Phase 3: Resource Management - 4 plan(s) in 2 wave(s) - 2 parallel, 2 sequential - Ready for execution
6.7 KiB
phase, plan, type, wave, depends_on, files_modified, autonomous, user_setup, must_haves
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| 03-resource-management | 03 | execute | 2 |
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Purpose: Enable Mai to anticipate resource constraints and scale models proactively while maintaining smooth user experience. Output: Proactive scaling system with hybrid monitoring, graceful degradation, and intelligent stabilization.
<execution_context>
@/.opencode/get-shit-done/workflows/execute-plan.md
@/.opencode/get-shit-done/templates/summary.md
</execution_context>
Enhanced components from previous plans
@src/models/resource_monitor.py @src/resource/tiers.py
Research-based scaling patterns
@.planning/phases/03-resource-management/03-RESEARCH.md
Implement ProactiveScaler class src/resource/scaling.py Create the ProactiveScaler class implementing hybrid monitoring and proactive scaling:-
Hybrid Monitoring Architecture:
- Continuous background monitoring thread/task
- Pre-flight checks before each model operation
- Resource trend analysis with configurable windows
- Performance metrics tracking (response times, failure rates)
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Proactive Scaling Logic:
- Scale at 80% resource usage (configurable per tier)
- Consider overall system load context
- Implement stabilization periods (5 minutes for upgrades)
- Prevent thrashing with hysteresis
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Graceful Degradation Cascade:
- Complete current task at lower quality
- Switch to smaller model after completion
- Notify user of capability changes
- Suggest resource optimizations
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Key Methods:
- start_continuous_monitoring(): Background monitoring loop
- check_preflight_resources(): Quick validation before operations
- analyze_resource_trends(): Predictive scaling decisions
- initiate_graceful_degradation(): Controlled capability reduction
- should_upgrade_model(): Check if resources allow upgrade
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Integration Points:
- Use enhanced ResourceMonitor for accurate metrics
- Use HardwareTierDetector for tier-specific thresholds
- Provide callbacks for model switching
- Log scaling decisions with context
Include proper async handling for background monitoring and thread-safe state management. python -c "from src.resource.scaling import ProactiveScaler; ps = ProactiveScaler(); print('ProactiveScaler initialized:', hasattr(ps, 'check_preflight_resources'))" confirms the class structure ProactiveScaler implements hybrid monitoring with graceful degradation
Integrate proactive scaling into ModelManager src/models/model_manager.py Enhance ModelManager to integrate proactive scaling:-
Add ProactiveScaler Integration:
- Import and initialize ProactiveScaler in init
- Start continuous monitoring on initialization
- Pass resource monitor and tier detector references
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Enhance generate_response with Proactive Scaling:
- Add pre-flight resource check before generation
- Implement graceful degradation if resources constrained
- Use proactive scaling recommendations for model selection
- Track performance metrics for scaling decisions
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Update Model Selection Logic:
- Incorporate tier-based preferences
- Use scaling thresholds from HardwareTierDetector
- Factor in trend analysis predictions
- Apply stabilization periods for upgrades
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Add Resource-Constrained Handling:
- Complete current response with smaller model if needed
- Switch models proactively based on scaling predictions
- Handle resource exhaustion gracefully
- Maintain conversation context through switches
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Performance Tracking:
- Track response times and failure rates
- Monitor resource usage during generation
- Feed metrics back to ProactiveScaler
- Adjust scaling behavior based on observed performance
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Cleanup and Shutdown:
- Stop continuous monitoring in shutdown()
- Clean up scaling state and resources
- Log scaling decisions and outcomes
Ensure backward compatibility and maintain silent switching behavior per Phase 1 decisions. python -c "from src.models.model_manager import ModelManager; mm = ModelManager(); print('Proactive scaling integrated:', hasattr(mm, '_proactive_scaler'))" confirms integration ModelManager integrates proactive scaling for intelligent resource management
Test proactive scaling behavior under various scenarios: - Gradual resource increase (should detect and upgrade after stabilization) - Sudden resource decrease (should immediately degrade gracefully) - Stable resource usage (should not trigger unnecessary switches) - Mixed workload patterns (should adapt scaling thresholds appropriately)Verify stabilization periods prevent thrashing and graceful degradation maintains user experience.
<success_criteria> ProactiveScaler successfully combines continuous monitoring with pre-flight checks, implements graceful degradation cascades, respects stabilization periods, and integrates seamlessly with ModelManager for intelligent resource management. </success_criteria>
After completion, create `.planning/phases/03-resource-management/03-03-SUMMARY.md`