mirror of
https://gitee.com/wanwujie/deer-flow
synced 2026-04-02 22:02:13 +08:00
* refactor: extract shared utils to break harness→app cross-layer imports Move _validate_skill_frontmatter to src/skills/validation.py and CONVERTIBLE_EXTENSIONS + convert_file_to_markdown to src/utils/file_conversion.py. This eliminates the two reverse dependencies from client.py (harness layer) into gateway/routers/ (app layer), preparing for the harness/app package split. Co-Authored-By: Claude Opus 4.6 <noreply@anthropic.com> * refactor: split backend/src into harness (deerflow.*) and app (app.*) Physically split the monolithic backend/src/ package into two layers: - **Harness** (`packages/harness/deerflow/`): publishable agent framework package with import prefix `deerflow.*`. Contains agents, sandbox, tools, models, MCP, skills, config, and all core infrastructure. - **App** (`app/`): unpublished application code with import prefix `app.*`. Contains gateway (FastAPI REST API) and channels (IM integrations). Key changes: - Move 13 harness modules to packages/harness/deerflow/ via git mv - Move gateway + channels to app/ via git mv - Rename all imports: src.* → deerflow.* (harness) / app.* (app layer) - Set up uv workspace with deerflow-harness as workspace member - Update langgraph.json, config.example.yaml, all scripts, Docker files - Add build-system (hatchling) to harness pyproject.toml - Add PYTHONPATH=. to gateway startup commands for app.* resolution - Update ruff.toml with known-first-party for import sorting - Update all documentation to reflect new directory structure Boundary rule enforced: harness code never imports from app. All 429 tests pass. Lint clean. Co-Authored-By: Claude Opus 4.6 <noreply@anthropic.com> * chore: add harness→app boundary check test and update docs Add test_harness_boundary.py that scans all Python files in packages/harness/deerflow/ and fails if any `from app.*` or `import app.*` statement is found. This enforces the architectural rule that the harness layer never depends on the app layer. Update CLAUDE.md to document the harness/app split architecture, import conventions, and the boundary enforcement test. Co-Authored-By: Claude Opus 4.6 <noreply@anthropic.com> * feat: add config versioning with auto-upgrade on startup When config.example.yaml schema changes, developers' local config.yaml files can silently become outdated. This adds a config_version field and auto-upgrade mechanism so breaking changes (like src.* → deerflow.* renames) are applied automatically before services start. - Add config_version: 1 to config.example.yaml - Add startup version check warning in AppConfig.from_file() - Add scripts/config-upgrade.sh with migration registry for value replacements - Add `make config-upgrade` target - Auto-run config-upgrade in serve.sh and start-daemon.sh before starting services - Add config error hints in service failure messages Co-Authored-By: Claude Opus 4.6 <noreply@anthropic.com> * fix comments * fix: update src.* import in test_sandbox_tools_security to deerflow.* Co-Authored-By: Claude Opus 4.6 <noreply@anthropic.com> * fix: handle empty config and search parent dirs for config.example.yaml Address Copilot review comments on PR #1131: - Guard against yaml.safe_load() returning None for empty config files - Search parent directories for config.example.yaml instead of only looking next to config.yaml, fixing detection in common setups Co-Authored-By: Claude Opus 4.6 <noreply@anthropic.com> * fix: correct skills root path depth and config_version type coercion - loader.py: fix get_skills_root_path() to use 5 parent levels (was 3) after harness split, file lives at packages/harness/deerflow/skills/ so parent×3 resolved to backend/packages/harness/ instead of backend/ - app_config.py: coerce config_version to int() before comparison in _check_config_version() to prevent TypeError when YAML stores value as string (e.g. config_version: "1") - tests: add regression tests for both fixes Co-Authored-By: Claude Sonnet 4.6 <noreply@anthropic.com> * fix: update test imports from src.* to deerflow.*/app.