[KimiClaw] Uniwizard routing modules — quality scorer, task classifier, self-grader #107

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Rockachopa merged 1 commits from feat/uniwizard-routing-modules into main 2026-03-30 20:15:37 +00:00
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# Context Compression Review
## Gitea Issue: timmy-home #92
**Date:** 2026-03-30
**Reviewer:** Timmy (Agent)
**Scope:** `~/.hermes/hermes-agent/agent/context_compressor.py`
---
## Executive Summary
The Hermes context compressor is a **mature, well-architected implementation** with sophisticated handling of tool call pairs, iterative summary updates, and token-aware tail protection. However, there are several **high-impact gaps** related to fallback chain awareness, early warning systems, and checkpoint integration that should be addressed for production reliability.
**Overall Grade:** B+ (Solid foundation, needs edge-case hardening)
---
## What the Current Implementation Does Well
### 1. Structured Summary Template (Lines 276-303)
The compressor uses a Pi-mono/OpenCode-inspired structured format:
- **Goal**: What the user is trying to accomplish
- **Constraints & Preferences**: User preferences, coding style
- **Progress**: Done / In Progress / Blocked sections
- **Key Decisions**: Important technical decisions with rationale
- **Relevant Files**: Files read/modified/created with notes
- **Next Steps**: What needs to happen next
- **Critical Context**: Values, error messages, config details that would be lost
This is **best-in-class** compared to most context compression implementations.
### 2. Iterative Summary Updates (Lines 264-304)
The `_previous_summary` mechanism preserves information across multiple compactions:
- On first compaction: Summarizes from scratch
- On subsequent compactions: Updates previous summary with new progress
- Moves items from "In Progress" to "Done" when completed
- Accumulates constraints and file references across compactions
### 3. Token-Budget Tail Protection (Lines 490-539)
Instead of fixed message counts, protects the most recent N tokens:
```python
tail_token_budget = threshold_tokens * summary_target_ratio
# Default: 50% of 128K context = 64K threshold → ~13K token tail
```
This scales automatically with model context window.
### 4. Tool Call/Result Pair Integrity (Lines 392-450)
Sophisticated handling of orphaned tool pairs:
- `_sanitize_tool_pairs()`: Removes orphaned results, adds stubs for missing results
- `_align_boundary_forward/backward()`: Prevents splitting tool groups
- Protects the integrity of the message sequence for API compliance
### 5. Tool Output Pruning Pre-Pass (Lines 152-182)
Cheap first pass that replaces old tool results with placeholders:
```python
_PRUNED_TOOL_PLACEHOLDER = "[Old tool output cleared to save context space]"
```
Only prunes content >200 chars, preserving smaller results.
### 6. Rich Serialization for Summary Input (Lines 199-248)
Includes tool call arguments and truncates intelligently:
- Tool results: Up to 3000 chars (with smart truncation keeping head/tail)
- Tool calls: Function name AND arguments (truncated to 400 chars if needed)
- All roles: 3000 char limit with ellipses
### 7. Proper Integration with Agent Loop
- Initialized in `AIAgent.__init__()` (lines 1191-1203)
- Triggered in `_compress_context()` (line 5259)
- Resets state in `reset_session_state()` (lines 1263-1271)
- Updates token counts via `update_from_response()` (lines 122-126)
---
## What's Missing or Broken
### 🔴 CRITICAL: No Fallback Chain Context Window Awareness
**Issue:** When the agent falls back to a model with a smaller context window (e.g., primary Claude 1M tokens → fallback GPT-4 128K tokens), the compressor's threshold is based on the **original model**, not the fallback model.
**Location:** `run_agent.py` compression initialization (lines 1191-1203)
**Impact:**
- Fallback model may hit context limits before compression triggers
- Or compression may trigger too aggressively for smaller models
**Evidence:**
```python
# In AIAgent.__init__():
self.context_compressor = ContextCompressor(
model=self.model, # Original model only
# ... no fallback context lengths passed
)
```
**Fix Needed:** Pass fallback chain context lengths and use minimum:
```python
# Suggested approach:
context_lengths = [get_model_context_length(m) for m in [primary] + fallbacks]
effective_context = min(context_lengths) # Conservative
```
---
### 🔴 HIGH: No Pre-Compression Checkpoint
**Issue:** When compression occurs, the pre-compression state is lost. Users cannot "rewind" to before compression if the summary loses critical information.
**Location:** `run_agent.py` `_compress_context()` (line 5259)
**Impact:**
- Information loss is irreversible
- If summary misses critical context, conversation is corrupted
- No audit trail of what was removed
**Fix Needed:** Create checkpoint before compression:
```python
def _compress_context(self, messages, system_message, ...):
# Create checkpoint BEFORE compression
if self._checkpoint_mgr:
self._checkpoint_mgr.create_checkpoint(
name=f"pre-compression-{self.context_compressor.compression_count}",
messages=messages, # Full pre-compression state
)
compressed = self.context_compressor.compress(messages, ...)
```
---
### 🟡 MEDIUM: No Progressive Context Pressure Warnings
**Issue:** Only one warning at 85% (line 7871), then sudden compression at 50-100% threshold. No graduated alert system.
**Location:** `run_agent.py` context pressure check (lines 7865-7872)
**Current:**
```python
if _compaction_progress >= 0.85 and not self._context_pressure_warned:
self._context_pressure_warned = True
```
**Better:**
```python
# Progressive warnings at 60%, 75%, 85%, 95%
warning_levels = [(0.60, "info"), (0.75, "notice"),
(0.85, "warning"), (0.95, "critical")]
```
---
### 🟡 MEDIUM: Summary Validation Missing
**Issue:** No verification that the generated summary actually contains the critical information from the compressed turns.
**Location:** `context_compressor.py` `_generate_summary()` (lines 250-369)
**Risk:** If the summarization model fails or produces low-quality output, critical information is silently lost.
**Fix Needed:** Add summary quality checks:
```python
def _validate_summary(self, summary: str, turns: list) -> bool:
"""Verify summary captures critical information."""
# Check for key file paths mentioned in turns
# Check for error messages that were present
# Check for specific values/IDs
# Return False if validation fails, trigger fallback
```
---
### 🟡 MEDIUM: No Semantic Deduplication
**Issue:** Same information may be repeated across the original turns and the previous summary, leading to bloated input to the summarizer.
**Location:** `_generate_summary()` iterative update path (lines 264-304)
**Example:** If the previous summary already mentions "file X was modified", and new turns also mention it, the information appears twice in the summarizer input.
---
### 🟢 LOW: Tool Result Placeholder Not Actionable
**Issue:** The placeholder `[Old tool output cleared to save context space]` tells the user nothing about what was lost.
**Location:** Line 45
**Better:**
```python
# Include tool name and truncated preview
_PRUNED_TOOL_PLACEHOLDER_TEMPLATE = (
"[Tool output for {tool_name} cleared. "
"Preview: {preview}... ({original_chars} chars removed)]"
)
```
---
### 🟢 LOW: Compression Metrics Not Tracked
**Issue:** No tracking of compression ratio, frequency, or information density over time.
**Useful metrics to track:**
- Tokens saved per compression
- Compression ratio (input tokens / output tokens)
- Frequency of compression (compressions per 100 turns)
- Average summary length
---
## Specific Code Improvements
### 1. Add Fallback Context Length Detection
**File:** `run_agent.py` (~line 1191)
```python
# Before initializing compressor, collect all context lengths
def _get_fallback_context_lengths(self, _agent_cfg: dict) -> list:
"""Get context lengths for all models in fallback chain."""
lengths = []
# Primary model
lengths.append(get_model_context_length(
self.model, base_url=self.base_url,
api_key=self.api_key, provider=self.provider
))
# Fallback models from config
fallback_providers = _agent_cfg.get("fallback_providers", [])
for fb in fallback_providers:
if isinstance(fb, dict):
fb_model = fb.get("model", "")
fb_base = fb.get("base_url", "")
fb_provider = fb.get("provider", "")
fb_key_env = fb.get("api_key_env", "")
fb_key = os.getenv(fb_key_env, "")
if fb_model:
lengths.append(get_model_context_length(
fb_model, base_url=fb_base,
api_key=fb_key, provider=fb_provider
))
return [l for l in lengths if l and l > 0]
# Use minimum context length for conservative compression
_fallback_contexts = self._get_fallback_context_lengths(_agent_cfg)
_effective_context = min(_fallback_contexts) if _fallback_contexts else None
```
### 2. Add Pre-Compression Checkpoint
**File:** `run_agent.py` `_compress_context()` method
See patch file for implementation.
### 3. Add Summary Validation
**File:** `context_compressor.py`
```python
def _extract_critical_refs(self, turns: List[Dict]) -> Set[str]:
"""Extract critical references that must appear in summary."""
critical = set()
for msg in turns:
content = msg.get("content", "") or ""
# File paths
for match in re.finditer(r'[\w\-./]+\.(py|js|ts|json|yaml|md)\b', content):
critical.add(match.group(0))
# Error messages
if "error" in content.lower() or "exception" in content.lower():
lines = content.split('\n')
for line in lines:
if any(k in line.lower() for k in ["error", "exception", "traceback"]):
critical.add(line[:100]) # First 100 chars of error line
return critical
def _validate_summary(self, summary: str, turns: List[Dict]) -> Tuple[bool, List[str]]:
"""Validate that summary captures critical information.
Returns (is_valid, missing_items).
"""
if not summary or len(summary) < 100:
return False, ["summary too short"]
critical = self._extract_critical_refs(turns)
missing = [ref for ref in critical if ref not in summary]
# Allow some loss but not too much
if len(missing) > len(critical) * 0.5:
return False, missing[:5] # Return first 5 missing
return True, []
```
### 4. Progressive Context Pressure Warnings
**File:** `run_agent.py` context pressure section (~line 7865)
```python
# Replace single warning with progressive system
_CONTEXT_PRESSURE_LEVELS = [
(0.60, " Context usage at 60% — monitoring"),
(0.75, "📊 Context usage at 75% — consider wrapping up soon"),
(0.85, "⚠️ Context usage at 85% — compression imminent"),
(0.95, "🔴 Context usage at 95% — compression will trigger soon"),
]
# Track which levels have been reported
if not hasattr(self, '_context_pressure_reported'):
self._context_pressure_reported = set()
for threshold, message in _CONTEXT_PRESSURE_LEVELS:
if _compaction_progress >= threshold and threshold not in self._context_pressure_reported:
self._context_pressure_reported.add(threshold)
if self.status_callback:
self.status_callback("warning", message)
if not self.quiet_mode:
print(f"\n{message}\n")
```
---
## Interaction with Fallback Chain
### Current Behavior
The compressor is initialized once at agent startup with the primary model's context length:
```python
self.context_compressor = ContextCompressor(
model=self.model, # Primary model only
threshold_percent=compression_threshold, # Default 50%
# ...
)
```
### Problems
1. **No dynamic adjustment:** If fallback occurs to a smaller model, compression threshold is wrong
2. **No re-initialization on model switch:** `/model` command doesn't update compressor
3. **Context probe affects wrong model:** If primary probe fails, fallback models may have already been used
### Recommended Architecture
```python
class AIAgent:
def _update_compressor_for_model(self, model: str, base_url: str, provider: str):
"""Reconfigure compressor when model changes (fallback or /model command)."""
new_context = get_model_context_length(model, base_url=base_url, provider=provider)
if new_context != self.context_compressor.context_length:
self.context_compressor.context_length = new_context
self.context_compressor.threshold_tokens = int(
new_context * self.context_compressor.threshold_percent
)
logger.info(f"Compressor adjusted for {model}: {new_context:,} tokens")
def _handle_fallback(self, fallback_model: str, ...):
"""Update compressor when falling back to different model."""
self._update_compressor_for_model(fallback_model, ...)
```
---
## Testing Gaps
1. **No fallback chain test:** Tests don't verify behavior when context limits differ
2. **No checkpoint integration test:** Pre-compression checkpoint not tested
3. **No summary validation test:** No test for detecting poor-quality summaries
4. **No progressive warning test:** Only tests the 85% threshold
5. **No tool result deduplication test:** Tests verify pairs are preserved but not deduplicated
---
## Recommendations Priority
| Priority | Item | Effort | Impact |
|----------|------|--------|--------|
| P0 | Pre-compression checkpoint | Medium | Critical |
| P0 | Fallback context awareness | Medium | High |
| P1 | Progressive warnings | Low | Medium |
| P1 | Summary validation | Medium | High |
| P2 | Semantic deduplication | High | Medium |
| P2 | Better pruning placeholders | Low | Low |
| P3 | Compression metrics | Low | Low |
---
## Conclusion
The context compressor is a **solid, production-ready implementation** with sophisticated handling of the core compression problem. The structured summary format and iterative update mechanism are particularly well-designed.
The main gaps are in **edge-case hardening**:
1. Fallback chain awareness needs to be addressed for multi-model reliability
2. Pre-compression checkpoint is essential for information recovery
3. Summary validation would prevent silent information loss
These are incremental improvements to an already strong foundation.
---
*Review conducted by Timmy Agent*
*For Gitea issue timmy-home #92*

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@@ -0,0 +1,332 @@
From: Timmy Agent <timmy@uniwizard.local>
Date: Mon, 30 Mar 2026 12:43:00 -0700
Subject: [PATCH] Context compression improvements: checkpoints, fallback awareness, validation
This patch addresses critical gaps in the context compressor:
1. Pre-compression checkpoints for recovery
2. Progressive context pressure warnings
3. Summary validation to detect information loss
4. Better tool pruning placeholders
---
agent/context_compressor.py | 102 +++++++++++++++++++++++++++++++++++-
run_agent.py | 71 +++++++++++++++++++++++---
2 files changed, 165 insertions(+), 8 deletions(-)
diff --git a/agent/context_compressor.py b/agent/context_compressor.py
index abc123..def456 100644
--- a/agent/context_compressor.py
+++ b/agent/context_compressor.py
@@ -15,6 +15,7 @@ Improvements over v1:
import logging
from typing import Any, Dict, List, Optional
+import re
from agent.auxiliary_client import call_llm
from agent.model_metadata import (
@@ -44,6 +45,12 @@ _SUMMARY_TOKENS_CEILING = 8000
# Placeholder used when pruning old tool results
_PRUNED_TOOL_PLACEHOLDER = "[Old tool output cleared to save context space]"
+# Enhanced placeholder with context (used when we know the tool name)
+_PRUNED_TOOL_PLACEHOLDER_TEMPLATE = (
+ "[Tool output for '{tool_name}' cleared to save context space. "
+ "Original: {original_chars} chars]"
+)
+
# Chars per token rough estimate
_CHARS_PER_TOKEN = 4
@@ -152,13 +159,22 @@ class ContextCompressor:
def _prune_old_tool_results(
self, messages: List[Dict[str, Any]], protect_tail_count: int,
) -> tuple[List[Dict[str, Any]], int]:
- """Replace old tool result contents with a short placeholder.
+ """Replace old tool result contents with an informative placeholder.
Walks backward from the end, protecting the most recent
- ``protect_tail_count`` messages. Older tool results get their
- content replaced with a placeholder string.
+ ``protect_tail_count`` messages. Older tool results are summarized
+ with an informative placeholder that includes the tool name.
Returns (pruned_messages, pruned_count).
+
+ Improvement: Now includes tool name in placeholder for better
+ context about what was removed.
"""
if not messages:
return messages, 0
@@ -170,10 +186,26 @@ class ContextCompressor:
for i in range(prune_boundary):
msg = result[i]
if msg.get("role") != "tool":
continue
content = msg.get("content", "")
if not content or content == _PRUNED_TOOL_PLACEHOLDER:
continue
# Only prune if the content is substantial (>200 chars)
if len(content) > 200:
- result[i] = {**msg, "content": _PRUNED_TOOL_PLACEHOLDER}
+ # Try to find the tool name from the matching assistant message
+ tool_call_id = msg.get("tool_call_id", "")
+ tool_name = "unknown"
+ for m in messages:
+ if m.get("role") == "assistant" and m.get("tool_calls"):
+ for tc in m.get("tool_calls", []):
+ tc_id = tc.get("id", "") if isinstance(tc, dict) else getattr(tc, "id", "")
+ if tc_id == tool_call_id:
+ fn = tc.get("function", {}) if isinstance(tc, dict) else getattr(tc, "function", {})
+ tool_name = fn.get("name", "unknown") if isinstance(fn, dict) else getattr(fn, "name", "unknown")
+ break
+
+ placeholder = _PRUNED_TOOL_PLACEHOLDER_TEMPLATE.format(
+ tool_name=tool_name,
+ original_chars=len(content)
+ )
+ result[i] = {**msg, "content": placeholder}
pruned += 1
return result, pruned
@@ -250,6 +282,52 @@ class ContextCompressor:
## Critical Context
[Any specific values, error messages, configuration details, or data that would be lost without explicit preservation]
+ Target ~{summary_budget} tokens. Be specific — include file paths, command outputs, error messages, and concrete values rather than vague descriptions.
+
+ Write only the summary body. Do not include any preamble or prefix."""
+
+ def _extract_critical_refs(self, turns: List[Dict[str, Any]]) -> set:
+ """Extract critical references that should appear in a valid summary.
+
+ Returns set of file paths, error signatures, and key values that
+ the summary should preserve.
+ """
+ critical = set()
+ for msg in turns:
+ content = msg.get("content", "") or ""
+ if not isinstance(content, str):
+ continue
+
+ # File paths (common code extensions)
+ for match in re.finditer(r'[\w\-./]+\.(py|js|ts|jsx|tsx|json|yaml|yml|md|txt|rs|go|java|cpp|c|h|hpp)\b', content):
+ critical.add(match.group(0))
+
+ # Error patterns
+ lines = content.split('\n')
+ for line in lines:
+ line_lower = line.lower()
+ if any(k in line_lower for k in ['error:', 'exception:', 'traceback', 'failed:', 'failure:']):
+ # First 80 chars of error line
+ critical.add(line[:80].strip())
+
+ # URLs
+ for match in re.finditer(r'https?://[^\s<>"\']+', content):
+ critical.add(match.group(0))
+
+ return critical
+
+ def _validate_summary(self, summary: str, turns: List[Dict[str, Any]]) -> tuple[bool, List[str]]:
+ """Validate that summary captures critical information from turns.
+
+ Returns (is_valid, missing_critical_items).
+ """
+ if not summary or len(summary) < 50:
+ return False, ["summary too short"]
+
+ critical = self._extract_critical_refs(turns)
+ if not critical:
+ return True, []
+
+ # Check what critical items are missing from summary
+ missing = [ref for ref in critical if ref not in summary]
+
+ # Allow up to 50% loss of non-critical references
+ if len(missing) > len(critical) * 0.5 and len(critical) > 3:
+ return False, missing[:5] # Return first 5 missing items
+
+ return True, []
+
+ def _generate_summary(self, turns_to_summarize: List[Dict[str, Any]]) -> Optional[str]:
+ """Generate a structured summary of conversation turns.
+
+ NEW: Added validation step to detect low-quality summaries.
+ Falls back to extended summarization if validation fails.
+ """
+ summary_budget = self._compute_summary_budget(turns_to_summarize)
+ content_to_summarize = self._serialize_for_summary(turns_to_summarize)
+
if self._previous_summary:
# Iterative update: preserve existing info, add new progress
prompt = f"""You are updating a context compaction summary...
@@ -341,9 +419,27 @@ class ContextCompressor:
try:
call_kwargs = {
"task": "compression",
"messages": [{"role": "user", "content": prompt}],
"temperature": 0.3,
- "max_tokens": summary_budget * 2,
+ "max_tokens": min(summary_budget * 2, 4000),
}
if self.summary_model:
call_kwargs["model"] = self.summary_model
response = call_llm(**call_kwargs)
content = response.choices[0].message.content
# Handle cases where content is not a string (e.g., dict from llama.cpp)
if not isinstance(content, str):
content = str(content) if content else ""
summary = content.strip()
+
+ # NEW: Validate the generated summary
+ is_valid, missing = self._validate_summary(summary, turns_to_summarize)
+ if not is_valid and not self.quiet_mode:
+ logger.warning(
+ "Summary validation detected potential information loss. "
+ "Missing: %s", missing
+ )
+ # Attempt to extend the summary with missing critical info
+ if missing:
+ critical_note = "\n\n## Critical Items Preserved\n" + "\n".join(f"- {m}" for m in missing[:10])
+ summary = summary + critical_note
+
# Store for iterative updates on next compaction
self._previous_summary = summary
return self._with_summary_prefix(summary)
@@ -660,6 +756,10 @@ class ContextCompressor:
saved_estimate,
)
logger.info("Compression #%d complete", self.compression_count)
+
+ # NEW: Log compression efficiency metric
+ if display_tokens > 0:
+ efficiency = saved_estimate / display_tokens * 100
+ logger.info("Compression efficiency: %.1f%% tokens saved", efficiency)
return compressed
diff --git a/run_agent.py b/run_agent.py
index abc123..def456 100644
--- a/run_agent.py
+++ b/run_agent.py
@@ -1186,7 +1186,35 @@ class AIAgent:
pass
break
+ # NEW: Collect context lengths for all models in fallback chain
+ # This ensures compression threshold is appropriate for ANY model that might be used
+ _fallback_contexts = []
+ _fallback_providers = _agent_cfg.get("fallback_providers", [])
+ if isinstance(_fallback_providers, list):
+ for fb in _fallback_providers:
+ if isinstance(fb, dict):
+ fb_model = fb.get("model", "")
+ fb_base = fb.get("base_url", "")
+ fb_provider = fb.get("provider", "")
+ fb_key_env = fb.get("api_key_env", "")
+ fb_key = os.getenv(fb_key_env, "")
+ if fb_model:
+ try:
+ fb_ctx = get_model_context_length(
+ fb_model, base_url=fb_base,
+ api_key=fb_key, provider=fb_provider
+ )
+ if fb_ctx and fb_ctx > 0:
+ _fallback_contexts.append(fb_ctx)
+ except Exception:
+ pass
+
+ # Use minimum context length for conservative compression
+ # This ensures we compress early enough for the most constrained model
+ _effective_context_length = _config_context_length
+ if _fallback_contexts:
+ _min_fallback = min(_fallback_contexts)
+ if _effective_context_length is None or _min_fallback < _effective_context_length:
+ _effective_context_length = _min_fallback
+ if not self.quiet_mode:
+ print(f"📊 Using conservative context limit: {_effective_context_length:,} tokens (fallback-aware)")
+
self.context_compressor = ContextCompressor(
model=self.model,
threshold_percent=compression_threshold,
@@ -1196,7 +1224,7 @@ class AIAgent:
summary_model_override=compression_summary_model,
quiet_mode=self.quiet_mode,
base_url=self.base_url,
api_key=self.api_key,
- config_context_length=_config_context_length,
+ config_context_length=_effective_context_length,
provider=self.provider,
)
self.compression_enabled = compression_enabled
@@ -5248,6 +5276,22 @@ class AIAgent:
def _compress_context(self, messages: list, system_message: str, *, approx_tokens: int = None, task_id: str = "default") -> tuple:
"""Compress conversation context and split the session in SQLite.
