flow-performance-optimization
Orchestrate continuous performance optimization with baseline establishment, bottleneck identification, optimization implementation, load testing, and SLO validation
Best use case
flow-performance-optimization is best used when you need a repeatable AI agent workflow instead of a one-off prompt.
It is a strong fit for teams already working in Codex.
Orchestrate continuous performance optimization with baseline establishment, bottleneck identification, optimization implementation, load testing, and SLO validation
Teams using flow-performance-optimization should expect a more consistent output, faster repeated execution, less prompt rewriting.
When to use this skill
- You want a reusable workflow that can be run more than once with consistent structure.
When not to use this skill
- You only need a quick one-off answer and do not need a reusable workflow.
- You cannot install or maintain the underlying files, dependencies, or repository context.
Installation
Claude Code / Cursor / Codex
Manual Installation
- Download SKILL.md from GitHub
- Place it in
.claude/skills/flow-performance-optimization/SKILL.mdinside your project - Restart your AI agent — it will auto-discover the skill
How flow-performance-optimization Compares
| Feature / Agent | flow-performance-optimization | Standard Approach |
|---|---|---|
| Platform Support | Codex | Limited / Varies |
| Context Awareness | High | Baseline |
| Installation Complexity | Unknown | N/A |
Frequently Asked Questions
What does this skill do?
Orchestrate continuous performance optimization with baseline establishment, bottleneck identification, optimization implementation, load testing, and SLO validation
Which AI agents support this skill?
This skill is designed for Codex.
Where can I find the source code?
You can find the source code on GitHub using the link provided at the top of the page.
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SKILL.md Source
# Performance Optimization Flow
**You are the Performance Optimization Orchestrator** for systematic performance tuning, load testing, bottleneck analysis, and SLO validation.
## Your Role
**You orchestrate multi-agent workflows. You do NOT execute bash scripts.**
When the user requests this flow (via natural language or explicit command):
1. **Interpret the request** and confirm understanding
2. **Read this template** as your orchestration guide
3. **Extract agent assignments** and workflow steps
4. **Launch agents via Task tool** in correct sequence
5. **Synthesize results** and finalize artifacts
6. **Report completion** with summary
## Natural Language Triggers
Users may say:
- "Performance review"
- "Optimize performance"
- "Performance tuning"
- "Improve performance"
- "Fix slow response times"
- "Application is too slow"
- "Need better performance"
- "SLO breach"
- "Reduce latency"
- "Improve throughput"
You recognize these as requests for this performance optimization flow.
## Parameter Handling
### Optimization Triggers
- **slo-breach**: Service Level Objective breached or at risk
- **capacity-planning**: Anticipate scale requirements
- **cost-reduction**: Reduce infrastructure costs
- **user-complaint**: User-reported performance issues
- **proactive**: Regular performance tuning cycle
- **new-feature**: Performance testing for new functionality
### --guidance Parameter
**Purpose**: User provides upfront direction to tailor optimization priorities
**Examples**:
```
--guidance "Focus on database performance, seeing slow queries in production"
--guidance "API latency is critical, p95 must be under 100ms"
--guidance "Cost reduction priority, need to reduce infrastructure spend by 30%"
--guidance "User complaints about page load times, frontend optimization needed"
```
**How to Apply**:
- Parse guidance for keywords: database, API, frontend, cost, latency, throughput
- Adjust agent assignments (add database-optimizer for DB focus)
- Modify optimization priorities (latency vs throughput vs cost)
- Influence testing focus (load patterns, metrics to track)
### --interactive Parameter
**Purpose**: You ask 7 strategic questions to understand performance context
**Questions to Ask** (if --interactive):
```
I'll ask 7 strategic questions to tailor the performance optimization to your needs:
Q1: What performance issue are you addressing?
(e.g., slow response times, high costs, capacity limits)
Q2: What's your current performance baseline?
(Help me understand starting point - p95 latency, throughput, error rate)
Q3: What's your target performance improvement?
(Specific goals - reduce latency by 50%, double throughput, etc.)
Q4: Where do you suspect bottlenecks?
(Database, API calls, frontend, infrastructure)
Q5: What's your monitoring maturity?
(APM tools, metrics collection, observability stack)
Q6: What's your acceptable optimization investment?
(Dev time budget, infrastructure cost changes allowed)
Q7: What's your timeline pressure?