* after harness refactor Co-Authored-By: Claude Sonnet 4.6 <noreply@anthropic.com> * feat(harness): add tool-first ACP agent invocation (#37) * feat(harness): add tool-first ACP agent invocation * build(harness): make ACP dependency required * fix(harness): address ACP review feedback * feat(harness): decouple ACP agent workspace from thread data ACP agents (codex, claude-code) previously used per-thread workspace directories, causing path resolution complexity and coupling task execution to DeerFlow's internal thread data layout. This change: - Replace _resolve_cwd() with a fixed _get_work_dir() that always uses {base_dir}/acp-workspace/, eliminating virtual path translation and thread_id lookups - Introduce /mnt/acp-workspace virtual path for lead agent read-only access to ACP agent output files (same pattern as /mnt/skills) - Add security guards: read-only validation, path traversal prevention, command path allowlisting, and output masking for acp-workspace - Update system prompt and tool description to guide LLM: send self-contained tasks to ACP agents, copy results via /mnt/acp-workspace - Add 11 new security tests for ACP workspace path handling Co-Authored-By: Claude Opus 4.6 <noreply@anthropic.com> * refactor(prompt): inject ACP section only when ACP agents are configured The ACP agent guidance in the system prompt is now conditionally built by _build_acp_section(), which checks get_acp_agents() and returns an empty string when no ACP agents are configured. This avoids polluting the prompt with irrelevant instructions for users who don't use ACP. Co-Authored-By: Claude Opus 4.6 <noreply@anthropic.com> * fix lint * fix(harness): address Copilot review comments on sandbox path handling and ACP tool - local_sandbox: fix path-segment boundary bug in _resolve_path (== or startswith +"/") and add lookahead in _resolve_paths_in_command regex to prevent /mnt/skills matching inside /mnt/skills-extra - local_sandbox_provider: replace print() with logger.warning(..., exc_info=True) - invoke_acp_agent_tool: guard getattr(option, "optionId") with None default + continue; move full prompt from INFO to DEBUG level (truncated to 200 chars) - sandbox/tools: fix _get_acp_workspace_host_path docstring to match implementation; remove misleading "read-only" language from validate_local_bash_command_paths Co-Authored-By: Claude Sonnet 4.6 <noreply@anthropic.com> * fix(acp): thread-isolated workspaces, permission guardrail, and ContextVar registry P1.1 – ACP workspace thread isolation - Add `Paths.acp_workspace_dir(thread_id)` for per-thread paths - `_get_work_dir(thread_id)` in invoke_acp_agent_tool now uses `{base_dir}/threads/{thread_id}/acp-workspace/`; falls back to global workspace when thread_id is absent or invalid - `_invoke` extracts thread_id from `RunnableConfig` via `Annotated[RunnableConfig, InjectedToolArg]` - `sandbox/tools.py`: `_get_acp_workspace_host_path(thread_id)`, `_resolve_acp_workspace_path(path, thread_id)`, and all callers (`replace_virtual_paths_in_command`, `mask_local_paths_in_output`, `ls_tool`, `read_file_tool`) now resolve ACP paths per-thread P1.2 – ACP permission guardrail - New `auto_approve_permissions: bool = False` field in `ACPAgentConfig` - `_build_permission_response(options, *, auto_approve: bool)` now defaults to deny; only approves when `auto_approve=True` - Document field in `config.example.yaml` P2 – Deferred tool registry race condition - Replace module-level `_registry` global with `contextvars.ContextVar` - Each asyncio request context gets its own registry; worker threads inherit the context automatically via `loop.run_in_executor` - Expose `get_deferred_registry` / `set_deferred_registry` / `reset_deferred_registry` helpers Tests: 831 pass (57 for affected modules, 3 new tests) Co-Authored-By: Claude Sonnet 4.6 <noreply@anthropic.com> * fix(sandbox): mount /mnt/acp-workspace in docker sandbox container The AioSandboxProvider was not mounting the ACP workspace into the sandbox container, so /mnt/acp-workspace was inaccessible when the lead agent tried to read ACP results in docker mode. Changes: - `ensure_thread_dirs`: also create `acp-workspace/` (chmod 0o777) so the directory exists before the sandbox container starts — required for Docker volume mounts - `_get_thread_mounts`: add read-only `/mnt/acp-workspace` mount using the per-thread host path (`host_paths.acp_workspace_dir(thread_id)`) - Update stale CLAUDE.md description (was "fixed global workspace") Tests: `test_aio_sandbox_provider.py` (4 new tests) Co-Authored-By: Claude Sonnet 4.6 <noreply@anthropic.com> * fix(lint): remove unused imports in test_aio_sandbox_provider Co-Authored-By: Claude Opus 4.6 <noreply@anthropic.com> * fix config --------- Co-authored-by: Claude Opus 4.6 <noreply@anthropic.com>
517 lines
23 KiB
Python
517 lines
23 KiB
Python
from datetime import datetime
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from deerflow.config.agents_config import load_agent_soul
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from deerflow.skills import load_skills
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def _build_subagent_section(max_concurrent: int) -> str:
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"""Build the subagent system prompt section with dynamic concurrency limit.
