Commit Graph
15 Commits
Author SHA1 Message Date
[email protected]andClaude Opus 4.6 c62eed9fcd feat(engine): add debug/trace logging for CodeAct execution
Three verbosity levels for debugging the engine:

RUST_LOG=ironclaw_engine=debug:
- LLM call: message count, iteration, force_text
- LLM response: type (text/code/action_calls), token usage
- Code execution: code length, action count, had_error, final_answer
- Text response: length, FINAL() detection

RUST_LOG=ironclaw_engine=trace:
- Full message list sent to LLM (role, length, first 200 chars each)
- Full code block being executed
- stdout preview (first 500 chars)
- Per-tool results (name, success, first 300 chars of output)
- Text response preview (first 500 chars)

Usage:
  ENGINE_V2=true RUST_LOG=ironclaw_engine=debug cargo run
  ENGINE_V2=true RUST_LOG=ironclaw_engine=trace cargo run

Co-Authored-By: Claude Opus 4.6 (1M context) <[email protected]>
2026-03-22 22:09:23 -07:00
[email protected]andClaude Opus 4.6 51e1bf5533 fix(engine): include tool results in code step output for LLM context
The LLM was ignoring tool results and answering from training data
because the compact output metadata didn't include what tools returned.
Tool results lived only as ActionResult messages (role: Tool) which
some providers flatten or the model ignores.

Now the code step output includes:
- stdout from Python print() statements
- [tool_name result] with the actual output (truncated to 4K per tool)
- [tool_name error] for failed tools
- [return] for the code's return value
- Total output truncated to 8K chars to prevent context bloat

This ensures the model sees web_search results, API responses, etc.
in the next iteration and can reason about them instead of hallucinating.

Co-Authored-By: Claude Opus 4.6 (1M context) <[email protected]>
2026-03-22 21:25:48 -07:00
[email protected]andClaude Opus 4.6 7087964c22 feat(engine): live progress status updates via event broadcast
Engine v2 now shows live progress in the CLI (and any channel):
- "Thinking..." when a step starts
- Tool name + success/error when actions execute
- "Processing results..." when a step completes

Implementation:
- ThreadManager holds a broadcast::Sender<ThreadEvent> (capacity 256)
- ExecutionLoop.emit_event() writes to thread.events AND broadcasts
- ThreadManager.subscribe_events() returns a receiver
- Router uses tokio::select! to listen for events while waiting for
  thread completion, forwarding them as StatusUpdate to the channel

This replaces the polling approach with zero-latency event streaming.
Agent.channels visibility widened to pub(crate) for bridge access.

102 tests passing, zero clippy warnings.

Co-Authored-By: Claude Opus 4.6 (1M context) <[email protected]>
2026-03-22 18:18:20 -07:00
[email protected]andClaude Opus 4.6 a325d9fbcd fix(engine): detect FINAL() in text responses + regression tests
Models sometimes write FINAL() outside code blocks — as plain text
after an explanation. The Hyperliquid case: model outputs a long
analysis then FINAL("""...""") at the end, not inside ```repl fences.

Fixes:
- extract_final_from_text(): regex-based FINAL detection in text
  responses, matching the official RLM's find_final_answer() fallback
- Handles: double-quoted, single-quoted, triple-quoted, unquoted,
  nested parens
- Checked in LlmResponse::Text handler BEFORE tool intent nudge
  (FINAL takes priority)

9 new tests:
- codeact_final_in_text_response: FINAL("answer") in plain text
- codeact_final_triple_quoted_in_text: FINAL("""multi\nline""") in text
- final_double_quoted, final_single_quoted, final_triple_quoted,
  final_unquoted, final_with_nested_parens, final_after_long_text,
  no_final_returns_none

102 tests passing (93 + 9 new), zero clippy warnings.