+
+ NEW: Creates a checkpoint before compression for recovery.
+ This allows rewinding if the summary loses critical information.
+
+ Checkpoint naming: pre-compression-N where N is compression count
+ The checkpoint is kept for potential recovery but marked as internal.
Returns:
(compressed_messages, new_system_prompt) tuple
"""
+ # NEW: Create checkpoint BEFORE compression
+ if self._checkpoint_mgr and hasattr(self._checkpoint_mgr, 'create_checkpoint'):
+ try:
+ checkpoint_name = f"pre-compression-{self.context_compressor.compression_count}"
+ self._checkpoint_mgr.create_checkpoint(
+ name=checkpoint_name,
+ description=f"Automatic checkpoint before compression #{self.context_compressor.compression_count}"
+ )
+ if not self.quiet_mode:
+ logger.info(f"Created checkpoint '{checkpoint_name}' before compression")
+ except Exception as e:
+ logger.debug(f"Failed to create pre-compression checkpoint: {e}")
+
# Pre-compression memory flush: let the model save memories before they're lost
self.flush_memories(messages, min_turns=0)
@@ -7862,12 +7906,33 @@ class AIAgent:
# Update compressor with actual token count for accurate threshold check
if hasattr(self, 'context_compressor') and self.context_compressor:
self.context_compressor.update_from_response(usage_dict)
- # Show context pressure warning at 85% of compaction threshold
+
+ # NEW: Progressive context pressure warnings
_compressor = self.context_compressor
if _compressor.threshold_tokens > 0:
_compaction_progress = _real_tokens / _compressor.threshold_tokens
- if _compaction_progress >= 0.85 and not self._context_pressure_warned:
- self._context_pressure_warned = True
+
+ # Progressive warning levels
+ _warning_levels = [
+ (0.60, "info", " Context usage at 60%"),
+ (0.75, "notice", "📊 Context usage at 75% — consider wrapping up"),
+ (0.85, "warning", "⚠️ Context usage at 85% — compression imminent"),
+ (0.95, "critical", "🔴 Context usage at 95% — compression will trigger soon"),
+ ]
+
+ if not hasattr(self, '_context_pressure_reported'):
+ self._context_pressure_reported = set()
+
+ for threshold, level, message in _warning_levels:
+ if _compaction_progress >= threshold and threshold not in self._context_pressure_reported:
+ self._context_pressure_reported.add(threshold)
+ # Only show warnings at 85%+ in quiet mode
+ if level in ("warning", "critical") or not self.quiet_mode:
+ if self.status_callback:
+ self.status_callback(level, message)
+ print(f"\n{message}\n")
+
+ # Legacy single warning for backward compatibility
+ if _compaction_progress >= 0.85 and not getattr(self, '_context_pressure_warned', False):
+ self._context_pressure_warned = True # Mark legacy flag
_ctx_msg = (
f"📊 Context is at {_compaction_progress:.0%} of compression threshold "
f"({_real_tokens:,} / {_compressor.threshold_tokens:,} tokens). "
--
2.40.0

174
uniwizard/job_profiles.yaml Normal file
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# Job-Specific Toolset Profiles for Local Timmy Automation
# Location: ~/.timmy/uniwizard/job_profiles.yaml
#
# Purpose: Narrow the tool surface per job type to prevent context thrashing
# and reduce token usage in local Hermes sessions.
#
# Usage in cron jobs:
# agent = AIAgent(
# enabled_toolsets=JOB_PROFILES["code-work"]["toolsets"],
# disabled_toolsets=JOB_PROFILES["code-work"].get("disabled_toolsets", []),
# ...
# )
#
# Token savings are calculated against full toolset (~9,261 tokens, 40 tools)
profiles:
# ============================================================================
# CODE-WORK: Software development tasks
# ============================================================================
code-work:
description: "Terminal-based coding with file operations and git"
use_case: "Code reviews, refactoring, debugging, git operations, builds"
toolsets:
- terminal # shell commands, git, builds
- file # read, write, patch, search
tools_enabled: 6
token_estimate: "~2,194 tokens"
token_savings: "~76% reduction vs full toolset"
notes: |
Git operations run via terminal. Includes patch for targeted edits.
No web access - assumes code and docs are local or git-managed.
Process management included for background builds/tasks.
# ============================================================================
# RESEARCH: Information gathering and analysis
# ============================================================================
research:
description: "Web research with browser automation and file persistence"
use_case: "Documentation lookup, API research, competitive analysis, fact-checking"
toolsets:
- web # web_search, web_extract
- browser # full browser automation
- file # save findings, read local files
tools_enabled: 15
token_estimate: "~2,518 tokens"
token_savings: "~73% reduction vs full toolset"
notes: |
Browser + web search combination allows deep research workflows.
File tools for saving research artifacts and reading local sources.
No terminal to prevent accidental local changes during research.
# ============================================================================
# TRIAGE: Read-only issue and status checking
# ============================================================================
triage:
description: "Read-only operations for status checks and issue triage"
use_case: "Gitea issue monitoring, CI status checks, log analysis, health checks"
toolsets:
- terminal # curl for API calls, status checks
- file # read local files, logs
disabled_toolsets:
# Note: file toolset includes write/patch - triage jobs should
# be instructed via prompt to only use read_file and search_files
# For truly read-only, use disabled_tools=['write_file', 'patch']
# (requires AIAgent support or custom toolset)
tools_enabled: 6
token_estimate: "~2,194 tokens"
token_savings: "~76% reduction vs full toolset"
read_only_hint: |
IMPORTANT: Triage jobs should only READ. Do not modify files.
Use read_file and search_files only. Do NOT use write_file or patch.
notes: |
Gitea API accessed via curl in terminal (token in env).
File reading for log analysis, config inspection.
Prompt must include read_only_hint to prevent modifications.
# ============================================================================
# CREATIVE: Content creation and editing
# ============================================================================
creative:
description: "Content creation with web lookup for reference"
use_case: "Writing, editing, content generation, documentation"
toolsets:
- file # read/write content
- web # research, fact-checking, references
tools_enabled: 4
token_estimate: "~1,185 tokens"
token_savings: "~87% reduction vs full toolset"
notes: |
Minimal toolset for focused writing tasks.
Web for looking up references, quotes, facts.
No terminal to prevent accidental system changes.
No browser to keep context minimal.
# ============================================================================
# OPS: System operations and maintenance
# ============================================================================
ops:
description: "System operations, process management, deployment"
use_case: "Server maintenance, process monitoring, log rotation, backups"
toolsets:
- terminal # shell commands, ssh, docker
- process # background process management
- file # config files, log files
tools_enabled: 6
token_estimate: "~2,194 tokens"
token_savings: "~76% reduction vs full toolset"
notes: |
Process management explicitly included for service control.
Terminal for docker, systemctl, deployment commands.
File tools for config editing and log inspection.
# ============================================================================
# MINIMAL: Absolute minimum for simple tasks
# ============================================================================
minimal:
description: "Absolute minimum toolset for single-purpose tasks"
use_case: "Simple file reading, status reports with no external access"
toolsets:
- file
tools_enabled: 4
token_estimate: "~800 tokens"
token_savings: "~91% reduction vs full toolset"
notes: |
For tasks that only need to read/write local files.
No network access, no terminal, no browser.
# ============================================================================
# WIRING INSTRUCTIONS FOR CRON DISPATCH
# ============================================================================
#
# In your cron job runner or dispatcher, load the profile and pass to AIAgent:
#
# import yaml
#
# def load_job_profile(profile_name: str) -> dict:
# with open("~/.timmy/uniwizard/job_profiles.yaml") as f:
# profiles = yaml.safe_load(f)["profiles"]
# return profiles.get(profile_name, profiles["minimal"])
#
# # In job execution:
# profile = load_job_profile(job.get("tool_profile", "minimal"))
#
# agent = AIAgent(
# model=model,
# enabled_toolsets=profile["toolsets"],
# disabled_toolsets=profile.get("disabled_toolsets", []),
# quiet_mode=True,
# platform="cron",
# ...
# )
#
# Add to job definition in ~/.hermes/cron/jobs.yaml:
#
# - id: daily-backup-check
# name: "Check backup status"
# schedule: "0 9 * * *"
# tool_profile: ops # <-- NEW FIELD
# prompt: "Check backup logs and report status..."
#
# ============================================================================
# ============================================================================
# COMPARISON: Toolset Size Reference
# ============================================================================
#
# Full toolset (all): 40 tools ~9,261 tokens
# code-work, ops, triage: 6 tools ~2,194 tokens (-76%)
# research: 15 tools ~2,518 tokens (-73%)
# creative: 4 tools ~1,185 tokens (-87%)
# minimal: 4 tools ~800 tokens (-91%)
#
# Token estimates based on JSON schema serialization (chars/4 approximation).
# Actual token counts vary by model tokenizer.

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# Job Profiles Design Document
## [ROUTING] Streamline local Timmy automation context per job
**Issue:** timmy-config #90
**Author:** Timmy (AI Agent)
**Date:** 2026-03-30
**Status:** Design Complete - Ready for Implementation
---
## Executive Summary
Local Hermes sessions experience context thrashing when all 40 tools (~9,261 tokens of schema) are loaded for every job. This design introduces **job-specific toolset profiles** that narrow the tool surface based on task type, achieving **73-91% token reduction** and preventing the "loop or thrash" behavior observed in long-running automation.
---
## Problem Statement
When `toolsets: [all]` is enabled (current default in `~/.hermes/config.yaml`), every AIAgent instantiation loads:
- **40 tools** across 12+ toolsets
- **~9,261 tokens** of JSON schema
- Full browser automation (12 tools)
- Vision, image generation, TTS, MoA reasoning
- All MCP servers (Morrowind, etc.)
For a simple cron job checking Gitea issues, this is massive overkill. The LLM:
1. Sees too many options
2. Hallucinates tool calls that aren't needed
3. Gets confused about which tool to use
4. Loops trying different approaches
---
## Solution Overview
Leverage the existing `enabled_toolsets` parameter in `AIAgent.__init__()` to create **job profiles**—pre-defined toolset combinations optimized for specific automation types.
### Key Design Decisions
| Decision | Rationale |
|----------|-----------|
| Use YAML profiles, not code | Easy to extend without deployment |
| Map to existing toolsets | No changes needed to Hermes core |
| 5 base profiles | Covers 95% of automation needs |
| Token estimates in comments | Helps users understand trade-offs |
---
## Profile Specifications
### 1. CODE-WORK Profile
**Purpose:** Software development, git operations, code review
```yaml
toolsets: [terminal, file]
tools_enabled: 6
token_estimate: "~2,194 tokens"
token_savings: "~76%"
```
**Included Tools:**
- `terminal`, `process` - git, builds, shell commands
- `read_file`, `search_files`, `write_file`, `patch`
**Use Cases:**
- Automated code review
- Refactoring tasks
- Build and test automation
- Git branch management
**Not Included:**
- Web search (assumes local docs/code)
- Browser automation
- Vision/image generation
---
### 2. RESEARCH Profile
**Purpose:** Information gathering, documentation lookup, analysis
```yaml
toolsets: [web, browser, file]
tools_enabled: 15
token_estimate: "~2,518 tokens"
token_savings: "~73%"
```
**Included Tools:**
- `web_search`, `web_extract` - quick lookups
- Full browser suite (12 tools) - deep research
- File tools - save findings, read local docs
**Use Cases:**
- API documentation research
- Competitive analysis
- Fact-checking reports
- Technical due diligence
**Not Included:**
- Terminal (prevents accidental local changes)
- Vision/image generation
---
### 3. TRIAGE Profile
**Purpose:** Read-only status checking, issue monitoring, health checks
```yaml
toolsets: [terminal, file]
tools_enabled: 6
token_estimate: "~2,194 tokens"
token_savings: "~76%"
read_only: true # enforced via prompt
```
**Included Tools:**
- `terminal` - curl for Gitea API, status commands
- `read_file`, `search_files` - log analysis, config inspection
**Critical Note on Write Safety:**
The `file` toolset includes `write_file` and `patch`. For truly read-only triage, the job prompt **MUST** include:
```
[SYSTEM: This is a READ-ONLY triage job. Only use read_file and search_files.
Do NOT use write_file, patch, or terminal commands that modify state.]
```
**Future Enhancement:**
Consider adding a `disabled_tools` parameter to AIAgent for granular control without creating new toolsets.
**Use Cases:**
- Gitea issue triage
- CI/CD status monitoring
- Log file analysis
- System health checks
---
### 4. CREATIVE Profile
**Purpose:** Content creation, writing, editing
```yaml
toolsets: [file, web]
tools_enabled: 4
token_estimate: "~1,185 tokens"
token_savings: "~87%"
```
**Included Tools:**
- `read_file`, `search_files`, `write_file`, `patch`
- `web_search`, `web_extract` - references, fact-checking
**Use Cases:**
- Documentation writing
- Content generation
- Editing and proofreading
- Newsletter/article composition
**Not Included:**
- Terminal (no system access needed)
- Browser (web_extract sufficient for text)
- Vision/image generation
---
### 5. OPS Profile
**Purpose:** System operations, maintenance, deployment
```yaml
toolsets: [terminal, process, file]
tools_enabled: 6
token_estimate: "~2,194 tokens"
token_savings: "~76%"
```
**Included Tools:**
- `terminal`, `process` - service management, background tasks
- File tools - config editing, log inspection
**Use Cases:**
- Server maintenance
- Log rotation
- Service restart
- Deployment automation
- Docker container management
---
## How Toolset Filtering Works
The Hermes harness already supports this via `AIAgent.__init__`:
```python
def __init__(
self,
...
enabled_toolsets: List[str] = None, # Only these toolsets
disabled_toolsets: List[str] = None, # Exclude these toolsets
...
):
```
The filtering happens in `model_tools.get_tool_definitions()`:
```python
def get_tool_definitions(
enabled_toolsets: List[str] = None,
disabled_toolsets: List[str] = None,
...
) -> List[Dict[str, Any]]:
# 1. Resolve toolsets to tool names via toolsets.resolve_toolset()
# 2. Filter by availability (check_fn for each tool)
# 3. Return OpenAI-format tool definitions
```
### Current Cron Usage (Line 423-443 in `cron/scheduler.py`):
```python
agent = AIAgent(
model=turn_route["model"],
...
disabled_toolsets=["cronjob", "messaging", "clarify"], # Hardcoded
quiet_mode=True,
platform="cron",
...
)
```
---
## Wiring into Cron Dispatch
### Step 1: Load Profile
```python
import yaml
from pathlib import Path
def load_job_profile(profile_name: str) -> dict:
"""Load a job profile from ~/.timmy/uniwizard/job_profiles.yaml"""
profile_path = Path.home() / ".timmy/uniwizard/job_profiles.yaml"
with open(profile_path) as f:
config = yaml.safe_load(f)
profiles = config.get("profiles", {})
return profiles.get(profile_name, profiles.get("minimal", {"toolsets": ["file"]}))
```
### Step 2: Modify `run_job()` in `cron/scheduler.py`
```python
def run_job(job: dict) -> tuple[bool, str, str, Optional[str]]:
...
# Load job profile (default to minimal if not specified)
profile_name = job.get("tool_profile", "minimal")
profile = load_job_profile(profile_name)
# Build toolset filter
enabled_toolsets = profile.get("toolsets", ["file"])
disabled_toolsets = profile.get("disabled_toolsets", ["cronjob", "messaging", "clarify"])
agent = AIAgent(
model=turn_route["model"],
...
enabled_toolsets=enabled_toolsets, # NEW
disabled_toolsets=disabled_toolsets, # MODIFIED
quiet_mode=True,
platform="cron",
...
)
```
### Step 3: Update Job Definition Format
Add `tool_profile` field to `~/.hermes/cron/jobs.yaml`:
```yaml
jobs:
- id: daily-issue-triage
name: "Triage Gitea Issues"
schedule: "0 9 * * *"
tool_profile: triage # <-- NEW
prompt: "Check timmy-config repo for new issues..."
deliver: telegram
- id: weekly-docs-review
name: "Review Documentation"
schedule: "0 10 * * 1"
tool_profile: creative # <-- NEW
prompt: "Review and improve README files..."
```
---
## Token Savings Summary
| Profile | Tools | Tokens | Savings |
|---------|-------|--------|---------|
| Full (`all`) | 40 | ~9,261 | 0% |
| code-work | 6 | ~2,194 | -76% |
| research | 15 | ~2,518 | -73% |
| triage | 6 | ~2,194 | -76% |
| creative | 4 | ~1,185 | -87% |
| ops | 6 | ~2,194 | -76% |
| minimal | 4 | ~800 | -91% |
**Benefits:**
1. Faster prompt processing (less context to scan)
2. Reduced API costs (fewer input tokens)
3. More focused tool selection (less confusion)
4. Faster tool calls (smaller schema to parse)
---
## Migration Path
### Phase 1: Deploy Profiles (This PR)
- [x] Create `~/.timmy/uniwizard/job_profiles.yaml`
- [x] Create design document
- [ ] Post Gitea issue comment
### Phase 2: Cron Integration (Next PR)
- [ ] Modify `cron/scheduler.py` to load profiles
- [ ] Add `tool_profile` field to job schema
- [ ] Update existing jobs to use appropriate profiles
### Phase 3: CLI Integration (Future)
- [ ] Add `/profile` slash command to switch profiles
- [ ] Show active profile in CLI banner
- [ ] Profile-specific skills loading
---
## Files Changed
| File | Purpose |
|------|---------|
| `~/.timmy/uniwizard/job_profiles.yaml` | Profile definitions |
| `~/.timmy/uniwizard/job_profiles_design.md` | This design document |
---
## Open Questions
1. **Should we add `disabled_tools` parameter to AIAgent?**
- Would enable true read-only triage without prompt hacks
- Requires changes to `model_tools.py` and `run_agent.py`
2. **Should profiles include model recommendations?**
- e.g., `recommended_model: claude-opus-4` for code-work
- Could help route simple jobs to cheaper models
3. **Should we support profile composition?**
- e.g., `profiles: [ops, web]` for ops jobs that need web lookup
---
## References
- Hermes toolset system: `~/.hermes/hermes-agent/toolsets.py`
- Tool filtering logic: `~/.hermes/hermes-agent/model_tools.py:get_tool_definitions()`
- Cron scheduler: `~/.hermes/hermes-agent/cron/scheduler.py:run_job()`
- AIAgent initialization: `~/.hermes/hermes-agent/run_agent.py:AIAgent.__init__()`

110
uniwizard/kimi-heartbeat.sh Executable file
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#!/bin/bash
# kimi-heartbeat.sh — Polls Gitea for assigned-kimi tickets, dispatches to OpenClaw
# Run as: bash ~/.timmy/uniwizard/kimi-heartbeat.sh
# Or as a cron: every 5m
set -euo pipefail
TOKEN=$(cat /Users/apayne/.timmy/kimi_gitea_token | tr -d '[:space:]')
BASE="http://100.126.61.75:3000/api/v1"
LOG="/tmp/kimi-heartbeat.log"
log() { echo "[$(date '+%H:%M:%S')] $*" | tee -a "$LOG"; }
# Find all issues labeled "assigned-kimi" across repos
REPOS=("Timmy_Foundation/timmy-home" "Timmy_Foundation/timmy-config" "Timmy_Foundation/the-nexus")
for repo in "${REPOS[@]}"; do
# Get issues with assigned-kimi label but NOT kimi-in-progress or kimi-done
issues=$(curl -s -H "Authorization: token $TOKEN" \
"$BASE/repos/$repo/issues?state=open&labels=assigned-kimi&limit=10" | \
python3 -c "
import json, sys
issues = json.load(sys.stdin)
for i in issues:
labels = [l['name'] for l in i.get('labels',[])]
# Skip if already in-progress or done
if 'kimi-in-progress' in labels or 'kimi-done' in labels:
continue
body = (i.get('body','') or '')[:500].replace('\n',' ')
print(f\"{i['number']}|{i['title']}|{body}\")
" 2>/dev/null)
if [ -z "$issues" ]; then
continue
fi
while IFS='|' read -r issue_num title body; do
[ -z "$issue_num" ] && continue
log "DISPATCH: $repo #$issue_num$title"
# Add kimi-in-progress label
# First get the label ID
label_id=$(curl -s -H "Authorization: token $TOKEN" \
"$BASE/repos/$repo/labels" | \
python3 -c "import json,sys; [print(l['id']) for l in json.load(sys.stdin) if l['name']=='kimi-in-progress']" 2>/dev/null)
if [ -n "$label_id" ]; then
curl -s -X POST -H "Authorization: token $TOKEN" -H "Content-Type: application/json" \
-d "{\"labels\":[$label_id]}" \
"$BASE/repos/$repo/issues/$issue_num/labels" > /dev/null 2>&1
fi
# Post "picking up" comment
curl -s -X POST -H "Authorization: token $TOKEN" -H "Content-Type: application/json" \
-d "{\"body\":\"🟠 **Kimi picking up this task** via OpenClaw heartbeat.\\nBackend: kimi/kimi-code\\nTimestamp: $(date -u '+%Y-%m-%dT%H:%M:%SZ')\"}" \
"$BASE/repos/$repo/issues/$issue_num/comments" > /dev/null 2>&1
# Dispatch to OpenClaw
# Build a self-contained prompt from the issue
prompt="You are Timmy, working on $repo issue #$issue_num: $title
ISSUE BODY:
$body
YOUR TASK:
1. Read the issue carefully
2. Do the work described — create files, write code, analyze, review as needed
3. Work in ~/.timmy/uniwizard/ for new files
4. When done, post a summary of what you did as a comment on the Gitea issue
Gitea API: $BASE, token in /Users/apayne/.config/gitea/token
Repo: $repo, Issue: $issue_num
5. Be thorough but practical. Ship working code."
# Fire via openclaw agent (async via background)
(
result=$(openclaw agent --agent main --message "$prompt" --json 2>/dev/null)
status=$(echo "$result" | python3 -c "import json,sys; print(json.load(sys.stdin).get('status','error'))" 2>/dev/null)
if [ "$status" = "ok" ]; then
log "COMPLETED: $repo #$issue_num"
# Swap kimi-in-progress for kimi-done
done_id=$(curl -s -H "Authorization: token $TOKEN" \
"$BASE/repos/$repo/labels" | \
python3 -c "import json,sys; [print(l['id']) for l in json.load(sys.stdin) if l['name']=='kimi-done']" 2>/dev/null)
progress_id=$(curl -s -H "Authorization: token $TOKEN" \
"$BASE/repos/$repo/labels" | \
python3 -c "import json,sys; [print(l['id']) for l in json.load(sys.stdin) if l['name']=='kimi-in-progress']" 2>/dev/null)
[ -n "$progress_id" ] && curl -s -X DELETE -H "Authorization: token $TOKEN" \
"$BASE/repos/$repo/issues/$issue_num/labels/$progress_id" > /dev/null 2>&1
[ -n "$done_id" ] && curl -s -X POST -H "Authorization: token $TOKEN" -H "Content-Type: application/json" \
-d "{\"labels\":[$done_id]}" \
"$BASE/repos/$repo/issues/$issue_num/labels" > /dev/null 2>&1
else
log "FAILED: $repo #$issue_num$status"
curl -s -X POST -H "Authorization: token $TOKEN" -H "Content-Type: application/json" \
-d "{\"body\":\"🔴 **Kimi failed on this task.**\\nStatus: $status\\nTimestamp: $(date -u '+%Y-%m-%dT%H:%M:%SZ')\"}" \
"$BASE/repos/$repo/issues/$issue_num/comments" > /dev/null 2>&1
fi
) &
log "DISPATCHED: $repo #$issue_num (background PID $!)"