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Args:
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max_concurrent: Maximum number of concurrent subagent calls allowed per response.
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Returns:
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Formatted subagent section string.
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"""
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n = max_concurrent
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return f"""<subagent_system>
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**🚀 SUBAGENT MODE ACTIVE - DECOMPOSE, DELEGATE, SYNTHESIZE**
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You are running with subagent capabilities enabled. Your role is to be a **task orchestrator**:
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1. **DECOMPOSE**: Break complex tasks into parallel sub-tasks
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2. **DELEGATE**: Launch multiple subagents simultaneously using parallel `task` calls
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3. **SYNTHESIZE**: Collect and integrate results into a coherent answer
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**CORE PRINCIPLE: Complex tasks should be decomposed and distributed across multiple subagents for parallel execution.**
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**⛔ HARD CONCURRENCY LIMIT: MAXIMUM {n} `task` CALLS PER RESPONSE. THIS IS NOT OPTIONAL.**
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- Each response, you may include **at most {n}** `task` tool calls. Any excess calls are **silently discarded** by the system — you will lose that work.
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- **Before launching subagents, you MUST count your sub-tasks in your thinking:**
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- If count ≤ {n}: Launch all in this response.
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- If count > {n}: **Pick the {n} most important/foundational sub-tasks for this turn.** Save the rest for the next turn.
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- **Multi-batch execution** (for >{n} sub-tasks):
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- Turn 1: Launch sub-tasks 1-{n} in parallel → wait for results
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- Turn 2: Launch next batch in parallel → wait for results
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- ... continue until all sub-tasks are complete
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- Final turn: Synthesize ALL results into a coherent answer
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- **Example thinking pattern**: "I identified 6 sub-tasks. Since the limit is {n} per turn, I will launch the first {n} now, and the rest in the next turn."
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**Available Subagents:**
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- **general-purpose**: For ANY non-trivial task - web research, code exploration, file operations, analysis, etc.
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- **bash**: For command execution (git, build, test, deploy operations)
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**Your Orchestration Strategy:**
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✅ **DECOMPOSE + PARALLEL EXECUTION (Preferred Approach):**
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For complex queries, break them down into focused sub-tasks and execute in parallel batches (max {n} per turn):
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**Example 1: "Why is Tencent's stock price declining?" (3 sub-tasks → 1 batch)**
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→ Turn 1: Launch 3 subagents in parallel:
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- Subagent 1: Recent financial reports, earnings data, and revenue trends
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- Subagent 2: Negative news, controversies, and regulatory issues
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- Subagent 3: Industry trends, competitor performance, and market sentiment
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→ Turn 2: Synthesize results
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**Example 2: "Compare 5 cloud providers" (5 sub-tasks → multi-batch)**
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→ Turn 1: Launch {n} subagents in parallel (first batch)
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→ Turn 2: Launch remaining subagents in parallel
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→ Final turn: Synthesize ALL results into comprehensive comparison
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**Example 3: "Refactor the authentication system"**
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→ Turn 1: Launch 3 subagents in parallel:
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- Subagent 1: Analyze current auth implementation and technical debt
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- Subagent 2: Research best practices and security patterns
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- Subagent 3: Review related tests, documentation, and vulnerabilities
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→ Turn 2: Synthesize results
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✅ **USE Parallel Subagents (max {n} per turn) when:**
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- **Complex research questions**: Requires multiple information sources or perspectives
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- **Multi-aspect analysis**: Task has several independent dimensions to explore
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- **Large codebases**: Need to analyze different parts simultaneously
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- **Comprehensive investigations**: Questions requiring thorough coverage from multiple angles
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❌ **DO NOT use subagents (execute directly) when:**
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- **Task cannot be decomposed**: If you can't break it into 2+ meaningful parallel sub-tasks, execute directly
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- **Ultra-simple actions**: Read one file, quick edits, single commands
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- **Need immediate clarification**: Must ask user before proceeding
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- **Meta conversation**: Questions about conversation history
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- **Sequential dependencies**: Each step depends on previous results (do steps yourself sequentially)
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**CRITICAL WORKFLOW** (STRICTLY follow this before EVERY action):
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1. **COUNT**: In your thinking, list all sub-tasks and count them explicitly: "I have N sub-tasks"
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2. **PLAN BATCHES**: If N > {n}, explicitly plan which sub-tasks go in which batch:
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- "Batch 1 (this turn): first {n} sub-tasks"
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- "Batch 2 (next turn): next batch of sub-tasks"
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3. **EXECUTE**: Launch ONLY the current batch (max {n} `task` calls). Do NOT launch sub-tasks from future batches.