Co-Authored-By: Claude Opus 4.6 (1M context) <[email protected]>
2026-03-22 14:31:51 -07:00
[email protected]andClaude Opus 4.6 f3a185cc4a test(engine): add 8 CodeAct/RLM E2E tests with mock LLM
Comprehensive test coverage for the Monty Python execution path:

- codeact_simple_final: Python code calls FINAL('answer') → thread completes
- codeact_tool_call_then_final: code calls test_tool() → FunctionCall
  suspends VM → MockEffects returns result → code resumes → FINAL()
- codeact_pure_python_computation: sum([1,2,3,4,5]) → FINAL('Sum is 15')
  with no tool calls — pure Python in Monty
- codeact_multi_step: first step prints output (no FINAL), second step
  sees output metadata and calls FINAL — tests iterative REPL flow
- codeact_error_recovery: first step has NameError → error flows to LLM
  as stdout → second step recovers with FINAL — tests error transparency
- codeact_context_variables_available: code accesses `goal` and `context`
  variables injected by the RLM context builder
- codeact_multiple_tool_calls_in_loop: for loop calls test_tool() 3 times
  → 3 FunctionCall suspensions → all results collected → FINAL
- codeact_llm_query_recursive: code calls llm_query('prompt') → VM
  suspends → MockLlm provides sub-agent response → result returned as
  Python string variable

93 tests passing (85 prior + 8 new), zero clippy warnings.

Co-Authored-By: Claude Opus 4.6 (1M context) <[email protected]>
2026-03-22 13:03:18 -07:00
[email protected]andClaude Opus 4.6 749c208b3c feat(engine): enable CodeAct/RLM mode with code block detection
The engine now operates in CodeAct/RLM mode:

System prompt (executor/prompt.rs):
- Instructs LLM to write Python in ```repl fenced blocks
- Documents available tools as callable Python functions
- Documents llm_query(), llm_query_batched(), FINAL()
- Documents context variables (context, goal, step_number, previous_results)
- Strategy guidance: examine context, break into steps, use tools, call FINAL()

Code block detection (bridge/llm_adapter.rs):
- extract_code_block() scans LLM text responses for ```repl or ```python blocks
- When detected, returns LlmResponse::Code instead of LlmResponse::Text
- The ExecutionLoop routes Code responses through Monty for execution

No structured tool definitions sent to LLM:
- Tools are described in the system prompt as Python functions
- The LLM call sends empty actions array, forcing text-mode responses
- This ensures the LLM writes code blocks (CodeAct) instead of
  structured tool calls (which would bypass the REPL)

85 tests passing, zero clippy warnings.

Co-Authored-By: Claude Opus 4.6 (1M context) <[email protected]>
2026-03-22 12:38:07 -07:00
[email protected]andClaude Opus 4.6 4e8b94a555 fix(engine): persist conversation context across messages
The engine was creating a fresh ThreadManager and InMemoryStore per
message, losing all context between turns. A follow-up question like
"what are the latest 10 issues?" had no memory of the prior "how many
issues" response.

Fixes:
- EngineState (ThreadManager, ConversationManager, InMemoryStore) now
  persists across messages via OnceLock, initialized on first use
- ConversationManager builds message history from prior conversation
  entries (user messages + agent responses) and passes it to new threads
- ThreadManager.spawn_thread_with_history() accepts initial_messages
  that are prepended before the current user message
- System notifications (thread started/completed) are filtered out of
  the history (not useful as LLM context)

Co-Authored-By: Claude Opus 4.6 (1M context) <[email protected]>
2026-03-22 01:08:05 -07:00
[email protected]andClaude Opus 4.6 9d6d76d9c9 fix(engine): add user message and system prompt to thread before execution
The ExecutionLoop was sending empty messages to the LLM because the
thread was spawned with the user's input as the goal but no messages.

