feat: Claude Code Monitor — lanes, pipelines and a merged workspace
Internal SmartGift build of a Claude Code monitoring dashboard. Lanes: a durable unit of parallel agent work, one per working directory, tracked across session restarts. Managed lanes are git worktrees the dashboard provisions and can reset or remove behind a three-check destroy guard and a counted preflight; adopted lanes are directories you already own and are never destroyable. Pipelines: a lane moves through pipeline stages. A stage the agent declares with evidence renders green; a stage inferred from the tool-event stream renders dashed amber and never counts as done. Detection is forward-only within a 30-minute window, and never writes the declared stage. Workspace: one page at /run with a lane grid, the selected lane's pipeline, and a full Claude console behind a disclosure.
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---
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description: >
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Identify anomalous sessions using Agent Monitor data — cost outliers from
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the pricing engine, token anomalies (cache miss spikes, compaction baseline
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surges), unusual event type ratios (PreToolUse/PostToolUse gaps, APIError
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clusters), behavioral deviations from workflow intelligence (complexity
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score outliers, error propagation anomalies), and sessions with abnormal
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metadata (extreme turn_count, high thinking_blocks, zero turn_duration).
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---
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# Anomaly Alert
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Detect anomalous sessions in Claude Code Agent Monitor data.
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## Input
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The user provides: **$ARGUMENTS**
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This may be:
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- "all" or empty (default: check all anomaly types)
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- "cost" for cost anomalies only
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- "duration" for duration anomalies only
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- "errors" for error rate anomalies only
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- A sensitivity level: "strict" (1σ), "normal" (2σ), "relaxed" (3σ)
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## Procedure
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1. **Fetch baseline data** from `http://localhost:4820`:
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- `GET /api/sessions?limit=500` — historical sessions for baseline
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- `GET /api/analytics` — aggregated metrics
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- `GET /api/pricing/cost` — cost data per session
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2. **Compute baselines** for each metric:
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- Mean, median, standard deviation
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- P25, P75, P90, P95, P99 percentiles
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- Interquartile range (IQR) for robust outlier detection
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3. **Detect anomalies** using statistical thresholds:
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### Cost Anomalies
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- Sessions costing >2σ above mean
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- Single sessions exceeding daily average
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- Sudden cost spikes (session-over-session increase >200%)
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### Duration Anomalies
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- Sessions lasting >2σ above mean duration
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- Extremely short sessions (<1 minute) that still incur cost
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- Sessions with unusual active-vs-idle ratios
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### Error Rate Anomalies
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- Sessions with error rates >2σ above baseline
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- New error types not seen in previous sessions
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- Sessions with >3 consecutive tool failures
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### Behavioral Anomalies
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- Unusual tool combinations not seen before
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- Sessions with abnormally high compaction counts
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- Model switches mid-session (if unexpected)
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- Sessions with no tool usage (pure conversation)
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### Token Anomalies
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- Input/output token ratio far from historical norm
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- Cache miss rate significantly higher than average
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- Token usage growing faster than session count
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4. **Classify each anomaly**:
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- **🔴 Critical**: Likely indicates a real problem requiring attention
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- **🟡 Warning**: Unusual but may be expected for certain tasks
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- **🔵 Info**: Interesting deviation worth noting
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## Output Format
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Present as an **Anomaly Report**:
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```
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═══════════════════════════════════════════════
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ANOMALY DETECTION REPORT
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Analyzed: N sessions | Baseline: last 30 days
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Anomalies found: N (🔴 N critical, 🟡 N warn, 🔵 N info)
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═══════════════════════════════════════════════
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```
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For each anomaly:
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- Session ID and timestamp
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- Anomaly type and severity
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- Observed value vs expected range
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- Possible explanation
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- Recommended action (if any)
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---
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description: >
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Benchmark one session (or a small recent set) against the rolling average using
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Agent Monitor data — cost, total tokens, tool count, and workflow complexity
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score — and report where each metric lands as a percentile of the population.
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Tells you whether a session was normal, cheap, or an outlier. Use when judging
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whether a session was typical or out of band.
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---
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# Benchmark
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Score a session against the rolling population average and report its percentile on
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cost, tokens, tool count, and complexity using Agent Monitor data.