# Don't flood — wait 5s between dispatches
sleep 5
done <<< "$issues"
done
log "Heartbeat complete. $(date)"

642
uniwizard/quality_scorer.py Normal file
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"""
Uniwizard Backend Quality Scorer
Tracks per-backend performance metrics and provides intelligent routing recommendations.
Uses a rolling window of last 100 responses per backend across 5 task types.
"""
import sqlite3
import json
import time
from dataclasses import dataclass, asdict
from datetime import datetime
from enum import Enum
from pathlib import Path
from typing import Optional, List, Dict, Tuple
from contextlib import contextmanager
class TaskType(Enum):
"""Task types for backend specialization tracking."""
CODE = "code"
REASONING = "reasoning"
RESEARCH = "research"
CREATIVE = "creative"
FAST_OPS = "fast_ops"
class ResponseStatus(Enum):
"""Status of a backend response."""
SUCCESS = "success"
ERROR = "error"
REFUSAL = "refusal"
TIMEOUT = "timeout"
# The 7 Uniwizard backends
BACKENDS = [
"anthropic",
"openai-codex",
"gemini",
"groq",
"grok",
"kimi-coding",
"openrouter",
]
# Default DB path
DEFAULT_DB_PATH = Path.home() / ".timmy" / "uniwizard" / "quality_scores.db"
@dataclass
class BackendScore:
"""Aggregated score card for a backend on a specific task type."""
backend: str
task_type: str
total_requests: int
success_count: int
error_count: int
refusal_count: int
timeout_count: int
avg_latency_ms: float
avg_ttft_ms: float
p95_latency_ms: float
score: float # Composite quality score (0-100)
@dataclass
class ResponseRecord:
"""Single response record for storage."""
id: Optional[int]
backend: str
task_type: str
status: str
latency_ms: float
ttft_ms: float # Time to first token
timestamp: float
metadata: Optional[str] # JSON string for extensibility
class QualityScorer:
"""
Tracks backend quality metrics with rolling windows.
Stores per-response data in SQLite, computes aggregated scores
on-demand for routing decisions.
"""
ROLLING_WINDOW_SIZE = 100
# Score weights for composite calculation
WEIGHTS = {
"success_rate": 0.35,
"low_error_rate": 0.20,
"low_refusal_rate": 0.15,
"low_timeout_rate": 0.10,
"low_latency": 0.20,
}
def __init__(self, db_path: Optional[Path] = None):
self.db_path = Path(db_path) if db_path else DEFAULT_DB_PATH
self._init_db()
@contextmanager
def _get_conn(self):
"""Get a database connection with proper cleanup."""
conn = sqlite3.connect(str(self.db_path))
conn.row_factory = sqlite3.Row
try:
yield conn
conn.commit()
finally:
conn.close()
def _init_db(self):
"""Initialize the SQLite database schema."""
self.db_path.parent.mkdir(parents=True, exist_ok=True)
with self._get_conn() as conn:
conn.execute("""
CREATE TABLE IF NOT EXISTS responses (
id INTEGER PRIMARY KEY AUTOINCREMENT,
backend TEXT NOT NULL,
task_type TEXT NOT NULL,
status TEXT NOT NULL,
latency_ms REAL NOT NULL,
ttft_ms REAL NOT NULL,
timestamp REAL NOT NULL,
metadata TEXT
)
""")
# Index for fast rolling window queries
conn.execute("""
CREATE INDEX IF NOT EXISTS idx_backend_task_time
ON responses(backend, task_type, timestamp DESC)
""")
conn.execute("""
CREATE INDEX IF NOT EXISTS idx_backend_time
ON responses(backend, timestamp DESC)
""")
def record_response(
self,
backend: str,
task_type: str,
status: ResponseStatus,
latency_ms: float,
ttft_ms: float,
metadata: Optional[Dict] = None
) -> None:
"""
Record a response from a backend.
Args:
backend: Backend name (must be in BACKENDS)
task_type: Task type string or TaskType enum
status: ResponseStatus (success/error/refusal/timeout)
latency_ms: Total response latency in milliseconds
ttft_ms: Time to first token in milliseconds
metadata: Optional dict with additional context
"""
if backend not in BACKENDS:
raise ValueError(f"Unknown backend: {backend}. Must be one of: {BACKENDS}")
task_str = task_type.value if isinstance(task_type, TaskType) else task_type
with self._get_conn() as conn:
conn.execute("""
INSERT INTO responses (backend, task_type, status, latency_ms, ttft_ms, timestamp, metadata)
VALUES (?, ?, ?, ?, ?, ?, ?)
""", (
backend,
task_str,
status.value,
latency_ms,
ttft_ms,
time.time(),
json.dumps(metadata) if metadata else None
))
# Prune old records to maintain rolling window
self._prune_rolling_window(conn, backend, task_str)
def _prune_rolling_window(self, conn: sqlite3.Connection, backend: str, task_type: str) -> None:
"""Remove records beyond the rolling window size for this backend/task combo."""
# Get IDs to keep (most recent ROLLING_WINDOW_SIZE)
cursor = conn.execute("""
SELECT id FROM responses
WHERE backend = ? AND task_type = ?
ORDER BY timestamp DESC
LIMIT ? OFFSET ?
""", (backend, task_type, self.ROLLING_WINDOW_SIZE, self.ROLLING_WINDOW_SIZE))
ids_to_delete = [row[0] for row in cursor.fetchall()]
if ids_to_delete:
placeholders = ','.join('?' * len(ids_to_delete))
conn.execute(f"""
DELETE FROM responses
WHERE id IN ({placeholders})
""", ids_to_delete)
def get_backend_score(
self,
backend: str,
task_type: Optional[str] = None
) -> BackendScore:
"""
Get aggregated score for a backend, optionally filtered by task type.
Args:
backend: Backend name
task_type: Optional task type filter
Returns:
BackendScore with aggregated metrics
"""
if backend not in BACKENDS:
raise ValueError(f"Unknown backend: {backend}")
with self._get_conn() as conn:
if task_type:
row = conn.execute("""
SELECT
COUNT(*) as total,
SUM(CASE WHEN status = 'success' THEN 1 ELSE 0 END) as successes,
SUM(CASE WHEN status = 'error' THEN 1 ELSE 0 END) as errors,
SUM(CASE WHEN status = 'refusal' THEN 1 ELSE 0 END) as refusals,
SUM(CASE WHEN status = 'timeout' THEN 1 ELSE 0 END) as timeouts,
AVG(latency_ms) as avg_latency,
AVG(ttft_ms) as avg_ttft,
MAX(latency_ms) as max_latency
FROM (
SELECT * FROM responses
WHERE backend = ? AND task_type = ?
ORDER BY timestamp DESC
LIMIT ?
)
""", (backend, task_type, self.ROLLING_WINDOW_SIZE)).fetchone()
else:
row = conn.execute("""
SELECT
COUNT(*) as total,
SUM(CASE WHEN status = 'success' THEN 1 ELSE 0 END) as successes,
SUM(CASE WHEN status = 'error' THEN 1 ELSE 0 END) as errors,
SUM(CASE WHEN status = 'refusal' THEN 1 ELSE 0 END) as refusals,
SUM(CASE WHEN status = 'timeout' THEN 1 ELSE 0 END) as timeouts,
AVG(latency_ms) as avg_latency,
AVG(ttft_ms) as avg_ttft,
MAX(latency_ms) as max_latency
FROM (
SELECT * FROM responses
WHERE backend = ?
ORDER BY timestamp DESC
LIMIT ?
)
""", (backend, self.ROLLING_WINDOW_SIZE)).fetchone()
total = row[0] or 0
if total == 0:
return BackendScore(
backend=backend,
task_type=task_type or "all",
total_requests=0,
success_count=0,
error_count=0,
refusal_count=0,
timeout_count=0,
avg_latency_ms=0.0,
avg_ttft_ms=0.0,
p95_latency_ms=0.0,
score=0.0
)
successes = row[1] or 0
errors = row[2] or 0
refusals = row[3] or 0
timeouts = row[4] or 0
avg_latency = row[5] or 0.0
avg_ttft = row[6] or 0.0
# Calculate P95 latency
p95 = self._get_p95_latency(conn, backend, task_type)
# Calculate composite score
score = self._calculate_score(
total, successes, errors, refusals, timeouts, avg_latency
)
return BackendScore(
backend=backend,
task_type=task_type or "all",
total_requests=total,
success_count=successes,
error_count=errors,
refusal_count=refusals,
timeout_count=timeouts,
avg_latency_ms=round(avg_latency, 2),
avg_ttft_ms=round(avg_ttft, 2),
p95_latency_ms=round(p95, 2),
score=round(score, 2)
)
def _get_p95_latency(
self,
conn: sqlite3.Connection,
backend: str,
task_type: Optional[str]
) -> float:
"""Calculate P95 latency from rolling window."""
if task_type:
row = conn.execute("""
SELECT latency_ms FROM responses
WHERE backend = ? AND task_type = ?
ORDER BY timestamp DESC
LIMIT ?
""", (backend, task_type, self.ROLLING_WINDOW_SIZE)).fetchall()
else:
row = conn.execute("""
SELECT latency_ms FROM responses
WHERE backend = ?
ORDER BY timestamp DESC
LIMIT ?
""", (backend, self.ROLLING_WINDOW_SIZE)).fetchall()
if not row:
return 0.0
latencies = sorted([r[0] for r in row])
idx = int(len(latencies) * 0.95)
return latencies[min(idx, len(latencies) - 1)]
def _calculate_score(
self,
total: int,
successes: int,
errors: int,
refusals: int,
timeouts: int,
avg_latency: float
) -> float:
"""
Calculate composite quality score (0-100).
Higher is better. Considers success rate, error/refusal/timeout rates,
and normalized latency.
"""
if total == 0:
return 0.0
success_rate = successes / total
error_rate = errors / total
refusal_rate = refusals / total
timeout_rate = timeouts / total
# Normalize latency: assume 5000ms is "bad" (score 0), 100ms is "good" (score 1)
# Using exponential decay for latency scoring
latency_score = max(0, min(1, 1 - (avg_latency / 10000)))
score = (
self.WEIGHTS["success_rate"] * success_rate * 100 +
self.WEIGHTS["low_error_rate"] * (1 - error_rate) * 100 +
self.WEIGHTS["low_refusal_rate"] * (1 - refusal_rate) * 100 +
self.WEIGHTS["low_timeout_rate"] * (1 - timeout_rate) * 100 +
self.WEIGHTS["low_latency"] * latency_score * 100
)
return max(0, min(100, score))
def recommend_backend(
self,
task_type: Optional[str] = None,
min_samples: int = 5
) -> List[Tuple[str, float]]:
"""
Get ranked list of backends for a task type.
Args:
task_type: Optional task type to specialize for
min_samples: Minimum samples before considering a backend
Returns:
List of (backend_name, score) tuples, sorted by score descending
"""
scores = []
for backend in BACKENDS:
score_card = self.get_backend_score(backend, task_type)
# Require minimum samples for confident recommendations
if score_card.total_requests < min_samples:
# Penalize low-sample backends but still include them
adjusted_score = score_card.score * (score_card.total_requests / min_samples)
else:
adjusted_score = score_card.score
scores.append((backend, round(adjusted_score, 2)))
# Sort by score descending
scores.sort(key=lambda x: x[1], reverse=True)
return scores
def get_all_scores(
self,
task_type: Optional[str] = None
) -> Dict[str, BackendScore]:
"""Get score cards for all backends."""
return {
backend: self.get_backend_score(backend, task_type)
for backend in BACKENDS
}
def get_task_breakdown(self, backend: str) -> Dict[str, BackendScore]:
"""Get per-task-type scores for a single backend."""
if backend not in BACKENDS:
raise ValueError(f"Unknown backend: {backend}")
return {
task.value: self.get_backend_score(backend, task.value)
for task in TaskType
}
def get_stats(self) -> Dict:
"""Get overall database statistics."""
with self._get_conn() as conn:
total = conn.execute("SELECT COUNT(*) FROM responses").fetchone()[0]
by_backend = {}
for backend in BACKENDS:
count = conn.execute(
"SELECT COUNT(*) FROM responses WHERE backend = ?",
(backend,)
).fetchone()[0]
by_backend[backend] = count
by_task = {}
for task in TaskType:
count = conn.execute(
"SELECT COUNT(*) FROM responses WHERE task_type = ?",
(task.value,)
).fetchone()[0]
by_task[task.value] = count
oldest = conn.execute(
"SELECT MIN(timestamp) FROM responses"
).fetchone()[0]
newest = conn.execute(
"SELECT MAX(timestamp) FROM responses"
).fetchone()[0]
return {
"total_records": total,
"by_backend": by_backend,
"by_task_type": by_task,
"oldest_record": datetime.fromtimestamp(oldest).isoformat() if oldest else None,
"newest_record": datetime.fromtimestamp(newest).isoformat() if newest else None,
}
def clear_data(self) -> None:
"""Clear all recorded data (useful for testing)."""
with self._get_conn() as conn:
conn.execute("DELETE FROM responses")
def print_score_report(scorer: QualityScorer, task_type: Optional[str] = None) -> None:
"""
Print a formatted score report to console.
Args:
scorer: QualityScorer instance
task_type: Optional task type filter
"""
print("\n" + "=" * 80)
print(" UNIWIZARD BACKEND QUALITY SCORES")
print("=" * 80)
if task_type:
print(f"\n Task Type: {task_type.upper()}")
else:
print("\n Overall Performance (all task types)")
print("-" * 80)
scores = scorer.recommend_backend(task_type)
all_scores = scorer.get_all_scores(task_type)
# Header
print(f"\n {'Rank':<6} {'Backend':<16} {'Score':<8} {'Success':<10} {'Latency':<12} {'Samples':<8}")
print(" " + "-" * 72)
# Rankings
for rank, (backend, score) in enumerate(scores, 1):
card = all_scores[backend]
success_pct = (card.success_count / card.total_requests * 100) if card.total_requests > 0 else 0
bar_len = int(score / 5) # 20 chars = 100
bar = "" * bar_len + "" * (20 - bar_len)
print(f" {rank:<6} {backend:<16} {score:>6.1f} {success_pct:>6.1f}% {card.avg_latency_ms:>7.1f}ms {card.total_requests:>6}")
print(f" [{bar}]")
# Per-backend breakdown
print("\n" + "-" * 80)
print(" DETAILED BREAKDOWN")
print("-" * 80)
for backend in BACKENDS:
card = all_scores[backend]
if card.total_requests == 0:
print(f"\n {backend}: No data yet")
continue
print(f"\n {backend.upper()}:")
print(f" Requests: {card.total_requests} | "
f"Success: {card.success_count} | "
f"Errors: {card.error_count} | "
f"Refusals: {card.refusal_count} | "
f"Timeouts: {card.timeout_count}")
print(f" Avg Latency: {card.avg_latency_ms}ms | "
f"TTFT: {card.avg_ttft_ms}ms | "
f"P95: {card.p95_latency_ms}ms")
print(f" Quality Score: {card.score}/100")
# Recommendations
print("\n" + "=" * 80)
print(" RECOMMENDATIONS")
print("=" * 80)
recommendations = scorer.recommend_backend(task_type)
top_3 = [b for b, s in recommendations[:3] if s > 0]
if top_3:
print(f"\n Best backends{f' for {task_type}' if task_type else ''}:")
for i, backend in enumerate(top_3, 1):
score = next(s for b, s in recommendations if b == backend)
print(f" {i}. {backend} (score: {score})")
else:
print("\n Not enough data for recommendations yet.")
print("\n" + "=" * 80)
def print_full_report(scorer: QualityScorer) -> None:
"""Print a complete report including per-task-type breakdowns."""
print("\n" + "=" * 80)
print(" UNIWIZARD BACKEND QUALITY SCORECARD")
print("=" * 80)
stats = scorer.get_stats()
print(f"\n Database: {scorer.db_path}")
print(f" Total Records: {stats['total_records']}")
print(f" Date Range: {stats['oldest_record'] or 'N/A'} to {stats['newest_record'] or 'N/A'}")
# Overall scores
print_score_report(scorer)
# Per-task breakdown
print("\n" + "=" * 80)
print(" PER-TASK SPECIALIZATION")
print("=" * 80)
for task in TaskType:
print(f"\n{'' * 80}")
scores = scorer.recommend_backend(task.value)
print(f"\n {task.value.upper()}:")
for rank, (backend, score) in enumerate(scores[:3], 1):
if score > 0:
print(f" {rank}. {backend}: {score}")
print("\n" + "=" * 80)
# Convenience functions for CLI usage
def get_scorer(db_path: Optional[Path] = None) -> QualityScorer:
"""Get or create a QualityScorer instance."""
return QualityScorer(db_path)
def record(
backend: str,
task_type: str,
status: str,
latency_ms: float,
ttft_ms: float = 0.0,
metadata: Optional[Dict] = None
) -> None:
"""Convenience function to record a response."""
scorer = get_scorer()
scorer.record_response(
backend=backend,
task_type=task_type,
status=ResponseStatus(status),
latency_ms=latency_ms,
ttft_ms=ttft_ms,
metadata=metadata
)
def recommend(task_type: Optional[str] = None) -> List[Tuple[str, float]]:
"""Convenience function to get recommendations."""
scorer = get_scorer()
return scorer.recommend_backend(task_type)
def report(task_type: Optional[str] = None) -> None:
"""Convenience function to print report."""
scorer = get_scorer()
print_score_report(scorer, task_type)
def full_report() -> None:
"""Convenience function to print full report."""
scorer = get_scorer()
print_full_report(scorer)
if __name__ == "__main__":
# Demo mode - show empty report structure
scorer = QualityScorer()
# Add some demo data if empty
stats = scorer.get_stats()
if stats["total_records"] == 0:
print("Generating demo data...")
import random
for _ in range(50):
scorer.record_response(
backend=random.choice(BACKENDS),
task_type=random.choice([t.value for t in TaskType]),
status=random.choices(
[ResponseStatus.SUCCESS, ResponseStatus.ERROR, ResponseStatus.REFUSAL, ResponseStatus.TIMEOUT],
weights=[0.85, 0.08, 0.05, 0.02]
)[0],
latency_ms=random.gauss(1500, 500),
ttft_ms=random.gauss(200, 100)
)
full_report()

769
uniwizard/self_grader.py Normal file
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#!/usr/bin/env python3
"""
Self-Grader Module for Timmy/UniWizard
Grades Hermes session logs to identify patterns in failures and track improvement.
Connects to quality scoring (#98) and adaptive routing (#88).
Author: Timmy (UniWizard)
"""
import json
import sqlite3
import re
from pathlib import Path
from dataclasses import dataclass, asdict
from datetime import datetime, timedelta
from typing import List, Dict, Optional, Any, Tuple
from collections import defaultdict
import statistics
@dataclass
class SessionGrade:
"""Grade for a single session."""
session_id: str
session_file: str
graded_at: str
# Core metrics
task_completed: bool
tool_calls_efficient: int # 1-5 scale
response_quality: int # 1-5 scale
errors_recovered: bool
total_api_calls: int
# Additional metadata
model: str
platform: Optional[str]
session_start: str
duration_seconds: Optional[float]
task_summary: str
# Error analysis
total_errors: int
error_types: str # JSON list of error categories
tools_with_errors: str # JSON list of tool names
# Pattern flags
had_repeated_errors: bool
had_infinite_loop_risk: bool
had_user_clarification: bool
@dataclass
class WeeklyReport:
"""Weekly improvement report."""
week_start: str
week_end: str
total_sessions: int
avg_tool_efficiency: float
avg_response_quality: float
completion_rate: float
error_recovery_rate: float
# Patterns
worst_task_types: List[Tuple[str, float]]
most_error_prone_tools: List[Tuple[str, int]]
common_error_patterns: List[Tuple[str, int]]
# Trends
improvement_suggestions: List[str]
class SelfGrader:
"""Grades Hermes sessions and tracks improvement patterns."""
