoc without declared skills.
    ReviewSkills []string

// ReviewPrompt is the actual text of the review request (composed prompt
    // for spawn, first user prompt for attach). Only meaningful when Kind is
    // a review kind.
    ReviewPrompt string

// HasReview is set by the caller when this session should mark its
    // checkpoint as reviewed. The caller computes this (e.g. via
    // session.Kind.IsReview) because checkpoint can't import session
    // — the session package imports checkpoint, creating a cycle.
    HasReview bool

// InvestigateRunID is the 12-hex-char ID of the parent investigation
    // run (only meaningful when Kind is an investigate kind).
    InvestigateRunID string

// InvestigateTopic is the human-readable topic the investigation was
    // asked to investigate (only meaningful when Kind is an investigate
    // kind).
    InvestigateTopic string

// HasInvestigation is set by the caller when this session should mark
    // its checkpoint as part of an investigation. The caller computes this
    // (e.g. via session.Kind.IsInvestigate) because checkpoint can't import
    // session — the session package imports checkpoint, creating a cycle.
    HasInvestigation bool
}

api/checkpoint/metadata.go: lines 286-366

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// Metadata contains the metadata stored in metadata.json for each checkpoint.
type Metadata struct {
    CLIVersion       string          `json:"cli_version,omitempty"`
    CheckpointID     id.CheckpointID `json:"checkpoint_id"`
    SessionID        string          `json:"session_id"`
    Strategy         string          `json:"strategy"`
    CreatedAt        time.Time       `json:"created_at"`
    Branch           string          `json:"branch,omitempty"` // Branch where checkpoint was created (empty if detached HEAD)
    CheckpointsCount int             `json:"checkpoints_count"`
    // SaveStepCount is the number of SaveStep-recorded steps for this session.
    // Honest "real checkpoint work happened" signal (0 = commit-only/fallback
    // session), kept separate from the displayed CheckpointsCount prompt count.
    // Added after CheckpointsCount stopped being a reliable did-SaveStep-run signal.
    SaveStepCount int      `json:"save_step_count,omitempty"`
    FilesTouched  []string `json:"files_touched"`

// Agent identifies the agent that created this checkpoint (e.g., "Claude Code", "Cursor")
    Agent types.AgentType `json:"agent,omitempty"`

// Model is the LLM model used during the session (e.g., "claude-sonnet-4-20250514").
    // Always written to metadata (empty string when unknown) so consumers can rely on the field's presence.
    Model string `json:"model"`

// TurnID correlates checkpoints from the same agent turn.
    // When a turn's work spans multiple commits, each gets its own checkpoint
    // but they share the same TurnID for future aggregation/deduplication.
    TurnID string `json:"turn_id,omitempty"`

// Task checkpoint fields (only populated for task checkpoints)
    IsTask    bool   `json:"is_task,omitempty"`
    ToolUseID string `json:"tool_use_id,omitempty"`

// Transcript position at checkpoint start - tracks what was added during this checkpoint
    TranscriptIdentifierAtStart string `json:"transcript_identifier_at_start,omitempty"` // Last identifier when checkpoint started (UUID for Claude, message ID for Gemini)
    CheckpointTranscriptStart   int    `json:"checkpoint_transcript_start,omitempty"`    // Transcript line offset at start of this checkpoint's data

// Deprecated: Use CheckpointTranscriptStart instead. Written for backward compatibility with older CLI versions.
    TranscriptLinesAtStart int `json:"transcript_lines_at_start,omitempty"`

// Token usage for this checkpoint
    TokenUsage *types.TokenUsage `json:"token_usage,omitempty"`

// SkillEvents records explicit native skill signals observed in this session.
    // Consumers use these anchors to collapse skill-related raw transcript events.
    SkillEventsVersion int                `json:"skill_events_version,omitempty"`
    SkillEvents        []types.SkillEvent `json:"skill_events,omitempty"`

// SessionMetrics contains hook-provided session metrics (duration, turns, context usage).
    // Populated for agents that provide these metrics via hooks (e.g., Cursor).
    SessionMetrics *SessionMetrics `json:"session_metrics,omitempty"`

// AI-generated summary of the checkpoint
    Summary *Summary `json:"summary,omitempty"`

// Attribution is line-level attribution calculated at commit time
    Attribution *Attribution `json:"initial_attribution,omitempty"`

// PromptAttributions is the raw per-prompt attribution data used to compute Attribution.
    // Diagnostic field — shows which prompt recorded which "user" lines.
    PromptAttributions json.RawMessage `json:"prompt_attributions,omitempty"`

// Kind identifies the session purpose (e.g., "agent_review"). Empty for normal sessions.
    Kind string `json:"kind,omitempty"`

// ReviewSkills lists the review skills that were run (only set when Kind is a review kind).
    // May be empty when a review was attached post-hoc without declared skills.
    ReviewSkills []string `json:"review_skills,omitempty"`

// ReviewPrompt is the actual text of the review request (composed prompt
    // for spawn, first user prompt for attach). Only set when Kind is a
    // review kind.
    ReviewPrompt string `json:"review_prompt,omitempty"`

// InvestigateRunID is the 12-hex-char ID of the parent investigation
    // run. Only set when Kind is an investigate kind.
    InvestigateRunID string `json:"investigate_run_id,omitempty"`

// InvestigateTopic is the human-readable topic the investigation was
    // asked to investigate. Only set when Kind is an investigate kind.
    InvestigateTopic string `json:"investigate_topic,omitempty"`
}

api/checkpoint/metadata.go: lines 378-392

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// SessionFilePaths contains the absolute paths to session files from the git tree root.
// Paths include the full checkpoint path prefix (e.g., "/a1/b2c3d4e5f6/1/metadata.json").
// Used in CheckpointSummary.Sessions to map session IDs to their file locations.
type SessionFilePaths struct {
    Metadata string `json:"metadata"`
    // Transcript points at the raw full.jsonl, which CLI read paths
    // (rewind/resume/explain) resolve by filename.
    Transcript string `json:"transcript,omitempty"`
    // CompactTranscript points at the compact transcript.jsonl when one was
    // generated alongside full.jsonl. Omitted otherwise (non-compactable,
    // empty, or oversized transcripts, and older CLI versions).
    CompactTranscript string `json:"compact_transcript,omitempty"`
    ContentHash       string `json:"content_hash,omitempty"`
    Prompt            string `json:"prompt"`
}

api/checkpoint/metadata.go: lines 413-439

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type CheckpointSummary struct {
    CLIVersion          string             `json:"cli_version,omitempty"`
    CheckpointVersion   string             `json:"checkpoint_version,omitempty"`
    CheckpointID        id.CheckpointID    `json:"checkpoint_id"`
    Strategy            string             `json:"strategy"`
    Branch              string             `json:"branch,omitempty"`
    CheckpointsCount    int                `json:"checkpoints_count"`
    FilesTouched        []string           `json:"files_touched"`
    Sessions            []SessionFilePaths `json:"sessions"`
    TokenUsage          *types.TokenUsage  `json:"token_usage,omitempty"`
    CombinedAttribution *Attribution       `json:"combined_attribution,omitempty"`

// HasReview is the umbrella "any review happened" flag: true when at least
    // one session in this checkpoint has a review-kind Kind (currently
    // "agent_review"). When new review kinds are introduced they should also
    // cause this flag to be set so callers can keep asking "was this reviewed
    // in any way?" without caring about the variant.
    HasReview bool `json:"has_review,omitempty"`

// HasInvestigation is the umbrella "any investigation happened" flag:
    // true when at least one session in this checkpoint has an
    // investigate-kind Kind (currently "agent_investigate"). When new
    // investigate kinds are introduced they should also cause this flag to
    // be set so callers can keep asking "was this investigated in any way?"
    // without caring about the variant.
    HasInvestigation bool `json:"has_investigation,omitempty"`
}

api/checkpoint/metadata.go: lines 232-265

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type CheckpointInfo struct {
    // CheckpointID is the stable 12-hex-char identifier
    CheckpointID id.CheckpointID

// SessionID is the session identifier (most recent session for multi-session checkpoints)
    SessionID string

// CreatedAt is when the checkpoint was created
    CreatedAt time.Time

// CheckpointsCount is the aggregate displayed "steps" count across sessions:
    // the sum of per-session prompt-window counts. Despite the historical name,
    // it is not a count of checkpoint records.
    CheckpointsCount int

// FilesTouched are files modified during all sessions
    FilesTouched []string

// Agent identifies the agent that created this checkpoint
    Agent types.AgentType

// IsTask indicates if this is a task checkpoint
    IsTask bool

// ToolUseID is the tool use ID for task checkpoints
    ToolUseID string

// Multi-session support
    SessionCount int      // Number of sessions (1 if single session)
    SessionIDs   []string // All session IDs that contributed
}

3. Kind Constants (Session Purpose)

cmd/entire/cli/session/state.go: lines 38-61

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// Kind identifies the purpose of a session. Empty means "normal" (legacy
// sessions + every session that isn't a review). Callers must not rely on
// Kind being set unless they specifically want to branch on it.
//
// Kind is a discriminator — it distinguishes review variants at a per-session
// granularity. The checkpoint-level HasReview flag remains an umbrella that
// any review-kind session should set (so future review kinds like manual
// review can be added without changing summary-shape).
type Kind string

const (
    // KindAgentReview tags a session created by `entire review` (agent-driven
    // review). Future review kinds (e.g., manual review) should be defined as
    // distinct Kind values AND added to Kind.IsReview so the checkpoint's
    // HasReview umbrella flag keeps covering them.
    KindAgentReview Kind = "agent_review"

// KindAgentInvestigate tags a session created by `entire investigate`
    // (agent-driven investigation). A session is review OR investigate, not
    // both — Kind is single-valued. Future investigate kinds should be added
    // to Kind.IsInvestigate so the checkpoint's HasInvestigation umbrella
    // flag keeps covering them.
    KindAgentInvestigate Kind = "agent_investigate"
)

4. Attribution and TokenUsage Types

api/checkpoint/metadata.go: lines 475-496

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// Attribution captures line-level attribution metrics at commit time.
// This is a point-in-time snapshot comparing the checkpoint tree (agent work)
// against the committed tree (may include human edits).
//
// Attribution Metrics:
//   - TotalCommitted keeps the historical "net additions" view for compatibility
//   - TotalLinesChanged measures total committed line changes (adds + modifies + removes)
//   - AgentPercentage represents "of the lines changed in this commit, what percentage came from the agent"
//   - AgentRemoved tracks committed deletions performed by the agent
type Attribution struct {
    CalculatedAt      time.Time `json:"calculated_at"`
    AgentLines        int       `json:"agent_lines"`              // Lines added by agent that remain in the commit
    AgentRemoved      int       `json:"agent_removed"`            // Lines removed by agent that remain removed in the commit
    HumanAdded        int       `json:"human_added"`              // Lines added by human (excluding modifications)
    HumanModified     int       `json:"human_modified"`           // Lines modified by human (estimate: min(added, removed))
    HumanRemoved      int       `json:"human_removed"`            // Lines removed by human (excluding modifications)
    TotalCommitted    int       `json:"total_committed"`          // Net additions in commit (legacy additions-focused metric)
    TotalLinesChanged int       `json:"total_lines_changed"`      // Total committed line changes (adds + modifies + removes)
    AgentPercentage   float64   `json:"agent_percentage"`         // (agent_lines + agent_removed) / total_lines_changed * 100
    MetricVersion     int       `json:"metric_version,omitempty"` // 0/absent = legacy (additions-only %), 2 = changed-lines %
}

(TokenUsage is in cmd/entire/cli/agent/types, not in the checkpoint package directly)