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## Input
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The user provides: **$ARGUMENTS**
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This may be:
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- A single session ID — benchmark that session
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- "latest" — benchmark the most recent session
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- "latest N" — benchmark the N most recent sessions, each vs the average
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- empty — benchmark the most recent session (default)
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## Data Sources
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| Endpoint | Returns |
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|----------|---------|
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| `GET /api/sessions?limit=N` | Population of sessions with `cost`, `model`, `started_at`, `metadata` (turn_count, total_turn_duration_ms) — builds the rolling baseline |
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| `GET /api/pricing/cost/{sessionId}` | `{ total_cost, breakdown:[{ input_tokens, output_tokens, cache_read_tokens, cache_write_tokens, cost }] }` — the target session's cost and tokens |
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| `GET /api/workflows/{sessionId}` | `complexity` (score), `stats` (tool/event counts), `toolFlow` (distinct tools used) — the target session's tool count and complexity |
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| `GET /api/analytics` | `avg_events_per_session`, `tool_usage`, `daily_sessions` — corroborates population-level averages |
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## Report Sections
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### 1. Build the Baseline
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Fetch the population with `GET /api/sessions?limit=200` (the rolling set). For each
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session gather cost (`GET /api/pricing/cost/{id}` or the list `cost` field), total
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tokens (sum of the 4 token types from the pricing breakdown), tool count and
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complexity (`GET /api/workflows/{id}`). Compute mean, median, and standard
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deviation for each metric across the population.
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### 2. Measure the Target
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For the requested session, pull the same four metrics:
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- **Cost** — `total_cost` from `GET /api/pricing/cost/{id}`.
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- **Total tokens** — `input + output + cache_read + cache_write` summed from the breakdown.
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- **Tool count** — distinct/total tools from `GET /api/workflows/{id}` `stats`/`toolFlow`.
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- **Complexity score** — `complexity.score` from `GET /api/workflows/{id}`.
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### 3. Percentile and Deviation
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For each metric report the target's percentile within the population (share of
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sessions at or below it) and its z-score `(value − mean) / stddev`. Label each:
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below average / typical / above average / outlier (|z| > 2).
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### 4. Verdict
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State whether the session was normal overall. If it is an outlier, name which
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metric drove it (e.g., complexity p96, cost p91 → an unusually heavy session).
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## Output
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- A Markdown table: metric | session value | population mean | percentile | z-score | label.
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- Currency in USD to 4 decimals; tokens and tool counts as integers; complexity to 2 decimals.
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- Use ▲ for above-average and ▼ for below-average vs the mean.
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- One-line verdict: "Normal session" or "Outlier — driven by <metric> (pNN)".
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- When benchmarking multiple sessions, one row block per session plus a summary line.
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- Read-only: percentiles come only from the fetched population; never fabricate the baseline.
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---
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description: >
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Suggest concrete optimizations for Claude Code usage based on historical
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session data. Covers cost reduction, speed improvement, error prevention,
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and workflow efficiency. Use for data-driven optimization planning.
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---
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# Optimization Suggest
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Generate data-driven optimization recommendations for Claude Code usage.
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## Input
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The user provides: **$ARGUMENTS**
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This may be:
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- "all" or empty (default: comprehensive optimization scan)
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- "cost" for cost reduction focus
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- "speed" for performance/speed focus
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- "quality" for error reduction focus
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- "efficiency" for workflow efficiency focus
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## Procedure
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1. **Gather optimization data** from `http://localhost:4820`:
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- `GET /api/sessions?limit=200` — session history
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- `GET /api/analytics` — tool and token analytics
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- `GET /api/pricing/cost` — cost data
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- `GET /api/pricing` — pricing rules for model comparison
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- Sample event streams for behavioral analysis
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2. **Analyze optimization opportunities**:
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### 💰 Cost Optimization
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- **Model downgrade opportunities**: Tasks completed with expensive models that could use cheaper ones
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- Compare success rates per model per task type
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- Calculate savings from model substitution
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- **Cache optimization**: Sessions with low cache hit rates
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- Identify sessions that could benefit from better prompt caching
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- **Early termination**: Sessions that ran longer than needed
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- Detect sessions where useful work completed well before session end
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- **Compaction reduction**: Sessions hitting context limits
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- Suggest breaking large tasks into smaller sessions
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### ⚡ Speed Optimization
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- **Tool selection**: Faster alternatives for commonly-used tool patterns
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- **Subagent parallelization**: Tasks that could run in parallel
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- **Session planning**: Better upfront context to reduce back-and-forth
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- **Preemptive context loading**: Frequently needed files/context
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### 🛡 Quality Optimization
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- **Error prevention**: Common error patterns with preventive measures
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- **Tool reliability**: Tools with high failure rates and alternatives
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- **Validation gaps**: Sessions lacking verification steps
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- **Recovery strategies**: Better error handling patterns
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### 🔄 Workflow Optimization
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- **Session sizing**: Optimal session scope based on historical success