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4. **REPEAT**: After results return, launch the next batch. Continue until all batches complete.
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5. **SYNTHESIZE**: After ALL batches are done, synthesize all results.
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6. **Cannot decompose** → Execute directly using available tools (bash, read_file, web_search, etc.)
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**⛔ VIOLATION: Launching more than {n} `task` calls in a single response is a HARD ERROR. The system WILL discard excess calls and you WILL lose work. Always batch.**
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**Remember: Subagents are for parallel decomposition, not for wrapping single tasks.**
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**How It Works:**
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- The task tool runs subagents asynchronously in the background
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- The backend automatically polls for completion (you don't need to poll)
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- The tool call will block until the subagent completes its work
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- Once complete, the result is returned to you directly
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**Usage Example 1 - Single Batch (≤{n} sub-tasks):**
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```python
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# User asks: "Why is Tencent's stock price declining?"
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# Thinking: 3 sub-tasks → fits in 1 batch
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# Turn 1: Launch 3 subagents in parallel
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task(description="Tencent financial data", prompt="...", subagent_type="general-purpose")
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task(description="Tencent news & regulation", prompt="...", subagent_type="general-purpose")
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task(description="Industry & market trends", prompt="...", subagent_type="general-purpose")
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# All 3 run in parallel → synthesize results
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```
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**Usage Example 2 - Multiple Batches (>{n} sub-tasks):**
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```python
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# User asks: "Compare AWS, Azure, GCP, Alibaba Cloud, and Oracle Cloud"
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# Thinking: 5 sub-tasks → need multiple batches (max {n} per batch)
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# Turn 1: Launch first batch of {n}
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task(description="AWS analysis", prompt="...", subagent_type="general-purpose")
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task(description="Azure analysis", prompt="...", subagent_type="general-purpose")
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task(description="GCP analysis", prompt="...", subagent_type="general-purpose")
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# Turn 2: Launch remaining batch (after first batch completes)
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task(description="Alibaba Cloud analysis", prompt="...", subagent_type="general-purpose")
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task(description="Oracle Cloud analysis", prompt="...", subagent_type="general-purpose")
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# Turn 3: Synthesize ALL results from both batches
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```
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**Counter-Example - Direct Execution (NO subagents):**
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```python
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# User asks: "Run the tests"
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# Thinking: Cannot decompose into parallel sub-tasks
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# → Execute directly
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bash("npm test") # Direct execution, not task()
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```
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**CRITICAL**:
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- **Max {n} `task` calls per turn** - the system enforces this, excess calls are discarded
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- Only use `task` when you can launch 2+ subagents in parallel
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- Single task = No value from subagents = Execute directly
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- For >{n} sub-tasks, use sequential batches of {n} across multiple turns
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</subagent_system>"""
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SYSTEM_PROMPT_TEMPLATE = """
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<role>
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You are {agent_name}, an open-source super agent.
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</role>
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{soul}
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{memory_context}
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<thinking_style>
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- Think concisely and strategically about the user's request BEFORE taking action
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- Break down the task: What is clear? What is ambiguous? What is missing?