5. Strategy Package CheckpointInfo

cmd/entire/cli/strategy/manual_commit_types.go: lines 34-47

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// CheckpointInfo represents checkpoint metadata stored on the sessions branch.
// Metadata is stored at sharded path: &lt;checkpoint_id[:2]&gt;/&lt;checkpoint_id[2:]&gt;/
type CheckpointInfo struct {
    CheckpointID     id.CheckpointID `json:"checkpoint_id"` // 12-hex-char from Entire-Checkpoint trailer, used as directory path
    SessionID        string          `json:"session_id"`
    CreatedAt        time.Time       `json:"created_at"`
    CheckpointsCount int             `json:"checkpoints_count"`
    FilesTouched     []string        `json:"files_touched"`
    Agent            types.AgentType `json:"agent,omitempty"` // Human-readable agent name (e.g., "Claude Code")
    IsTask           bool            `json:"is_task,omitempty"`
    ToolUseID        string          `json:"tool_use_id,omitempty"`
    SessionCount     int             `json:"session_count,omitempty"` // Number of sessions (1 if omitted)
    SessionIDs       []string        `json:"session_ids,omitempty"`   // All session IDs in this checkpoint
}

cmd/entire/cli/strategy/common.go: lines 297-339

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// ListCheckpoints returns all checkpoints from committed checkpoint storage.
func ListCheckpoints(ctx context.Context) ([]CheckpointInfo, error) {
    repo, err := OpenRepository(ctx)
    if err != nil {
        return nil, fmt.Errorf("failed to open git repository: %w", err)
    }
    defer repo.Close()

// Warn (once per process) if metadata branches are disconnected
    WarnIfMetadataDisconnected()

stores, err := checkpoint.Open(ctx, repo, checkpoint.OpenOptions{})
    if err != nil {
        return nil, fmt.Errorf("open checkpoint store: %w", err)
    }
    committed, err := stores.Persistent.List(ctx)
    if err != nil {
        return nil, fmt.Errorf("failed to list committed checkpoints: %w", err)
    }
    return checkpointInfosFromCommitted(committed), nil
}

func checkpointInfosFromCommitted(committed []checkpoint.CheckpointInfo) []CheckpointInfo {
    result := make([]CheckpointInfo, 0, len(committed))
    for _, c := range committed {
        result = append(result, CheckpointInfo{
            CheckpointID:     c.CheckpointID,
            SessionID:        c.SessionID,
            CreatedAt:        c.CreatedAt,
            CheckpointsCount: c.CheckpointsCount,
            FilesTouched:     c.FilesTouched,
            Agent:            c.Agent,
            IsTask:           c.IsTask,
            ToolUseID:        c.ToolUseID,
            SessionCount:     c.SessionCount,
            SessionIDs:       c.SessionIDs,
        })
    }
    sort.Slice(result, func(i, j int) bool {
        return result[i].CreatedAt.After(result[j].CreatedAt)
    })
    return result
}

6. Paths Constants

cmd/entire/cli/paths/paths.go: lines 29-42

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PromptFileName           = "prompt.txt"
    TranscriptFileName       = "full.jsonl"
    TranscriptFileNameLegacy = "full.log"
    // CompactTranscriptFileName is the compact transcript stored alongside
    // full.jsonl for each session. Not all checkpoints have a compact transcript.
    CompactTranscriptFileName = "transcript.jsonl"
    MetadataFileName          = "metadata.json"

ContentHashFileName       = "content_hash.txt"