Fixes:
- ThreadManager.spawn_thread() now adds the goal as an initial user
  message before starting the execution loop
- ExecutionLoop.run() injects a default system prompt if none exists

Co-Authored-By: Claude Opus 4.6 (1M context) <[email protected]>
2026-03-22 00:35:56 -07:00
[email protected]andClaude Opus 4.6 f0295f304f docs(engine): simplify execution tiers — Monty-only for CodeAct/RLM
Restructure phases 6-8 to clarify execution model:

- Monty is the sole Python executor for CodeAct/RLM. No WASM or Docker
  Python runtimes for LLM-generated code.
- WASM sandbox is for third-party tool isolation (existing infra, Phase 8)
- Docker containers are for thread-level isolation of high-risk work (Phase 8)
- Two-phase commit moves to Phase 6 (integration) at the adapter boundary

Phase renumbering:
- Old Phase 6 (Tier 2-3) → removed as separate phase
- Old Phase 7 (integration) → Phase 6
- Old Phase 8 (cleanup) → Phase 7
- New Phase 8: WASM tools + Docker thread isolation (infra integration)

Updated progress table: Phases 1-5 marked DONE with test counts and commits.

Co-Authored-By: Claude Opus 4.6 (1M context) <[email protected]>
2026-03-21 23:40:48 -07:00
[email protected]andClaude Opus 4.6 0827235c9c feat(engine): Phase 5 — conversation surface separated from execution
Conversation is now a UI layer, not an execution boundary. Multiple
threads can run concurrently within one conversation; threads can
outlive their originating conversation.

New types (types/conversation.rs):
- ConversationSurface: channel + user + entries + active_threads
- ConversationEntry: sender (User/Agent/System) + content + origin_thread_id
- ConversationId, EntryId (UUID newtypes)
- EntrySender enum (User, Agent{thread_id}, System)

ConversationManager (runtime/conversation.rs):
- get_or_create_conversation(channel, user) — indexed by (channel, user)
- handle_user_message() — injects into active foreground thread or spawns new
- record_thread_outcome() — adds agent/system entries, untracks completed threads
- get_conversation(), list_conversations()

This enables the key architectural insight: a user can ask "what's the
weather?" while a deployment thread is still running. Both produce entries
in the same conversation.

85 tests passing, zero clippy warnings.

Co-Authored-By: Claude Opus 4.6 (1M context) <[email protected]>
2026-03-21 23:21:54 -07:00
[email protected]andClaude Opus 4.6 4bc7ffdf0c feat(engine): Phase 4 — budget controls, compaction, reflection pipeline
Budget enforcement in ExecutionLoop:
- max_tokens_total: cumulative token limit, checked before each iteration
- max_duration: wall-clock timeout for entire thread
- max_consecutive_errors: consecutive error steps threshold (resets on
  success, matching official RLM behavior)
- All produce ThreadOutcome::Failed with descriptive messages

Context compaction (from RLM paper, 85% threshold):
- estimate_tokens(): char-based estimation (chars/4, matching RLM)
- should_compact(): triggers when tokens >= threshold_pct * context_limit
- compact_messages(): asks LLM to summarize progress, replaces history
  with [system, summary, continuation_note], preserves intermediate results
- Configurable via ThreadConfig: model_context_limit, compaction_threshold

Dual model routing:
- LlmCallConfig gains depth field (0=root, 1+=sub-call)
- Implementations can route to cheaper models for sub-calls
- ExecutionLoop passes thread depth to every LLM call

Reflection pipeline (reflection/pipeline.rs):
- reflect(thread, llm): analyzes completed thread via LLM
- Produces Summary doc (always), Lesson doc (if errors), Issue doc (if failed)
- Builds transcript from thread messages + error events
- Returns ReflectionResult with docs + token usage

ThreadConfig extended with: max_tokens_total, max_consecutive_errors,
model_context_limit, enable_compaction, compaction_threshold, depth, max_depth.

78 tests passing, zero clippy warnings.