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- **Task decomposition**: Complex sessions that should be split
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- **Automation candidates**: Repetitive workflows to automate
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- **Knowledge reuse**: Patterns where previous session context could help
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3. **Quantify each recommendation**:
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- Estimated impact (cost savings $, time savings %, error reduction %)
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- Implementation effort (low/medium/high)
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- Confidence level based on data available
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- Priority score = Impact × Confidence / Effort
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## Output Format
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Present as a prioritized optimization plan:
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| # | Recommendation | Category | Impact | Effort | Priority |
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|---|---------------|----------|--------|--------|----------|
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| 1 | Specific action | 💰/⚡/🛡/🔄 | High | Low | ★★★★★ |
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| 2 | Specific action | ... | ... | ... | ★★★★☆ |
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For the top 5 recommendations, include:
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- Detailed explanation with supporting data
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- Step-by-step implementation guide
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- Expected before/after metrics
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- How to measure success
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---
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description: >
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Detect recurring patterns using the Agent Monitor's workflow intelligence —
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toolFlow transitions (tool A → B frequency matrices), recurring workflow
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patterns, agent co-occurrence pairs, model delegation habits, error
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propagation paths by agent depth, and compaction triggers. Use to discover
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habitual usage patterns and anti-patterns.
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---
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# Pattern Detect
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Identify recurring patterns using the Agent Monitor's workflow intelligence engine.
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## Input
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The user provides: **$ARGUMENTS**
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Options: "all", "tools", "errors", "workflows", "last N sessions".
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## Data Sources
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| Endpoint | Returns |
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|----------|---------|
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| `GET /api/sessions?limit=200` | Session list with status, model, cwd, metadata |
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| `GET /api/analytics` | tool_usage top 20, event_types, agent_types |
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| `GET /api/workflows/{sessionId}` | 11 datasets per session (see below) |
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### Workflow datasets used for pattern detection
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| Dataset | Pattern insight |
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|---------|----------------|
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| `toolFlow` | **Tool transition matrix**: tool A → tool B with counts — reveals sequential habits |
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| `patterns` | **Detected workflow patterns**: recurring sequences with frequency scores |
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| `cooccurrence` | **Agent co-occurrence**: which agents frequently run together |
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| `modelDelegation` | **Model habits**: which models are chosen for which task types |
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| `errorPropagation` | **Error patterns**: where errors start and how they cascade by agent depth |
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| `effectiveness` | **Subagent patterns**: which types succeed most, avg duration per type |
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| `compaction` | **Compaction triggers**: what causes context overflow |
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| `complexity` | **Complexity patterns**: session complexity scores over time |
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## Pattern Categories
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### 1. Tool Chain Patterns (from `toolFlow`)
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- **Most common sequences**: Top 10 tool transitions (e.g., Read → Edit: 145 times)
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- **Starter tools**: First tool used in sessions (indicates task type)
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- **Finisher tools**: Last tool before Stop event
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- **Anti-patterns**: Tool → same Tool repeated (retries/failures)
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- **Co-occurrence**: Tools that always appear together in sessions
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### 2. Workflow Patterns (from `patterns`)
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- **Named patterns**: Workflow sequences the API has detected with frequency
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- **Session archetypes**: Common session shapes (short edit, long debug, subagent-heavy)
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- **Project-specific**: Patterns that appear in specific working directories
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### 3. Error Patterns (from `errorPropagation` + `event_types`)
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- **Error origins**: Which agent depth level produces most errors
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- **Cascade patterns**: Errors that trigger chains of follow-up errors
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- **APIError frequency**: quota hits, rate_limit, overloaded — by time of day
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- **Recovery patterns**: How errors are typically resolved (tool retry vs agent switch)
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### 4. Agent Patterns (from `cooccurrence` + `effectiveness`)
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- **Agent pairs**: Which agents are spawned together frequently
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- **Delegation patterns**: Main agent → subagent task delegation habits
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- **Success by type**: Which subagent types (task/explore/code-review) work best for which tasks
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### 5. Temporal Patterns (from session timestamps + `daily_sessions`)
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- **Peak hours**: When sessions cluster
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- **Duration patterns**: Short vs long session distribution
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- **Day-of-week trends**: Productive days vs quiet days
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## Output
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**Pattern Report** with top 10 patterns ranked by frequency × impact:
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- Pattern name and description
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- Frequency (occurrences across analyzed sessions)
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- Impact: positive (reinforce), negative (eliminate), or neutral (observe)
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- Actionable recommendation for each
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---
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description: >
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Detect quality and efficiency regressions over time using Agent Monitor data —
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rising error rate (APIError events), falling cache hit rate, growing compaction
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frequency, and climbing cost-per-session. Splits history into an earlier
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baseline window and a recent window and reports which metrics are getting
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worse, by how much, and where. Use when checking whether things are degrading
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or trending in the wrong direction.
