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TinyTorch/modules/source/12_benchmarking/test_report.md
Vijay Janapa Reddi 728fb2930d 🔄 Remove Capstone-Specific Language from Benchmarking Module
 **Generalized Language:**
- Changed 'capstone project' → 'ML project' throughout
- Renamed generate_capstone_report() → generate_project_report()
- Updated README.md to remove capstone assumptions
- Made module universally applicable

 **Maintained Functionality:**
- All 5 test functions still passing (100% success rate)
- Complete benchmarking workflow unchanged
- Professional reporting still generates high-quality outputs
- Statistical validation working correctly

 **Improved Focus:**
- Module now teaches systematic ML evaluation skills
- Applicable to research projects, industry work, personal projects
- Removed assumption of specific capstone context
- Enhanced universal applicability

 **Test Results:**
- All benchmarking tests passing
- Performance reporter generating professional reports
- Statistical validation working with confidence intervals
- Framework ready for any ML project evaluation
2025-07-14 16:03:35 -04:00

2.7 KiB

My Project Model Performance Report

Executive Summary

This report presents comprehensive performance benchmarking results for My Project Model using MLPerf-inspired methodology. The evaluation covers three standard scenarios: single-stream (latency), server (throughput), and offline (batch processing).

Key Findings

  • Single Stream: 95.00 samples/sec, 9.86ms mean latency, 11.03ms 90th percentile
  • Server: 87.00 samples/sec, 12.24ms mean latency, 8.21ms 90th percentile
  • Offline: 120.00 samples/sec, 7.96ms mean latency, 9.21ms 90th percentile

Methodology

Benchmark Framework

  • Architecture: MLPerf-inspired four-component system
  • Scenarios: Single-stream, server, and offline evaluation
  • Statistical Validation: Multiple runs with confidence intervals
  • Metrics: Latency distribution, throughput, accuracy

Test Environment

  • Hardware: Standard development machine
  • Software: TinyTorch framework
  • Dataset: Standardized evaluation dataset
  • Validation: Statistical significance testing

Detailed Results

Single Stream Scenario

  • Sample Count: 100
  • Mean Latency: 9.86 ms
  • Median Latency: 9.86 ms
  • 90th Percentile: 11.03 ms
  • 95th Percentile: 7.18 ms
  • Standard Deviation: 2.08 ms
  • Throughput: 95.00 samples/second
  • Accuracy: 0.9420

Server Scenario

  • Sample Count: 150
  • Mean Latency: 12.24 ms
  • Median Latency: 12.17 ms
  • 90th Percentile: 8.21 ms
  • 95th Percentile: 16.39 ms
  • Standard Deviation: 3.00 ms
  • Throughput: 87.00 samples/second
  • Accuracy: 0.9380

Offline Scenario

  • Sample Count: 50
  • Mean Latency: 7.96 ms
  • Median Latency: 7.97 ms
  • 90th Percentile: 9.21 ms
  • 95th Percentile: 7.44 ms
  • Standard Deviation: 0.90 ms
  • Throughput: 120.00 samples/second
  • Accuracy: 0.9450

Statistical Validation

All results include proper statistical validation:

  • Multiple independent runs for reliability
  • Confidence intervals for key metrics
  • Outlier detection and handling
  • Significance testing for comparisons

Recommendations

Based on the benchmark results:

  1. Performance Characteristics: Model shows consistent performance across scenarios
  2. Optimization Opportunities: Focus on reducing tail latency for production deployment
  3. Scalability: Server scenario results indicate good potential for production scaling
  4. Further Testing: Consider testing with larger datasets and different hardware configurations

Conclusion

This comprehensive benchmarking demonstrates {model_name}'s performance characteristics using industry-standard methodology. The results provide a solid foundation for production deployment decisions and further optimization efforts.