Co-Authored-By: Claude Opus 4.6 (1M context) <[email protected]>
2026-03-21 22:55:34 -07:00
[email protected]andClaude Opus 4.6 953833208e feat(engine): RLM best-practices enhancements from cross-reference analysis
Cross-referenced our implementation against the official RLM (alexzhang13/rlm),
fast-rlm (avbiswas/fast-rlm), and Prime Intellect's verifiers implementation.
Key enhancements:

- FINAL(answer) / FINAL_VAR(name): explicit termination pattern matching
  all three reference implementations. Code can signal completion at any
  point, not just via return value.
- llm_query_batched(prompts): parallel recursive sub-calls via tokio::spawn,
  matching fast-rlm's asyncio.gather pattern and Prime Intellect's llm_batch.
- Output truncation increased to 8000 chars (from 120), matching Prime
  Intellect's 8192 default. Shows [TRUNCATED: last N chars] or [FULL OUTPUT].
- Step 0 orientation preamble: auto-injects context metadata (message count,
  total chars, goal, last user message preview) before first code step,
  matching fast-rlm's auto-print pattern.
- Error-to-LLM flow: Python parse errors, runtime errors, NameErrors,
  OS errors, and async errors now flow back as stdout content instead of
  terminating the step, enabling LLM self-correction on next iteration.
  Only VM panics (catch_unwind) terminate as EngineError.

74 tests passing, zero clippy warnings.

Co-Authored-By: Claude Opus 4.6 (1M context) <[email protected]>
2026-03-21 22:05:05 -07:00
[email protected]andClaude Opus 4.6 b59a0b9e42 feat(engine): Phase 3 — Monty Python executor with RLM pattern
Add CodeAct execution (Tier 1) using the Monty embedded Python
interpreter, following the Recursive Language Model (RLM) pattern
from arXiv:2512.24601.

Key additions:
- executor/scripting.rs: Monty integration with FunctionCall-based
  tool dispatch, catch_unwind panic safety, resource limits (30s,
  64MB, 1M allocs)
- LlmResponse::Code variant + ExecutionTier::Scripting
- Context-as-variables (RLM 3.4): thread messages, goal, step_number,
  previous_results injected as Python variables — LLM context stays
  lean while code accesses data selectively
- llm_query(prompt, context) (RLM 3.5): recursive subagent calls
  from within Python code — results stored as variables, not injected
  into parent's attention window (symbolic composition)
- Compact output metadata between code steps instead of full stdout
- MontyObject ↔ serde_json::Value bidirectional conversion
- Updated architecture plan with RLM design principles

74 tests passing, zero clippy warnings.

Co-Authored-By: Claude Opus 4.6 (1M context) <[email protected]>
2026-03-21 21:32:52 -07:00
[email protected]andClaude Opus 4.6 bf7dfb8c49 feat(engine): Phase 2 — execution loop, capability system, thread runtime
Add the core execution engine to ironclaw_engine crate:

- CapabilityRegistry: register/get/list capabilities and actions
- LeaseManager: async lease lifecycle (grant, check, consume, revoke, expire)
- PolicyEngine: deterministic effect-level allow/deny/approve
- ThreadTree: parent-child relationship tracking
- ThreadSignal/ThreadOutcome: inter-thread messaging via mpsc
- ThreadManager: spawn threads as tokio tasks, stop, inject messages, join
- ExecutionLoop: core loop replacing run_agentic_loop() with signals,
  context building, LLM calls, action execution, and event recording
- Structured executor (Tier 0): lease lookup → policy check → effect execution
- Tool intent nudge detection
- MemoryStore + RetrievalEngine stubs for Phase 4
- Full 8-phase architecture plan in docs/plans/
- CLAUDE.md spec for the engine crate

74 tests passing, zero clippy warnings.

Co-Authored-By: Claude Opus 4.6 (1M context) <[email protected]>
2026-03-21 00:16:41 -07:00
[email protected] 8be19a4128 v2 architecture phase 1 2026-03-20 23:32:01 -07:00