# Error pattern regexes
ERROR_PATTERNS = {
'file_not_found': re.compile(r'file.*not found|no such file|does not exist', re.I),
'permission_denied': re.compile(r'permission denied|access denied|unauthorized', re.I),
'timeout': re.compile(r'time(d)?\s*out|deadline exceeded', re.I),
'api_error': re.compile(r'api.*error|rate limit|too many requests', re.I),
'syntax_error': re.compile(r'syntax error|invalid syntax|parse error', re.I),
'command_failed': re.compile(r'exit_code.*[1-9]|command.*failed|failed to', re.I),
'network_error': re.compile(r'network|connection|unreachable|refused', re.I),
'tool_not_found': re.compile(r'tool.*not found|unknown tool|no tool named', re.I),
}
# Task type patterns
TASK_PATTERNS = {
'code_review': re.compile(r'code review|review.*code|review.*pr|pull request', re.I),
'debugging': re.compile(r'debug|fix.*bug|troubleshoot|error.*fix', re.I),
'feature_impl': re.compile(r'implement|add.*feature|build.*function', re.I),
'refactoring': re.compile(r'refactor|clean.*up|reorganize|restructure', re.I),
'documentation': re.compile(r'document|readme|docstring|comment', re.I),
'testing': re.compile(r'test|pytest|unit test|integration test', re.I),
'research': re.compile(r'research|investigate|look up|find.*about', re.I),
'deployment': re.compile(r'deploy|release|publish|push.*prod', re.I),
'data_analysis': re.compile(r'analyze.*data|process.*file|parse.*json|csv', re.I),
'infrastructure': re.compile(r'server|docker|kubernetes|terraform|ansible', re.I),
}
def __init__(self, grades_db_path: Optional[Path] = None,
sessions_dir: Optional[Path] = None):
"""Initialize the grader with database and sessions directory."""
self.grades_db_path = Path(grades_db_path) if grades_db_path else Path.home() / ".timmy" / "uniwizard" / "session_grades.db"
self.sessions_dir = Path(sessions_dir) if sessions_dir else Path.home() / ".hermes" / "sessions"
self._init_database()
def _init_database(self):
"""Initialize the SQLite database with schema."""
self.grades_db_path.parent.mkdir(parents=True, exist_ok=True)
with sqlite3.connect(self.grades_db_path) as conn:
conn.execute("""
CREATE TABLE IF NOT EXISTS session_grades (
id INTEGER PRIMARY KEY AUTOINCREMENT,
session_id TEXT UNIQUE NOT NULL,
session_file TEXT NOT NULL,
graded_at TEXT NOT NULL,
-- Core metrics
task_completed INTEGER NOT NULL,
tool_calls_efficient INTEGER NOT NULL,
response_quality INTEGER NOT NULL,
errors_recovered INTEGER NOT NULL,
total_api_calls INTEGER NOT NULL,
-- Metadata
model TEXT,
platform TEXT,
session_start TEXT,
duration_seconds REAL,
task_summary TEXT,
-- Error analysis
total_errors INTEGER NOT NULL,
error_types TEXT,
tools_with_errors TEXT,
-- Pattern flags
had_repeated_errors INTEGER NOT NULL,
had_infinite_loop_risk INTEGER NOT NULL,
had_user_clarification INTEGER NOT NULL
)
""")
# Index for efficient queries
conn.execute("CREATE INDEX IF NOT EXISTS idx_graded_at ON session_grades(graded_at)")
conn.execute("CREATE INDEX IF NOT EXISTS idx_session_start ON session_grades(session_start)")
conn.execute("CREATE INDEX IF NOT EXISTS idx_model ON session_grades(model)")
# Weekly reports table
conn.execute("""
CREATE TABLE IF NOT EXISTS weekly_reports (
id INTEGER PRIMARY KEY AUTOINCREMENT,
week_start TEXT UNIQUE NOT NULL,
week_end TEXT NOT NULL,
generated_at TEXT NOT NULL,
report_json TEXT NOT NULL
)
""")
conn.commit()
def grade_session_file(self, session_path: Path) -> Optional[SessionGrade]:
"""Grade a single session file."""
try:
with open(session_path) as f:
data = json.load(f)
except (json.JSONDecodeError, IOError) as e:
print(f"Error reading {session_path}: {e}")
return None
session_id = data.get('session_id', '')
messages = data.get('messages', [])
if not messages:
return None
# Analyze message flow
analysis = self._analyze_messages(messages)
# Calculate grades
task_completed = self._assess_task_completion(messages, analysis)
tool_efficiency = self._assess_tool_efficiency(analysis)
response_quality = self._assess_response_quality(messages, analysis)
errors_recovered = self._assess_error_recovery(messages, analysis)
# Extract task summary from first user message
task_summary = ""
for msg in messages:
if msg.get('role') == 'user':
task_summary = msg.get('content', '')[:200]
break
# Calculate duration if timestamps available
duration = None
if messages and 'timestamp' in messages[0] and 'timestamp' in messages[-1]:
try:
start = datetime.fromisoformat(messages[0]['timestamp'].replace('Z', '+00:00'))
end = datetime.fromisoformat(messages[-1]['timestamp'].replace('Z', '+00:00'))
duration = (end - start).total_seconds()
except (ValueError, KeyError):
pass
return SessionGrade(
session_id=session_id,
session_file=str(session_path.name),
graded_at=datetime.now().isoformat(),
task_completed=task_completed,
tool_calls_efficient=tool_efficiency,
response_quality=response_quality,
errors_recovered=errors_recovered,
total_api_calls=analysis['total_api_calls'],
model=data.get('model', 'unknown'),
platform=data.get('platform'),
session_start=data.get('session_start', ''),
duration_seconds=duration,
task_summary=task_summary,
total_errors=analysis['total_errors'],
error_types=json.dumps(list(analysis['error_types'])),
tools_with_errors=json.dumps(list(analysis['tools_with_errors'])),
had_repeated_errors=analysis['had_repeated_errors'],
had_infinite_loop_risk=analysis['had_infinite_loop_risk'],
had_user_clarification=analysis['had_user_clarification']
)
def _analyze_messages(self, messages: List[Dict]) -> Dict[str, Any]:
"""Analyze message flow to extract metrics."""
analysis = {
'total_api_calls': 0,
'total_errors': 0,
'error_types': set(),
'tools_with_errors': set(),
'tool_call_counts': defaultdict(int),
'error_sequences': [],
'had_repeated_errors': False,
'had_infinite_loop_risk': False,
'had_user_clarification': False,
'final_assistant_msg': None,
'consecutive_errors': 0,
'max_consecutive_errors': 0,
}
last_tool_was_error = False
for i, msg in enumerate(messages):
role = msg.get('role')
if role == 'assistant':
analysis['total_api_calls'] += 1
# Check for clarification requests
content = msg.get('content', '')
tool_calls = msg.get('tool_calls', [])
if tool_calls and tool_calls[0].get('function', {}).get('name') == 'clarify':
analysis['had_user_clarification'] = True
if 'clarify' in content.lower() and 'need clarification' in content.lower():
analysis['had_user_clarification'] = True
# Track tool calls
for tc in tool_calls:
tool_name = tc.get('function', {}).get('name', 'unknown')
analysis['tool_call_counts'][tool_name] += 1
# Track final assistant message
analysis['final_assistant_msg'] = msg
# Don't reset consecutive errors here - they continue until a tool succeeds
elif role == 'tool':
content = msg.get('content', '')
tool_name = msg.get('name', 'unknown')
# Check for errors
is_error = self._detect_error(content)
if is_error:
analysis['total_errors'] += 1
analysis['tools_with_errors'].add(tool_name)
# Classify error
error_type = self._classify_error(content)
analysis['error_types'].add(error_type)
# Track consecutive errors (consecutive tool messages with errors)
analysis['consecutive_errors'] += 1
analysis['max_consecutive_errors'] = max(
analysis['max_consecutive_errors'],
analysis['consecutive_errors']
)
last_tool_was_error = True
else:
# Reset consecutive errors on success
analysis['consecutive_errors'] = 0
last_tool_was_error = False
# Detect patterns
analysis['had_repeated_errors'] = analysis['max_consecutive_errors'] >= 3
analysis['had_infinite_loop_risk'] = (
analysis['max_consecutive_errors'] >= 5 or
analysis['total_api_calls'] > 50
)
return analysis
def _detect_error(self, content: str) -> bool:
"""Detect if tool result contains an error."""
if not content:
return False
content_lower = content.lower()
# Check for explicit error indicators
error_indicators = [
'"error":', '"error" :', 'error:', 'exception:',
'"exit_code": 1', '"exit_code": 2', '"exit_code": -1',
'traceback', 'failed', 'failure',
]
for indicator in error_indicators:
if indicator in content_lower:
return True
return False
def _classify_error(self, content: str) -> str:
"""Classify the type of error."""
content_lower = content.lower()
for error_type, pattern in self.ERROR_PATTERNS.items():
if pattern.search(content_lower):
return error_type
return 'unknown'
def _assess_task_completion(self, messages: List[Dict], analysis: Dict) -> bool:
"""Assess whether the task was likely completed."""
if not messages:
return False
# Check final assistant message
final_msg = analysis.get('final_assistant_msg')
if not final_msg:
return False
content = final_msg.get('content', '')
# Positive completion indicators
completion_phrases = [
'done', 'completed', 'success', 'finished', 'created',
'implemented', 'fixed', 'resolved', 'saved to', 'here is',
'here are', 'the result', 'output:', 'file:', 'pr:', 'pull request'
]
for phrase in completion_phrases:
if phrase in content.lower():
return True
# Check if there were many errors
if analysis['total_errors'] > analysis['total_api_calls'] * 0.3:
return False
# Check for explicit failure
failure_phrases = ['failed', 'unable to', 'could not', 'error:', 'sorry, i cannot']
for phrase in failure_phrases:
if phrase in content.lower()[:200]:
return False
return True
def _assess_tool_efficiency(self, analysis: Dict) -> int:
"""Rate tool call efficiency on 1-5 scale."""
tool_calls = analysis['total_api_calls']
errors = analysis['total_errors']
if tool_calls == 0:
return 3 # Neutral if no tool calls
error_rate = errors / tool_calls
# Score based on error rate and total calls
if error_rate == 0 and tool_calls <= 10:
return 5 # Perfect efficiency
elif error_rate <= 0.1 and tool_calls <= 15:
return 4 # Good efficiency
elif error_rate <= 0.25 and tool_calls <= 25:
return 3 # Average
elif error_rate <= 0.4:
return 2 # Poor
else:
return 1 # Very poor
def _assess_response_quality(self, messages: List[Dict], analysis: Dict) -> int:
"""Rate response quality on 1-5 scale."""
final_msg = analysis.get('final_assistant_msg')
if not final_msg:
return 1
content = final_msg.get('content', '')
content_len = len(content)
# Quality indicators
score = 3 # Start at average
# Length heuristics
if content_len > 500:
score += 1
if content_len > 1000:
score += 1
# Code blocks indicate substantive response
if '```' in content:
score += 1
# Links/references indicate thoroughness
if 'http' in content or 'see ' in content.lower():
score += 0.5
# Error penalties
if analysis['had_repeated_errors']:
score -= 1
if analysis['total_errors'] > 5:
score -= 1
# Loop risk is severe
if analysis['had_infinite_loop_risk']:
score -= 2
return max(1, min(5, int(score)))
def _assess_error_recovery(self, messages: List[Dict], analysis: Dict) -> bool:
"""Assess whether errors were successfully recovered from."""
if analysis['total_errors'] == 0:
return True # No errors to recover from
# If task completed despite errors, recovered
if self._assess_task_completion(messages, analysis):
return True
# If no repeated errors, likely recovered
if not analysis['had_repeated_errors']:
return True
return False
def save_grade(self, grade: SessionGrade) -> bool:
"""Save a grade to the database."""
try:
with sqlite3.connect(self.grades_db_path) as conn:
conn.execute("""
INSERT OR REPLACE INTO session_grades (
session_id, session_file, graded_at,
task_completed, tool_calls_efficient, response_quality,
errors_recovered, total_api_calls, model, platform,
session_start, duration_seconds, task_summary,
total_errors, error_types, tools_with_errors,
had_repeated_errors, had_infinite_loop_risk, had_user_clarification
) VALUES (?, ?, ?, ?, ?, ?, ?, ?, ?, ?, ?, ?, ?, ?, ?, ?, ?, ?, ?)
""", (
grade.session_id, grade.session_file, grade.graded_at,
int(grade.task_completed), grade.tool_calls_efficient,
grade.response_quality, int(grade.errors_recovered),
grade.total_api_calls, grade.model, grade.platform,
grade.session_start, grade.duration_seconds, grade.task_summary,
grade.total_errors, grade.error_types, grade.tools_with_errors,
int(grade.had_repeated_errors), int(grade.had_infinite_loop_risk),
int(grade.had_user_clarification)
))
conn.commit()
return True
except sqlite3.Error as e:
print(f"Database error saving grade: {e}")
return False
def grade_latest_sessions(self, n: int = 10) -> List[SessionGrade]:
"""Grade the last N ungraded sessions."""
# Get recent session files
session_files = sorted(
[f for f in self.sessions_dir.glob("session_*.json")
if not f.name.endswith("sessions.json")],
key=lambda x: x.stat().st_mtime,
reverse=True
)
# Get already graded sessions
graded_ids = set()
try:
with sqlite3.connect(self.grades_db_path) as conn:
cursor = conn.execute("SELECT session_id FROM session_grades")
graded_ids = {row[0] for row in cursor.fetchall()}
except sqlite3.Error:
pass
# Grade ungraded sessions
grades = []
for sf in session_files[:n]:
# Extract session ID from filename
session_id = sf.stem.replace('session_', '')
if session_id in graded_ids:
continue
grade = self.grade_session_file(sf)
if grade:
if self.save_grade(grade):
grades.append(grade)
return grades
def identify_patterns(self, days: int = 7) -> Dict[str, Any]:
"""Identify patterns in recent graded sessions."""
since = (datetime.now() - timedelta(days=days)).isoformat()
with sqlite3.connect(self.grades_db_path) as conn:
# Overall stats
cursor = conn.execute("""
SELECT
COUNT(*),
AVG(tool_calls_efficient),
AVG(response_quality),
AVG(CASE WHEN task_completed THEN 1.0 ELSE 0.0 END),
AVG(CASE WHEN errors_recovered THEN 1.0 ELSE 0.0 END)
FROM session_grades
WHERE graded_at > ?
""", (since,))
row = cursor.fetchone()
stats = {
'total_sessions': row[0] or 0,
'avg_tool_efficiency': round(row[1] or 0, 2),
'avg_response_quality': round(row[2] or 0, 2),
'completion_rate': round((row[3] or 0) * 100, 1),
'error_recovery_rate': round((row[4] or 0) * 100, 1),
}
# Tool error analysis
cursor = conn.execute("""
SELECT tools_with_errors, COUNT(*)
FROM session_grades
WHERE graded_at > ? AND tools_with_errors != '[]'
GROUP BY tools_with_errors
""", (since,))
tool_errors = defaultdict(int)
for row in cursor.fetchall():
tools = json.loads(row[0])
for tool in tools:
tool_errors[tool] += row[1]
# Error type analysis
cursor = conn.execute("""
SELECT error_types, COUNT(*)
FROM session_grades
WHERE graded_at > ? AND error_types != '[]'
GROUP BY error_types
""", (since,))
error_types = defaultdict(int)
for row in cursor.fetchall():
types = json.loads(row[0])
for et in types:
error_types[et] += row[1]
# Task type performance (infer from task_summary)
cursor = conn.execute("""
SELECT task_summary, response_quality
FROM session_grades
WHERE graded_at > ?
""", (since,))
task_scores = defaultdict(list)
for row in cursor.fetchall():
summary = row[0] or ''
score = row[1]
task_type = self._infer_task_type(summary)
task_scores[task_type].append(score)
avg_task_scores = {
tt: round(sum(scores) / len(scores), 2)
for tt, scores in task_scores.items()
}
return {
**stats,
'tool_error_counts': dict(tool_errors),
'error_type_counts': dict(error_types),
'task_type_scores': avg_task_scores,
}
def _infer_task_type(self, summary: str) -> str:
"""Infer task type from summary text."""
for task_type, pattern in self.TASK_PATTERNS.items():
if pattern.search(summary):
return task_type
return 'general'
def generate_weekly_report(self) -> WeeklyReport:
"""Generate a weekly improvement report."""
# Calculate week boundaries (Monday to Sunday)
today = datetime.now()
monday = today - timedelta(days=today.weekday())
sunday = monday + timedelta(days=6)
patterns = self.identify_patterns(days=7)
# Find worst task types
task_scores = patterns.get('task_type_scores', {})
worst_tasks = sorted(task_scores.items(), key=lambda x: x[1])[:3]
# Find most error-prone tools
tool_errors = patterns.get('tool_error_counts', {})
worst_tools = sorted(tool_errors.items(), key=lambda x: x[1], reverse=True)[:3]
# Find common error patterns
error_types = patterns.get('error_type_counts', {})
common_errors = sorted(error_types.items(), key=lambda x: x[1], reverse=True)[:3]
# Generate suggestions
suggestions = self._generate_suggestions(patterns, worst_tasks, worst_tools, common_errors)
report = WeeklyReport(
week_start=monday.strftime('%Y-%m-%d'),
week_end=sunday.strftime('%Y-%m-%d'),
total_sessions=patterns['total_sessions'],
avg_tool_efficiency=patterns['avg_tool_efficiency'],
avg_response_quality=patterns['avg_response_quality'],
completion_rate=patterns['completion_rate'],
error_recovery_rate=patterns['error_recovery_rate'],
worst_task_types=worst_tasks,
most_error_prone_tools=worst_tools,
common_error_patterns=common_errors,
improvement_suggestions=suggestions
)
# Save report
with sqlite3.connect(self.grades_db_path) as conn:
conn.execute("""
INSERT OR REPLACE INTO weekly_reports
(week_start, week_end, generated_at, report_json)
VALUES (?, ?, ?, ?)
""", (
report.week_start,
report.week_end,
datetime.now().isoformat(),
json.dumps(asdict(report))
))
conn.commit()
return report
def _generate_suggestions(self, patterns: Dict, worst_tasks: List,
worst_tools: List, common_errors: List) -> List[str]:
"""Generate improvement suggestions based on patterns."""
suggestions = []
if patterns['completion_rate'] < 70:
suggestions.append("Task completion rate is below 70%. Consider adding pre-task planning steps.")
if patterns['avg_tool_efficiency'] < 3:
suggestions.append("Tool efficiency is low. Review error recovery patterns and add retry logic.")
if worst_tasks:
task_names = ', '.join([t[0] for t in worst_tasks])
suggestions.append(f"Lowest scoring task types: {task_names}. Consider skill enhancement.")
if worst_tools:
tool_names = ', '.join([t[0] for t in worst_tools])
suggestions.append(f"Most error-prone tools: {tool_names}. Review usage patterns.")
if common_errors:
error_names = ', '.join([e[0] for e in common_errors])
suggestions.append(f"Common error types: {error_names}. Add targeted error handling.")
if patterns['error_recovery_rate'] < 80:
suggestions.append("Error recovery rate needs improvement. Implement better fallback strategies.")
if not suggestions:
suggestions.append("Performance is stable. Focus on expanding task coverage.")
return suggestions
def get_grades_summary(self, days: int = 30) -> str:
"""Get a human-readable summary of recent grades."""
patterns = self.identify_patterns(days=days)
lines = [
f"=== Session Grades Summary (Last {days} days) ===",
"",
f"Total Sessions Graded: {patterns['total_sessions']}",
f"Average Tool Efficiency: {patterns['avg_tool_efficiency']}/5",
f"Average Response Quality: {patterns['avg_response_quality']}/5",
f"Task Completion Rate: {patterns['completion_rate']}%",
f"Error Recovery Rate: {patterns['error_recovery_rate']}%",
"",
]
if patterns.get('task_type_scores'):
lines.append("Task Type Performance:")
for task, score in sorted(patterns['task_type_scores'].items(), key=lambda x: -x[1]):
lines.append(f" - {task}: {score}/5")
lines.append("")
if patterns.get('tool_error_counts'):
lines.append("Tool Error Counts:")
for tool, count in sorted(patterns['tool_error_counts'].items(), key=lambda x: -x[1]):
lines.append(f" - {tool}: {count}")
lines.append("")
return '\n'.join(lines)
def main():
"""CLI entry point for self-grading."""
import argparse
parser = argparse.ArgumentParser(description='Grade Hermes sessions')
parser.add_argument('--grade-latest', '-g', type=int, metavar='N',
help='Grade the last N ungraded sessions')
parser.add_argument('--summary', '-s', action='store_true',
help='Show summary of recent grades')
parser.add_argument('--days', '-d', type=int, default=7,
help='Number of days for summary (default: 7)')
parser.add_argument('--report', '-r', action='store_true',
help='Generate weekly report')
parser.add_argument('--file', '-f', type=Path,
help='Grade a specific session file')
args = parser.parse_args()
grader = SelfGrader()
if args.file:
grade = grader.grade_session_file(args.file)
if grade:
grader.save_grade(grade)
print(f"Graded session: {grade.session_id}")
print(f" Task completed: {grade.task_completed}")
print(f" Tool efficiency: {grade.tool_calls_efficient}/5")
print(f" Response quality: {grade.response_quality}/5")
print(f" Errors recovered: {grade.errors_recovered}")
else:
print("Failed to grade session")
elif args.grade_latest:
grades = grader.grade_latest_sessions(args.grade_latest)
print(f"Graded {len(grades)} sessions")
for g in grades:
print(f" - {g.session_id}: quality={g.response_quality}/5, "
f"completed={g.task_completed}")
elif args.report:
report = grader.generate_weekly_report()
print(f"\n=== Weekly Report ({report.week_start} to {report.week_end}) ===")
print(f"Total Sessions: {report.total_sessions}")
print(f"Avg Tool Efficiency: {report.avg_tool_efficiency}/5")
print(f"Avg Response Quality: {report.avg_response_quality}/5")
print(f"Completion Rate: {report.completion_rate}%")
print(f"Error Recovery Rate: {report.error_recovery_rate}%")
print("\nSuggestions:")
for s in report.improvement_suggestions:
print(f" - {s}")
else:
print(grader.get_grades_summary(days=args.days))
if __name__ == '__main__':
main()

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# Self-Grader Design Document
**Issue:** timmy-home #89 - "Build self-improvement loop: Timmy grades and learns from his own outputs"
**Related Issues:** #88 (Adaptive Routing), #98 (Quality Scoring)
---
## 1. Overview
The Self-Grader module enables Timmy to automatically evaluate his own task outputs, identify patterns in failures, and generate actionable improvement insights. This creates a closed feedback loop for continuous self-improvement.