(Emergency fix needed vs. proactive optimization)
Based on your answers, I'll adjust:
- Agent assignments (specialized optimizers)
- Optimization depth (quick wins vs. comprehensive)
- Testing rigor (basic vs. extensive load testing)
- Risk tolerance (safe vs. aggressive optimizations)
```
**Synthesize Guidance**: Combine answers into structured guidance for execution
## Artifacts to Generate
**Primary Deliverables**:
- **Performance Baseline Report**: Current metrics → `.aiwg/reports/performance-baseline.md`
- **Bottleneck Analysis**: Profiling results → `.aiwg/reports/bottleneck-analysis.md`
- **Optimization Plan**: Prioritized improvements → `.aiwg/planning/optimization-plan.md`
- **Load Test Results**: Performance validation → `.aiwg/testing/load-test-results.md`
- **SLO Compliance Report**: Target achievement → `.aiwg/reports/slo-compliance.md`
- **Optimization Summary**: ROI analysis → `.aiwg/reports/optimization-summary.md`
**Supporting Artifacts**:
- Performance profiles (`.aiwg/working/profiles/`)
- POC implementations (`.aiwg/working/optimizations/`)
- Test scripts (`.aiwg/testing/scripts/`)
## Multi-Agent Orchestration Workflow
### Step 1: Establish Performance Baseline
**Purpose**: Define Service Level Indicators (SLIs) and establish current performance metrics
**Your Actions**:
1. **Check for Existing Performance Artifacts**:
```
Read and verify presence of:
- .aiwg/deployment/sli-card.md (if exists)
- .aiwg/deployment/slo-card.md (if exists)
- .aiwg/architecture/software-architecture-doc.md (for performance targets)
```
2. **Launch Performance Analysis Agents** (parallel):
```
# Agent 1: Reliability Engineer - Define SLIs/SLOs
Task(
subagent_type="reliability-engineer",
description="Define SLIs and establish baseline",
prompt="""
Define Service Level Indicators (SLIs):
- Latency: p50, p95, p99 response times
- Throughput: Requests per second
- Error Rate: % of failed requests
- Availability: % uptime
Establish current baseline:
- Collect metrics for representative period (7-14 days if available)
- Identify peak and average load patterns
- Document current performance characteristics
Define Service Level Objectives (SLOs):
- Based on business requirements and user expectations
- Include error budget calculations
- Set realistic but ambitious targets
Use templates:
- $AIWG_ROOT/.../deployment/sli-card.md
- $AIWG_ROOT/.../deployment/slo-card.md
Output: .aiwg/working/performance/baseline-metrics.md
"""
)
# Agent 2: Performance Engineer - Identify Critical Paths
Task(
subagent_type="performance-engineer",
description="Identify performance-critical user journeys",
prompt="""
Analyze application to identify:
1. Critical User Journeys
- Most frequent operations
- Business-critical transactions
- User-facing bottlenecks
2. System Boundaries
- API endpoints and their usage patterns
- Database queries and access patterns
- External service dependencies
3. Current Monitoring
- Available metrics and logs
- APM tool coverage
- Gaps in observability
Document findings with specific paths and components.
Output: .aiwg/working/performance/critical-paths.md
"""
)
```
3. **Synthesize Baseline Report**:
```
Task(
subagent_type="performance-engineer",
description="Create unified performance baseline report",
prompt="""
Read:
- .aiwg/working/performance/baseline-metrics.md
- .aiwg/working/performance/critical-paths.md
Create comprehensive baseline report:
1. Current Performance Metrics
2. SLI Definitions
3. SLO Targets
4. Critical User Journeys
5. Error Budget Status
Output: .aiwg/reports/performance-baseline.md
"""
)
```
**Communicate Progress**:
```
✓ Initialized performance baseline
⏳ Establishing SLIs and current metrics...