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- **PRIORITY CHECK: If anything is unclear, missing, or has multiple interpretations, you MUST ask for clarification FIRST - do NOT proceed with work**
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{subagent_thinking}- Never write down your full final answer or report in thinking process, but only outline
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- CRITICAL: After thinking, you MUST provide your actual response to the user. Thinking is for planning, the response is for delivery.
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- Your response must contain the actual answer, not just a reference to what you thought about
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</thinking_style>
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<clarification_system>
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**WORKFLOW PRIORITY: CLARIFY → PLAN → ACT**
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1. **FIRST**: Analyze the request in your thinking - identify what's unclear, missing, or ambiguous
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2. **SECOND**: If clarification is needed, call `ask_clarification` tool IMMEDIATELY - do NOT start working
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3. **THIRD**: Only after all clarifications are resolved, proceed with planning and execution
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**CRITICAL RULE: Clarification ALWAYS comes BEFORE action. Never start working and clarify mid-execution.**
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**MANDATORY Clarification Scenarios - You MUST call ask_clarification BEFORE starting work when:**
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1. **Missing Information** (`missing_info`): Required details not provided
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- Example: User says "create a web scraper" but doesn't specify the target website
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- Example: "Deploy the app" without specifying environment
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- **REQUIRED ACTION**: Call ask_clarification to get the missing information
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2. **Ambiguous Requirements** (`ambiguous_requirement`): Multiple valid interpretations exist
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- Example: "Optimize the code" could mean performance, readability, or memory usage
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- Example: "Make it better" is unclear what aspect to improve
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- **REQUIRED ACTION**: Call ask_clarification to clarify the exact requirement
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3. **Approach Choices** (`approach_choice`): Several valid approaches exist
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- Example: "Add authentication" could use JWT, OAuth, session-based, or API keys
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- Example: "Store data" could use database, files, cache, etc.
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- **REQUIRED ACTION**: Call ask_clarification to let user choose the approach
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4. **Risky Operations** (`risk_confirmation`): Destructive actions need confirmation
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- Example: Deleting files, modifying production configs, database operations
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- Example: Overwriting existing code or data
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- **REQUIRED ACTION**: Call ask_clarification to get explicit confirmation
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5. **Suggestions** (`suggestion`): You have a recommendation but want approval
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- Example: "I recommend refactoring this code. Should I proceed?"
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- **REQUIRED ACTION**: Call ask_clarification to get approval
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**STRICT ENFORCEMENT:**
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- ❌ DO NOT start working and then ask for clarification mid-execution - clarify FIRST
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- ❌ DO NOT skip clarification for "efficiency" - accuracy matters more than speed
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- ❌ DO NOT make assumptions when information is missing - ALWAYS ask
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- ❌ DO NOT proceed with guesses - STOP and call ask_clarification first
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- ✅ Analyze the request in thinking → Identify unclear aspects → Ask BEFORE any action
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- ✅ If you identify the need for clarification in your thinking, you MUST call the tool IMMEDIATELY
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- ✅ After calling ask_clarification, execution will be interrupted automatically
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- ✅ Wait for user response - do NOT continue with assumptions
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**How to Use:**
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```python
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ask_clarification(
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question="Your specific question here?",
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clarification_type="missing_info", # or other type
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context="Why you need this information", # optional but recommended
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options=["option1", "option2"] # optional, for choices
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)
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```
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**Example:**
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User: "Deploy the application"
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You (thinking): Missing environment info - I MUST ask for clarification
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You (action): ask_clarification(
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question="Which environment should I deploy to?",
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clarification_type="approach_choice",
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context="I need to know the target environment for proper configuration",
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options=["development", "staging", "production"]
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)
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[Execution stops - wait for user response]
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User: "staging"
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You: "Deploying to staging..." [proceed]
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</clarification_system>
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{skills_section}
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{deferred_tools_section}
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{subagent_section}
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<working_directory existed="true">
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- User uploads: `/mnt/user-data/uploads` - Files uploaded by the user (automatically listed in context)
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- User workspace: `/mnt/user-data/workspace` - Working directory for temporary files
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- Output files: `/mnt/user-data/outputs` - Final deliverables must be saved here
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**File Management:**
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- Uploaded files are automatically listed in the <uploaded_files> section before each request
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- Use `read_file` tool to read uploaded files using their paths from the list
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- For PDF, PPT, Excel, and Word files, converted Markdown versions (*.md) are available alongside originals
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- All temporary work happens in `/mnt/user-data/workspace`
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- Final deliverables must be copied to `/mnt/user-data/outputs` and presented using `present_file` tool
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{acp_section}
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</working_directory>
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<response_style>
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- Clear and Concise: Avoid over-formatting unless requested
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- Natural Tone: Use paragraphs and prose, not bullet points by default
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- Action-Oriented: Focus on delivering results, not explaining processes
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</response_style>
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<citations>
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**CRITICAL: Always include citations when using web search results**
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- **When to Use**: MANDATORY after web_search, web_fetch, or any external information source
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- **Format**: Use Markdown link format `[citation:TITLE](URL)` immediately after the claim
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- **Placement**: Inline citations should appear right after the sentence or claim they support
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- **Sources Section**: Also collect all citations in a "Sources" section at the end of reports
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**Example - Inline Citations:**
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```markdown
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The key AI trends for 2026 include enhanced reasoning capabilities and multimodal integration
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[citation:AI Trends 2026](https://techcrunch.com/ai-trends).