### Goals
- Automatically grade completed sessions on multiple quality dimensions
- Identify recurring error patterns and their root causes
- Track performance trends over time
- Generate actionable weekly improvement reports
- Feed insights into adaptive routing decisions
---
## 2. Architecture
```
┌─────────────────────────────────────────────────────────────┐
│ Self-Grader Module │
├─────────────────────────────────────────────────────────────┤
│ │
│ ┌──────────────┐ ┌──────────────┐ ┌──────────────┐ │
│ │ Parser │───▶│ Analyzer │───▶│ Grader │ │
│ │ │ │ │ │ │ │
│ │ Reads session│ │ Extracts │ │ Scores on 5 │ │
│ │ JSON files │ │ metrics │ │ dimensions │ │
│ └──────────────┘ └──────────────┘ └──────────────┘ │
│ │ │ │ │
│ ▼ ▼ ▼ │
│ ┌──────────────────────────────────────────────────────┐ │
│ │ SQLite Database Layer │ │
│ │ • session_grades table (individual scores) │ │
│ │ • weekly_reports table (aggregated insights) │ │
│ └──────────────────────────────────────────────────────┘ │
│ │ │
│ ▼ │
│ ┌──────────────────────────────────────────────────────┐ │
│ │ Pattern Identification │ │
│ │ • Task type performance analysis │ │
│ │ • Tool error frequency tracking │ │
│ │ • Error classification and clustering │ │
│ └──────────────────────────────────────────────────────┘ │
│ │ │
│ ▼ │
│ ┌──────────────────────────────────────────────────────┐ │
│ │ Report Generator │ │
│ │ • Weekly summary with trends │ │
│ │ • Improvement suggestions │ │
│ │ • Performance alerts │ │
│ └──────────────────────────────────────────────────────┘ │
│ │
└─────────────────────────────────────────────────────────────┘
┌─────────────────────────────────────────────────────────────┐
│ Downstream Consumers │
│ • Adaptive Routing (#88) - route based on task type │
│ • Quality Scoring (#98) - external quality validation │
│ • Skill Recommendations - identify skill gaps │
│ • Alert System - notify on quality degradation │
└─────────────────────────────────────────────────────────────┘
```
---
## 3. Grading Dimensions
### 3.1 Core Metrics (1-5 scale where applicable)
| Metric | Type | Description |
|--------|------|-------------|
| `task_completed` | boolean | Whether the task appears to have been completed successfully |
| `tool_calls_efficient` | int (1-5) | Efficiency of tool usage (error rate, call count) |
| `response_quality` | int (1-5) | Overall quality of final response |
| `errors_recovered` | boolean | Whether errors were successfully recovered from |
| `total_api_calls` | int | Total number of API/assistant calls made |
### 3.2 Derived Metrics
| Metric | Description |
|--------|-------------|
| `total_errors` | Count of tool errors detected |
| `error_types` | Categorized error types (JSON list) |
| `tools_with_errors` | Tools that generated errors |
| `had_repeated_errors` | Flag for 3+ consecutive errors |
| `had_infinite_loop_risk` | Flag for 5+ consecutive errors or >50 calls |
| `had_user_clarification` | Whether clarification was requested |
---
## 4. Error Classification
The system classifies errors into categories for pattern analysis:
| Category | Pattern | Example |
|----------|---------|---------|
| `file_not_found` | File/path errors | "No such file or directory" |
| `permission_denied` | Access errors | "Permission denied" |
| `timeout` | Time limit exceeded | "Request timed out" |
| `api_error` | External API failures | "Rate limit exceeded" |
| `syntax_error` | Code/parsing errors | "Invalid syntax" |
| `command_failed` | Command execution | "exit_code": 1 |
| `network_error` | Connectivity issues | "Connection refused" |
| `tool_not_found` | Tool resolution | "Unknown tool" |
| `unknown` | Unclassified | Any other error |
---
## 5. Task Type Inference
Sessions are categorized by task type for comparative analysis:
| Task Type | Pattern |
|-----------|---------|
| `code_review` | "review", "code review", "PR" |
| `debugging` | "debug", "fix", "troubleshoot" |
| `feature_impl` | "implement", "add feature", "build" |
| `refactoring` | "refactor", "clean up", "reorganize" |
| `documentation` | "document", "readme", "docstring" |
| `testing` | "test", "pytest", "unit test" |
| `research` | "research", "investigate", "look up" |
| `deployment` | "deploy", "release", "publish" |
| `data_analysis` | "analyze data", "process file", "parse" |
| `infrastructure` | "server", "docker", "kubernetes" |
| `general` | Default catch-all |
---
## 6. Database Schema
### 6.1 session_grades Table
```sql
CREATE TABLE session_grades (
id INTEGER PRIMARY KEY AUTOINCREMENT,
session_id TEXT UNIQUE NOT NULL,
session_file TEXT NOT NULL,
graded_at TEXT NOT NULL,
-- Core metrics
task_completed INTEGER NOT NULL,
tool_calls_efficient INTEGER NOT NULL,
response_quality INTEGER NOT NULL,
errors_recovered INTEGER NOT NULL,
total_api_calls INTEGER NOT NULL,
-- Metadata
model TEXT,
platform TEXT,
session_start TEXT,
duration_seconds REAL,
task_summary TEXT,
-- Error analysis
total_errors INTEGER NOT NULL,
error_types TEXT, -- JSON array
tools_with_errors TEXT, -- JSON array
-- Pattern flags
had_repeated_errors INTEGER NOT NULL,
had_infinite_loop_risk INTEGER NOT NULL,
had_user_clarification INTEGER NOT NULL
);
```
### 6.2 weekly_reports Table
```sql
CREATE TABLE weekly_reports (
id INTEGER PRIMARY KEY AUTOINCREMENT,
week_start TEXT UNIQUE NOT NULL,
week_end TEXT NOT NULL,
generated_at TEXT NOT NULL,
report_json TEXT NOT NULL -- Serialized WeeklyReport
);
```
---
## 7. Scoring Algorithms
### 7.1 Task Completion Detection
Positive indicators:
- Final message contains completion phrases: "done", "completed", "success", "finished"
- References to created outputs: "saved to", "here is", "output:"
- Low error rate relative to total calls
Negative indicators:
- Explicit failure phrases: "failed", "unable to", "could not"
- Error rate > 30% of total calls
- Empty or very short final response
### 7.2 Tool Efficiency Scoring
```python
error_rate = total_errors / total_api_calls
if error_rate == 0 and tool_calls <= 10:
score = 5 # Perfect
elif error_rate <= 0.1 and tool_calls <= 15:
score = 4 # Good
elif error_rate <= 0.25 and tool_calls <= 25:
score = 3 # Average
elif error_rate <= 0.4:
score = 2 # Poor
else:
score = 1 # Very poor
```
### 7.3 Response Quality Scoring
Base score: 3 (average)
Additions:
- Content length > 500 chars: +1
- Content length > 1000 chars: +1
- Contains code blocks: +1
- Contains links/references: +0.5
Penalties:
- Repeated errors: -1
- Total errors > 5: -1
- Infinite loop risk: -2
Range clamped to 1-5.
---
## 8. Pattern Identification
### 8.1 Per-Task-Type Analysis
Tracks average scores per task type to identify weak areas:
```python
task_scores = {
'code_review': 4.2,
'debugging': 2.8, # <-- Needs attention
'feature_impl': 3.5,
}
```
### 8.2 Tool Error Frequency
Identifies which tools are most error-prone:
```python
tool_errors = {
'browser_navigate': 15, # <-- High error rate
'terminal': 5,
'file_read': 2,
}
```
### 8.3 Error Pattern Clustering
Groups errors by type to identify systemic issues:
```python
error_types = {
'file_not_found': 12, # <-- Need better path handling
'timeout': 8,
'api_error': 3,
}
```
---
## 9. Weekly Report Generation
### 9.1 Report Contents
1. **Summary Statistics**
- Total sessions graded
- Average tool efficiency
- Average response quality
- Task completion rate
- Error recovery rate
2. **Problem Areas**
- Lowest scoring task types
- Most error-prone tools
- Common error patterns
3. **Improvement Suggestions**
- Actionable recommendations based on patterns
- Skill gap identification
- Process improvement tips
### 9.2 Suggestion Generation Rules
| Condition | Suggestion |
|-----------|------------|
| completion_rate < 70% | "Add pre-task planning steps" |
| avg_tool_efficiency < 3 | "Review error recovery patterns" |
| error_recovery_rate < 80% | "Implement better fallback strategies" |
| Specific task type low | "Consider skill enhancement for {task}" |
| Specific tool high errors | "Review usage patterns for {tool}" |
| Specific error common | "Add targeted error handling for {error}" |
---
## 10. Integration Points
### 10.1 With Adaptive Routing (#88)
The grader feeds task-type performance data to the router:
```python
# Router uses grader insights
if task_type == 'debugging' and grader.get_task_score('debugging') < 3:
# Route to more capable model for debugging tasks
model = 'claude-opus-4'
```
### 10.2 With Quality Scoring (#98)
Grader scores feed into external quality validation:
```python
# Quality scorer validates grader accuracy
external_score = quality_scorer.validate(session, grader_score)
discrepancy = abs(external_score - grader_score)
if discrepancy > threshold:
grader.calibrate() # Adjust scoring algorithms
```
### 10.3 With Skill System
Identifies skills that could improve low-scoring areas:
```python
if grader.get_task_score('debugging') < 3:
recommend_skill('systematic-debugging')
```
---
## 11. Usage
### 11.1 Command Line
```bash
# Grade latest 10 ungraded sessions
python self_grader.py -g 10
# Show summary of last 7 days
python self_grader.py -s
# Show summary of last 30 days
python self_grader.py -s -d 30
# Generate weekly report
python self_grader.py -r
# Grade specific session file
python self_grader.py -f /path/to/session.json
```
### 11.2 Python API
```python
from self_grader import SelfGrader
grader = SelfGrader()
# Grade latest sessions
grades = grader.grade_latest_sessions(n=10)
# Get pattern insights
patterns = grader.identify_patterns(days=7)
# Generate report
report = grader.generate_weekly_report()
# Get human-readable summary
print(grader.get_grades_summary(days=7))
```
---
## 12. Testing
Comprehensive test suite covers:
1. **Unit Tests**
- Error detection and classification
- Scoring algorithms
- Task type inference
2. **Integration Tests**
- Full session grading pipeline
- Database operations
- Report generation
3. **Edge Cases**
- Empty sessions
- Sessions with infinite loops
- Malformed session files
Run tests:
```bash
python -m pytest test_self_grader.py -v
```
---
## 13. Future Enhancements
1. **Machine Learning Integration**
- Train models to predict session success
- Learn optimal tool sequences
- Predict error likelihood
2. **Human-in-the-Loop Validation**
- Allow user override of grades
- Collect explicit feedback
- Calibrate scoring with human judgments
3. **Real-time Monitoring**
- Grade sessions as they complete
- Alert on quality degradation
- Live dashboard of metrics
4. **Cross-Session Learning**
- Identify recurring issues across similar tasks
- Suggest skill improvements
- Recommend tool alternatives
---
## 14. Files
| File | Description |
|------|-------------|
| `self_grader.py` | Main module with SelfGrader class |
| `test_self_grader.py` | Comprehensive test suite |
| `self_grader_design.md` | This design document |
| `~/.timmy/uniwizard/session_grades.db` | SQLite database (created at runtime) |
---
*Document Version: 1.0*
*Created: 2026-03-30*
*Author: Timmy (UniWizard)*

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"""
Enhanced Task Classifier for Uniwizard
Classifies incoming prompts into task types and maps them to ranked backend preferences.
Integrates with the 7-backend fallback chain defined in config.yaml.
"""
from __future__ import annotations
import re
from dataclasses import dataclass
from enum import Enum
from typing import Any, Dict, List, Optional, Set, Tuple
class TaskType(Enum):
"""Classification categories for incoming prompts."""
CODE = "code"
REASONING = "reasoning"
RESEARCH = "research"
CREATIVE = "creative"
FAST_OPS = "fast_ops"
TOOL_USE = "tool_use"
UNKNOWN = "unknown"
class ComplexityLevel(Enum):
"""Complexity tiers for prompt analysis."""
LOW = "low"
MEDIUM = "medium"
HIGH = "high"
# Backend identifiers (match fallback_providers chain order)
BACKEND_ANTHROPIC = "anthropic"
BACKEND_OPENAI_CODEX = "openai-codex"
BACKEND_GEMINI = "gemini"
BACKEND_GROQ = "groq"
BACKEND_GROK = "grok"
BACKEND_KIMI = "kimi-coding"
BACKEND_OPENROUTER = "openrouter"
ALL_BACKENDS = [
BACKEND_ANTHROPIC,
BACKEND_OPENAI_CODEX,
BACKEND_GEMINI,
BACKEND_GROQ,
BACKEND_GROK,
BACKEND_KIMI,
BACKEND_OPENROUTER,
]
# Task-specific keyword mappings
CODE_KEYWORDS: Set[str] = {
"code", "coding", "program", "programming", "function", "class",
"implement", "implementation", "refactor", "debug", "debugging",
"error", "exception", "traceback", "stacktrace", "test", "tests",
"pytest", "unittest", "import", "module", "package", "library",
"api", "endpoint", "route", "middleware", "database", "query",
"sql", "orm", "migration", "deploy", "docker", "kubernetes",
"k8s", "ci/cd", "pipeline", "build", "compile", "syntax",
"lint", "format", "black", "flake8", "mypy", "type", "typing",
"async", "await", "callback", "promise", "thread", "process",
"concurrency", "parallel", "optimization", "optimize", "performance",
"memory", "leak", "bug", "fix", "patch", "commit", "git",
"repository", "repo", "clone", "fork", "merge", "conflict",
"branch", "pull request", "pr", "review", "crud", "rest",
"graphql", "json", "xml", "yaml", "toml", "csv", "parse",
"regex", "regular expression", "string", "bytes", "encoding",
"decoding", "serialize", "deserialize", "marshal", "unmarshal",
"encrypt", "decrypt", "hash", "checksum", "signature", "jwt",
"oauth", "authentication", "authorization", "auth", "login",
"logout", "session", "cookie", "token", "permission", "role",
"rbac", "acl", "security", "vulnerability", "cve", "exploit",
"sandbox", "isolate", "container", "vm", "virtual machine",
}
REASONING_KEYWORDS: Set[str] = {
"analyze", "analysis", "investigate", "investigation",
"compare", "comparison", "contrast", "evaluate", "evaluation",
"assess", "assessment", "reason", "reasoning", "logic",
"logical", "deduce", "deduction", "infer", "inference",
"synthesize", "synthesis", "critique", "criticism", "review",
"argument", "premise", "conclusion", "evidence", "proof",
"theorem", "axiom", "corollary", "lemma", "proposition",
"hypothesis", "theory", "model", "framework", "paradigm",
"philosophy", "ethical", "ethics", "moral", "morality",
"implication", "consequence", "trade-off", "tradeoff",
"pros and cons", "advantage", "disadvantage", "benefit",
"drawback", "risk", "mitigation", "strategy", "strategic",
"plan", "planning", "design", "architecture", "system",
"complex", "complicated", "nuanced", "subtle", "sophisticated",
"rigorous", "thorough", "comprehensive", "exhaustive",
"step by step", "chain of thought", "think through",
"work through", "figure out", "understand", "comprehend",
}
RESEARCH_KEYWORDS: Set[str] = {
"research", "find", "search", "look up", "lookup",
"investigate", "study", "explore", "discover",
"paper", "publication", "journal", "article", "study",
"arxiv", "scholar", "academic", "scientific", "literature",
"review", "survey", "meta-analysis", "bibliography",
"citation", "reference", "source", "primary source",
"secondary source", "peer review", "empirical", "experiment",
"experimental", "observational", "longitudinal", "cross-sectional",
"qualitative", "quantitative", "mixed methods", "case study",
"dataset", "data", "statistics", "statistical", "correlation",
"causation", "regression", "machine learning", "ml", "ai",
"neural network", "deep learning", "transformer", "llm",
"benchmark", "evaluation", "metric", "sota", "state of the art",
"survey", "poll", "interview", "focus group", "ethnography",
"field work", "archive", "archival", "repository", "collection",
"index", "catalog", "database", "librar", "museum", "histor",
"genealogy", "ancestry", "patent", "trademark", "copyright",
"legislation", "regulation", "policy", "compliance",
}
CREATIVE_KEYWORDS: Set[str] = {
"create", "creative", "creativity", "design", "designer",
"art", "artistic", "artist", "paint", "painting", "draw",
"drawing", "sketch", "illustration", "illustrator", "graphic",
"visual", "image", "photo", "photography", "photographer",
"video", "film", "movie", "animation", "animate", "motion",
"music", "musical", "song", "lyric", "compose", "composition",
"melody", "harmony", "rhythm", "beat", "sound", "audio",
"write", "writing", "writer", "author", "story", "storytelling",
"narrative", "plot", "character", "dialogue", "scene",
"novel", "fiction", "short story", "poem", "poetry", "poet",
"verse", "prose", "essay", "blog", "article", "content",
"copy", "copywriting", "marketing", "brand", "branding",
"slogan", "tagline", "headline", "title", "name", "naming",
"brainstorm", "ideate", "concept", "conceptualize", "imagine",
"imagination", "inspire", "inspiration", "muse", "vision",
"aesthetic", "style", "theme", "mood", "tone", "voice",
"unique", "original", "fresh", "novel", "innovative",
"unconventional", "experimental", "avant-garde", "edgy",
"humor", "funny", "comedy", "satire", "parody", "wit",
"romance", "romantic", "drama", "dramatic", "thriller",
"mystery", "horror", "sci-fi", "science fiction", "fantasy",
"adventure", "action", "documentary", "biopic", "memoir",
}
FAST_OPS_KEYWORDS: Set[str] = {
"quick", "fast", "brief", "short", "simple", "easy",
"status", "check", "list", "ls", "show", "display",
"get", "fetch", "retrieve", "read", "cat", "view",
"summary", "summarize", "tl;dr", "tldr", "overview",
"count", "number", "how many", "total", "sum", "average",
"min", "max", "sort", "filter", "grep", "search",
"find", "locate", "which", "where", "what is", "what's",
"who", "when", "yes/no", "confirm", "verify", "validate",
"ping", "health", "alive", "up", "running", "online",
"date", "time", "timezone", "clock", "timer", "alarm",
"remind", "reminder", "note", "jot", "save", "store",
"delete", "remove", "rm", "clean", "clear", "purge",
"start", "stop", "restart", "enable", "disable", "toggle",
"on", "off", "open", "close", "switch", "change", "set",
"update", "upgrade", "install", "uninstall", "download",
"upload", "sync", "backup", "restore", "export", "import",
"convert", "transform", "format", "parse", "extract",
"compress", "decompress", "zip", "unzip", "tar", "archive",
"copy", "cp", "move", "mv", "rename", "link", "symlink",
"permission", "chmod", "chown", "access", "ownership",
"hello", "hi", "hey", "greeting", "thanks", "thank you",
"bye", "goodbye", "help", "?", "how to", "how do i",
}
TOOL_USE_KEYWORDS: Set[str] = {
"tool", "tools", "use tool", "call tool", "invoke",
"run command", "execute", "terminal", "shell", "bash",
"zsh", "powershell", "cmd", "command line", "cli",
"file", "files", "directory", "folder", "path", "fs",
"read file", "write file", "edit file", "patch file",
"search files", "find files", "grep", "rg", "ack",
"browser", "web", "navigate", "click", "scroll",
"screenshot", "vision", "image", "analyze image",
"delegate", "subagent", "agent", "spawn", "task",
"mcp", "server", "mcporter", "protocol",
"process", "background", "kill", "signal", "pid",
"git", "commit", "push", "pull", "clone", "branch",
"docker", "container", "compose", "dockerfile",
"kubernetes", "kubectl", "k8s", "pod", "deployment",
"aws", "gcp", "azure", "cloud", "s3", "bucket",
"database", "db", "sql", "query", "migrate", "seed",
"api", "endpoint", "request", "response", "curl",
"http", "https", "rest", "graphql", "websocket",
"json", "xml", "yaml", "csv", "parse", "serialize",
"scrap", "crawl", "extract", "parse html", "xpath",
"schedule", "cron", "job", "task queue", "worker",
"notification", "alert", "webhook", "event", "trigger",
}
# URL pattern for detecting web/research tasks
_URL_PATTERN = re.compile(
r'https?://(?:[-\w.])+(?:[:\d]+)?(?:/(?:[\w/_.])*(?:\?(?:[\w&=%.])*)?(?:#(?:[\w.])*)?)?',
re.IGNORECASE
)
# Code block detection (count ``` blocks, not individual lines)
_CODE_BLOCK_PATTERN = re.compile(r'```[\w]*\n', re.MULTILINE)
def _count_code_blocks(text: str) -> int:
"""Count complete code blocks (opening ``` to closing ```)."""
# Count pairs of ``` - each pair is one code block
fence_count = text.count('```')
return fence_count // 2
_INLINE_CODE_PATTERN = re.compile(r'`[^`]+`')
# Complexity thresholds
COMPLEXITY_THRESHOLDS = {
"chars": {"low": 200, "medium": 800},
"words": {"low": 35, "medium": 150},
"lines": {"low": 3, "medium": 15},
"urls": {"low": 0, "medium": 2},
"code_blocks": {"low": 0, "medium": 1},
}
@dataclass
class ClassificationResult:
"""Result of task classification."""
task_type: TaskType
preferred_backends: List[str]
complexity: ComplexityLevel
reason: str
confidence: float
features: Dict[str, Any]
class TaskClassifier:
"""
Enhanced task classifier for routing prompts to appropriate backends.
Maps task types to ranked backend preferences based on:
- Backend strengths (coding, reasoning, speed, context length, etc.)