// MetadataBranchName is the orphan branch used by manual-commit strategy to store metadata
const MetadataBranchName = "entire/checkpoints/v1"
```</result>
<usage><subagent_tokens>72000</subagent_tokens><tool_uses>23</tool_uses><duration_ms>105210</duration_ms></usage>
</task-notification>

3w ago·30.7s

Store/metadata API extracted. Two important facts for the plan: WriteOptions.Transcript is redact.RedactedBytes (so imports must call the redaction entry point — redact.JSONLBytes), and CheckpointInfo carries no Kind field today — I'll need to surface Kind through it so supported commands can label imported entries and unsupported ones can filter. Waiting on the transcript/redaction and enable-flow extractions.

a983d82e95724d450 REDACTED /private/tmp/claude-502/-Users-ninawork-entire-devenv-cli/b1e13e56-e9ae-469a-a30d-7c57d70e2f1f/tasks/a983d82e95724d450.output completed Agent "Extract transcript parsing + redaction API" finished A task-notification fires each time this agent stops with no live background children of its own. The user can send it another message and resume it, so the same task-id may notify more than once. Perfect! Now I have everything I need. Let me compile the final report with all exact verbatim signatures and code excerpts:

EXACT VERBATIM SIGNATURES & CODE EXCERPTS

1. Claude Code Agent Session Management

File: cmd/entire/cli/agent/claudecode/claude.go

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// Lines 265-267
func SanitizePathForClaude(path string) string {
    return nonAlphanumericRegex.ReplaceAllString(path, "-")
}
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// Lines 94-108
func (c *ClaudeCodeAgent) GetSessionDir(repoPath string) (string, error) {
    // Check for test environment override
    if override := os.Getenv("ENTIRE_TEST_CLAUDE_PROJECT_DIR"); override != "" {
        return override, nil
    }

homeDir, err := os.UserHomeDir()
    if err != nil {
        return "", fmt.Errorf("failed to get home directory: %w", err)
    }

projectDir := SanitizePathForClaude(repoPath)
    return filepath.Join(homeDir, ".claude", "projects", projectDir), nil
}
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// Lines 87-89
func (c *ClaudeCodeAgent) ResolveSessionFile(sessionDir, agentSessionID string) string {
    return filepath.Join(sessionDir, agentSessionID+".jsonl")
}

2. Transcript Parsing

File: cmd/entire/cli/transcript/parse.go

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// Lines 15-47
// ParseFromBytes parses transcript content from a byte slice.
// Uses bufio.Reader to handle arbitrarily long lines.
func ParseFromBytes(content []byte) ([]Line, error) {
    var lines []Line
    reader := bufio.NewReader(bytes.NewReader(content))

for {
        lineBytes, err := reader.ReadBytes('\n')
        if err != nil &amp;&amp; err != io.EOF {
            return nil, fmt.Errorf("failed to read transcript: %w", err)
        }

// Handle empty line or EOF without content
        if len(lineBytes) == 0 {
            if err == io.EOF {
                break
            }
            continue
        }

var line Line
        if err := json.Unmarshal(lineBytes, &amp;line); err == nil {
            normalizeLineType(&amp;line)
            lines = append(lines, line)
        }

if err == io.EOF {
            break
        }
    }

return lines, nil
}
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// Lines 114-143
// SliceFromLine returns the content starting from line number `startLine` (0-indexed).
// This is used to extract only the checkpoint-specific portion of a cumulative transcript.
// For example, if startLine is 2, lines 0 and 1 are skipped and the result starts at line 2.
// Returns empty slice if startLine exceeds the number of lines.
func SliceFromLine(content []byte, startLine int) []byte {
    if len(content) == 0 || startLine &lt;= 0 {
        return content
    }

// Find the byte offset where startLine begins
    lineCount := 0
    offset := 0
    for i, b := range content {
        if b == '\n' {
            lineCount++
            if lineCount == startLine {
                offset = i + 1
                break
            }
        }
    }

// If we didn't find enough lines, return empty
    if lineCount &lt; startLine {
        return nil
    }

// If offset is beyond content, return empty
    if offset &gt;= len(content) {
        return nil
    }

return content[offset:]
}

File: cmd/entire/cli/transcript/types.go

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// Lines 19-27
// Line represents a single line in a Claude Code or Cursor JSONL transcript.
// Claude Code uses "type" to distinguish user/assistant messages.
// Cursor uses "role" for the same purpose.
type Line struct {
    Type    string          `json:"type"`
    Role    string          `json:"role,omitempty"`
    UUID    string          `json:"uuid"`
    Message json.RawMessage `json:"message"`
}

User prompts detected by checking:

  • line.Type == "user" (normalized from role field if type is empty, see normalizeLineType at line 104-108 of parse.go)
  • Extract content via ExtractUserContent(line.Message) (lines 149-178 of parse.go)

3. Token Usage & Spawned Agents

File: cmd/entire/cli/agent/claudecode/transcript.go

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// Lines 140-183
// CalculateTokenUsage calculates token usage from a Claude Code transcript.
// This is specific to Claude/Anthropic's API format where each assistant message
// contains a usage object with input_tokens, output_tokens, and cache tokens.
//
// Due to streaming, multiple transcript rows may share the same message.id.
// We deduplicate by taking the row with the highest output_tokens for each message.id.
func CalculateTokenUsage(transcript []TranscriptLine) *agent.TokenUsage {
    // Map from message.id to the usage with highest output_tokens
    usageByMessageID := make(map[string]messageUsage)

for _, line := range transcript {
        if line.Type != envelopeTypeAssistant {
            continue
        }

var msg messageWithUsage
        if err := json.Unmarshal(line.Message, &amp;msg); err != nil {
            continue
        }

if msg.ID == "" {
            continue
        }

// Keep the entry with highest output_tokens (final streaming state)
        existing, exists := usageByMessageID[msg.ID]
        if !exists || msg.Usage.OutputTokens &gt; existing.OutputTokens {
            usageByMessageID[msg.ID] = msg.Usage
        }
    }

// Sum up all unique messages
    usage := &amp;agent.TokenUsage{
        APICallCount: len(usageByMessageID),
    }
    for _, u := range usageByMessageID {
        usage.InputTokens += u.InputTokens
        usage.CacheCreationTokens += u.CacheCreationInputTokens
        usage.CacheReadTokens += u.CacheReadInputTokens
        usage.OutputTokens += u.OutputTokens
    }

return usage
}
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// Lines 185-198
// CalculateTokenUsageFromFile calculates token usage from a Claude Code transcript file.
// If startLine &gt; 0, only considers lines from startLine onwards.
func CalculateTokenUsageFromFile(path string, startLine int) (*agent.TokenUsage, error) {
    if path == "" {
        return &amp;agent.TokenUsage{}, nil
    }

lines, err := transcript.ParseFromFileAtLine(path, startLine)
    if err != nil {
        return nil, err //nolint:wrapcheck // caller adds context
    }

return CalculateTokenUsage(lines), nil
}
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// Lines 200-269
// ExtractSpawnedAgentIDs extracts agent IDs from Task tool results in a transcript.
// When a Task tool completes, the tool_result contains "agentId: &lt;id&gt;" in its content.
// Returns a map of agentID -&gt; toolUseID for all spawned agents.
func ExtractSpawnedAgentIDs(transcript []TranscriptLine) map[string]string {
    agentIDs := make(map[string]string)

for _, line := range transcript {
        if line.Type != "user" {
            continue
        }

// Parse as array of content blocks (tool results)
        var contentBlocks []struct {
            Type      string          `json:"type"`
            ToolUseID string          `json:"tool_use_id"`
            Content   json.RawMessage `json:"content"`
        }

var msg struct {
            Content json.RawMessage `json:"content"`
        }
        if err := json.Unmarshal(line.Message, &amp;msg); err != nil {
            continue
        }

if err := json.Unmarshal(msg.Content, &amp;contentBlocks); err != nil {
            continue
        }

for _, block := range contentBlocks {
            if block.Type != "tool_result" {
                continue
            }

// Content can be a string or array of text blocks
            var textContent string

// Try as array of text blocks first
            var textBlocks []struct {
                Type string `json:"type"`
                Text string `json:"text"`
            }
            if err := json.Unmarshal(block.Content, &amp;textBlocks); err == nil {
                var textContentSb361 strings.Builder
                for _, tb := range textBlocks {
                    if tb.Type == "text" {
                        textContentSb361.WriteString(tb.Text + "\n")
                    }
                }
                textContent += textContentSb361.String()
            } else {
                // Try as plain string
                var str string
                if err := json.Unmarshal(block.Content, &amp;str); err == nil {
                    textContent = str
                }
            }

// Look for agentId in the text. Drop any ID that isn't path-safe:
            // callers build agent-&lt;id&gt;.jsonl from it and read that file, so this
            // is the choke point that keeps the path inside subagentsDir,
            // independent of extractAgentIDFromText's character handling.
            if agentID := extractAgentIDFromText(textContent); agentID != "" &amp;&amp; validation.ValidateAgentID(agentID) == nil {
                agentIDs[agentID] = block.ToolUseID
            }
        }
    }

return agentIDs
}
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// Lines 383-423
func (c *ClaudeCodeAgent) CalculateTotalTokenUsage(transcriptData []byte, startLine int, subagentsDir string) (*agent.TokenUsage, error) {
    if len(transcriptData) == 0 {
        return &amp;agent.TokenUsage{}, nil
    }

// Slice to the relevant portion and parse
    sliced := transcript.SliceFromLine(transcriptData, startLine)
    parsed, err := transcript.ParseFromBytes(sliced)
    if err != nil {
        return nil, fmt.Errorf("failed to parse transcript: %w", err)
    }

// Calculate token usage from parsed transcript
    mainUsage := CalculateTokenUsage(parsed)

// Extract spawned agent IDs from the same parsed transcript
    agentIDs := ExtractSpawnedAgentIDs(parsed)

// Calculate subagent token usage (skip when subagentsDir is empty to avoid reading from cwd)
    if len(agentIDs) &gt; 0 &amp;&amp; subagentsDir != "" {
        subagentUsage := &amp;agent.TokenUsage{}
        for agentID := range agentIDs {
            agentPath := filepath.Join(subagentsDir, fmt.Sprintf("agent-%s.jsonl", agentID))
            agentUsage, err := CalculateTokenUsageFromFile(agentPath, 0)
            if err != nil {
                // Agent transcript may not exist yet or may have been cleaned up
                continue
            }
            subagentUsage.InputTokens += agentUsage.InputTokens
            subagentUsage.CacheCreationTokens += agentUsage.CacheCreationTokens
            subagentUsage.CacheReadTokens += agentUsage.CacheReadTokens
            subagentUsage.OutputTokens += agentUsage.OutputTokens
            subagentUsage.APICallCount += agentUsage.APICallCount
        }
        if subagentUsage.APICallCount &gt; 0 {
            mainUsage.SubagentTokens = subagentUsage
        }
    }

return mainUsage, nil
}

File: cmd/entire/cli/agent/types/token_usage.go

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// Lines 3-18
// TokenUsage represents aggregated token usage for a checkpoint.
// This is agent-agnostic and can be populated by any agent that tracks token usage.
type TokenUsage struct {
    // InputTokens is the number of input tokens (fresh, not from cache)
    InputTokens int `json:"input_tokens"`
    // CacheCreationTokens is tokens written to cache (billable at cache write rate)
    CacheCreationTokens int `json:"cache_creation_tokens"`
    // CacheReadTokens is tokens read from cache (discounted rate)
    CacheReadTokens int `json:"cache_read_tokens"`
    // OutputTokens is the number of output tokens generated
    OutputTokens int `json:"output_tokens"`
    // APICallCount is the number of API calls made
    APICallCount int `json:"api_call_count"`
    // SubagentTokens contains token usage from spawned subagents (if any)
    SubagentTokens *TokenUsage `json:"subagent_tokens,omitempty"`
}

4. Timestamp & Prompt Extraction

File: cmd/entire/cli/paths/transcript.go

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// Lines 48-67
// ParseTimestampFromJSONL extracts the timestamp from a JSONL line.
// Returns zero time if the line is empty or doesn't contain a valid timestamp.
func ParseTimestampFromJSONL(line string) time.Time {
    if line == "" {
        return time.Time{}
    }

var entry struct {
        Timestamp string `json:"timestamp"`
    }
    if err := json.Unmarshal([]byte(line), &amp;entry); err != nil {
        return time.Time{}
    }

t, err := time.Parse(time.RFC3339, entry.Timestamp)
    if err != nil {
        return time.Time{}
    }
    return t
}

Prompt extraction in strategy code — File: cmd/entire/cli/strategy/manual_commit_condensation.go

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// Lines 1008-1088 (excerpt showing user prompt extraction)
// extractUserPrompts extracts all user prompts from transcript content.
// Returns prompts with IDE context tags stripped (e.g., &lt;ide_opened_file&gt;).
func extractUserPrompts(agentType types.AgentType, content string) []string {
    // ... handles multiple agent types ...
    // For Claude Code and other JSONL-based agents:
    return extractUserPromptsFromLines(strings.Split(content, "\n"))
}

// extractUserPromptsFromLines extracts user prompts from JSONL transcript lines.
// IDE-injected context tags (like &lt;ide_opened_file&gt;) are stripped from the results.
func extractUserPromptsFromLines(lines []string) []string {
    var prompts []string
    // ... uses transcript.Line parsing with Type=="user" check ...
}

5. Redaction Pipeline

File: redact/redact.go

Redaction entry point for JSONL transcripts (lines 503-515):

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// Lines 503-515
// JSONLBytes redacts secrets in JSONL-formatted byte content and returns
// the result as RedactedBytes, certifying the output has been through redaction.
func JSONLBytes(b []byte) (RedactedBytes, error) {
    s := string(b)
    redacted, err := JSONLContent(s)
    if err != nil {
        return RedactedBytes{}, err
    }
    if redacted == s {
        return RedactedBytes{data: b}, nil
    }
    return RedactedBytes{data: []byte(redacted)}, nil
}

File: cmd/entire/cli/strategy/manual_commit_condensation.go

Redaction is called at lines 382 within redactSessionTranscript:

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// Lines 370-388
// redactSessionTranscript redacts the transcript once for use by both the compact
// package and the checkpoint stores. Returns the redacted bytes and the duration
// of the redaction operation for perf logging.
func redactSessionTranscript(ctx context.Context, transcript []byte) (redact.RedactedBytes, time.Duration, error) {
    start := time.Now()
    _, span := perf.Start(ctx, "redact_transcript")
    defer span.End()

if len(transcript) == 0 {
        return redact.RedactedBytes{}, time.Since(start), nil
    }

redacted, err := redactSessionJSONLBytes(ctx, transcript)
    if err != nil {
        span.RecordError(err)
        return redact.RedactedBytes{}, time.Since(start), fmt.Errorf("failed to redact transcript secrets: %w", err)
    }
    return redacted, time.Since(start), nil
}

The module-level var redactSessionJSONLBytes (line 117):

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var redactSessionJSONLBytes = func(_ context.Context, b []byte) (redact.RedactedBytes, error) {
    return redact.JSONLBytes(b)
}

6. Compact Transcript Builder

File: cmd/entire/cli/transcript/compact/compact.go

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// Lines 71-120
// Compact converts a full.jsonl transcript into the condensed transcript.jsonl format.
// The input must be pre-redacted (via redact.JSONLBytes or
// redact.AlreadyRedacted for trusted sources).
//
// The output format puts version, agent, and cli_version on every line,
// merges streaming assistant fragments with the same message ID, and inlines
// tool results into the preceding assistant's tool_use blocks:
//
//	{"v":1,"agent":"claude-code","cli_version":"0.42.0","type":"user","ts":"...","content":"..."}
//	{"v":1,"agent":"claude-code","cli_version":"0.42.0","type":"assistant","ts":"...","id":"msg_xxx","content":[{"type":"text","text":"..."},{"type":"tool_use","id":"...","name":"...","input":{...},"result":{"output":"...","status":"..."}}]}
func Compact(redacted redact.RedactedBytes, opts MetadataFields) ([]byte, error) {
    content := redacted.Bytes()

// Formats that need detection on raw content before line truncation:
    // - Single-object formats (OpenCode, Gemini): SliceFromLine would cut
    //   a JSON object mid-value. They handle StartLine as a message-index offset.
    // - Codex: session_meta header is only on the first line. Codex handles
    //   StartLine as a response_item index offset.
    if isOpenCodeFormat(content) {
        return compactOpenCode(content, opts)
    }

if isGeminiFormat(content) {
        return compactGemini(content, opts)
    }

// pi: detect on the raw header line. compactPi handles StartLine itself.
    if isPiFormat(content) {
        return compactPi(content, opts)
    }

if isCodexFormat(content) {
        return compactCodex(content, opts)
    }

truncated := transcript.SliceFromLine(content, opts.StartLine)
    if truncated == nil {
        truncated = []byte{}
    }

if isCopilotFormat(truncated) {
        return compactCopilot(truncated, opts)
    }

if isDroidFormat(truncated) {
        return compactDroid(truncated, opts)
    }

return compactJSONL(truncated, opts)
}

7. Subagents Directory Location

File: cmd/entire/cli/strategy/manual_commit_hooks.go

Line 1915 shows how subagents dir is constructed for a Claude Code session:

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// Line 1915
subagentsDir := filepath.Join(filepath.Dir(state.TranscriptPath), state.SessionID, "subagents")

Context (lines 1910-1946):

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var modifiedFiles []string

// For Claude Code, use ExtractAllModifiedFiles which parses the main transcript
// AND subagent transcripts in a single pass, avoiding redundant parsing.
if state.AgentType == agent.AgentTypeClaudeCode {
    subagentsDir := filepath.Join(filepath.Dir(state.TranscriptPath), state.SessionID, "subagents")
    transcriptData, readErr := os.ReadFile(state.TranscriptPath)
    if readErr != nil {
        logging.Debug(logCtx, "extractModifiedFilesFromLiveTranscript: failed to read transcript",
            slog.String("session_id", state.SessionID),
            slog.String("error", readErr.Error()),
        )
    } else {
        // TODO: fix when we refactor this area.
        // rather than instantiating claude specifically, we should iterate agents.
        c := &amp;claudecode.ClaudeCodeAgent{}
        allFiles, extractErr := c.ExtractAllModifiedFiles(transcriptData, offset, subagentsDir)
        if extractErr != nil {
            logging.Debug(logCtx, "extractModifiedFilesFromLiveTranscript: extraction failed",
                slog.String("session_id", state.SessionID),
                slog.String("error", extractErr.Error()),
            )
        } else {
            modifiedFiles = allFiles
        }
    }
}

8. Session Data Extraction Container

File: cmd/entire/cli/strategy/manual_commit_types.go

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// Lines 62-69
type ExtractedSessionData struct {
    Transcript          []byte   // Full transcript content for the session
    FullTranscriptLines int      // Total line count in full transcript
    Prompts             []string // User prompts from the current checkpoint portion