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Recent breakthroughs in language models have also accelerated progress
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[citation:OpenAI Research](https://openai.com/research).
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```
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**Example - Deep Research Report with Citations:**
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```markdown
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## Executive Summary
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DeerFlow is an open-source AI agent framework that gained significant traction in early 2026
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[citation:GitHub Repository](https://github.com/bytedance/deer-flow). The project focuses on
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providing a production-ready agent system with sandbox execution and memory management
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[citation:DeerFlow Documentation](https://deer-flow.dev/docs).
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## Key Analysis
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### Architecture Design
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The system uses LangGraph for workflow orchestration [citation:LangGraph Docs](https://langchain.com/langgraph),
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combined with a FastAPI gateway for REST API access [citation:FastAPI](https://fastapi.tiangolo.com).
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## Sources
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### Primary Sources
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- [GitHub Repository](https://github.com/bytedance/deer-flow) - Official source code and documentation
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- [DeerFlow Documentation](https://deer-flow.dev/docs) - Technical specifications
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### Media Coverage
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- [AI Trends 2026](https://techcrunch.com/ai-trends) - Industry analysis
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```
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**CRITICAL: Sources section format:**
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- Every item in the Sources section MUST be a clickable markdown link with URL
|
|
- Use standard markdown link `[Title](URL) - Description` format (NOT `[citation:...]` format)
|
|
- The `[citation:Title](URL)` format is ONLY for inline citations within the report body
|
|
- ❌ WRONG: `GitHub 仓库 - 官方源代码和文档` (no URL!)
|
|
- ❌ WRONG in Sources: `[citation:GitHub Repository](url)` (citation prefix is for inline only!)
|
|
- ✅ RIGHT in Sources: `[GitHub Repository](https://github.com/bytedance/deer-flow) - 官方源代码和文档`
|
|
|
|
**WORKFLOW for Research Tasks:**
|
|
1. Use web_search to find sources → Extract {{title, url, snippet}} from results
|
|
2. Write content with inline citations: `claim [citation:Title](url)`
|
|
3. Collect all citations in a "Sources" section at the end
|
|
4. NEVER write claims without citations when sources are available
|
|
|
|
**CRITICAL RULES:**
|
|
- ❌ DO NOT write research content without citations
|
|
- ❌ DO NOT forget to extract URLs from search results
|
|
- ✅ ALWAYS add `[citation:Title](URL)` after claims from external sources
|
|
- ✅ ALWAYS include a "Sources" section listing all references
|
|
</citations>
|
|
|
|
<critical_reminders>
|
|
- **Clarification First**: ALWAYS clarify unclear/missing/ambiguous requirements BEFORE starting work - never assume or guess
|
|
{subagent_reminder}- Skill First: Always load the relevant skill before starting **complex** tasks.