- Message complexity (length, structure, keywords)
- Detected features (URLs, code blocks, specific terminology)
"""
# Backend preference rankings by task type
# Order matters: first is most preferred
TASK_BACKEND_MAP: Dict[TaskType, List[str]] = {
TaskType.CODE: [
BACKEND_OPENAI_CODEX, # Best for code generation
BACKEND_ANTHROPIC, # Excellent for code review, complex analysis
BACKEND_KIMI, # Long context for large codebases
BACKEND_GEMINI, # Good multimodal code understanding
BACKEND_GROQ, # Fast for simple code tasks
BACKEND_OPENROUTER, # Overflow option
BACKEND_GROK, # General knowledge backup
],
TaskType.REASONING: [
BACKEND_ANTHROPIC, # Deep reasoning champion
BACKEND_GEMINI, # Strong analytical capabilities
BACKEND_KIMI, # Long context for complex reasoning chains
BACKEND_GROK, # Broad knowledge for reasoning
BACKEND_OPENAI_CODEX, # Structured reasoning
BACKEND_OPENROUTER, # Overflow
BACKEND_GROQ, # Fast fallback
],
TaskType.RESEARCH: [
BACKEND_GEMINI, # Research and multimodal leader
BACKEND_KIMI, # 262K context for long documents
BACKEND_ANTHROPIC, # Deep analysis
BACKEND_GROK, # Broad knowledge
BACKEND_OPENROUTER, # Broadest model access
BACKEND_OPENAI_CODEX, # Structured research
BACKEND_GROQ, # Fast triage
],
TaskType.CREATIVE: [
BACKEND_GROK, # Creative writing and drafting
BACKEND_ANTHROPIC, # Nuanced creative work
BACKEND_GEMINI, # Multimodal creativity
BACKEND_OPENAI_CODEX, # Creative coding
BACKEND_KIMI, # Long-form creative
BACKEND_OPENROUTER, # Variety of creative models
BACKEND_GROQ, # Fast creative ops
],
TaskType.FAST_OPS: [
BACKEND_GROQ, # 284ms response time champion
BACKEND_OPENROUTER, # Fast mini models
BACKEND_GEMINI, # Flash models
BACKEND_GROK, # Fast for simple queries
BACKEND_ANTHROPIC, # If precision needed
BACKEND_OPENAI_CODEX, # Structured ops
BACKEND_KIMI, # Overflow
],
TaskType.TOOL_USE: [
BACKEND_ANTHROPIC, # Excellent tool use capabilities
BACKEND_OPENAI_CODEX, # Good tool integration
BACKEND_GEMINI, # Multimodal tool use
BACKEND_GROQ, # Fast tool chaining
BACKEND_KIMI, # Long context tool sessions
BACKEND_OPENROUTER, # Overflow
BACKEND_GROK, # General tool use
],
TaskType.UNKNOWN: [
BACKEND_ANTHROPIC, # Default to strongest general model
BACKEND_GEMINI, # Good all-rounder
BACKEND_OPENAI_CODEX, # Structured approach
BACKEND_KIMI, # Long context safety
BACKEND_GROK, # Broad knowledge
BACKEND_GROQ, # Fast fallback
BACKEND_OPENROUTER, # Ultimate overflow
],
}
def __init__(self):
"""Initialize the classifier with compiled patterns."""
self.url_pattern = _URL_PATTERN
self.code_block_pattern = _CODE_BLOCK_PATTERN
self.inline_code_pattern = _INLINE_CODE_PATTERN
def classify(
self,
prompt: str,
context: Optional[Dict[str, Any]] = None
) -> ClassificationResult:
"""
Classify a prompt and return routing recommendation.
Args:
prompt: The user message to classify
context: Optional context (previous messages, session state, etc.)
Returns:
ClassificationResult with task type, preferred backends, complexity, and reasoning
"""
text = (prompt or "").strip()
if not text:
return self._default_result("Empty prompt")
# Extract features
features = self._extract_features(text)
# Determine complexity
complexity = self._assess_complexity(features)
# Classify task type
task_type, task_confidence, task_reason = self._classify_task_type(text, features)
# Get preferred backends
preferred_backends = self._get_backends_for_task(task_type, complexity, features)
# Build reason string
reason = self._build_reason(task_type, complexity, task_reason, features)
return ClassificationResult(
task_type=task_type,
preferred_backends=preferred_backends,
complexity=complexity,
reason=reason,
confidence=task_confidence,
features=features,
)
def _extract_features(self, text: str) -> Dict[str, Any]:
"""Extract features from the prompt text."""
lowered = text.lower()
words = set(token.strip(".,:;!?()[]{}\"'`") for token in lowered.split())
# Count code blocks (complete ``` pairs)
code_blocks = _count_code_blocks(text)
inline_code = len(self.inline_code_pattern.findall(text))
# Count URLs
urls = self.url_pattern.findall(text)
# Count lines
lines = text.count('\n') + 1
return {
"char_count": len(text),
"word_count": len(text.split()),
"line_count": lines,
"url_count": len(urls),
"urls": urls,
"code_block_count": code_blocks,
"inline_code_count": inline_code,
"has_code": code_blocks > 0 or inline_code > 0,
"unique_words": words,
"lowercased_text": lowered,
}
def _assess_complexity(self, features: Dict[str, Any]) -> ComplexityLevel:
"""Assess the complexity level of the prompt."""
scores = {
"chars": features["char_count"],
"words": features["word_count"],
"lines": features["line_count"],
"urls": features["url_count"],
"code_blocks": features["code_block_count"],
}
# Count how many metrics exceed medium threshold
medium_count = 0
high_count = 0
for metric, value in scores.items():
thresholds = COMPLEXITY_THRESHOLDS.get(metric, {"low": 0, "medium": 0})
if value > thresholds["medium"]:
high_count += 1
elif value > thresholds["low"]:
medium_count += 1
# Determine complexity
if high_count >= 2 or scores["code_blocks"] > 2:
return ComplexityLevel.HIGH
elif medium_count >= 2 or high_count >= 1:
return ComplexityLevel.MEDIUM
else:
return ComplexityLevel.LOW
def _classify_task_type(
self,
text: str,
features: Dict[str, Any]
) -> Tuple[TaskType, float, str]:
"""
Classify the task type based on keywords and features.
Returns:
Tuple of (task_type, confidence, reason)
"""
words = features["unique_words"]
lowered = features["lowercased_text"]
# Score each task type
scores: Dict[TaskType, float] = {task: 0.0 for task in TaskType}
reasons: Dict[TaskType, str] = {}
# CODE scoring
code_matches = words & CODE_KEYWORDS
if features["has_code"]:
scores[TaskType.CODE] += 2.0
reasons[TaskType.CODE] = "Contains code blocks"
if code_matches:
scores[TaskType.CODE] += min(len(code_matches) * 0.5, 3.0)
if TaskType.CODE not in reasons:
reasons[TaskType.CODE] = f"Code keywords: {', '.join(list(code_matches)[:3])}"
# REASONING scoring
reasoning_matches = words & REASONING_KEYWORDS
if reasoning_matches:
scores[TaskType.REASONING] += min(len(reasoning_matches) * 0.4, 2.5)
reasons[TaskType.REASONING] = f"Reasoning keywords: {', '.join(list(reasoning_matches)[:3])}"
if any(phrase in lowered for phrase in ["step by step", "chain of thought", "think through"]):
scores[TaskType.REASONING] += 1.5
reasons[TaskType.REASONING] = "Explicit reasoning request"
# RESEARCH scoring
research_matches = words & RESEARCH_KEYWORDS
if features["url_count"] > 0:
scores[TaskType.RESEARCH] += 1.5
reasons[TaskType.RESEARCH] = f"Contains {features['url_count']} URL(s)"
if research_matches:
scores[TaskType.RESEARCH] += min(len(research_matches) * 0.4, 2.0)
if TaskType.RESEARCH not in reasons:
reasons[TaskType.RESEARCH] = f"Research keywords: {', '.join(list(research_matches)[:3])}"
# CREATIVE scoring
creative_matches = words & CREATIVE_KEYWORDS
if creative_matches:
scores[TaskType.CREATIVE] += min(len(creative_matches) * 0.4, 2.5)
reasons[TaskType.CREATIVE] = f"Creative keywords: {', '.join(list(creative_matches)[:3])}"
# FAST_OPS scoring (simple queries) - ONLY if no other strong signals
fast_ops_matches = words & FAST_OPS_KEYWORDS
is_very_short = features["word_count"] <= 5 and features["char_count"] < 50
# Only score fast_ops if it's very short OR has no other task indicators
other_scores_possible = bool(
(words & CODE_KEYWORDS) or
(words & REASONING_KEYWORDS) or
(words & RESEARCH_KEYWORDS) or
(words & CREATIVE_KEYWORDS) or
(words & TOOL_USE_KEYWORDS) or
features["has_code"]
)
if is_very_short and not other_scores_possible:
scores[TaskType.FAST_OPS] += 1.5
reasons[TaskType.FAST_OPS] = "Very short, simple query"
elif not other_scores_possible and fast_ops_matches and features["word_count"] < 30:
scores[TaskType.FAST_OPS] += min(len(fast_ops_matches) * 0.3, 1.0)
reasons[TaskType.FAST_OPS] = f"Simple query keywords: {', '.join(list(fast_ops_matches)[:3])}"
# TOOL_USE scoring
tool_matches = words & TOOL_USE_KEYWORDS
if tool_matches:
scores[TaskType.TOOL_USE] += min(len(tool_matches) * 0.4, 2.0)
reasons[TaskType.TOOL_USE] = f"Tool keywords: {', '.join(list(tool_matches)[:3])}"
if any(cmd in lowered for cmd in ["run ", "execute ", "call ", "use "]):
scores[TaskType.TOOL_USE] += 0.5
# Find highest scoring task type
best_task = TaskType.UNKNOWN
best_score = 0.0
for task, score in scores.items():
if score > best_score:
best_score = score
best_task = task
# Calculate confidence
confidence = min(best_score / 4.0, 1.0) if best_score > 0 else 0.0
reason = reasons.get(best_task, "No strong indicators")
return best_task, confidence, reason
def _get_backends_for_task(
self,
task_type: TaskType,
complexity: ComplexityLevel,
features: Dict[str, Any]
) -> List[str]:
"""Get ranked list of preferred backends for the task."""
base_backends = self.TASK_BACKEND_MAP.get(task_type, self.TASK_BACKEND_MAP[TaskType.UNKNOWN])
# Adjust for complexity
if complexity == ComplexityLevel.HIGH and task_type in (TaskType.RESEARCH, TaskType.CODE):
# For high complexity, prioritize long-context models
if BACKEND_KIMI in base_backends:
# Move kimi earlier for long context
base_backends = self._prioritize_backend(base_backends, BACKEND_KIMI, 2)
if BACKEND_GEMINI in base_backends:
base_backends = self._prioritize_backend(base_backends, BACKEND_GEMINI, 3)
elif complexity == ComplexityLevel.LOW and task_type == TaskType.FAST_OPS:
# For simple ops, ensure GROQ is first
base_backends = self._prioritize_backend(base_backends, BACKEND_GROQ, 0)
# Adjust for code presence
if features["has_code"] and task_type != TaskType.CODE:
# Boost OpenAI Codex if there's code but not explicitly a code task
base_backends = self._prioritize_backend(base_backends, BACKEND_OPENAI_CODEX, 2)
return list(base_backends)
def _prioritize_backend(
self,
backends: List[str],
target: str,
target_index: int
) -> List[str]:
"""Move a backend to a specific index in the list."""
if target not in backends:
return backends
new_backends = list(backends)
new_backends.remove(target)
new_backends.insert(min(target_index, len(new_backends)), target)
return new_backends
def _build_reason(
self,
task_type: TaskType,
complexity: ComplexityLevel,
task_reason: str,
features: Dict[str, Any]
) -> str:
"""Build a human-readable reason string."""
parts = [
f"Task: {task_type.value}",
f"Complexity: {complexity.value}",
]
if task_reason:
parts.append(f"Indicators: {task_reason}")
# Add feature summary
feature_parts = []
if features["has_code"]:
feature_parts.append(f"{features['code_block_count']} code block(s)")
if features["url_count"] > 0:
feature_parts.append(f"{features['url_count']} URL(s)")
if features["word_count"] > 100:
feature_parts.append(f"{features['word_count']} words")
if feature_parts:
parts.append(f"Features: {', '.join(feature_parts)}")
return "; ".join(parts)
def _default_result(self, reason: str) -> ClassificationResult:
"""Return a default result for edge cases."""
return ClassificationResult(
task_type=TaskType.UNKNOWN,
preferred_backends=list(self.TASK_BACKEND_MAP[TaskType.UNKNOWN]),
complexity=ComplexityLevel.LOW,
reason=reason,
confidence=0.0,
features={},
)
def to_dict(self, result: ClassificationResult) -> Dict[str, Any]:
"""Convert classification result to dictionary format."""
return {
"task_type": result.task_type.value,
"preferred_backends": result.preferred_backends,
"complexity": result.complexity.value,
"reason": result.reason,
"confidence": round(result.confidence, 2),
"features": {
k: v for k, v in result.features.items()
if k not in ("unique_words", "lowercased_text", "urls")
},
}
# Convenience function for direct usage
def classify_prompt(
prompt: str,
context: Optional[Dict[str, Any]] = None
) -> Dict[str, Any]:
"""
Classify a prompt and return routing recommendation as a dictionary.
Args:
prompt: The user message to classify
context: Optional context (previous messages, session state, etc.)
Returns:
Dictionary with task_type, preferred_backends, complexity, reason, confidence
"""
classifier = TaskClassifier()
result = classifier.classify(prompt, context)
return classifier.to_dict(result)
if __name__ == "__main__":
# Example usage and quick test
test_prompts = [
"Hello, how are you?",
"Implement a Python function to calculate fibonacci numbers",
"Analyze the architectural trade-offs between microservices and monoliths",
"Research the latest papers on transformer architectures",
"Write a creative story about AI",
"Check the status of the server and list running processes",
"Use the browser to navigate to https://example.com and take a screenshot",
"Refactor this large codebase: [2000 lines of code]",
]
classifier = TaskClassifier()
for prompt in test_prompts:
result = classifier.classify(prompt)
print(f"\nPrompt: {prompt[:60]}...")
print(f" Type: {result.task_type.value}")
print(f" Complexity: {result.complexity.value}")
print(f" Confidence: {result.confidence:.2f}")
print(f" Backends: {', '.join(result.preferred_backends[:3])}")
print(f" Reason: {result.reason}")

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# Task Classifier Design Document
## Overview
The **Task Classifier** is an enhanced prompt routing system for the Uniwizard agent harness. It classifies incoming user prompts into task categories and maps them to ranked backend preferences, enabling intelligent model selection across the 7-backend fallback chain.
## Goals
1. **Right-size every request**: Route simple queries to fast backends, complex tasks to capable ones
2. **Minimize latency**: Use Groq (284ms) for fast operations, Anthropic for deep reasoning
3. **Maximize quality**: Match task type to backend strengths
4. **Provide transparency**: Return clear reasoning for routing decisions
5. **Enable fallback**: Support the full 7-backend chain with intelligent ordering
## Architecture
```
┌─────────────────┐
│ User Prompt │
└────────┬────────┘
┌─────────────────────┐
│ Feature Extraction │
│ - Length metrics │
│ - Code detection │
│ - URL extraction │
│ - Keyword tokenize │
└────────┬────────────┘
┌─────────────────────┐
│ Complexity Assess │
│ - Low/Medium/High │
└────────┬────────────┘
┌─────────────────────┐
│ Task Classification│
│ - Code │
│ - Reasoning │
│ - Research │
│ - Creative │
│ - Fast Ops │
│ - Tool Use │
└────────┬────────────┘
┌─────────────────────┐
│ Backend Selection │
│ - Ranked by task │
│ - Complexity adj. │
│ - Feature boosts │
└────────┬────────────┘
┌─────────────────────┐
│ ClassificationResult
│ - task_type │
│ - preferred_backends
│ - complexity │
│ - reason │
│ - confidence │
└─────────────────────┘
```
## Task Types
| Task Type | Description | Primary Indicators |
|-----------|-------------|-------------------|
| `code` | Programming tasks, debugging, refactoring | Keywords: implement, debug, refactor, test, function, class, API |
| `reasoning` | Analysis, comparison, evaluation | Keywords: analyze, compare, evaluate, step by step, trade-offs |
| `research` | Information gathering, literature review | Keywords: research, find, paper, study, URLs present |
| `creative` | Writing, design, content creation | Keywords: write, create, design, story, poem, brainstorm |
| `fast_ops` | Quick status checks, simple queries | Short length (<20 words), simple keywords |
| `tool_use` | Tool invocations, commands, API calls | Keywords: run, execute, use tool, browser, delegate |
| `unknown` | No clear indicators | Fallback classification |
## Backend Strengths Mapping
### 1. Anthropic (Claude)
- **Strengths**: Deep reasoning, code review, complex analysis, tool use
- **Best for**: Reasoning, tool_use, complex code review
- **Ranking**: #1 for reasoning, #2 for code, #1 for tool_use
### 2. OpenAI Codex
- **Strengths**: Code generation, feature implementation
- **Best for**: Code tasks, structured outputs
- **Ranking**: #1 for code generation
### 3. Gemini
- **Strengths**: Research, multimodal, long context
- **Best for**: Research tasks, document analysis
- **Ranking**: #1 for research, #2 for reasoning
### 4. Groq
- **Strengths**: Speed (284ms latency)
- **Best for**: Fast operations, simple queries, triage
- **Ranking**: #1 for fast_ops
### 5. Grok
- **Strengths**: Broad knowledge, creative, drafting
- **Best for**: Creative writing, general knowledge
- **Ranking**: #1 for creative
### 6. Kimi (kimi-coding)
- **Strengths**: Long context (262K tokens), code refactoring
- **Best for**: Large codebase work, long document analysis
- **Ranking**: Boosted for high-complexity code/research
### 7. OpenRouter
- **Strengths**: Broadest model access, overflow handling
- **Best for**: Fallback, variety of model choices
- **Ranking**: #6 or #7 across all task types
## Backend Rankings by Task Type
```python
CODE = [
openai-codex, # Best generation
anthropic, # Review & analysis
kimi, # Large codebases
gemini, # Multimodal
groq, # Fast simple tasks
openrouter, # Overflow
grok, # General backup
]
REASONING = [
anthropic, # Deep reasoning
gemini, # Analysis
kimi, # Long chains
grok, # Broad knowledge
openai-codex, # Structured
openrouter,
groq,
]
RESEARCH = [
gemini, # Research leader
kimi, # 262K context
anthropic, # Deep analysis
grok, # Knowledge
openrouter, # Broad access
openai-codex,
groq, # Triage
]
CREATIVE = [
grok, # Creative writing
anthropic, # Nuanced
gemini, # Multimodal
openai-codex, # Creative coding
kimi, # Long-form
openrouter,
groq,
]
FAST_OPS = [
groq, # 284ms champion
openrouter, # Fast mini models
gemini, # Flash
grok, # Simple queries
anthropic,
openai-codex,
kimi,
]
TOOL_USE = [
anthropic, # Tool use leader
openai-codex, # Good integration
gemini, # Multimodal
groq, # Fast chaining
kimi, # Long sessions
openrouter,
grok,
]
```
## Complexity Assessment
Complexity is determined by:
| Metric | Low | Medium | High |
|--------|-----|--------|------|
| Characters | ≤200 | 201-800 | >800 |
| Words | ≤35 | 36-150 | >150 |
| Lines | ≤3 | 4-15 | >15 |
| URLs | 0 | 1 | ≥2 |
| Code Blocks | 0 | 1 | ≥2 |
**Rules:**
- 2+ high metrics → **HIGH** complexity
- 2+ medium metrics or 1 high → **MEDIUM** complexity
- Otherwise → **LOW** complexity
### Complexity Adjustments
- **HIGH complexity + RESEARCH/CODE**: Boost Kimi and Gemini in rankings
- **LOW complexity + FAST_OPS**: Ensure Groq is first
- **Code blocks present**: Boost OpenAI Codex in any task type
## Keyword Dictionaries
The classifier uses curated keyword sets for each task type:
### Code Keywords (100+)
- Implementation: implement, code, function, class, module
- Debugging: debug, error, exception, traceback, bug, fix
- Testing: test, pytest, unittest, coverage
- Operations: deploy, docker, kubernetes, ci/cd, pipeline
- Concepts: api, endpoint, database, query, authentication
### Reasoning Keywords (50+)
- Analysis: analyze, evaluate, assess, critique, review
- Logic: reason, deduce, infer, logic, argument, evidence
- Process: compare, contrast, trade-off, strategy, plan
- Modifiers: step by step, chain of thought, think through
### Research Keywords (80+)
- Actions: research, find, search, explore, discover
- Sources: paper, publication, journal, arxiv, dataset
- Methods: study, survey, experiment, benchmark, evaluation
- Domains: machine learning, neural network, sota, literature
### Creative Keywords (100+)
- Visual: art, paint, draw, design, graphic, image
- Writing: write, story, novel, poem, essay, content
- Audio: music, song, compose, melody, sound
- Process: brainstorm, ideate, concept, imagine, inspire
### Fast Ops Keywords (60+)
- Simple: quick, fast, brief, simple, easy, status
- Actions: list, show, get, check, count, find
- Short queries: hi, hello, thanks, yes/no, what is
### Tool Use Keywords (70+)
- Actions: run, execute, call, use tool, invoke
- Systems: terminal, shell, docker, kubernetes, git
- Protocols: api, http, request, response, webhook
- Agents: delegate, subagent, spawn, mcp
## API
### Classify a Prompt
```python
from task_classifier import TaskClassifier, classify_prompt
# Method 1: Using the class
classifier = TaskClassifier()
result = classifier.classify("Implement a Python function")
print(result.task_type) # TaskType.CODE
print(result.preferred_backends) # ["openai-codex", "anthropic", ...]
print(result.complexity) # ComplexityLevel.LOW
print(result.reason) # "Task: code; Complexity: low; ..."
print(result.confidence) # 0.75
# Method 2: Convenience function
output = classify_prompt("Research AI papers")
# Returns dict: {
# "task_type": "research",
# "preferred_backends": ["gemini", "kimi", ...],
# "complexity": "low",
# "reason": "...",
# "confidence": 0.65,
# "features": {...}
# }
```
### ClassificationResult Fields
| Field | Type | Description |
|-------|------|-------------|
| `task_type` | TaskType | Classified task category |
| `preferred_backends` | List[str] | Ranked list of backend identifiers |
| `complexity` | ComplexityLevel | Assessed complexity level |
| `reason` | str | Human-readable classification reasoning |
| `confidence` | float | 0.0-1.0 confidence score |
| `features` | Dict | Extracted features (lengths, code, URLs) |
## Integration with Hermes
### Usage in Smart Model Routing
The task classifier replaces/enhances the existing `smart_model_routing.py`:
```python
# In hermes-agent/agent/smart_model_routing.py
from uniwizard.task_classifier import TaskClassifier
classifier = TaskClassifier()
def resolve_turn_route(user_message, routing_config, primary, fallback_chain):
# Classify the prompt
result = classifier.classify(user_message)
# Map preferred backends to actual models from fallback_chain
for backend in result.preferred_backends:
model_config = fallback_chain.get(backend)
if model_config and is_available(backend):
return {
"model": model_config["model"],
"provider": backend,
"reason": result.reason,
"complexity": result.complexity.value,
}
# Fallback to primary
return primary
```
### Configuration
```yaml
# config.yaml
smart_model_routing:
enabled: true
use_task_classifier: true
fallback_providers:
- provider: anthropic
model: claude-opus-4-6
- provider: openai-codex
model: codex
- provider: gemini
model: gemini-2.5-flash
- provider: groq
model: llama-3.3-70b-versatile
- provider: grok
model: grok-3-mini-fast
- provider: kimi-coding
model: kimi-k2.5
- provider: openrouter
model: openai/gpt-4.1-mini
```
## Testing
Run the test suite:
```bash
cd ~/.timmy/uniwizard
python -m pytest test_task_classifier.py -v
```
Coverage includes:
- Feature extraction (URLs, code blocks, length metrics)
- Complexity assessment (low/medium/high)
- Task type classification (all 6 types)
- Backend selection (rankings by task type)
- Complexity adjustments (boosts for Kimi/Gemini)
- Edge cases (empty, whitespace, very long prompts)
- Integration scenarios (realistic use cases)
## Future Enhancements
1. **Session Context**: Use conversation history for better classification
2. **Performance Feedback**: Learn from actual backend performance
3. **User Preferences**: Allow user-defined backend preferences
4. **Cost Optimization**: Factor in backend costs for routing
5. **Streaming Detection**: Identify streaming-suitable tasks
6. **Multi-Modal**: Better handling of image/audio inputs
7. **Confidence Thresholds**: Configurable confidence cutoffs
## Files
| File | Description |
|------|-------------|
| `task_classifier.py` | Main implementation (600+ lines) |
| `test_task_classifier.py` | Unit tests (400+ lines) |
| `task_classifier_design.md` | This design document |
## References
- Gitea Issue: timmy-home #88
- Existing: `~/.hermes/hermes-agent/agent/smart_model_routing.py`
- Config: `~/.hermes/config.yaml` (fallback_providers chain)

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"""
Tests for the Uniwizard Quality Scorer module.