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---
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# Regression Watch
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Detect whether Claude Code sessions are getting worse over time across quality and
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efficiency metrics, using Agent Monitor data.
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## Input
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The user provides: **$ARGUMENTS**
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This may be:
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- empty or "all" — check every regression metric (default)
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- "errors" — error-rate regression only
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- "cache" — cache hit-rate regression only
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- "compaction" — compaction-frequency regression only
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- "cost" — cost-per-session regression only
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- A window like "last 30d" or "30 vs 90" — set the recent vs baseline window sizes
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## Data Sources
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| Endpoint | Returns |
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|----------|---------|
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| `GET /api/analytics` | `daily_events` (365d), `daily_sessions` (365d), `event_types`, `tokens` (total_input, total_output, total_cache_read, total_cache_write — baselines pre-summed), `avg_events_per_session` |
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| `GET /api/events?session_id=X` | Event stream incl. `APIError`, `Compaction`, `PreToolUse`/`PostToolUse` — used to localize regressions to specific sessions |
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| `GET /api/pricing/cost` | `{ total_cost, breakdown[...] }` — total cost to derive cost-per-session |
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| `GET /api/pricing/cost/{sessionId}` | Per-session cost — used to compare recent vs baseline session cost |
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| `GET /api/workflows/{sessionId}` | `compaction` (impact), `errorPropagation` (by depth), `effectiveness` — per-session quality signals |
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| `GET /api/sessions?limit=N` | Sessions with `started_at`, `cost`, `metadata` — to bucket sessions into time windows |
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## Report Sections
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### 1. Windowing
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Split history into a **baseline window** (older) and a **recent window** (newer).
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Default: recent = last 30 days, baseline = the 30–90 day range before it. Use
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`daily_events`/`daily_sessions` for series metrics and `GET /api/sessions?limit=N`
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to assign sessions to each window by `started_at`.
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### 2. Error Rate Regression
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- Recent error rate = `APIError count / total events` in the recent window
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(from `event_types` and `daily_events`, or per-session `GET /api/events`).
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- Compare to the baseline rate. Flag if recent is higher.
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- Report the absolute and relative change and which sessions contributed most
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`APIError` events.
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### 3. Cache Hit Rate Regression
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- Cache hit rate = `total_cache_read / (total_cache_read + total_input)`.
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- Compute for each window (per-window input/cache_read from session metadata or
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the pricing breakdown). Flag a **falling** hit rate — that means more
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uncached input tokens and higher cost.
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### 4. Compaction Frequency Regression
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- Compaction frequency = `Compaction events / session` per window (from
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`event_types` / `daily_events`, confirmed via per-session
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`GET /api/workflows/{id}` `compaction`). Flag a **rising** rate — context is
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overflowing more often.
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### 5. Cost-per-Session Regression
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- Cost-per-session = window total cost / window session count, using
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`GET /api/pricing/cost` overall and `GET /api/pricing/cost/{id}` for the
|
||||
sessions in each window. Flag a **climbing** value.
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### 6. Verdict
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Roll up which metrics regressed, rank by relative worsening, and name the most
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likely driver (e.g., cache hit rate fell → cost per session climbed).
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## Output
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- A Markdown table: metric | baseline | recent | Δ | direction (▲ worse / ▼ better) | verdict.
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- Tag each regressed metric 🔴 (clear regression), 🟡 (mild/within noise), or 🟢 (improved).