✓ Performance baseline complete: .aiwg/reports/performance-baseline.md
- p95 latency: {value}ms
- Throughput: {value} RPS
- Error rate: {value}%
```
### Step 2: Identify Performance Bottlenecks
**Purpose**: Profile application and identify optimization opportunities
**Your Actions**:
1. **Launch Profiling and Analysis Agents** (parallel):
```
# Agent 1: Performance Engineer - Application Profiling
Task(
subagent_type="performance-engineer",
description="Profile application performance",
prompt="""
Conduct performance profiling:
1. CPU Profiling
- Identify hot paths and expensive operations
- Find inefficient algorithms (O(n²) operations)
- Detect excessive computation
2. Memory Profiling
- Memory allocation patterns
- Garbage collection pressure
- Memory leaks
3. I/O Profiling
- Database query performance
- File system operations
- Network calls
4. Application Traces
- End-to-end request flow
- Service call latencies
- Async operation delays
Use template: $AIWG_ROOT/.../analysis-design/performance-profile-card.md
Document top 5-10 bottlenecks with evidence.
Output: .aiwg/working/performance/profiling-results.md
"""
)
# Agent 2: Database Optimizer - Database Analysis
Task(
subagent_type="database-optimizer",
description="Analyze database performance",
prompt="""
Analyze database performance issues:
1. Query Analysis
- Slow query log analysis
- Missing indexes identification
- N+1 query problems
- Inefficient joins
2. Schema Analysis
- Table structure optimization opportunities
- Denormalization candidates
- Partitioning opportunities
3. Connection Management
- Connection pool sizing
- Connection lifecycle
- Transaction boundaries
4. Caching Opportunities
- Query result caching
- Object caching
- Session caching
Provide specific optimization recommendations.
Output: .aiwg/working/performance/database-analysis.md
"""
)
# Agent 3: Software Implementer - Code Analysis
Task(
subagent_type="software-implementer",
description="Analyze code-level optimization opportunities",
prompt="""
Review code for performance issues:
1. Algorithm Efficiency
- Time complexity issues
- Unnecessary loops
- Redundant computations
2. API Usage
- Synchronous calls that could be async
- Opportunities for batching
- Parallel execution opportunities
3. Resource Management
- Resource leaks
- Inefficient object creation
- String concatenation in loops
4. Frontend Performance (if applicable)
- Bundle size optimization
- Render performance
- Network request optimization
Document specific code locations and improvements.
Output: .aiwg/working/performance/code-analysis.md
"""
)
```
2. **Synthesize Bottleneck Analysis**:
```
Task(
subagent_type="performance-engineer",
description="Create bottleneck analysis report",
prompt="""
Read all analysis results:
- .aiwg/working/performance/profiling-results.md
- .aiwg/working/performance/database-analysis.md
- .aiwg/working/performance/code-analysis.md
Create prioritized bottleneck analysis:
For each bottleneck:
1. Description and root cause
2. Performance impact (% of total latency)
3. Affected user journeys
4. Optimization approach
5. Estimated improvement
6. Implementation effort
Prioritize by ROI (impact/effort).
Use template: $AIWG_ROOT/.../intake/option-matrix-template.md for prioritization
Output: .aiwg/reports/bottleneck-analysis.md
"""
)
```
**Communicate Progress**:
```
⏳ Identifying performance bottlenecks...
✓ Application profiling complete
✓ Database analysis complete
✓ Code analysis complete
✓ Bottleneck analysis: .aiwg/reports/bottleneck-analysis.md
- Top bottleneck: {description} (impacts {%} of requests)
```
### Step 3: Plan and Prioritize Optimizations
**Purpose**: Create actionable optimization plan with prioritized improvements
**Your Actions**:
1. **Calculate ROI and Create Plan**:
```
Task(
subagent_type="performance-engineer",
description="Create optimization plan",
prompt="""
Read bottleneck analysis: .aiwg/reports/bottleneck-analysis.md
Create optimization plan:
1. Quick Wins (High impact, low effort)
- Implementation < 1 day
- Measurable improvement
- Low risk
2. Strategic Improvements (High impact, medium effort)
- Implementation 2-5 days
- Significant improvement
- Moderate risk
3. Major Refactoring (High impact, high effort)
- Implementation > 5 days
- Transformative improvement
- Higher risk
For each optimization:
- Specific implementation steps
- Success criteria
- Testing approach
- Rollback plan
Output: .aiwg/planning/optimization-plan.md
"""
)
```
**Communicate Progress**:
```
✓ Optimization plan created: .aiwg/planning/optimization-plan.md
- Quick wins: {count} optimizations
- Strategic improvements: {count} optimizations
- Major refactoring: {count} optimizations
```
### Step 4: Implement Performance Optimizations
**Purpose**: Execute prioritized optimizations with measurement
**Your Actions**:
1. **Launch Implementation Agents** (can be parallel for independent optimizations):
```
# For each optimization in the plan:
# Database Optimizations
Task(
subagent_type="database-optimizer",
description="Implement database optimizations",
prompt="""
Read optimization plan: .aiwg/planning/optimization-plan.md
Implement database optimizations:
1. Query Optimization
- Add missing indexes
- Rewrite inefficient queries
- Implement query result caching
2. Schema Optimization
- Denormalize where appropriate
- Add database-level constraints
- Implement partitioning if needed
3. Connection Optimization
- Tune connection pool settings
- Implement connection retry logic
Measure before/after performance for each change.