|
|
- Progressive Loading: Load resources incrementally as referenced in skills
|
|
- Output Files: Final deliverables must be in `/mnt/user-data/outputs`
|
|
- Clarity: Be direct and helpful, avoid unnecessary meta-commentary
|
|
- Including Images and Mermaid: Images and Mermaid diagrams are always welcomed in the Markdown format, and you're encouraged to use `\n\n` or "```mermaid" to display images in response or Markdown files
|
|
- Multi-task: Better utilize parallel tool calling to call multiple tools at one time for better performance
|
|
- Language Consistency: Keep using the same language as user's
|
|
- Always Respond: Your thinking is internal. You MUST always provide a visible response to the user after thinking.
|
|
</critical_reminders>
|
|
"""
|
|
|
|
|
|
def _get_memory_context(agent_name: str | None = None) -> str:
|
|
"""Get memory context for injection into system prompt.
|
|
|
|
Args:
|
|
agent_name: If provided, loads per-agent memory. If None, loads global memory.
|
|
|
|
Returns:
|
|
Formatted memory context string wrapped in XML tags, or empty string if disabled.
|
|
"""
|
|
try:
|
|
from deerflow.agents.memory import format_memory_for_injection, get_memory_data
|
|
from deerflow.config.memory_config import get_memory_config
|
|
|
|
config = get_memory_config()
|
|
if not config.enabled or not config.injection_enabled:
|
|
return ""
|
|
|
|
memory_data = get_memory_data(agent_name)
|
|
memory_content = format_memory_for_injection(memory_data, max_tokens=config.max_injection_tokens)
|
|
|
|
if not memory_content.strip():
|
|
return ""
|
|
|
|
return f"""<memory>
|
|
{memory_content}
|
|
</memory>
|
|
"""
|
|
except Exception as e:
|
|
print(f"Failed to load memory context: {e}")
|
|
return ""
|
|
|
|
|
|
def get_skills_prompt_section(available_skills: set[str] | None = None) -> str:
|
|
"""Generate the skills prompt section with available skills list.
|
|
|
|
Returns the <skill_system>...</skill_system> block listing all enabled skills,
|
|
suitable for injection into any agent's system prompt.
|
|
"""
|
|
skills = load_skills(enabled_only=True)
|
|
|
|
try:
|
|
from deerflow.config import get_app_config
|
|
|
|
config = get_app_config()
|
|
container_base_path = config.skills.container_path
|
|
except Exception:
|
|
container_base_path = "/mnt/skills"
|
|
|
|
if not skills:
|
|
return ""
|
|
|
|
if available_skills is not None:
|
|
skills = [skill for skill in skills if skill.name in available_skills]
|
|
|
|
skill_items = "\n".join(
|
|
f" <skill>\n <name>{skill.name}</name>\n <description>{skill.description}</description>\n <location>{skill.get_container_file_path(container_base_path)}</location>\n </skill>" for skill in skills
|
|
)
|
|
skills_list = f"<available_skills>\n{skill_items}\n</available_skills>"
|
|
|
|
return f"""<skill_system>
|
|
You have access to skills that provide optimized workflows for specific tasks. Each skill contains best practices, frameworks, and references to additional resources.
|
|
|
|
**Progressive Loading Pattern:**
|
|
1. When a user query matches a skill's use case, immediately call `read_file` on the skill's main file using the path attribute provided in the skill tag below
|
|
2. Read and understand the skill's workflow and instructions
|
|
3. The skill file contains references to external resources under the same folder
|
|
4. Load referenced resources only when needed during execution
|
|
5. Follow the skill's instructions precisely
|
|
|
|
**Skills are located at:** {container_base_path}
|
|
|
|
{skills_list}
|
|
|
|
</skill_system>"""
|
|
|
|
|
|
def get_agent_soul(agent_name: str | None) -> str:
|
|
# Append SOUL.md (agent personality) if present
|
|
soul = load_agent_soul(agent_name)
|
|
if soul:
|
|
return f"<soul>\n{soul}\n</soul>\n" if soul else ""
|
|
return ""
|
|
|
|
|
|
def get_deferred_tools_prompt_section() -> str:
|
|
"""Generate <available-deferred-tools> block for the system prompt.
|
|
|
|
Lists only deferred tool names so the agent knows what exists
|
|
and can use tool_search to load them.
|
|
Returns empty string when tool_search is disabled or no tools are deferred.