    FilesTouched        []string
    TokenUsage          *agent.TokenUsage  // Token usage calculated from transcript (since CheckpointTranscriptStart)
    SkillEvents         []agent.SkillEvent // Skill events detected from transcript data
}

--- <subagent_tokens>64464</subagent_tokens><tool_uses>39</tool_uses><duration_ms>118704</duration_ms>

3w ago

ab421c8a35ccd3e81 toolu\_01UQ4tb4v2sK4yvgDpkykYVE /private/tmp/claude-502/-Users-ninawork-entire-devenv-cli/b1e13e56-e9ae-469a-a30d-7c57d70e2f1f/tasks/ab421c8a35ccd3e81.output completed Agent "Extract enable flow + command registration + read commands" finished A task-notification fires each time this agent stops with no live background children of its own. The user can send it another message and resume it, so the same task-id may notify more than once. Perfect! Now I have all the information needed. Let me compile the verbatim code excerpts with exact file:line references.

VERBATIM CODE EXCERPTS FOR IMPLEMENTATION PLAN

1. Enable Interactive Flow

cmd/entire/cli/setup.go:1054-1174 — runEnableInteractive signature and telemetry prompt section:

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// cmd/entire/cli/setup.go:1054-1174
func runEnableInteractive(ctx context.Context, w io.Writer, agents []agent.Agent, opts EnableOptions) error {
    // Uninstall hooks for agents that were previously active but are no longer selected
    if err := uninstallDeselectedAgentHooks(ctx, w, agents); err != nil {
        return fmt.Errorf("failed to clean up deselected agents: %w", err)
    }

// Setup agent hooks for all selected agents
    for _, ag := range agents {
        if _, err := setupAgentHooks(ctx, w, ag, opts.LocalDev, opts.ForceHooks); err != nil {
            return fmt.Errorf("failed to setup %s hooks: %w", ag.Type(), err)
        }
    }

// Setup .entire directory
    if _, err := setupEntireDirectory(ctx); err != nil {
        return fmt.Errorf("failed to setup .entire directory: %w", err)
    }

// Load existing settings to preserve other options (like strategy_options.push)
    settings, err := LoadEntireSettings(ctx)
    if err != nil {
        // If we can't load, start with defaults
        settings = &amp;EntireSettings{}
    }
    // Update the specific fields
    settings.Enabled = true
    if opts.LocalDev {
        settings.LocalDev = true
    }
    if opts.AbsoluteGitHookPath {
        settings.AbsoluteGitHookPath = true
    }

// Auto-enable external_agents if any selected agent is external.
    for _, ag := range agents {
        if external.IsExternal(ag) {
            settings.ExternalAgents = true
            break
        }
    }

opts.applyStrategyOptions(settings)

// Determine which settings file to write to
    // First run always creates settings.json (no prompt)
    entireDirAbs, err := paths.AbsPath(ctx, paths.EntireDir)
    if err != nil {
        entireDirAbs = paths.EntireDir // Fallback to relative
    }
    shouldUseLocal, showNotification := determineSettingsTarget(entireDirAbs, opts.UseLocalSettings, opts.UseProjectSettings)

if showNotification {
        fmt.Fprintln(w, "Info: Project settings exist. Saving to settings.local.json instead.")
        fmt.Fprintln(w, "  Use --project to update the project settings file.")
    }

// Save settings to the appropriate file.
    targetFile := EntireSettingsFile
    if shouldUseLocal {
        targetFile = EntireSettingsLocalFile
    }
    saveSettings := func() error {
        return saveSettingsToTarget(ctx, settings, targetFile)
    }
    if err := saveSettings(); err != nil {
        return fmt.Errorf("failed to save settings: %w", err)
    }

// Use settings values (merged from existing config + flags) for hook installation
    // This ensures re-running `entire enable` without flags preserves existing settings
    if _, err := strategy.InstallGitHook(ctx, true, settings.LocalDev, settings.AbsoluteGitHookPath); err != nil {
        return fmt.Errorf("failed to install git hooks: %w", err)
    }
    strategy.CheckAndWarnHookManagers(ctx, w, settings.LocalDev, settings.AbsoluteGitHookPath)
    fmt.Fprintln(w, "  ✓ Installed hooks")

configDisplay := configDisplayProject
    if shouldUseLocal {
        configDisplay = configDisplayLocal
    }
    fmt.Fprintln(w, "  ✓ Configured project")
    fmt.Fprintf(w, "    %s\n", configDisplay)

var vercelPromptFn func() (bool, error)
    if opts.Yes {
        vercelPromptFn = func() (bool, error) { return true, nil }
    }
    if _, err := maybePromptVercelDeploymentDisable(ctx, w, targetFile, vercelPromptFn); err != nil {
        return err
    }

// Ask about telemetry consent (only if not already asked).
    // --yes skips the interactive prompt but still respects --telemetry=false
    // and ENTIRE_TELEMETRY_OPTOUT — it only auto-answers the interactive question.
    if opts.Yes {
        if !opts.Telemetry || os.Getenv("ENTIRE_TELEMETRY_OPTOUT") != "" {
            f := false
            settings.Telemetry = &amp;f
        } else if settings.Telemetry == nil {
            t := true
            settings.Telemetry = &amp;t
        }
    } else if err := promptTelemetryConsent(settings, opts.Telemetry); err != nil {
        return fmt.Errorf("telemetry consent: %w", err)
    }
    // Save again to persist telemetry choice
    if err := saveSettings(); err != nil {
        return fmt.Errorf("failed to save settings: %w", err)
    }

if err := strategy.EnsureSetup(ctx); err != nil {
        return fmt.Errorf("failed to setup strategy: %w", err)
    }

if opts.SuppressDoneMessage {
        // Bootstrap finalize will print its own completion summary after
        // making the initial commit and pushing.
        return nil
    }

fmt.Fprintln(w, "\nReady.")

// Note about empty repos at the end, after setup is complete
    if repo, err := strategy.OpenRepository(ctx); err == nil {
        defer repo.Close()
        if strategy.IsEmptyRepository(repo) {
            fmt.Fprintln(w)
            fmt.Fprintln(w, "Note: Session checkpoints require at least one commit. To get started,")
            fmt.Fprintln(w, "commit the configuration files (e.g. .entire/, .claude/).")
        }
    }

return nil
}

cmd/entire/cli/setup.go:1868-1909 — promptTelemetryConsent pattern:

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// cmd/entire/cli/setup.go:1868-1909
func promptTelemetryConsent(settings *EntireSettings, telemetryFlag bool) error {
    // Handle --telemetry=false flag first (always overrides existing setting)
    if !telemetryFlag {
        f := false
        settings.Telemetry = &amp;f
        return nil
    }

// Skip if already asked
    if settings.Telemetry != nil {
        return nil
    }

// Skip if env var disables telemetry (record as disabled)
    if os.Getenv("ENTIRE_TELEMETRY_OPTOUT") != "" {
        f := false
        settings.Telemetry = &amp;f
        return nil
    }

if err := form.Run(); err != nil {
        return fmt.Errorf("telemetry prompt: %w", err)
    }

settings.Telemetry = &amp;consent
    return nil
}

cmd/entire/cli/setup.go:57-73 — EnableOptions struct with Yes field:

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// cmd/entire/cli/setup.go:57-73
type EnableOptions struct {
    LocalDev            bool
    UseLocalSettings    bool
    UseProjectSettings  bool
    ForceHooks          bool
    SkipPushSessions    bool
    CheckpointRemote    string
    Telemetry           bool
    AbsoluteGitHookPath bool
    // SuppressDoneMessage tells `runEnableInteractive` to skip its final
    // "Ready." line and the "commit the configuration files" hint. Set
    // when the caller is running the bootstrap flow, which takes over
    // presentation of the final state (commit, push, done).
    SuppressDoneMessage bool
    Yes                 bool
}

2. Form/Interactive Helpers

cmd/entire/cli/utils.go:24-28 — NewAccessibleForm signature:

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// cmd/entire/cli/utils.go:24-28
// NewAccessibleForm creates a new huh form with Entire's standard theme,
// switching to accessibility mode when ACCESSIBLE is set.
func NewAccessibleForm(groups ...*huh.Group) *huh.Form {
    return uiform.New(groups...)
}

cmd/entire/cli/interactive/interactive.go:21-59 — CanPromptInteractively signature and full function:

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// cmd/entire/cli/interactive/interactive.go:21-59
// CanPromptInteractively reports whether interactive confirmation prompts
// (huh forms, yes/no questions, etc.) can be shown. Returns false in CI,
// agent subprocesses that inherit a TTY but can't respond to prompts,
// and other environments without a controlling TTY.
//
// Precedence (first match wins):
//  1. EnvTestTTY=1 forces interactive ON; any other non-empty value forces OFF.
//  2. testing.Testing() — `go test` runs default to OFF so in-process tests
//     don't hang on developer terminals that happen to have a real /dev/tty.
//     Subprocess tests must spawn via execx.NonInteractive (or set EnvTestTTY).
//  3. Agent sentinels — vendor-set by agent subprocesses.
//  4. CI=&lt;non-empty-non-false&gt; — de-facto CI convention.
//  5. /dev/tty probe.
func CanPromptInteractively() bool {
    if v := os.Getenv(EnvTestTTY); v != "" {
        return v == "1"
    }
    if testing.Testing() {
        return false
    }
    if isAgentSubprocessEnv() {
        return false
    }
    // CI=&lt;non-empty&gt; is the de-facto CI-provider convention (GitHub Actions,
    // CircleCI, GitLab, Travis, Buildkite). Self-hosted runners expose /dev/tty,
    // so the probe below isn't enough — an interactive prompt on CI hangs.
    // CI=false is the `is-ci` escape hatch for developers who need to override
    // an inherited value.
    if v := os.Getenv("CI"); v != "" &amp;&amp; v != "false" {
        return false
    }

tty, err := os.OpenFile("/dev/tty", os.O_RDWR, 0)
    if err != nil {
        return false
    }
    _ = tty.Close()
    return true
}

3. Hidden/Labs Command Registration

cmd/entire/cli/labs.go:70-90 — newLabsCmd constructor:

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// cmd/entire/cli/labs.go:70-90
func newLabsCmd() *cobra.Command {
    cmd := &amp;cobra.Command{
        Use:   "labs",
        Short: "Explore experimental Entire workflows",
        Long:  labsOverview(),
        Args: func(cmd *cobra.Command, args []string) error {
            if len(args) == 0 {
                return nil
            }
            err := fmt.Errorf("unknown labs topic %q", args[0])
            fmt.Fprintf(cmd.ErrOrStderr(),
                "%v\n\nRun `entire labs` to see available experimental commands, or run `entire review --help` for command-specific help.\n",
                err)
            return NewSilentError(err)
        },
        Run: func(cmd *cobra.Command, _ []string) {
            fmt.Fprint(cmd.OutOrStdout(), labsOverview())
        },
    }
    return cmd
}

cmd/entire/cli/root.go:84-91 — Command registration (labs added to root):

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// cmd/entire/cli/root.go:84-91
    // Noun groups (canonical homes for subcommands).
    cmd.AddCommand(newSessionsCmd())        // 'session' (with 'sessions' as Cobra alias)
    cmd.AddCommand(newCheckpointGroupCmd()) // 'checkpoint' / 'cp' / 'checkpoints'
    cmd.AddCommand(newTokensGroupCmd())     // 'tokens'
    cmd.AddCommand(newAgentGroupCmd())      // 'agent'
    cmd.AddCommand(newAuthCmd())            // 'auth'
    cmd.AddCommand(newDoctorCmd())          // 'doctor' (group: trace/logs/bundle)
    cmd.AddCommand(newLabsCmd())            // 'labs' (experimental workflow discovery)
    cmd.AddCommand(newPluginGroupCmd())     // 'plugin' (managed install/list/remove)

cmd/entire/cli/tokens_profile.go:52-72 — newTokensGroupCmd (parent group) that adds profile subcommand:

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// cmd/entire/cli/tokens_profile.go:52-72
func newTokensGroupCmd() *cobra.Command {
    cmd := &amp;cobra.Command{
        Use:    "tokens",
        Short:  "Analyze token usage across sessions and checkpoints",
        Hidden: true,
        Long: `Analyze token usage across sessions and checkpoints.

Commands:
profile  Aggregate token usage across committed checkpoints

Examples:
entire tokens profile
entire tokens profile --json`,
        RunE: func(cmd *cobra.Command, _ []string) error {
            return cmd.Help()
        },
    }

cmd.AddCommand(newTokensProfileCmd())
    return cmd
}

cmd/entire/cli/tokens_profile.go:74-105 — newTokensProfileCmd (hidden subcommand):

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// cmd/entire/cli/tokens_profile.go:74-105
func newTokensProfileCmd() *cobra.Command {
    var jsonFlag bool
    var limitFlag int
    var allFlag bool

cmd := &amp;cobra.Command{
        Use:   "profile",
        Short: "Aggregate token usage and recommendations across checkpoint history",
        Long: `Aggregate token usage and recommendations across committed checkpoint history.

The profile reads committed checkpoint metadata only. It does not inspect
transcripts or source files, so it is deterministic and avoids adding token
cost while diagnosing token usage. By default it scans the latest 50 committed
checkpoints; use --limit or --all to change the scope.`,
        Args: cobra.NoArgs,
        RunE: func(cmd *cobra.Command, _ []string) error {
            limit := limitFlag
            if allFlag {
                limit = 0
            } else if limit &lt;= 0 {
                return errors.New("--limit must be positive unless --all is used")
            }
            return runTokensProfile(cmd.Context(), cmd, jsonFlag, limit)
        },
    }

cmd.Flags().BoolVar(&amp;jsonFlag, "json", false, "Output as JSON")
    cmd.Flags().IntVar(&amp;limitFlag, "limit", 50, "Maximum committed checkpoints to analyze")
    cmd.Flags().BoolVar(&amp;allFlag, "all", false, "Analyze all committed checkpoints")
    cmd.MarkFlagsMutuallyExclusive("limit", "all")
    return cmd
}

cmd/entire/cli/aliascmd.go:5-12 — hideAsAlias helper for hidden shortcuts:

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// cmd/entire/cli/aliascmd.go:5-12
// hideAsAlias marks cmd as a hidden top-level shortcut that prints a one-line
// hint pointing at the canonical command. Cobra's Deprecated field renders the
// hint to stderr on every invocation while keeping the command functional.
func hideAsAlias(cmd *cobra.Command, canonical string) *cobra.Command {
    cmd.Hidden = true
    cmd.Deprecated = "use '" + canonical + "' instead"
    return cmd
}

4. Checkpoint Read Commands

cmd/entire/cli/checkpoint_group.go:54-75 — newCheckpointListCmd (calls runExplainBranchWithFilter):

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// cmd/entire/cli/checkpoint_group.go:54-75
// newCheckpointListCmd wraps the existing branch-default list view.
func newCheckpointListCmd() *cobra.Command {
    var sessionFlag string
    var noPagerFlag bool

cmd := &amp;cobra.Command{
        Use:   "list",
        Short: "List checkpoints on the current branch",
        Long: `List checkpoints on the current branch.

Optionally filter by session ID with --session.`,
        RunE: func(cmd *cobra.Command, _ []string) error {
            if checkDisabledGuard(cmd.Context(), cmd.OutOrStdout()) {
                return nil
            }
            return runExplainBranchWithFilter(cmd.Context(), cmd.OutOrStdout(), noPagerFlag, sessionFlag)
        },
    }

cmd.Flags().StringVar(&amp;sessionFlag, "session", "", "Filter checkpoints by session ID (or prefix)")
    cmd.Flags().BoolVar(&amp;noPagerFlag, "no-pager", false, "Disable pager output")
    return cmd
}

cmd/entire/cli/explain.go:2038-2068 — getBranchCheckpoints that calls store.List(ctx):

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// cmd/entire/cli/explain.go:2038-2068
func getBranchCheckpoints(ctx context.Context, repo *git.Repository, limit int) ([]strategy.RewindPoint, error) {
    // Warn (once per process) if metadata branches are disconnected
    strategy.WarnIfMetadataDisconnected()

stores, err := checkpoint.Open(ctx, repo, checkpoint.OpenOptions{})
    if err != nil {
        return nil, fmt.Errorf("open checkpoint store: %w", err)
    }
    store := stores.Persistent

// Get all committed checkpoints for lookup.
    committedInfos, err := store.List(ctx)
    if err != nil {
        committedInfos = nil // Continue without committed checkpoints
    }

// Build map of checkpoint ID -&gt; committed info
    committedByID := make(map[id.CheckpointID]checkpoint.CheckpointInfo)
    for _, info := range committedInfos {
        if !info.CheckpointID.IsEmpty() {
            committedByID[info.CheckpointID] = info
        }
    }

head, err := repo.Head()
    if err != nil {
        // Unborn HEAD (no commits yet) - return empty list instead of erroring
        if errors.Is(err, plumbing.ErrReferenceNotFound) {
            return []strategy.RewindPoint{}, nil
        }
        return nil, fmt.Errorf("failed to get HEAD: %w", err)
    }

cmd/entire/cli/tokens_profile.go:107-133 — runTokensProfile that calls store.List(ctx):

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// cmd/entire/cli/tokens_profile.go:107-133
func runTokensProfile(ctx context.Context, cmd *cobra.Command, jsonOutput bool, limit int) error {
    repo, err := openRepository(ctx)
    if err != nil {
        cmd.SilenceUsage = true
        fmt.Fprintln(cmd.ErrOrStderr(), "Not a git repository.")
        return NewSilentError(err)
    }
    defer repo.Close()

store := checkpoint.NewGitStore(repo, checkpoint.ResolveRefs(ctx))
    store.SetBlobFetcher(FetchBlobsByHash)
    infos, err := store.List(ctx)
    if err != nil {
        return fmt.Errorf("failed to list checkpoints: %w", err)
    }

report, err := buildTokensProfileReport(ctx, store, infos, limit)
    if err != nil {
        return err
    }

if jsonOutput {
        return writeTokensProfileJSON(cmd.OutOrStdout(), report)
    }
    writeTokensProfileText(cmd.OutOrStdout(), report)
    return nil
}

cmd/entire/cli/search_cmd.go:34-200 — newSearchCmd (search reads from API, not local checkpoint store directly, but registered as hidden):

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// cmd/entire/cli/search_cmd.go:34-200
    cmd := &amp;cobra.Command{
        Use:   "search [query]",
        Short: "Search checkpoints, commits, and sessions using semantic and keyword matching",
        Long: `Search checkpoints, commits, and sessions using hybrid search (semantic + keyword),
powered by the Entire search service.

Requires authentication via 'entire login' (GitHub device flow).

By default, results are scoped to the current repository. Use --all-repos to
search across all accessible repos.

Run without arguments to open an interactive search. Results are
displayed in an interactive table. Use --json for machine-readable output.

CLI queries also support inline filters like author:&lt;name&gt;, date:&lt;week|month&gt;,
branch:&lt;name&gt;, repo:&lt;owner/name&gt;, and repo:* to search all accessible repos.`,
        Args:   cobra.ArbitraryArgs,
        Hidden: true,
        RunE: func(cmd *cobra.Command, args []string) error {
            // ... rest of implementation
        },
    }

cmd/entire/cli/strategy/cleanup.go:314-332 — cpStores.Persistent.List(ctx) call (unsupported consumer that must filter imported checkpoints):

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// cmd/entire/cli/strategy/cleanup.go:314-332
    // Get all committed checkpoints from the configured read ref to find which sessions have checkpoints
    cpStores, err := checkpoint.Open(ctx, repo, checkpoint.OpenOptions{})
    if err != nil {
        return nil, fmt.Errorf("open checkpoint store: %w", err)
    }

sessionsWithCheckpoints := make(map[string]bool)
    checkpoints, listErr := cpStores.Persistent.List(ctx)
    if listErr == nil {
        for _, cp := range checkpoints {
            // cp.SessionID is the most-recent session in a multi-session checkpoint;
            // cp.SessionIDs lists every session that contributed. Track all of them so
            // archived sessions of condensed checkpoints aren't flagged as orphaned.
            sessionsWithCheckpoints[cp.SessionID] = true
            for _, sid := range cp.SessionIDs {
                sessionsWithCheckpoints[sid] = true
            }
        }
    }
```</result>
<usage><subagent_tokens>70244</subagent_tokens><tool_uses>30</tool_uses><duration_ms>107934</duration_ms></usage>
</task-notification>