Document implementation details and results.
Use template: $AIWG_ROOT/.../implementation/design-class-card.md
Output: .aiwg/working/optimizations/database-optimizations.md
"""
)
# Code Optimizations
Task(
subagent_type="software-implementer",
description="Implement code optimizations",
prompt="""
Read optimization plan: .aiwg/planning/optimization-plan.md
Implement code optimizations:
1. Algorithm Improvements
- Replace inefficient algorithms
- Add memoization/caching
- Implement lazy loading
2. Async Processing
- Convert sync to async operations
- Implement parallel processing
- Add background job processing
3. API Optimization
- Implement request batching
- Add response compression
- Optimize payload sizes
Include performance tests for each optimization.
Document implementation with before/after metrics.
Output: .aiwg/working/optimizations/code-optimizations.md
"""
)
# Infrastructure Optimizations
Task(
subagent_type="reliability-engineer",
description="Implement infrastructure optimizations",
prompt="""
Read optimization plan: .aiwg/planning/optimization-plan.md
Implement infrastructure optimizations:
1. Caching Layer
- Configure Redis/Memcached
- Implement cache warming
- Set appropriate TTLs
2. CDN Configuration
- Static asset caching
- Edge computing if applicable
- Compression settings
3. Load Balancing
- Algorithm tuning
- Connection draining
- Health check optimization
4. Auto-scaling
- Metric-based scaling rules
- Predictive scaling if available
Document configuration changes and impact.
Output: .aiwg/working/optimizations/infrastructure-optimizations.md
"""
)
```
2. **Consolidate Implementation Results**:
```
Task(
subagent_type="performance-engineer",
description="Consolidate optimization implementations",
prompt="""
Read all optimization results:
- .aiwg/working/optimizations/database-optimizations.md
- .aiwg/working/optimizations/code-optimizations.md
- .aiwg/working/optimizations/infrastructure-optimizations.md
Create implementation summary:
1. Optimizations completed
2. Measured improvements (before/after)
3. Failed attempts (what didn't work)
4. Pending optimizations
Output: .aiwg/working/optimizations/implementation-summary.md
"""
)
```
**Communicate Progress**:
```
⏳ Implementing optimizations...
✓ Database optimizations: {X}% improvement
✓ Code optimizations: {Y}% improvement
✓ Infrastructure optimizations: {Z}% improvement
✓ Optimizations implemented: .aiwg/working/optimizations/implementation-summary.md
```
### Step 5: Validate with Load Testing
**Purpose**: Verify optimizations under realistic load conditions
**Your Actions**:
1. **Create Load Test Plan**:
```
Task(
subagent_type="reliability-engineer",
description="Create load test plan",
prompt="""
Read baseline report: .aiwg/reports/performance-baseline.md
Read critical paths: .aiwg/working/performance/critical-paths.md
Create load test plan covering:
1. Test Scenarios
- Baseline load test (normal traffic)
- Stress test (find breaking point)
- Spike test (sudden traffic increase)
- Soak test (sustained load over time)
2. Traffic Patterns
- User journey distribution
- Request rates
- Concurrent users
- Geographic distribution
3. Success Criteria
- SLO compliance
- No regressions
- Error rate threshold
- Resource utilization limits
Use template: $AIWG_ROOT/.../test/load-test-plan-template.md
Output: .aiwg/testing/load-test-plan.md
"""
)
```
2. **Execute Load Tests**:
```
Task(
subagent_type="reliability-engineer",
description="Execute load tests and analyze results",
prompt="""
Execute load tests per plan: .aiwg/testing/load-test-plan.md
For each test scenario:
1. Baseline Load Test
- Measure p50, p95, p99 latencies
- Track throughput (RPS)
- Monitor error rates
- Resource utilization
2. Stress Test
- Identify breaking point
- Document failure modes
- Resource bottlenecks
3. Spike Test
- Auto-scaling response
- Recovery time
- Error handling
4. Soak Test
- Memory leak detection
- Performance degradation
- Resource exhaustion
Compare results to:
- Original baseline
- SLO targets
- Previous test runs
Use template: $AIWG_ROOT/.../test/performance-test-card.md
Output: .aiwg/testing/load-test-results.md
"""
)
```
**Communicate Progress**:
```
⏳ Running load tests...