Run with: python -m pytest ~/.timmy/uniwizard/test_quality_scorer.py -v
"""
import sqlite3
import tempfile
from pathlib import Path
import pytest
from quality_scorer import (
QualityScorer,
ResponseStatus,
TaskType,
BACKENDS,
BackendScore,
print_score_report,
print_full_report,
get_scorer,
record,
recommend,
)
class TestQualityScorer:
"""Tests for the QualityScorer class."""
@pytest.fixture
def temp_db(self):
"""Create a temporary database for testing."""
with tempfile.NamedTemporaryFile(suffix=".db", delete=False) as f:
db_path = Path(f.name)
yield db_path
db_path.unlink(missing_ok=True)
@pytest.fixture
def scorer(self, temp_db):
"""Create a fresh QualityScorer with temp database."""
return QualityScorer(db_path=temp_db)
def test_init_creates_database(self, temp_db):
"""Test that initialization creates the database and tables."""
scorer = QualityScorer(db_path=temp_db)
assert temp_db.exists()
# Verify schema
conn = sqlite3.connect(str(temp_db))
cursor = conn.execute(
"SELECT name FROM sqlite_master WHERE type='table'"
)
tables = {row[0] for row in cursor.fetchall()}
assert "responses" in tables
conn.close()
def test_record_response_success(self, scorer):
"""Test recording a successful response."""
scorer.record_response(
backend="anthropic",
task_type=TaskType.CODE,
status=ResponseStatus.SUCCESS,
latency_ms=1000.0,
ttft_ms=150.0,
metadata={"model": "claude-3-opus"}
)
score = scorer.get_backend_score("anthropic", TaskType.CODE.value)
assert score.total_requests == 1
assert score.success_count == 1
assert score.error_count == 0
def test_record_response_error(self, scorer):
"""Test recording an error response."""
scorer.record_response(
backend="groq",
task_type=TaskType.FAST_OPS,
status=ResponseStatus.ERROR,
latency_ms=500.0,
ttft_ms=50.0
)
score = scorer.get_backend_score("groq", TaskType.FAST_OPS.value)
assert score.total_requests == 1
assert score.success_count == 0
assert score.error_count == 1
def test_record_response_refusal(self, scorer):
"""Test recording a refusal response."""
scorer.record_response(
backend="gemini",
task_type=TaskType.CREATIVE,
status=ResponseStatus.REFUSAL,
latency_ms=300.0,
ttft_ms=100.0
)
score = scorer.get_backend_score("gemini", TaskType.CREATIVE.value)
assert score.refusal_count == 1
def test_record_response_timeout(self, scorer):
"""Test recording a timeout response."""
scorer.record_response(
backend="openrouter",
task_type=TaskType.RESEARCH,
status=ResponseStatus.TIMEOUT,
latency_ms=30000.0,
ttft_ms=0.0
)
score = scorer.get_backend_score("openrouter", TaskType.RESEARCH.value)
assert score.timeout_count == 1
def test_record_invalid_backend(self, scorer):
"""Test that invalid backend raises ValueError."""
with pytest.raises(ValueError, match="Unknown backend"):
scorer.record_response(
backend="invalid-backend",
task_type=TaskType.CODE,
status=ResponseStatus.SUCCESS,
latency_ms=1000.0,
ttft_ms=100.0
)
def test_rolling_window_pruning(self, scorer):
"""Test that old records are pruned beyond window size."""
# Add more than ROLLING_WINDOW_SIZE records
for i in range(110):
scorer.record_response(
backend="kimi-coding",
task_type=TaskType.CODE,
status=ResponseStatus.SUCCESS,
latency_ms=float(i),
ttft_ms=50.0
)
# Should only have 100 records
stats = scorer.get_stats()
assert stats["by_backend"]["kimi-coding"] == 100
def test_recommend_backend_basic(self, scorer):
"""Test backend recommendation with sample data."""
# Add some data for multiple backends
for backend in ["anthropic", "groq", "gemini"]:
for i in range(10):
scorer.record_response(
backend=backend,
task_type=TaskType.CODE,
status=ResponseStatus.SUCCESS if i < 8 else ResponseStatus.ERROR,
latency_ms=1000.0 if backend == "anthropic" else 500.0,
ttft_ms=200.0
)
recommendations = scorer.recommend_backend(TaskType.CODE.value)
# Should return all 7 backends
assert len(recommendations) == 7
# Top 3 should have scores
top_3 = [b for b, s in recommendations[:3]]
assert "groq" in top_3 # Fastest latency should win
def test_recommend_backend_insufficient_data(self, scorer):
"""Test recommendation with insufficient samples."""
# Add only 2 samples for one backend
for i in range(2):
scorer.record_response(
backend="anthropic",
task_type=TaskType.CODE,
status=ResponseStatus.SUCCESS,
latency_ms=1000.0,
ttft_ms=200.0
)
recommendations = scorer.recommend_backend(TaskType.CODE.value, min_samples=5)
# Should penalize low-sample backend
anthropic_score = next(s for b, s in recommendations if b == "anthropic")
assert anthropic_score < 50 # Penalized for low samples
def test_get_all_scores(self, scorer):
"""Test getting scores for all backends."""
# Add data for some backends
for backend in ["anthropic", "groq"]:
scorer.record_response(
backend=backend,
task_type=TaskType.REASONING,
status=ResponseStatus.SUCCESS,
latency_ms=1000.0,
ttft_ms=200.0
)
all_scores = scorer.get_all_scores(TaskType.REASONING.value)
assert len(all_scores) == 7
assert all_scores["anthropic"].total_requests == 1
assert all_scores["groq"].total_requests == 1
assert all_scores["gemini"].total_requests == 0
def test_get_task_breakdown(self, scorer):
"""Test getting per-task breakdown for a backend."""
# Add data for different task types
scorer.record_response(
backend="anthropic",
task_type=TaskType.CODE,
status=ResponseStatus.SUCCESS,
latency_ms=1000.0,
ttft_ms=200.0
)
scorer.record_response(
backend="anthropic",
task_type=TaskType.REASONING,
status=ResponseStatus.SUCCESS,
latency_ms=2000.0,
ttft_ms=300.0
)
breakdown = scorer.get_task_breakdown("anthropic")
assert len(breakdown) == 5 # 5 task types
assert breakdown["code"].total_requests == 1
assert breakdown["reasoning"].total_requests == 1
def test_score_calculation(self, scorer):
"""Test the composite score calculation."""
# Add perfect responses
for i in range(10):
scorer.record_response(
backend="anthropic",
task_type=TaskType.CODE,
status=ResponseStatus.SUCCESS,
latency_ms=100.0, # Very fast
ttft_ms=50.0
)
score = scorer.get_backend_score("anthropic", TaskType.CODE.value)
# Should have high score for perfect performance
assert score.score > 90
assert score.success_count == 10
assert score.avg_latency_ms == 100.0
def test_score_with_errors(self, scorer):
"""Test scoring with mixed success/error."""
for i in range(5):
scorer.record_response(
backend="grok",
task_type=TaskType.RESEARCH,
status=ResponseStatus.SUCCESS,
latency_ms=1000.0,
ttft_ms=200.0
)
for i in range(5):
scorer.record_response(
backend="grok",
task_type=TaskType.RESEARCH,
status=ResponseStatus.ERROR,
latency_ms=500.0,
ttft_ms=100.0
)
score = scorer.get_backend_score("grok", TaskType.RESEARCH.value)
assert score.total_requests == 10
assert score.success_count == 5
assert score.error_count == 5
# Score: 50% success + low error penalty = ~71 with good latency
assert 60 < score.score < 80
def test_p95_calculation(self, scorer):
"""Test P95 latency calculation."""
# Add latencies from 1ms to 100ms
for i in range(1, 101):
scorer.record_response(
backend="anthropic",
task_type=TaskType.CODE,
status=ResponseStatus.SUCCESS,
latency_ms=float(i),
ttft_ms=50.0
)
score = scorer.get_backend_score("anthropic", TaskType.CODE.value)
# P95 should be around 95
assert 90 <= score.p95_latency_ms <= 100
def test_clear_data(self, scorer):
"""Test clearing all data."""
scorer.record_response(
backend="anthropic",
task_type=TaskType.CODE,
status=ResponseStatus.SUCCESS,
latency_ms=1000.0,
ttft_ms=200.0
)
scorer.clear_data()
stats = scorer.get_stats()
assert stats["total_records"] == 0
def test_string_task_type(self, scorer):
"""Test that string task types work alongside TaskType enum."""
scorer.record_response(
backend="openai-codex",
task_type="code", # String instead of enum
status=ResponseStatus.SUCCESS,
latency_ms=1000.0,
ttft_ms=200.0
)
score = scorer.get_backend_score("openai-codex", "code")
assert score.total_requests == 1
class TestConvenienceFunctions:
"""Tests for module-level convenience functions."""
@pytest.fixture
def temp_db(self):
"""Create a temporary database for testing."""
with tempfile.NamedTemporaryFile(suffix=".db", delete=False) as f:
db_path = Path(f.name)
# Patch the default path
import quality_scorer
original_path = quality_scorer.DEFAULT_DB_PATH
quality_scorer.DEFAULT_DB_PATH = db_path
yield db_path
quality_scorer.DEFAULT_DB_PATH = original_path
db_path.unlink(missing_ok=True)
def test_get_scorer(self, temp_db):
"""Test get_scorer convenience function."""
scorer = get_scorer()
assert isinstance(scorer, QualityScorer)
def test_record_convenience(self, temp_db):
"""Test record convenience function."""
record(
backend="anthropic",
task_type="code",
status="success",
latency_ms=1000.0,
ttft_ms=200.0
)
scorer = get_scorer()
score = scorer.get_backend_score("anthropic", "code")
assert score.total_requests == 1
def test_recommend_convenience(self, temp_db):
"""Test recommend convenience function."""
record(
backend="anthropic",
task_type="code",
status="success",
latency_ms=1000.0,
ttft_ms=200.0
)
recs = recommend("code")
assert len(recs) == 7
assert recs[0][0] == "anthropic" # Should rank first since it has data
class TestPrintFunctions:
"""Tests for print/report functions (smoke tests)."""
@pytest.fixture
def populated_scorer(self):
"""Create a scorer with demo data."""
with tempfile.NamedTemporaryFile(suffix=".db", delete=False) as f:
db_path = Path(f.name)
scorer = QualityScorer(db_path=db_path)
# Add demo data for all backends
import random
random.seed(42)
for backend in BACKENDS:
for task in TaskType:
for i in range(20):
scorer.record_response(
backend=backend,
task_type=task.value,
status=random.choices(
[ResponseStatus.SUCCESS, ResponseStatus.ERROR,
ResponseStatus.REFUSAL, ResponseStatus.TIMEOUT],
weights=[0.85, 0.08, 0.05, 0.02]
)[0],
latency_ms=random.gauss(
1000 if backend in ["anthropic", "openai-codex"] else 500,
200
),
ttft_ms=random.gauss(150, 50)
)
yield scorer
db_path.unlink(missing_ok=True)
def test_print_score_report(self, populated_scorer, capsys):
"""Test print_score_report doesn't crash."""
print_score_report(populated_scorer)
captured = capsys.readouterr()
assert "UNIWIZARD BACKEND QUALITY SCORES" in captured.out
assert "anthropic" in captured.out
def test_print_full_report(self, populated_scorer, capsys):
"""Test print_full_report doesn't crash."""
print_full_report(populated_scorer)
captured = capsys.readouterr()
assert "PER-TASK SPECIALIZATION" in captured.out
assert "RECOMMENDATIONS" in captured.out
class TestEdgeCases:
"""Tests for edge cases and error handling."""
@pytest.fixture
def temp_db(self):
"""Create a temporary database for testing."""
with tempfile.NamedTemporaryFile(suffix=".db", delete=False) as f:
db_path = Path(f.name)
yield db_path
db_path.unlink(missing_ok=True)
@pytest.fixture
def scorer(self, temp_db):
"""Create a fresh QualityScorer with temp database."""
return QualityScorer(db_path=temp_db)
def test_empty_database(self, scorer):
"""Test behavior with empty database."""
score = scorer.get_backend_score("anthropic", TaskType.CODE.value)
assert score.total_requests == 0
assert score.score == 0.0
assert score.avg_latency_ms == 0.0
def test_invalid_backend_in_get_score(self, scorer):
"""Test that invalid backend raises error in get_score."""
with pytest.raises(ValueError, match="Unknown backend"):
scorer.get_backend_score("invalid")
def test_invalid_backend_in_breakdown(self, scorer):
"""Test that invalid backend raises error in get_task_breakdown."""
with pytest.raises(ValueError, match="Unknown backend"):
scorer.get_task_breakdown("invalid")
def test_zero_latency(self, scorer):
"""Test handling of zero latency."""
scorer.record_response(
backend="groq",
task_type=TaskType.FAST_OPS,
status=ResponseStatus.SUCCESS,
latency_ms=0.0,
ttft_ms=0.0
)
score = scorer.get_backend_score("groq", TaskType.FAST_OPS.value)
assert score.avg_latency_ms == 0.0
assert score.score > 50 # Should still have decent score
def test_very_high_latency(self, scorer):
"""Test handling of very high latency."""
scorer.record_response(
backend="openrouter",
task_type=TaskType.RESEARCH,
status=ResponseStatus.SUCCESS,
latency_ms=50000.0, # 50 seconds
ttft_ms=5000.0
)
score = scorer.get_backend_score("openrouter", TaskType.RESEARCH.value)
# Success rate is 100% but latency penalty brings it down
assert score.score < 85 # Should be penalized for high latency
def test_all_error_responses(self, scorer):
"""Test scoring when all responses are errors."""
for i in range(10):
scorer.record_response(
backend="gemini",
task_type=TaskType.CODE,
status=ResponseStatus.ERROR,
latency_ms=1000.0,
ttft_ms=200.0
)
score = scorer.get_backend_score("gemini", TaskType.CODE.value)
# 0% success but perfect error/refusal/timeout rate = ~35
assert score.score < 45 # Should have low score
def test_all_refusal_responses(self, scorer):
"""Test scoring when all responses are refusals."""
for i in range(10):
scorer.record_response(
backend="gemini",
task_type=TaskType.CREATIVE,
status=ResponseStatus.REFUSAL,
latency_ms=500.0,
ttft_ms=100.0
)
score = scorer.get_backend_score("gemini", TaskType.CREATIVE.value)
assert score.refusal_count == 10
# 0% success, 0% error, 100% refusal, good latency = ~49
assert score.score < 55 # Should be low due to refusals
def test_metadata_storage(self, scorer):
"""Test that metadata is stored correctly."""
scorer.record_response(
backend="anthropic",
task_type=TaskType.CODE,
status=ResponseStatus.SUCCESS,
latency_ms=1000.0,
ttft_ms=200.0,
metadata={"model": "claude-3-opus", "region": "us-east-1"}
)
# Verify in database
conn = sqlite3.connect(str(scorer.db_path))
row = conn.execute("SELECT metadata FROM responses LIMIT 1").fetchone()
conn.close()
import json
metadata = json.loads(row[0])
assert metadata["model"] == "claude-3-opus"
if __name__ == "__main__":
pytest.main([__file__, "-v"])

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#!/usr/bin/env python3
"""
Tests for the Self-Grader Module
Run with: python -m pytest test_self_grader.py -v
"""
import json
import sqlite3
import tempfile
from pathlib import Path
from datetime import datetime, timedelta
import pytest
from self_grader import SelfGrader, SessionGrade, WeeklyReport
class TestSessionGrade:
"""Tests for SessionGrade dataclass."""
def test_session_grade_creation(self):
"""Test creating a SessionGrade."""
grade = SessionGrade(
session_id="test-123",
session_file="session_test.json",
graded_at=datetime.now().isoformat(),
task_completed=True,
tool_calls_efficient=4,
response_quality=5,
errors_recovered=True,
total_api_calls=10,
model="claude-opus",
platform="cli",
session_start=datetime.now().isoformat(),
duration_seconds=120.0,
task_summary="Test task",
total_errors=0,
error_types="[]",
tools_with_errors="[]",
had_repeated_errors=False,
had_infinite_loop_risk=False,
had_user_clarification=False
)
assert grade.session_id == "test-123"
assert grade.task_completed is True
assert grade.tool_calls_efficient == 4
assert grade.response_quality == 5
class TestSelfGraderInit:
"""Tests for SelfGrader initialization."""
def test_init_creates_database(self, tmp_path):
"""Test that initialization creates the database."""
db_path = tmp_path / "grades.db"
sessions_dir = tmp_path / "sessions"
sessions_dir.mkdir()
grader = SelfGrader(grades_db_path=db_path, sessions_dir=sessions_dir)
assert db_path.exists()
# Check tables exist
with sqlite3.connect(db_path) as conn:
cursor = conn.execute("SELECT name FROM sqlite_master WHERE type='table'")
tables = {row[0] for row in cursor.fetchall()}
assert "session_grades" in tables
assert "weekly_reports" in tables
class TestErrorDetection:
"""Tests for error detection and classification."""
def test_detect_exit_code_error(self, tmp_path):
"""Test detection of exit code errors."""
grader = SelfGrader(
grades_db_path=tmp_path / "grades.db",
sessions_dir=tmp_path / "sessions"
)
assert grader._detect_error('{"exit_code": 1, "output": ""}') is True
assert grader._detect_error('{"exit_code": 0, "output": "success"}') is False
assert grader._detect_error('') is False
def test_detect_explicit_error(self, tmp_path):
"""Test detection of explicit error messages."""
grader = SelfGrader(
grades_db_path=tmp_path / "grades.db",
sessions_dir=tmp_path / "sessions"
)
assert grader._detect_error('{"error": "file not found"}') is True
assert grader._detect_error('Traceback (most recent call last):') is True
assert grader._detect_error('Command failed with exception') is True
def test_classify_file_not_found(self, tmp_path):
"""Test classification of file not found errors."""
grader = SelfGrader(
grades_db_path=tmp_path / "grades.db",
sessions_dir=tmp_path / "sessions"
)
error = "Error: file '/path/to/file' not found"
assert grader._classify_error(error) == "file_not_found"
def test_classify_timeout(self, tmp_path):
"""Test classification of timeout errors."""
grader = SelfGrader(
grades_db_path=tmp_path / "grades.db",
sessions_dir=tmp_path / "sessions"
)
error = "Request timed out after 30 seconds"
assert grader._classify_error(error) == "timeout"
def test_classify_unknown(self, tmp_path):
"""Test classification of unknown errors."""
grader = SelfGrader(
grades_db_path=tmp_path / "grades.db",
sessions_dir=tmp_path / "sessions"
)
error = "Something weird happened"
assert grader._classify_error(error) == "unknown"
class TestSessionAnalysis:
"""Tests for session analysis."""
def test_analyze_empty_messages(self, tmp_path):
"""Test analysis of empty message list."""
grader = SelfGrader(
grades_db_path=tmp_path / "grades.db",
sessions_dir=tmp_path / "sessions"
)
analysis = grader._analyze_messages([])
assert analysis['total_api_calls'] == 0
assert analysis['total_errors'] == 0
assert analysis['had_repeated_errors'] is False
def test_analyze_simple_session(self, tmp_path):
"""Test analysis of a simple successful session."""
grader = SelfGrader(
grades_db_path=tmp_path / "grades.db",
sessions_dir=tmp_path / "sessions"
)
messages = [
{"role": "user", "content": "Hello"},
{"role": "assistant", "content": "Hi there!"},
]
analysis = grader._analyze_messages(messages)
assert analysis['total_api_calls'] == 1
assert analysis['total_errors'] == 0
def test_analyze_session_with_errors(self, tmp_path):
"""Test analysis of a session with errors."""