3w ago·6m·1 call

Plan complete and saved to docs/superpowers/plans/2026-06-25-import-claude-code-transcripts.md.

It's 12 tasks, each TDD with an independently testable deliverable:

  1. entire/imports/v1 ref topology (never in Push)
  2. Provenance + Kind="imported" + Imported flag in the metadata contract
  3. Wire provenance/flag through the writer + surface on List
  4. Deterministic per-turn checkpoint IDs (idempotency)
  5. Transcript discovery (repo→~/.claude/projects, one-month lookback, --session)
  6. Per-turn split with token usage bounded to the next turn + subagent rollup
  7. Importer orchestrator (redact → write → idempotent skip → dry-run)
  8. Read union + (imported) label for list/explain/tokens; v1-only paths (cleanup) stay clean
  9. Rewind refusal for imported checkpoints
  10. Hidden entire import claude-code command under labs
  11. Enable-time opt-in prompt ("from the past month", default No, skips non-interactive/--yes)
  12. End-to-end integration test + full mise run check

Self-review passed; every spec requirement maps to a task. Three inline notes flag local APIs the implementer must read one file to confirm (the id.CheckpointID hex constructor, transcript.ExtractUserContent's exact signature, the rewind entrypoint name) rather than guessing them.

I did not commit the spec or plan — say the word and I'll commit both.

Two execution options:

1. Subagent-Driven (recommended) — I dispatch a fresh subagent per task, review between tasks, fast iteration.

2. Inline Execution — I execute tasks in this session via executing-plans, batched with checkpoints for your review.

Which approach?

2

3w ago·15.4s·1 call

Base directory for this skill: /Users/ninawork/.claude/plugins/cache/claude-plugins-official/superpowers/6.0.3/skills/executing-plans

Executing Plans

Overview

Load plan, review critically, execute all tasks, report when complete.

Announce at start: "I'm using the executing-plans skill to implement this plan."

Note: Tell your human partner that Superpowers works much better with access to subagents. The quality of its work will be significantly higher if run on a platform with subagent support (Claude Code, Codex CLI, Codex App, Copilot CLI, and Gemini CLI all qualify; see the per-platform tool refs in ../using-superpowers/references/). If subagents are available, use superpowers:subagent-driven-development instead of this skill.

The Process

Step 1: Load and Review Plan

  1. Read plan file
  2. Review critically - identify any questions or concerns about the plan
  3. If concerns: Raise them with your human partner before starting
  4. If no concerns: Create todos for the plan items and proceed

Step 2: Execute Tasks

For each task:

  1. Mark as in_progress
  2. Follow each step exactly (plan has bite-sized steps)
  3. Run verifications as specified
  4. Mark as completed

Step 3: Complete Development

After all tasks complete and verified:

  • Announce: "I'm using the finishing-a-development-branch skill to complete this work."
  • REQUIRED SUB-SKILL: Use superpowers:finishing-a-development-branch
  • Follow that skill to verify tests, present options, execute choice

When to Stop and Ask for Help

STOP executing immediately when:

  • Hit a blocker (missing dependency, test fails, instruction unclear)
  • Plan has critical gaps preventing starting
  • You don't understand an instruction
  • Verification fails repeatedly

Ask for clarification rather than guessing.

When to Revisit Earlier Steps

Return to Review (Step 1) when:

  • Partner updates the plan based on your feedback
  • Fundamental approach needs rethinking

Don't force through blockers - stop and ask.

Remember

  • Review plan critically first
  • Follow plan steps exactly
  • Don't skip verifications
  • Reference skills when plan says to
  • Stop when blocked, don't guess
  • Never start implementation on main/master branch without explicit user consent

Integration

Required workflow skills:

  • superpowers:using-git-worktrees - Ensures isolated workspace (creates one or verifies existing)
  • superpowers:writing-plans - Creates the plan this skill executes
  • superpowers:finishing-a-development-branch - Complete development after all tasks

3w ago·52m·210 calls

CI suite (unit + integration + e2e canary) is running in the background. I'll continue once it reports back.

bogl3saxq REDACTED /private/tmp/claude-502/-Users-ninawork-entire-devenv-cli/b1e13e56-e9ae-469a-a30d-7c57d70e2f1f/tasks/bogl3saxq.output completed Background command "Run full CI test suite" completed (exit code 0)

3w ago·39.0s·4 calls

All 12 tasks are complete and the full CI suite (unit + integration + e2e canary) passes. Let me complete the development branch properly.

d4715a1test(import): end-to-end integration coverage; lint fixups\ \ Co-Authored-By: Claude Opus 4.8 noreply@anthropic.com\ Entire-Checkpoint: 412f636a521e+100/-22

Base directory for this skill: /Users/ninawork/.claude/plugins/cache/claude-plugins-official/superpowers/6.0.3/skills/finishing-a-development-branch

Finishing a Development Branch

Overview

Guide completion of development work by presenting clear options and handling chosen workflow.

Core principle: Verify tests → Detect environment → Present options → Execute choice → Clean up.

Announce at start: "I'm using the finishing-a-development-branch skill to complete this work."

The Process

Step 1: Verify Tests

Before presenting options, verify tests pass:

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# Run project's test suite
npm test / cargo test / pytest / go test ./...

If tests fail:

Tests failing (<N> failures). Must fix before completing:

[Show failures]

Cannot proceed with merge/PR until tests pass.

Stop. Don't proceed to Step 2.

If tests pass: Continue to Step 2.

Step 2: Detect Environment

Determine workspace state before presenting options:

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GIT_DIR=$(cd "$(git rev-parse --git-dir)" 2>/dev/null && pwd -P)
GIT_COMMON=$(cd "$(git rev-parse --git-common-dir)" 2>/dev/null && pwd -P)

This determines which menu to show and how cleanup works:

State Menu Cleanup
GIT_DIR == GIT_COMMON (normal repo) Standard 4 options No worktree to clean up
GIT_DIR != GIT_COMMON, named branch Standard 4 options Provenance-based (see Step 6)
GIT_DIR != GIT_COMMON, detached HEAD Reduced 3 options (no merge) No cleanup (externally managed)

Step 3: Determine Base Branch

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# Try common base branches
git merge-base HEAD main 2>/dev/null || git merge-base HEAD master 2>/dev/null

Or ask: "This branch split from main - is that correct?"

Step 4: Present Options

Normal repo and named-branch worktree — present exactly these 4 options:

Implementation complete. What would you like to do?

1. Merge back to <base-branch> locally
2. Push and create a Pull Request
3. Keep the branch as-is (I'll handle it later)
4. Discard this work

Which option?

Detached HEAD — present exactly these 3 options:

Implementation complete. You're on a detached HEAD (externally managed workspace).

1. Push as new branch and create a Pull Request
2. Keep as-is (I'll handle it later)
3. Discard this work

Which option?

Don't add explanation - keep options concise.

Step 5: Execute Choice

Option 1: Merge Locally

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# Get main repo root for CWD safety
MAIN_ROOT=$(git -C "$(git rev-parse --git-common-dir)/.." rev-parse --show-toplevel)
cd "$MAIN_ROOT"

# Merge first — verify success before removing anything
git checkout <base-branch>
git pull
git merge <feature-branch>

# Verify tests on merged result
<test command>

# Only after merge succeeds: cleanup worktree (Step 6), then delete branch

Then: Cleanup worktree (Step 6), then delete branch:

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git branch -d <feature-branch>

Option 2: Push and Create PR

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# Push branch
git push -u origin <feature-branch>

Do NOT clean up worktree — user needs it alive to iterate on PR feedback.