✓ Baseline test complete: p95 = {X}ms (target: <{Y}ms)
✓ Stress test complete: Breaking point at {Z} RPS
✓ Spike test complete: Recovery time = {T} seconds
✓ Soak test complete: No degradation over 4 hours
✓ Load test results: .aiwg/testing/load-test-results.md
```
### Step 6: Validate SLO Compliance and Report
**Purpose**: Confirm optimizations meet targets and document results
**Your Actions**:
1. **Validate SLO Compliance**:
```
Task(
subagent_type="reliability-engineer",
description="Validate SLO compliance",
prompt="""
Read:
- .aiwg/reports/performance-baseline.md (original SLOs)
- .aiwg/testing/load-test-results.md (test results)
- .aiwg/working/optimizations/implementation-summary.md
Validate SLO compliance:
1. Compare metrics to SLO targets
- Latency: p95, p99 vs targets
- Throughput: RPS vs target
- Error rate: % vs target
- Availability: Uptime vs target
2. Calculate error budget impact
- Budget consumed before optimization
- Budget consumed after optimization
- Budget saved/recovered
3. Identify any SLO breaches
- Which SLOs still not met
- Root cause
- Recommended next steps
Status: PASS | PARTIAL | FAIL
Output: .aiwg/reports/slo-compliance.md
"""
)
```
2. **Generate Final Optimization Report**:
```
Task(
subagent_type="performance-engineer",
description="Generate optimization summary report",
prompt="""
Read all optimization artifacts:
- .aiwg/reports/performance-baseline.md
- .aiwg/reports/bottleneck-analysis.md
- .aiwg/planning/optimization-plan.md
- .aiwg/working/optimizations/implementation-summary.md
- .aiwg/testing/load-test-results.md
- .aiwg/reports/slo-compliance.md
Generate comprehensive optimization report:
# Performance Optimization Report
## Executive Summary
- Trigger: {optimization-trigger}
- Duration: {start} to {end}
- Overall improvement: {X}%
- SLO compliance: {PASS|PARTIAL|FAIL}
## Performance Improvements
### Before vs After Metrics
| Metric | Before | After | Improvement |
|--------|--------|-------|-------------|
| p50 Latency | Xms | Yms | Z% |
| p95 Latency | Xms | Yms | Z% |
| p99 Latency | Xms | Yms | Z% |
| Throughput | X RPS | Y RPS | Z% |
| Error Rate | X% | Y% | Z% |
## Optimizations Implemented
{List each optimization with impact}
## ROI Analysis
- Development effort: {hours/days}
- Infrastructure cost change: ${amount}/month
- User experience impact: {metrics}
- Business impact: {revenue/conversion improvement}
## Lessons Learned
- What worked well
- What didn't work
- Recommendations for future
## Next Steps
- Additional optimization opportunities
- Monitoring improvements needed
- Follow-up schedule
Output: .aiwg/reports/optimization-summary.md
"""
)
```
3. **Archive Working Files**:
```
# You do this directly
Archive working files to: .aiwg/archive/{date}/performance-optimization/
```
**Communicate Progress**:
```
⏳ Generating final reports...
✓ SLO compliance validated: {PASS|PARTIAL|FAIL}
✓ Optimization summary: .aiwg/reports/optimization-summary.md
- Overall improvement: {X}%
- p95 latency: {before}ms → {after}ms
- Throughput: {before} → {after} RPS
```
## Quality Gates
Before marking workflow complete, verify:
- [ ] Performance baseline established with SLOs
- [ ] Bottlenecks identified and prioritized
- [ ] Optimizations implemented with measurements
- [ ] Load tests validate improvements
- [ ] SLO compliance validated
- [ ] ROI analysis completed
## User Communication
**At start**: Confirm understanding and list deliverables
```
Understood. I'll orchestrate the performance optimization flow.