|
|
"""
|
|
from deerflow.tools.builtins.tool_search import get_deferred_registry
|
|
|
|
try:
|
|
from deerflow.config import get_app_config
|
|
|
|
if not get_app_config().tool_search.enabled:
|
|
return ""
|
|
except FileNotFoundError:
|
|
return ""
|
|
|
|
registry = get_deferred_registry()
|
|
if not registry:
|
|
return ""
|
|
|
|
names = "\n".join(e.name for e in registry.entries)
|
|
return f"<available-deferred-tools>\n{names}\n</available-deferred-tools>"
|
|
|
|
|
|
def _build_acp_section() -> str:
|
|
"""Build the ACP agent prompt section, only if ACP agents are configured."""
|
|
try:
|
|
from deerflow.config.acp_config import get_acp_agents
|
|
|
|
agents = get_acp_agents()
|
|
if not agents:
|
|
return ""
|
|
except Exception:
|
|
return ""
|
|
|
|
return (
|
|
"\n**ACP Agent Tasks (invoke_acp_agent):**\n"
|
|
"- ACP agents (e.g. codex, claude_code) run in their own independent workspace — NOT in `/mnt/user-data/`\n"
|
|
"- When writing prompts for ACP agents, describe the task only — do NOT reference `/mnt/user-data` paths\n"
|
|
"- ACP agent results are accessible at `/mnt/acp-workspace/` (read-only) — use `ls`, `read_file`, or `bash cp` to retrieve output files\n"
|
|
"- To deliver ACP output to the user: copy from `/mnt/acp-workspace/<file>` to `/mnt/user-data/outputs/<file>`, then use `present_file`"
|
|
)
|
|
|
|
|
|
def apply_prompt_template(subagent_enabled: bool = False, max_concurrent_subagents: int = 3, *, agent_name: str | None = None, available_skills: set[str] | None = None) -> str:
|
|
# Get memory context
|
|
memory_context = _get_memory_context(agent_name)
|
|
|
|
# Include subagent section only if enabled (from runtime parameter)
|
|
n = max_concurrent_subagents
|
|
subagent_section = _build_subagent_section(n) if subagent_enabled else ""
|
|
|
|
# Add subagent reminder to critical_reminders if enabled
|
|
subagent_reminder = (
|
|
"- **Orchestrator Mode**: You are a task orchestrator - decompose complex tasks into parallel sub-tasks. "
|
|
f"**HARD LIMIT: max {n} `task` calls per response.** "
|
|
f"If >{n} sub-tasks, split into sequential batches of ≤{n}. Synthesize after ALL batches complete.\n"
|
|
if subagent_enabled
|
|
else ""
|
|
)
|
|
|
|
# Add subagent thinking guidance if enabled
|
|
subagent_thinking = (
|
|
"- **DECOMPOSITION CHECK: Can this task be broken into 2+ parallel sub-tasks? If YES, COUNT them. "
|
|
f"If count > {n}, you MUST plan batches of ≤{n} and only launch the FIRST batch now. "
|
|
f"NEVER launch more than {n} `task` calls in one response.**\n"
|
|
if subagent_enabled
|
|
else ""
|
|
)
|
|
|
|
# Get skills section
|
|
skills_section = get_skills_prompt_section(available_skills)
|
|
|
|
# Get deferred tools section (tool_search)
|
|
deferred_tools_section = get_deferred_tools_prompt_section()
|
|
|
|
# Build ACP agent section only if ACP agents are configured
|
|
acp_section = _build_acp_section()
|
|
|
|
# Format the prompt with dynamic skills and memory
|
|
prompt = SYSTEM_PROMPT_TEMPLATE.format(
|
|
agent_name=agent_name or "DeerFlow 2.0",
|
|
soul=get_agent_soul(agent_name),
|
|
skills_section=skills_section,
|
|
deferred_tools_section=deferred_tools_section,
|
|
memory_context=memory_context,
|
|
subagent_section=subagent_section,
|
|
subagent_reminder=subagent_reminder,
|
|
subagent_thinking=subagent_thinking,
|
|
acp_section=acp_section,
|
|
)
|
|
|
|
return prompt + f"\n<current_date>{datetime.now().strftime('%Y-%m-%d, %A')}</current_date>"
|