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- Currency in USD to 4 decimals; rates as percentages to 2 decimals.
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- List the specific session IDs that contributed most to any regression.
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- End with the single highest-priority regression to address and a concrete next step.
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- Read-only: only report what the API returns; never fabricate baselines.
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@@ -0,0 +1,89 @@
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---
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||||
description: >
|
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Compare two sessions side-by-side using Agent Monitor data — per-model
|
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token usage (input/output/cache_read/cache_write + compaction baselines),
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pricing engine cost breakdowns, workflow intelligence (complexity scores,
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||||
tool flow transitions, subagent effectiveness), session metadata
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||||
(thinking_blocks, turn_count, turn_duration_ms, usage_extras), and
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||||
full event timelines with all 10+ event types.
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---
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||||
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||||
# Session Compare
|
||||
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||||
Compare two Claude Code sessions side-by-side using Agent Monitor data.
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||||
## Input
|
||||
|
||||
The user provides: **$ARGUMENTS**
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||||
This may be:
|
||||
- Two session IDs: "abc123 def456"
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- "best vs worst" — compare highest and lowest productivity sessions
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||||
- "latest 2" — compare the two most recent sessions
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||||
- A session ID + "vs average" — compare one session against the baseline
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||||
|
||||
## Procedure
|
||||
|
||||
1. **Identify sessions to compare**:
|
||||
- If two IDs given: fetch both from `http://localhost:4820/api/sessions/{id}`
|
||||
- If "best vs worst": fetch sessions, score by completion + cost efficiency, pick extremes
|
||||
- If "latest 2": `GET /api/sessions?limit=2` (default sort: most recently updated first)
|
||||
- If "vs average": fetch session + compute averages from last 50 sessions
|
||||
|
||||
2. **Gather detailed data** for each session:
|
||||
- Session metadata: `GET /api/sessions/{id}`
|
||||
- Events: `GET /api/events?session_id={id}`
|
||||
- Agents: `GET /api/agents?session_id={id}`
|
||||
- Cost: `GET /api/pricing/cost/{id}`
|
||||
|
||||
3. **Build comparison**:
|
||||
|
||||
### Overview Comparison
|
||||
| Metric | Session A | Session B | Difference |
|
||||
|--------|-----------|-----------|-----------|
|
||||
| Status | completed | error | — |
|
||||
| Model | sonnet-4 | sonnet-4 | same |
|
||||
| Duration | 12m 34s | 45m 12s | +32m 38s |
|
||||
| Total Cost | $0.0234 | $0.1456 | +522% |
|
||||
| Events | 45 | 187 | +315% |
|
||||
| Tools Used | 8 | 12 | +4 |
|
||||
| Error Count | 0 | 7 | +7 |
|
||||
| Agents | 2 | 5 | +3 |
|
||||
|
||||
### Token Comparison
|
||||
| Token Type | Session A | Session B | Difference |
|
||||
|-----------|-----------|-----------|-----------|
|
||||
| Input | N | N | ±N% |
|
||||
| Output | N | N | ±N% |
|
||||
| Cache Read | N | N | ±N% |
|
||||
| Cache Write | N | N | ±N% |
|
||||
| Efficiency | N% | N% | ±N% |
|
||||
|
||||
### Tool Usage Comparison
|
||||
- Tools unique to Session A
|
||||
- Tools unique to Session B
|
||||
- Shared tools with usage count comparison
|
||||
- Error rate per tool in each session
|
||||
|
||||
### Timeline Comparison
|
||||
- Side-by-side event timeline
|
||||
- Where sessions diverged in approach
|
||||
- Key decision points that led to different outcomes
|
||||
|
||||
### Agent Activity Comparison
|
||||
- Agent counts and types
|
||||
- Subagent strategy differences
|
||||
- Agent success rates
|
||||
|
||||
4. **Analysis**:
|
||||
- Why one session was more efficient/successful than the other
|
||||
- Key decisions that made the difference
|
||||
- Lessons to apply to future sessions
|
||||
|
||||
## Output Format
|
||||
|
||||
Present as a side-by-side comparison report with:
|
||||
- Executive comparison summary (which session was "better" and why)
|
||||
- Structured comparison tables with color-coded differences (green = better, red = worse)
|
||||
- A "Lessons Learned" section with actionable takeaways
|
||||
- Overall winner declaration with justification
|
||||
Reference in New Issue
Block a user