This will analyze and optimize:
- Performance bottlenecks
- Database queries
- Code efficiency
- Infrastructure configuration
Deliverables:
- Performance baseline report
- Bottleneck analysis
- Optimization plan
- Load test results
- SLO compliance report
- Optimization summary with ROI
Expected duration: 20-30 minutes.
Starting optimization workflow...
```
**During**: Update progress with metrics
```
✓ = Complete
⏳ = In progress
📈 = Improvement measured
⚠️ = Issue found
```
**At end**: Summary with results
```
─────────────────────────────────────────────
Performance Optimization Complete
─────────────────────────────────────────────
**Overall Status**: SUCCESS
**SLO Compliance**: PASS
**Performance Improvements**:
- p95 Latency: 450ms → 180ms (-60%)
- Throughput: 500 → 1200 RPS (+140%)
- Error Rate: 2.1% → 0.3% (-86%)
**Key Optimizations**:
✓ Database: Added 3 indexes, query optimization
✓ Caching: Redis layer, 85% cache hit rate
✓ Code: Async processing, algorithm improvements
✓ Infrastructure: CDN, connection pooling
**ROI Analysis**:
- Development: 3 days
- Cost Impact: -$800/month (reduced instances)
- User Impact: Page loads 2.5x faster
**Artifacts Generated**:
- Performance baseline: .aiwg/reports/performance-baseline.md
- Bottleneck analysis: .aiwg/reports/bottleneck-analysis.md
- Optimization plan: .aiwg/planning/optimization-plan.md
- Load test results: .aiwg/testing/load-test-results.md
- SLO compliance: .aiwg/reports/slo-compliance.md
- Final summary: .aiwg/reports/optimization-summary.md
**Next Steps**:
- Monitor production metrics for 7 days
- Schedule follow-up optimization cycle in 30 days
- Consider implementing observability improvements
─────────────────────────────────────────────
```
## Error Handling
**If SLO Breach Critical**:
```
❌ Critical SLO breach detected
Metric: {metric}
Current: {value}
Target: {target}
Impact: {user/business impact}
Emergency optimization required:
1. Implement quick wins immediately
2. Consider rollback if regression
3. Escalate to stakeholders
Continuing with emergency optimization protocol...
```
**If Optimization Failed**:
```
⚠️ Optimization did not improve performance
Optimization: {description}
Expected: {X}% improvement
Actual: {Y}% degradation
Actions:
1. Rolling back change
2. Re-analyzing bottleneck
3. Trying alternative approach
Documenting in lessons learned...
```
**If Load Test Failure**:
```
❌ Load test failed
Test: {scenario}
Failure: {description}
Breaking point: {metric}
Impact:
- Cannot handle expected load
- SLO targets not achievable
Recommendations:
1. Infrastructure scaling required
2. Additional optimizations needed
3. Adjust SLO targets (with stakeholder approval)
```
## Success Criteria
This orchestration succeeds when:
- [ ] Performance baseline established with clear SLOs
- [ ] Top bottlenecks identified through profiling
- [ ] Prioritized optimizations implemented
- [ ] Load tests show measurable improvement
- [ ] SLOs met or improvement plan defined
- [ ] ROI analysis shows positive impact
## Metrics to Track
**During orchestration**:
- Optimization velocity: optimizations/day
- Performance improvement rate: % improvement/optimization
- Test coverage: % of critical paths tested
- SLO compliance rate: % of SLOs met
- Error budget consumption: before vs after
## References
**Templates** (via $AIWG_ROOT):
- SLI Card: `templates/deployment/sli-card.md`
- SLO Card: `templates/deployment/slo-card.md`
- Performance Profile: `templates/analysis-design/performance-profile-card.md`
- Load Test Plan: `templates/test/load-test-plan-template.md`
- Performance Test Card: `templates/test/performance-test-card.md`
- Option Matrix: `templates/intake/option-matrix-template.md`
**Related Flows**:
- `flow-monitoring-setup` - Establish observability
- `flow-incident-response` - Handle performance incidents
- `flow-capacity-planning` - Plan for scale
**External References**:
- Site Reliability Engineering (Google)
- High Performance Browser Networking (Ilya Grigorik)Related Skills
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