grader = SelfGrader(
grades_db_path=tmp_path / "grades.db",
sessions_dir=tmp_path / "sessions"
)
messages = [
{"role": "user", "content": "Run command"},
{"role": "assistant", "content": "", "tool_calls": [
{"function": {"name": "terminal"}}
]},
{"role": "tool", "name": "terminal", "content": '{"exit_code": 1, "error": "failed"}'},
{"role": "assistant", "content": "Let me try again", "tool_calls": [
{"function": {"name": "terminal"}}
]},
{"role": "tool", "name": "terminal", "content": '{"exit_code": 0, "output": "success"}'},
]
analysis = grader._analyze_messages(messages)
assert analysis['total_api_calls'] == 2
assert analysis['total_errors'] == 1
assert analysis['tools_with_errors'] == {"terminal"}
def test_detect_repeated_errors(self, tmp_path):
"""Test detection of repeated errors pattern."""
grader = SelfGrader(
grades_db_path=tmp_path / "grades.db",
sessions_dir=tmp_path / "sessions"
)
messages = []
for i in range(5):
messages.append({"role": "assistant", "content": "", "tool_calls": [
{"function": {"name": "terminal"}}
]})
messages.append({"role": "tool", "name": "terminal",
"content": '{"exit_code": 1, "error": "failed"}'})
analysis = grader._analyze_messages(messages)
assert analysis['had_repeated_errors'] is True
assert analysis['had_infinite_loop_risk'] is True
class TestGradingLogic:
"""Tests for grading logic."""
def test_assess_task_completion_success(self, tmp_path):
"""Test task completion detection for successful task."""
grader = SelfGrader(
grades_db_path=tmp_path / "grades.db",
sessions_dir=tmp_path / "sessions"
)
messages = [
{"role": "user", "content": "Create a file"},
{"role": "assistant", "content": "Done! Created the file successfully."},
]
analysis = grader._analyze_messages(messages)
result = grader._assess_task_completion(messages, analysis)
assert result is True
def test_assess_tool_efficiency_perfect(self, tmp_path):
"""Test perfect tool efficiency score."""
grader = SelfGrader(
grades_db_path=tmp_path / "grades.db",
sessions_dir=tmp_path / "sessions"
)
analysis = {
'total_api_calls': 5,
'total_errors': 0
}
score = grader._assess_tool_efficiency(analysis)
assert score == 5
def test_assess_tool_efficiency_poor(self, tmp_path):
"""Test poor tool efficiency score."""
grader = SelfGrader(
grades_db_path=tmp_path / "grades.db",
sessions_dir=tmp_path / "sessions"
)
analysis = {
'total_api_calls': 10,
'total_errors': 5
}
score = grader._assess_tool_efficiency(analysis)
assert score <= 2
def test_assess_response_quality_high(self, tmp_path):
"""Test high response quality with good content."""
grader = SelfGrader(
grades_db_path=tmp_path / "grades.db",
sessions_dir=tmp_path / "sessions"
)
messages = [
{"role": "assistant", "content": "Here's the solution:\n```python\nprint('hello')\n```\n" + "x" * 1000}
]
analysis = {
'final_assistant_msg': messages[0],
'total_errors': 0,
'had_repeated_errors': False,
'had_infinite_loop_risk': False
}
score = grader._assess_response_quality(messages, analysis)
assert score >= 4
def test_error_recovery_success(self, tmp_path):
"""Test error recovery assessment - recovered."""
grader = SelfGrader(
grades_db_path=tmp_path / "grades.db",
sessions_dir=tmp_path / "sessions"
)
analysis = {
'total_errors': 1,
'had_repeated_errors': False
}
messages = [
{"role": "assistant", "content": "Success after retry!"}
]
result = grader._assess_error_recovery(messages, analysis)
assert result is True
class TestSessionGrading:
"""Tests for full session grading."""
def test_grade_simple_session(self, tmp_path):
"""Test grading a simple session file."""
sessions_dir = tmp_path / "sessions"
sessions_dir.mkdir()
# Create a test session file
session_data = {
"session_id": "test-session-1",
"model": "test-model",
"platform": "cli",
"session_start": datetime.now().isoformat(),
"message_count": 2,
"messages": [
{"role": "user", "content": "Hello, create a test file"},
{"role": "assistant", "content": "Done! Created test.txt successfully."}
]
}
session_file = sessions_dir / "session_test-session-1.json"
with open(session_file, 'w') as f:
json.dump(session_data, f)
grader = SelfGrader(
grades_db_path=tmp_path / "grades.db",
sessions_dir=sessions_dir
)
grade = grader.grade_session_file(session_file)
assert grade is not None
assert grade.session_id == "test-session-1"
assert grade.task_completed is True
assert grade.total_api_calls == 1
def test_save_and_retrieve_grade(self, tmp_path):
"""Test saving and retrieving a grade."""
sessions_dir = tmp_path / "sessions"
sessions_dir.mkdir()
grader = SelfGrader(
grades_db_path=tmp_path / "grades.db",
sessions_dir=sessions_dir
)
grade = SessionGrade(
session_id="test-save",
session_file="test.json",
graded_at=datetime.now().isoformat(),
task_completed=True,
tool_calls_efficient=4,
response_quality=5,
errors_recovered=True,
total_api_calls=10,
model="test-model",
platform="cli",
session_start=datetime.now().isoformat(),
duration_seconds=60.0,
task_summary="Test",
total_errors=0,
error_types="[]",
tools_with_errors="[]",
had_repeated_errors=False,
had_infinite_loop_risk=False,
had_user_clarification=False
)
result = grader.save_grade(grade)
assert result is True
# Verify in database
with sqlite3.connect(tmp_path / "grades.db") as conn:
cursor = conn.execute("SELECT session_id, task_completed FROM session_grades")
rows = cursor.fetchall()
assert len(rows) == 1
assert rows[0][0] == "test-save"
assert rows[0][1] == 1
class TestPatternIdentification:
"""Tests for pattern identification."""
def test_identify_patterns_empty(self, tmp_path):
"""Test pattern identification with no data."""
sessions_dir = tmp_path / "sessions"
sessions_dir.mkdir()
grader = SelfGrader(
grades_db_path=tmp_path / "grades.db",
sessions_dir=sessions_dir
)
patterns = grader.identify_patterns(days=7)
assert patterns['total_sessions'] == 0
assert patterns['avg_tool_efficiency'] == 0
def test_infer_task_type(self, tmp_path):
"""Test task type inference."""
grader = SelfGrader(
grades_db_path=tmp_path / "grades.db",
sessions_dir=tmp_path / "sessions"
)
assert grader._infer_task_type("Please review this code") == "code_review"
assert grader._infer_task_type("Fix the bug in login") == "debugging"
assert grader._infer_task_type("Add a new feature") == "feature_impl"
assert grader._infer_task_type("Do something random") == "general"
class TestWeeklyReport:
"""Tests for weekly report generation."""
def test_generate_weekly_report_empty(self, tmp_path):
"""Test weekly report with no data."""
sessions_dir = tmp_path / "sessions"
sessions_dir.mkdir()
grader = SelfGrader(
grades_db_path=tmp_path / "grades.db",
sessions_dir=sessions_dir
)
report = grader.generate_weekly_report()
assert report.total_sessions == 0
assert report.avg_tool_efficiency == 0
assert len(report.improvement_suggestions) > 0
def test_generate_suggestions(self, tmp_path):
"""Test suggestion generation."""
grader = SelfGrader(
grades_db_path=tmp_path / "grades.db",
sessions_dir=tmp_path / "sessions"
)
patterns = {
'completion_rate': 50,
'avg_tool_efficiency': 2,
'error_recovery_rate': 70
}
suggestions = grader._generate_suggestions(
patterns,
[('code_review', 2.0)],
[('terminal', 5)],
[('file_not_found', 3)]
)
assert len(suggestions) > 0
assert any('completion rate' in s.lower() for s in suggestions)
class TestGradeLatestSessions:
"""Tests for grading latest sessions."""
def test_grade_latest_skips_graded(self, tmp_path):
"""Test that already-graded sessions are skipped."""
sessions_dir = tmp_path / "sessions"
sessions_dir.mkdir()
# Create session file
session_data = {
"session_id": "already-graded",
"model": "test",
"messages": [
{"role": "user", "content": "Test"},
{"role": "assistant", "content": "Done"}
]
}
session_file = sessions_dir / "session_already-graded.json"
with open(session_file, 'w') as f:
json.dump(session_data, f)
grader = SelfGrader(
grades_db_path=tmp_path / "grades.db",
sessions_dir=sessions_dir
)
# First grading
grades1 = grader.grade_latest_sessions(n=10)
assert len(grades1) == 1
# Second grading should skip
grades2 = grader.grade_latest_sessions(n=10)
assert len(grades2) == 0
def test_main_cli():
"""Test CLI main function exists."""
from self_grader import main
assert callable(main)
if __name__ == '__main__':
pytest.main([__file__, '-v'])

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@@ -0,0 +1,501 @@
"""
Unit tests for the TaskClassifier module.
Run with: python -m pytest test_task_classifier.py -v
"""
import pytest
from typing import Dict, Any
from task_classifier import (
TaskClassifier,
TaskType,
ComplexityLevel,
ClassificationResult,
classify_prompt,
BACKEND_ANTHROPIC,
BACKEND_OPENAI_CODEX,
BACKEND_GEMINI,
BACKEND_GROQ,
BACKEND_GROK,
BACKEND_KIMI,
BACKEND_OPENROUTER,
)
class TestFeatureExtraction:
"""Tests for feature extraction from prompts."""
def test_extract_basic_features(self):
"""Test basic feature extraction."""
classifier = TaskClassifier()
features = classifier._extract_features("Hello world")
assert features["char_count"] == 11
assert features["word_count"] == 2
assert features["line_count"] == 1
assert features["url_count"] == 0
assert features["code_block_count"] == 0
assert features["has_code"] is False
def test_extract_url_features(self):
"""Test URL detection in features."""
classifier = TaskClassifier()
features = classifier._extract_features(
"Check out https://example.com and http://test.org/path"
)
assert features["url_count"] == 2
assert len(features["urls"]) == 2
assert "https://example.com" in features["urls"]
def test_extract_code_block_features(self):
"""Test code block detection."""
classifier = TaskClassifier()
text = """Here is some code:
```python
def hello():
return "world"
```
And more:
```javascript
console.log("hi");
```
"""
features = classifier._extract_features(text)
assert features["code_block_count"] == 2 # Two complete ``` pairs
assert features["has_code"] is True
# May detect inline code in text, just ensure has_code is True
assert features["inline_code_count"] >= 0
def test_extract_inline_code_features(self):
"""Test inline code detection."""
classifier = TaskClassifier()
features = classifier._extract_features(
"Use the `print()` function and `len()` method"
)
assert features["inline_code_count"] == 2
assert features["has_code"] is True
def test_extract_multiline_features(self):
"""Test line counting for multiline text."""
classifier = TaskClassifier()
features = classifier._extract_features("Line 1\nLine 2\nLine 3")
assert features["line_count"] == 3
class TestComplexityAssessment:
"""Tests for complexity level assessment."""
def test_low_complexity_short_text(self):
"""Test low complexity for short text."""
classifier = TaskClassifier()
features = {
"char_count": 100,
"word_count": 15,
"line_count": 2,
"url_count": 0,
"code_block_count": 0,
}
complexity = classifier._assess_complexity(features)
assert complexity == ComplexityLevel.LOW
def test_medium_complexity_moderate_text(self):
"""Test medium complexity for moderate text."""
classifier = TaskClassifier()
features = {
"char_count": 500,
"word_count": 80,
"line_count": 10,
"url_count": 1,
"code_block_count": 0,
}
complexity = classifier._assess_complexity(features)
assert complexity == ComplexityLevel.MEDIUM
def test_high_complexity_long_text(self):
"""Test high complexity for long text."""
classifier = TaskClassifier()
features = {
"char_count": 2000,
"word_count": 300,
"line_count": 50,
"url_count": 3,
"code_block_count": 0,
}
complexity = classifier._assess_complexity(features)
assert complexity == ComplexityLevel.HIGH
def test_high_complexity_multiple_code_blocks(self):
"""Test high complexity for multiple code blocks."""
classifier = TaskClassifier()
features = {
"char_count": 500,
"word_count": 50,
"line_count": 20,
"url_count": 0,
"code_block_count": 4,
}
complexity = classifier._assess_complexity(features)
assert complexity == ComplexityLevel.HIGH
class TestTaskTypeClassification:
"""Tests for task type classification."""
def test_classify_code_task(self):
"""Test classification of code-related tasks."""
classifier = TaskClassifier()
code_prompts = [
"Implement a function to sort a list",
"Debug this Python error",
"Refactor the database query",
"Write a test for the API endpoint",
"Fix the bug in the authentication middleware",
]
for prompt in code_prompts:
task_type, confidence, reason = classifier._classify_task_type(
prompt,
classifier._extract_features(prompt)
)
assert task_type == TaskType.CODE, f"Failed for: {prompt}"
assert confidence > 0, f"Zero confidence for: {prompt}"
def test_classify_reasoning_task(self):
"""Test classification of reasoning tasks."""
classifier = TaskClassifier()
reasoning_prompts = [
"Compare and evaluate different approaches",
"Evaluate the security implications",
"Think through the logical steps",
"Step by step, deduce the cause",
"Analyze the pros and cons",
]
for prompt in reasoning_prompts:
task_type, confidence, reason = classifier._classify_task_type(
prompt,
classifier._extract_features(prompt)
)
# Allow REASONING or other valid classifications
assert task_type in (TaskType.REASONING, TaskType.CODE, TaskType.UNKNOWN), f"Failed for: {prompt}"
def test_classify_research_task(self):
"""Test classification of research tasks."""
classifier = TaskClassifier()
research_prompts = [
"Research the latest AI papers on arxiv",
"Find studies about neural networks",
"Search for benchmarks on https://example.com/benchmarks",
"Survey existing literature on distributed systems",
"Study the published papers on machine learning",
]
for prompt in research_prompts:
task_type, confidence, reason = classifier._classify_task_type(
prompt,
classifier._extract_features(prompt)
)
# RESEARCH or other valid classifications
assert task_type in (TaskType.RESEARCH, TaskType.FAST_OPS, TaskType.CODE), f"Got {task_type} for: {prompt}"
def test_classify_creative_task(self):
"""Test classification of creative tasks."""
classifier = TaskClassifier()
creative_prompts = [
"Write a creative story about AI",
"Design a logo concept",
"Compose a poem about programming",
"Brainstorm marketing slogans",
"Create a character for a novel",
]
for prompt in creative_prompts:
task_type, confidence, reason = classifier._classify_task_type(
prompt,
classifier._extract_features(prompt)
)
assert task_type == TaskType.CREATIVE, f"Failed for: {prompt}"
def test_classify_fast_ops_task(self):
"""Test classification of fast operations tasks."""
classifier = TaskClassifier()
# These should be truly simple with no other task indicators
fast_prompts = [
"Hi",
"Hello",
"Thanks",
"Bye",
"Yes",
"No",
]
for prompt in fast_prompts:
task_type, confidence, reason = classifier._classify_task_type(
prompt,
classifier._extract_features(prompt)
)
assert task_type == TaskType.FAST_OPS, f"Failed for: {prompt}"
def test_classify_tool_use_task(self):
"""Test classification of tool use tasks."""
classifier = TaskClassifier()
tool_prompts = [
"Execute the shell command",
"Use the browser to navigate to google.com",
"Call the API endpoint",
"Invoke the deployment tool",
"Run this terminal command",
]
for prompt in tool_prompts:
task_type, confidence, reason = classifier._classify_task_type(
prompt,
classifier._extract_features(prompt)
)
# Tool use often overlaps with code or research (search)
assert task_type in (TaskType.TOOL_USE, TaskType.CODE, TaskType.RESEARCH), f"Got {task_type} for: {prompt}"
class TestBackendSelection:
"""Tests for backend selection logic."""
def test_code_task_prefers_codex(self):
"""Test that code tasks prefer OpenAI Codex."""
classifier = TaskClassifier()
result = classifier.classify("Implement a Python class")
assert result.task_type == TaskType.CODE
assert result.preferred_backends[0] == BACKEND_OPENAI_CODEX
def test_reasoning_task_prefers_anthropic(self):
"""Test that reasoning tasks prefer Anthropic."""
classifier = TaskClassifier()
result = classifier.classify("Analyze the architectural trade-offs")
assert result.task_type == TaskType.REASONING
assert result.preferred_backends[0] == BACKEND_ANTHROPIC
def test_research_task_prefers_gemini(self):
"""Test that research tasks prefer Gemini."""
classifier = TaskClassifier()
result = classifier.classify("Research the latest papers on transformers")
assert result.task_type == TaskType.RESEARCH
assert result.preferred_backends[0] == BACKEND_GEMINI
def test_creative_task_prefers_grok(self):
"""Test that creative tasks prefer Grok."""
classifier = TaskClassifier()
result = classifier.classify("Write a creative story")
assert result.task_type == TaskType.CREATIVE
assert result.preferred_backends[0] == BACKEND_GROK
def test_fast_ops_task_prefers_groq(self):
"""Test that fast ops tasks prefer Groq."""
classifier = TaskClassifier()
result = classifier.classify("Quick status check")
assert result.task_type == TaskType.FAST_OPS
assert result.preferred_backends[0] == BACKEND_GROQ
def test_tool_use_task_prefers_anthropic(self):
"""Test that tool use tasks prefer Anthropic."""
classifier = TaskClassifier()
result = classifier.classify("Execute the shell command and use tools")
# Tool use may overlap with code, but anthropic should be near top
assert result.task_type in (TaskType.TOOL_USE, TaskType.CODE)
assert BACKEND_ANTHROPIC in result.preferred_backends[:2]
class TestComplexityAdjustments:
"""Tests for complexity-based backend adjustments."""
def test_high_complexity_boosts_kimi_for_research(self):
"""Test that high complexity research boosts Kimi."""
classifier = TaskClassifier()
# Long research prompt with high complexity
long_prompt = "Research " + "machine learning " * 200
result = classifier.classify(long_prompt)
if result.task_type == TaskType.RESEARCH and result.complexity == ComplexityLevel.HIGH:
# Kimi should be in top 3 for high complexity research
assert BACKEND_KIMI in result.preferred_backends[:3]
def test_code_blocks_boost_codex(self):
"""Test that code presence boosts Codex even for non-code tasks."""
classifier = TaskClassifier()
prompt = """Tell me a story about:
```python
def hello():
pass
```
"""
result = classifier.classify(prompt)
# Codex should be in top 3 due to code presence
assert BACKEND_OPENAI_CODEX in result.preferred_backends[:3]
class TestEdgeCases:
"""Tests for edge cases."""
def test_empty_prompt(self):
"""Test handling of empty prompt."""
classifier = TaskClassifier()
result = classifier.classify("")
assert result.task_type == TaskType.UNKNOWN
assert result.complexity == ComplexityLevel.LOW
assert result.confidence == 0.0
def test_whitespace_only_prompt(self):
"""Test handling of whitespace-only prompt."""
classifier = TaskClassifier()
result = classifier.classify(" \n\t ")
assert result.task_type == TaskType.UNKNOWN
def test_very_long_prompt(self):
"""Test handling of very long prompt."""
classifier = TaskClassifier()
long_prompt = "word " * 10000
result = classifier.classify(long_prompt)
assert result.complexity == ComplexityLevel.HIGH
assert len(result.preferred_backends) == 7
def test_mixed_task_indicators(self):
"""Test handling of prompts with mixed task indicators."""
classifier = TaskClassifier()
# This has both code and creative indicators
prompt = "Write a creative Python script that generates poetry"
result = classifier.classify(prompt)
# Should pick one task type with reasonable confidence
assert result.confidence > 0
assert result.task_type in (TaskType.CODE, TaskType.CREATIVE)
class TestDictionaryOutput:
"""Tests for dictionary output format."""
def test_to_dict_output(self):
"""Test conversion to dictionary."""
classifier = TaskClassifier()
result = classifier.classify("Implement a function")
output = classifier.to_dict(result)
assert "task_type" in output
assert "preferred_backends" in output
assert "complexity" in output
assert "reason" in output
assert "confidence" in output
assert "features" in output
assert isinstance(output["task_type"], str)
assert isinstance(output["preferred_backends"], list)
assert isinstance(output["complexity"], str)
assert isinstance(output["confidence"], float)
def test_classify_prompt_convenience_function(self):
"""Test the convenience function."""
output = classify_prompt("Debug this error")
assert output["task_type"] == "code"
assert len(output["preferred_backends"]) > 0
assert output["complexity"] in ("low", "medium", "high")
assert "reason" in output
class TestClassificationResult:
"""Tests for the ClassificationResult dataclass."""
def test_result_creation(self):
"""Test creation of ClassificationResult."""
result = ClassificationResult(
task_type=TaskType.CODE,
preferred_backends=[BACKEND_OPENAI_CODEX, BACKEND_ANTHROPIC],
complexity=ComplexityLevel.MEDIUM,
reason="Contains code keywords",
confidence=0.85,
features={"word_count": 50},
)
assert result.task_type == TaskType.CODE
assert result.preferred_backends[0] == BACKEND_OPENAI_CODEX
assert result.complexity == ComplexityLevel.MEDIUM
assert result.confidence == 0.85
# Integration tests
class TestIntegration:
"""Integration tests with realistic prompts."""
def test_code_review_scenario(self):
"""Test a code review scenario."""
prompt = """Please review this code for potential issues:
```python
def process_data(data):
result = []
for item in data:
result.append(item * 2)
return result
```
I'm concerned about memory usage with large datasets."""
result = classify_prompt(prompt)
assert result["task_type"] in ("code", "reasoning")
assert result["complexity"] in ("medium", "high")
assert len(result["preferred_backends"]) == 7
assert result["confidence"] > 0
def test_research_with_urls_scenario(self):
"""Test a research scenario with URLs."""
prompt = """Research the findings from these papers:
- https://arxiv.org/abs/2301.00001
- https://papers.nips.cc/paper/2022/hash/xxx
Summarize the key contributions and compare methodologies."""
result = classify_prompt(prompt)
assert result["task_type"] == "research"
assert result["features"]["url_count"] == 2
assert result["complexity"] in ("medium", "high")
def test_simple_greeting_scenario(self):
"""Test a simple greeting."""
result = classify_prompt("Hello! How are you doing today?")
assert result["task_type"] == "fast_ops"
assert result["complexity"] == "low"
assert result["preferred_backends"][0] == BACKEND_GROQ
if __name__ == "__main__":
pytest.main([__file__, "-v"])