Option 3: Keep As-Is

Report: "Keeping branch . Worktree preserved at ."

Don't cleanup worktree.

Option 4: Discard

Confirm first:

This will permanently delete:
- Branch <name>
- All commits: <commit-list>
- Worktree at <path>

Type 'discard' to confirm.

Wait for exact confirmation.

If confirmed:

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MAIN_ROOT=$(git -C "$(git rev-parse --git-common-dir)/.." rev-parse --show-toplevel)
cd "$MAIN_ROOT"

Then: Cleanup worktree (Step 6), then force-delete branch:

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git branch -D <feature-branch>

Step 6: Cleanup Workspace

Only runs for Options 1 and 4. Options 2 and 3 always preserve the worktree.

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GIT_DIR=$(cd "$(git rev-parse --git-dir)" 2>/dev/null && pwd -P)
GIT_COMMON=$(cd "$(git rev-parse --git-common-dir)" 2>/dev/null && pwd -P)
WORKTREE_PATH=$(git rev-parse --show-toplevel)

If GIT_DIR == GIT_COMMON: Normal repo, no worktree to clean up. Done.

If worktree path is under .worktrees/ or worktrees/: Superpowers created this worktree — we own cleanup.

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MAIN_ROOT=$(git -C "$(git rev-parse --git-common-dir)/.." rev-parse --show-toplevel)
cd "$MAIN_ROOT"
git worktree remove "$WORKTREE_PATH"
git worktree prune  # Self-healing: clean up any stale registrations

Otherwise: The host environment (harness) owns this workspace. Do NOT remove it. If your platform provides a workspace-exit tool, use it. Otherwise, leave the workspace in place.

Quick Reference

Option Merge Push Keep Worktree Cleanup Branch
1. Merge locally yes - - yes
2. Create PR - yes yes -
3. Keep as-is - - yes -
4. Discard - - - yes (force)

Common Mistakes

Skipping test verification

  • Problem: Merge broken code, create failing PR
  • Fix: Always verify tests before offering options

Open-ended questions

  • Problem: "What should I do next?" is ambiguous
  • Fix: Present exactly 4 structured options (or 3 for detached HEAD)

Cleaning up worktree for Option 2

  • Problem: Remove worktree user needs for PR iteration
  • Fix: Only cleanup for Options 1 and 4

Deleting branch before removing worktree

  • Problem:git branch -d fails because worktree still references the branch
  • Fix: Merge first, remove worktree, then delete branch

Running git worktree remove from inside the worktree

  • Problem: Command fails silently when CWD is inside the worktree being removed
  • Fix: Always cd to main repo root before git worktree remove

Cleaning up harness-owned worktrees

  • Problem: Removing a worktree the harness created causes phantom state
  • Fix: Only clean up worktrees under .worktrees/ or worktrees/

No confirmation for discard

  • Problem: Accidentally delete work
  • Fix: Require typed "discard" confirmation

Red Flags

Never:

  • Proceed with failing tests
  • Merge without verifying tests on result
  • Delete work without confirmation
  • Force-push without explicit request
  • Remove a worktree before confirming merge success
  • Clean up worktrees you didn't create (provenance check)
  • Run git worktree remove from inside the worktree

Always:

  • Verify tests before offering options
  • Detect environment before presenting menu
  • Present exactly 4 options (or 3 for detached HEAD)
  • Get typed confirmation for Option 4
  • Clean up worktree for Options 1 & 4 only
  • cd to main repo root before worktree removal
  • Run git worktree prune after removal

3w ago·15m·28 calls

Done. The branch import-existing-claude-projects is kept as-is with all commits in place — nothing pushed, nothing merged.

Summary

13 commits on the branch: 12 implementation tasks + 1 simplification.

What landed:

  • entire import claude-code [--path] [--dry-run] [--session] — hidden, discoverable via entire labs. Fixed one-month lookback, idempotent, dry-run.
  • Enable-time opt-in prompt ("Found N … from the past month", default No, skipped when non-interactive/--yes).
  • Imported turns become read-only, commit-less checkpoints on the local-only entire/imports/v1 ref (never in Push), one per user-prompt turn, with per-turn token usage, Kind:"imported", and provenance.
  • list/explain/tokens union and label imports ([imported]); v1-only consumers (cleanup, lifecycle) never see them.
  • rewind refuses imported checkpoints with a clear read-only message.

Simplification pass: added checkpoint.OpenImports to collapse the repeated ImportsRefs() + Open(...) boilerplate across 5 call sites, removed the ptrRefs helper and a dead nil-check.

Verification state:

  • mise run lint → 0 issues
  • Import unit tests + integration test (TestImportClaudeCode_EndToEnd) green after the refactor
  • Full mise run test:ci (unit + integration + e2e canary) was green before the simplification; I re-ran lint + the import-touching packages + the integration test after it, but did not re-run the entire test:ci since you said you want to run tests yourself.

Spec and plan docs are written to docs/superpowers/specs/2026-06-25-import-claude-code-transcripts-design.md and docs/superpowers/plans/2026-06-25-import-claude-code-transcripts.md (left uncommitted, per your commit-only-when-asked rule).

Tests are yours to run — when you're ready, mise run test:ci is the full gate.

what happens if someone runs entire enable, disables entire, makes a number of claude sessions, then reruns enable?

3w ago·3m·7 calls

Recorded. To close the loop on your question:

What happens: the re-enable takes the lightweight runEnable() path (since IsSetUpAny is true whether or not Entire is enabled), so the import prompt doesn't fire — the sessions you made while disabled aren't auto-offered. They're recoverable any time via entire import claude-code, which idempotently imports the new turns within the one-month window.

Code is left as-is per your call, and I've saved the gap so it'll surface when you open the PR after local testing — ready to drop into the PR description as a known limitation.

➜ test-new-claude git:(hooks-slow-push-db-mirror) ✗ entire enable Entire is already enabled. Agents: Claude Code

To add more agents, run entire agent add <name>. ➜ test-new-claude git:(hooks-slow-push-db-mirror) ✗ pwd /Users/ninawork/entire/devenv/test-new-claude ➜ test-new-claude git:(hooks-slow-push-db-mirror) ✗

3w ago·51.3s

That output is the already-enabled short-circuit (setup.go:881–887): when the repo is already set up and enabled, enable just prints status and returns — it never reaches runEnableInteractive, so the import prompt can't fire. That's the same gap we just discussed, in its "already enabled" variant (not even disabled→re-enabled needed).

So the prompt only appears on a genuinely fresh repo (never configured). To actually exercise the feature you have two paths:

Test the command directly (works in this already-enabled repo):

entire import claude-code --dry-run     # reports "Would import N turn(s) ..."
entire import claude-code               # imports; "Imported N ..."
entire checkpoint list                  # imported entries show [imported]
entire checkpoint explain <id>          # inspect one
entire checkpoint rewind --to <id>      # should refuse: read-only / not rewindable

For this to find anything, there must be ~/.claude/projects/<sanitized path of this repo>/*.jsonl modified in the last month (sanitized = non-alphanumerics → -, so Users-ninawork-entire-devenv-test-new-claude).

Test the prompt: use a brand-new repo that has never had entire enable run, with at least one Claude session for it in the last month, then entire enable → prompt fires before "Ready."

One thing to confirm first — is the entire on your PATH the binary built from the import-existing-claude-projects branch? If it's a system-installed entire, none of this exists yet. Quick check:

which entire
entire import claude-code --help    # errors "unknown command" if it's the old binary

Want me to build/install the branch binary, or walk through verifying the import in this repo?

make a new repo in /Users/ninawork/entire/devenv and set it up so I can test the import path

3w ago·16m·6 calls

Everything's set up and verified. The dry-run from the new repo finds 3 turns from 2 sessions.

Ready to test

Repo:/Users/ninawork/entire/devenv/importtest (fresh git repo, one commit, not yet enabled) Branch binary:/Users/ninawork/entire/devenv/cli/entire ← use this, not the entire on your PATH (that's the homebrew cask 0.7.5 with no import command) Fixtures: 2 fake Claude sessions (3 user-prompt turns total) in ~/.claude/projects/-Users-ninawork-entire-devenv-importtest/, dated within the last month

Convenience alias for the session:

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alias e=/Users/ninawork/entire/devenv/cli/entire
cd /Users/ninawork/entire/devenv/importtest

Test the enable prompt (the main thing — repo is fresh so it takes the full setup flow):

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e enable

You'll step through agent selection / telemetry, then hit:

Found 3 past Claude session turn(s) for this repo from the past month. Import them as local, read-only history? ...

Or test the command + read surfaces directly:

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e import claude-code            # Imported 3 turn(s) from 2 session(s) (0 already imported)
e import claude-code            # re-run → (3 already imported)  ← idempotency
e checkpoint list               # entries tagged [imported]
e checkpoint explain <id>       # inspect one (cites the original transcript)
e checkpoint rewind --to <id>   # refused: read-only / not rewindable

Cleanup when done:

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rm -rf /Users/ninawork/entire/devenv/importtest
rm -rf ~/.claude/projects/-Users-ninawork-entire-devenv-importtest

Two notes: e enable will install git hooks in the scratch repo pointing at the branch binary (fine for a throwaway). And since these fixtures are hand-written, if you'd rather test against real transcripts, run a couple of actual Claude Code sessions in importtest first, then e import claude-code.

Open a draft PR with the details we talked about earlier regarding the tradeoff / do it later segment. If you're not sure, ask me

3w ago

Open a draft PR with the details we talked about earlier regarding the tradeoff / do it later segment. If you're not sure, ask me.

But first, what is this:

● session-bbbb [temporary] Checkpoint: 829f1a07d903 06-25 14:08 (a6081d4) Checkpoint: 829f1a07d903

● session-aaaa [temporary] Checkpoint: 8aeeabd76964 06-25 14:08 (fb4d6e0) Checkpoint: 8aeeabd76964 06-25 14:08 (f25ec97) Checkpoint: d875fb5a0957

● 829f1a07d903 [imported] "Refactor the config loader to return an error instead of ..." 06-23 14:30 (829f1a0) Refactor the config loader to return an error instead of ...

● 8aeeabd76964 [imported] "Now add a test for it" 06-20 09:05 (8aeeabd) Now add a test for it

● d875fb5a0957 [imported] "Add a hello function to main.go" 06-20 09:00 (d875fb5) Add a hello function to main.go

➜ importtest git:(main) entire checkpoint explain 8aeeabd76964 no checkpoint or commit found matching "8aeeabd76964" ➜ importtest git:(main) ✗ entire checkpoint explain d875fb5a0957 no checkpoint or commit found matching "d875fb5a0957"

investigate why it can't find that checkpoint

3w ago·32m·80 calls

Now let me update the saved gap note to reflect the v1 design (so the PR write-up is accurate), then open the draft PR.

241ac12refactor(import): store imported checkpoints on v1, not a separate ref\ \ Imported checkpoints now live on entire/checkpoints/v1 (tagged Kind:imported)\ instead of a local-only entire/imports/v1 ref. They are redacted and pushed\ like normal checkpoints, which is what lights up server-side search/recap/UI.\ \ This collapses the read paths back to a single store and fixes two bugs that\ came from the two-ref design:\ - explain now resolves (was: not found, only consulted v1+shadow)\ - imported checkpoints no longer duplicate as [temporary] (shadow-branch\ scanner no longer mis-reads a second metadata ref)\ \ Removes ImportsRefs/OpenImports/ImportsBranchName and the read-path unions;\ keeps Kind:imported, provenance, the [imported] label, rewind refusal, and the\ deterministic-ID idempotency.\ \ Co-Authored-By: Claude Opus 4.8 noreply@anthropic.com\ Entire-Checkpoint: fb2f7d9f9b04+65/-227

Base directory for this skill: /Users/ninawork/.claude/skills/pr

Create Pull Request

1. Understand the Branch

Use origin/main as the comparison base for understanding branch scope. Do not use local main, a local PR target branch, or direct tree diffs such as git diff main or git diff origin/main for scope checks; those can include upstream-only changes and make this branch look like it reverted unrelated work.

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BASE=origin/main
MERGE_BASE=$(git merge-base HEAD "$BASE")
git log --oneline "$BASE"..HEAD

Read the commit history to understand the full scope of changes on this branch.

Review the changed file list from the merge base to the current working tree and confirm every changed file belongs to the PR's stated goal:

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git diff --name-status "$MERGE_BASE"

If unrelated files or commits are present, STOP and report them. Do not create a PR that bundles unrelated work.

2. Discover Project Verification Commands

Inspect the project to determine how to build, lint, and test. Collect candidate commands from these sources, then deduplicate them before running anything:

  1. Makefile — look for build, lint, check, test, ci, verify targets. Read the target recipes to understand what they run.
  2. mise — check for .mise.toml or .mise/*.toml. Look for [tasks] definitions covering build, lint, test. If found, use mise run <task>.
  3. CI workflows — read .github/workflows/*.yml (or .gitlab-ci.yml, etc.) to understand required coverage. CI is the ground truth for what must pass, but CI matrix shards and CI-only wrappers are not automatically local verification commands.
  4. README.md — look for "Development", "Contributing", "Building", or "Testing" sections that document how to run checks.
  5. Package manager conventions— detect from project files:
  • go.mod → go build ./..., go vet ./..., go test ./...; do NOT infer a lint command from Go alone
    • package.json → check scripts for build, lint, test
    • Cargo.toml → cargo build, cargo clippy, cargo test
    • pyproject.toml / setup.py → check for configured linters, pytest

If no lint command exists after checking all sources, state that explicitly instead of assuming an unavailable linter binary.

Reuse Cached Verification Discovery

Before rediscovering commands from scratch, choose an artifact directory using the AGENTS.md temporary artifact rule with agent name pfleidi-pr:

  • Use ./tmp/pfleidi-pr/ only when ./tmp/ already exists and is already ignored.
  • If no project-local artifact directory is available, do not use a verification cache by default. Ask before using /tmp/pfleidi-pr/ or modifying ignore files.

When an artifact directory is available, check for a verification cache at <artifact-dir>/verification-<repo-name>.md. The cache is only an input-token optimization; never commit it and never trust it blindly. If no artifact directory is available, perform normal discovery and skip writing the cache.

Reuse the cache only when all of these are true:

  • It names the same worktree root and remote.
  • It lists the verification source files it was based on, such as Makefile, .mise.toml, .mise/*.toml, CI workflow files, README files, and package manifests.
  • Those source files still exist or are still intentionally absent.
  • git diff --name-only origin/main -- <source files> shows no branch changes to those source files.

If the cache is missing, stale, or incomplete, perform normal discovery. After discovery, update the cache with:

  • Repository root and remote.
  • Verification source files inspected.
  • Selected command plan grouped by coverage area.
  • Commands intentionally skipped as duplicates, aggregate/subtask overlaps, CI-only jobs, or too-slow shard matrices.
  • Any assumptions, such as "no documented lint task found."

Deduplicate Verification Commands

Build a command plan by coverage area, not by source. Do not run every command discovered.

  • Run at most one command for each coverage area: build/compile, lint/static analysis, unit/core tests, integration tests, e2e/smoke tests.
  • Prefer documented local developer tasks over CI-specific commands when they cover the same area.
  • Do not run both an aggregate task and its constituent tasks. For example, if mise run check runs lint and tests, either run mise run check alone or run the narrower lint/test tasks, not both.
  • Treat CI matrix shards as duplicated slices of one suite. Do not run every *:shard:* command locally when an unsharded local task covers the suite.
  • If CI has only sharded commands and no local equivalent, ask before running all shards. Otherwise, run the smallest representative or changed-scope test command and note that the full shard matrix remains for CI.
  • Do not run CI-only canary/e2e jobs locally by default. Run them only when the PR changes that surface, when the user asks, or when the project documents them as required local PR verification.

Log which sources you used, which duplicate/CI-only commands you skipped, and what commands you will run. If the deduplication rules require asking before slow CI-only coverage, STOP for confirmation; otherwise immediately proceed to step 3.

3. Run Verification and Auto-Fix

Run the deduplicated command plan in the fewest safe batches. Prefer background processing for independent validation tasks instead of running everything sequentially.

The commands should cover, at minimum:

  • Build — the project compiles without errors
  • Lint / static analysis — no lint warnings or static analysis failures
  • Tests — the selected local test coverage passes without duplicating CI shards or aggregate/subtask combinations

Use the exact commands, flags, and build tags found in step 2 for the commands you selected. Do not invent your own flags.

Parallel Verification Rules

Partition the selected commands into dependency-safe batches before running them:

  • Run mutating commands alone and before validators that depend on their output. This includes formatters, generators, codegen, migrations, package installation, or commands known to update snapshots, lockfiles, generated files, caches in the repo, or test fixtures.
  • Run dependent commands after their prerequisite batch passes. For example, do not start tests that require generated code until generation succeeds.
  • Run independent read-only validation commands concurrently in the same background batch. Build, lint/static analysis, typecheck/vet, and unit tests can usually share a batch when they do not mutate the working tree and do not require the same exclusive service, port, database, or fixture directory.
  • Keep integration, e2e, or service-backed commands separate unless the project documents that they are parallel-safe.
  • If unsure whether two commands are independent, run them sequentially. Correctness of validation beats speed.

For each background batch:

  1. Start every command from the same working-tree state.

  2. Run each selected validator directly, for example mise run lint, go test ..., or npm test -- .... Do not wrap validators in sh -c, shell redirection, tee, command separators, or pipelines solely to capture logs; that defeats command-prefix approvals and causes extra permission prompts.

  3. Capture each command's stdout, stderr, exit status, and command line from the tool output separately.

  4. While the batch is running, do not edit files, start auto-fixes, or treat partial output as a result.

  5. Wait for every command in the batch to finish, then show verification as a compact table:

Command Exit Relevant output
go test ./pkg/foo -run TestBar -count=1 0 Short success excerpt.
  1. For failures or short outputs, show complete output in the relevant-output column or immediately below the table. For long successful outputs, show the relevant excerpt and state that the rest was truncated.

  2. If any command in the batch fails, treat the whole batch as failed for the fix loop. Results from other commands in that stale batch may help diagnose, but they do not count as passing verification after files change.

On Failure: Fix and Re-verify

If any command fails, do NOT stop. Instead:

  1. Read the error output and identify every failure
  2. Fix all issues — apply the minimal changes needed to make the failing command pass
  3. Re-run the deduplicated verification plan from the top, using the same safe batching rules (not just the previously failing command — fixes can introduce new issues)
  4. Show the updated verification table again, including complete failure output for any command that still fails

Repeat this cycle until all commands pass. Cap at 3 fix attempts. If verification still fails after 3 rounds, STOP and present the remaining failures to the user with full failure output — do not keep looping.

4. Prompt for Commit

After all verification passes, check for uncommitted changes:

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git status --short

If there are uncommitted changes (from auto-fixes in step 3):

  1. Show the diff of all uncommitted changes
  2. Propose a semantically correct commit message using the subject-plus-context style from AGENTS.md. The message must describe the net fix (e.g., "fix lint warnings in config parser" not "fix issues found during PR prep").
  3. STOP and wait for user approval. The user may edit the message, split the changes, or commit themselves.

If the user approves the commit, do not rerun the full verification suite before committing unless files changed after step 3. If another sanity check is needed, use the commit-time verification scope from AGENTS.md: lint tasks, a fast compile/build check, and tests directly related to the changed code only.

If there are no uncommitted changes, proceed directly to step 5.

5. Push the Branch

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git push origin HEAD

If the branch has no upstream yet, use git push -u origin HEAD.

6. Create the PR

Determine a concise PR title (under 70 characters) from the commit history and diff.

Use the same branch-only comparison from step 1 ($MERGE_BASE to the current working tree) when deriving the title, PR body, changed-file list, and mostly-Markdown detection. Do not use local main or direct git diff origin/main output for PR description decisions.

Write the PR body with:

  • What this PR does and why
  • How it was implemented (brief, not exhaustive)
  • Any migration, deployment, or reviewer notes if applicable
  • For mostly Markdown PRs, a Rendered Markdown section linking to the changed Markdown files rendered on GitHub

Create the PR:

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gh pr create --draft --title "<title>" --body "<body>"

Create a ready-for-review PR only when the user explicitly asks for it with wording such as "non-draft", "ready for review", or "publish it as ready". In that case, omit --draft.

Show the PR URL and STOP.

Rules

  • Do NOT add "Generated with Claude Code" or any AI attribution anywhere
  • Do NOT summarize what you just did after showing the URL
  • Treat a PR as "mostly Markdown" when more than half of changed files are Markdown (.md, .mdx, .markdown) or the main review target is Markdown documentation. In that case, include GitHub rendered links for the changed Markdown files using the pushed branch, e.g. https://github.com/<owner>/<repo>/blob/<branch>/<path>.md. Link all changed Markdown files when the list is short; for large docs PRs, link the main entry points or most important changed files.
  • If the user provides a title or description, use it verbatim instead of generating one, but append rendered Markdown links for mostly Markdown PRs unless the user explicitly says not to modify the description.
  • If the PR description contains checklist items (- [ ]), check them (- [x]) if and only if the corresponding step was actually verified during this workflow (e.g., build passed, tests passed, lint passed). Do NOT check items that were not verified. Do NOT leave items unchecked if they were verified.

ARGUMENTS: draft PR. Title: "Import existing Claude Code transcripts". Body must include a "Tradeoffs / known limitations (do later)" section covering: (1) the enable-time import prompt only fires on fresh setup, not on re-enable (sessions made while Entire was disabled aren't auto-offered; entire import claude-code imports them manually); (2) imported history is pushed to the backend like normal checkpoints (privacy note: up to a month of old conversations sync). Also note imported checkpoints are read-only / not rewindable.

3w ago·34.6s·2 calls

Verification running in the background. I'll create the PR once it's green.

bnzi106xm toolu\_01JpBFgWTh6tLR2FtqxCxuva /private/tmp/claude-502/-Users-ninawork-entire-devenv-cli/b1e13e56-e9ae-469a-a30d-7c57d70e2f1f/tasks/bnzi106xm.output completed Background command "Run full CI test gate" completed (exit code 0)

3w ago·7m·3 calls

Draft PR created: https://github.com/entireio/cli/pull/1527

Instead of cmd/entire/cli/importclaude/ with importclaude hardcoded, the import package should be able to ultimately handle other agents as well. It's only Claude for now

3w ago·25m·45 calls

Both tasks done.

1. PR description updated ( #1527) to match the current design: generic agentimport package, imports on entire/checkpoints/v1 (pushed), hidden command only (no enable prompt), with a refreshed "Tradeoffs / known limitations" section (manual import, push/privacy note, read-only, Claude-only).

2. Review comments addressed — all from cursor[bot] and Copilot (no human comments):

  • Already resolved by the refactor: the four prompt-related findings (never-pushes wording, RunWithContext, cancel handling, slow enable counting) — the prompt was removed; the importclaude files with stale entire/imports/v1 comments were rewritten under agentimport.
  • Fixed in c4bfa4f:
    • checkpoint list limit — live (commit-linked + temporary) points are capped first; imported are appended with their own bounded budget so they can't evict recent checkpoints.
    • Per-turn redaction → redact once per session file (lazy; dry-run/skipped files pay nothing).
    • Stale "local-only" / "entire/imports/v1" wording corrected across KindImported, RewindPoint.Imported, and both api/checkpoint``Imported field comments.

Verified: mise run lint (0 issues), agentimport + api/checkpoint unit tests, and the end-to-end integration test all pass. Pushed, and posted a comment on the PR mapping each finding to its resolution.

One note: these were all bot reviews — no human review comments to triage yet.

5733491refactor(import): generalize import package across agents (Claude first)\ \ Renames cmd/entire/cli/importclaude -> cmd/entire/cli/agentimport with an\ Importer seam (Discover + SplitTurns) and a static set of supported agents,\ so other agents can be added without touching the orchestration. Claude Code\ is the only implementation today.\ \ Also drops the enable-time import prompt; importing is a hidden command only\ (entire import , discoverable via entire labs).\ \ Co-Authored-By: Claude Opus 4.8 noreply@anthropic.com\ Entire-Checkpoint: e58fc114f6a9+691/-776

c4bfa4ffix(import): address PR review feedback\ - explain: cap live (commit-linked + temporary) checkpoints to the limit\ before appending imported ones, so a large import can't evict recent\ checkpoints from 'checkpoint list'\ - agentimport: redact each session transcript once per file instead of once\ per turn (O(files) not O(turns))\ - correct stale 'local-only'/'entire/imports/v1' wording in Kind/flag/field\ comments — imported checkpoints live on v1 and push like normal checkpoints\ \ Co-Authored-By: Claude Opus 4.8 noreply@anthropic.com\ Entire-Checkpoint: f553c0e9a83c+36/-18

Make additional commits to import in /Users/ninawork/entire/devenv/importtest

3w ago·3m·3 calls

Done — imported 3 additional turns into importtest from two new fixture sessions.

I read "additional commits to import" as more imported checkpoints, so I added two new Claude session fixtures and imported them. The dry-run correctly showed only the 3 new turns (the earlier 3 were skipped — idempotency holding), and checkpoint list now shows 6 imported checkpoints, newest-first by their original timestamps:

Checkpoint Date Prompt
4971852b32d4 06-25 Add structured logging with slog
7af4a47afc3f 06-24 Return JSON with a version field
e51c765ce9f1 06-24 Wire up a /healthz endpoint
829f1a07d903 06-23 Refactor the config loader…
8aeeabd76964 06-20 Now add a test for it
d875fb5a0957 06-20 Add a hello function to main.go

If you actually meant something different — e.g. real git commits in importtest (to get commit-linked checkpoints alongside imported ones, exercising the list-limit/ordering fix), or generating a large batch (>20 turns) to stress that limit — tell me which and I'll set it up. Real commit-linked checkpoints need a live agent session firing the hooks, so I'd use the Vogon fake agent or walk you through it.

➜ importtest git:(main) ✗ entire import claude-code Imported 0 turn(s) from 4 session(s) (6 already imported). ➜ importtest git:(main) ✗

I just want more to import

3w ago·1m·5 calls

Added 4 more fixture sessions (8 new turns), left unimported so you have a backlog. Dry-run confirms:

Would import 8 turn(s) from 8 session(s) (6 already imported).

Run entire import claude-code in importtest whenever you want to pull them in. The new sessions span 06-12 → 06-21 (varied 1–3 turns each, mixed models). Want me to keep topping it up, or add a larger batch (e.g. enough to exceed the 20-entry checkpoint list limit)?

how do I test search

3w ago·1m·1 call

Confirmed: both entire search and entire checkpoint search are the same command (checkpoint search just calls newSearchCmd()), and it's server-side — it queries the Entire search service over HTTP and requires auth. There is no local search of checkpoints. That's the key thing for testing.

What search needs

For a checkpoint (imported or normal) to show up in entire search, it has to be in the backend and indexed, which means:

  1. Logged in — entire login (GitHub device flow). Check with entire auth status.
  2. The repo is pushed to the backend — the entire/checkpoints/v1 branch (which now holds imported checkpoints too) must reach the Entire backend. That happens via the pre-push hook on git push, or a configured checkpoint remote. You saw Pushing entire/checkpoints/v1 to checkpoint remote earlier in the cli repo — that's exactly this.
  3. Indexing — there's typically a short lag after push before results appear.

Why importtest won't work as-is

The importtest scratch repo has no git remote and isn't registered with a backend, so its entire/checkpoints/v1 (and the imported checkpoints on it) never get pushed or indexed. Search scoped to that repo will return nothing — not a bug, just nothing to search.

Two ways to actually test it

A. Use a repo that's already connected (recommended): in one of your real enabled+pushed repos, run entire import claude-code, let the next git push sync the v1 branch, wait for indexing, then:

entire search "your prompt text"          # scoped to current repo
entire search --json "..."                # machine-readable
entire search --all-repos "..."           # across all your repos
# inline filters also work: author:<name> date:<week|month> repo:<owner/name> branch:<name>

Imported turns should surface by their prompt text (e.g. "Add structured logging with slog").

B. Wire importtest to a real remote: give it a GitHub origin, register/push so the backend ingests it, then search. More setup, but keeps it isolated from your real repos.

Per your standing rule I won't run import/push against your real repos. Want me to set up B — add a GitHub remote to importtest and push so its imported checkpoints get indexed — or are you set to test on a connected repo yourself? (Either way, run entire auth status first to confirm you're logged in to the right core.)

Take a look at the review comments on https://github.com/entireio/cli/pull/1527. Don't publish anything, just review them locally here.

3w ago·5m·3 calls

Here's my local read of the review on PR #1527. The bot comments (cursor/Copilot on the old 241ac1231) are all already addressed by my fixes + the later 1747e427b ("provenance privacy" — transcript_path became transcript_file basename, content hash is over the redacted slice). The substance now is three comments from pfleidi (the maintainer) on 3ade5dfda, and they're all about the metadata additions. My assessment:


1. metadata.go:156 — "Provenance for non-imported checkpoints too?"

Are these import-specific or are we planning to extend this to regular checkpoints?

Already answered — the user (computermode) replied "import specific for now... the option is there." No code action. Fine as-is.


2. metadata.go:287 — "Is the Imported bool redundant with Kind/Provenance?"

we could check Kind == "imported" and/or the existence of Provenance

Partially fair, but the bool is justified. The key fact: Kind and Provenance live on Metadata (per-session), while Imported lives on CheckpointSummary (per-checkpoint) and is surfaced on CheckpointInfo (what List() returns). Every consumer reads it at the per-checkpoint level where Kind/Provenance aren't available:

  • rewind.go:436 (in.Imported from a CheckpointInfo)
  • explain.go:2204 (info.Imported in getImportedRewindPoints)
  • explain.go:2737 (list [imported] label)
  • common.go:333 (propagate to strategy CheckpointInfo)

Dropping the bool would force each of those to open every session's metadata.json to read Kind. It also mirrors the existing HasReview/HasInvestigation umbrella flags on CheckpointSummary (persistent.go:501-523) — same pattern, same reason.

Recommendation: keep it; reply with that rationale (per-session Kind vs per-checkpoint summary, consistent with the existing review/investigate umbrella flags). Not a code change.


3. metadata.go:17 — "Provenance is written but never read"

we're writing it to metadata.json but I can't find anywhere we read it

Correct, and it's the one real gap. Grep confirms Provenance is only ever written (persistent.go:467, built in agentimport.go:207) — nothing in the CLI reads it back. Worse, the doc comment (metadata.go:14-16) overstates:

  • "so explain/search can cite the original transcript" → explain does not read or display provenance.
  • "re-import stays idempotent" → idempotency uses the derived checkpoint ID (sha256(sessionID+turnUUID)), not provenance/content_hash.

So today it's write-only metadata for external/future readers. Two honest ways to resolve:

  • (a) Make it earn its place (my recommendation): have explain show a provenance line for imported checkpoints ("imported from <transcript_file>, session <id>, turn <uuid>"). Small change, makes the field used, and delivers the "honest citation" the comment promises. Then fix the doc to drop the idempotency claim.
  • (b) Keep as write-only but fix the doc to say it's recorded for external readers / future use, and remove the inaccurate explain/idempotency claims.

I'd go with (a) — it directly answers pfleidi and the field stops being dead weight.


Net: #1 done; #2 is a "keep + explain why" reply; #3 wants an actual change (wire provenance into explain, or at minimum correct the doc comment). Nothing published. Want me to implement (a) for #3 and draft reply text for #2 — or just the doc-comment fix (b)?

It should be idempotent though, that's a regression if it's not anymore

3w ago·53.6s·1 call

Idempotency is intact and tested — confirmed in code and behavior:

Mechanism (agentimport.go``Run):

  1. existing = every checkpoint ID already on entire/checkpoints/v1 (stores.Persistent.List).
  2. Each turn's ID is deterministic: cid = DeriveCheckpointID(sessionID, turnUUID) = sha256(sessionID + "/" + turnUUID).
  3. If existing[cid] → skip (TurnsSkipped++).

So re-running import re-derives the same IDs and skips anything already present. You saw it live earlier — Imported 0 turn(s) ... (6 already imported) — and the integration test asserts the re-run imports 0 / skips all.

The thing I flagged is narrower and not a behavior change: the Provenance doc comment says provenance is what keeps re-import idempotent. That's just inaccurate wording — idempotency comes from the derived checkpoint ID, and content_hash (in provenance) is never read. Correcting that comment removes a false claim; it does not remove idempotency.

So no regression. To be precise about what content_hash does today: nothing — it's written, never read. That's the actual subject of pfleidi's "written but never read" comment.

One real consequence worth your call: because dedup is purely ID-based (sessionID+turnUUID), if a turn's content ever changed under the same UUID, re-import would skip it (no update). For append-only transcripts that never happens, so it's fine — but if you wanted "re-import refreshes changed turns," content_hash is exactly the hook to make it do so (compare stored hash, rewrite on mismatch). That would make provenance read and give content-level idempotency on top of ID-level.

Want me to (a) just fix the doc comment to credit the derived ID, or (b) also wire content_hash into the dedup so changed turns refresh? (a) keeps current behavior; (b) makes provenance used and upgrades idempotency from ID-level to content-level.

so why was provenance included

3w ago·41.7s

Honest answer: it was included on the strength of the issue-thread recommendation, for two intended purposes — neither of which the implementation actually ended up using.

Where it came from: In #1336, a commenter (Necmttn) recommended persisting per-turn source path, line range, session/turn UUIDs, content hash, and import version, arguing it gives (a) idempotency and (b) lets explain/search cite the original JSONL honestly ("imported history is evidence, live checkpoints are restorable state"). That got carried into the spec and then the metadata contract.

What actually happened in code:

  • (a) Idempotency was solved more simply with the deterministic checkpoint ID — provenance wasn't needed for it.
  • (b) The "cite the original transcript" use was never wired up — explain doesn't read provenance.

So provenance is currently write-only: persisted to metadata.json, read by nothing. That's exactly why pfleidi's comment lands, and honestly your instinct is right to question it — as built, it's speculative ("we might want it for external readers / a future explain citation"), not load-bearing.

So there are really three defensible positions, and it's your call:

  1. Trim it — YAGNI. Drop the Provenance struct/field; idempotency doesn't need it and nothing reads it. Smallest, most honest surface.
  2. Make it earn its place — wire explain to show "imported from <transcript_file>, session <id>" (and optionally use content_hash for content-level re-import). Then it's used and matches its original purpose.
  3. Keep as documented external-reader metadata — leave it written, fix the doc to stop claiming idempotency/citation, and note it's for downstream consumers.

Given it's a brand-new field with no reader, I'd lean 1 (trim) unless you have a concrete near-term consumer in mind (server-side citation, content-refresh), in which case 2. Which way do you want to go?

Let's remove it for now

3w ago·9m·23 calls

Done — Provenance removed and committed locally (b41cea8ee), not pushed.

What I removed:

  • The Provenance struct and the Provenance field on WriteOptions and Metadata (api/checkpoint/metadata.go)
  • The Provenance alias (checkpoint/aliases.go), the writer line (persistent.go), and the build-up in agentimport.go
  • Now-dead carriers: Turn.ParentUUID, the importVersion constant, and the contentHash helper added by the privacy commit
  • The TestProvenanceRoundTrips test and the Provenance field in persistent_imported_test.go

Kept:Kind:"imported" and the Imported flag (still read by the rewind guard, getImportedRewindPoints, the [imported] label, and the generate guard).

Verified:mise run lint (0 issues); agentimport, api/checkpoint, checkpoint unit tests, and the end-to-end integration test all pass. Idempotency is unaffected — still keyed on the deterministic checkpoint ID.

This addresses pfleidi's "written but never read" comment directly. Still open for your call:

  • #2 (Imported bool redundant with Kind?) — I'd keep it (per-session Kind vs per-checkpoint summary flag, mirroring HasReview/HasInvestigation); that's a reply, not a code change.
  • Want me to push this commit to the PR, and/or draft reply text for pfleidi's threads?

1f63eb4refactor(import): drop unused Provenance from imported checkpoints\ \ Provenance was written to metadata.json but never read: idempotency comes from\ the deterministic checkpoint ID (sha256(sessionID/turnUUID)), and explain never\ cited it. Removing the Provenance struct/field and the now-dead Turn fields\ (ParentUUID) and import-version constant. Imported checkpoints keep Kind and the\ Imported flag.\ \ Co-Authored-By: Claude Opus 4.8 noreply@anthropic.com\ Entire-Checkpoint: 4315ab0b3062+15/-108