~/wiki

90+ Experiments

Confiance : high
90-experimentssystematic-experimentationflash-moeoptimization-methodologyai-human-collaboration24-hour-developmentquantization-analysisperformance-benchmarkingqwen3.5-397btechnical-validation

Systematic experimentation methodology demonstrated in the flash-moe project, where over 90 optimization experiments were conducted within a 24-hour-development cycle. Represents a structured approach to technical optimization through ai-human-collaboration.

Experimental Scope

The 90+ experiments encompassed multiple optimization dimensions:

Quantization Strategies:

  • 4-bit vs 2-bit expert quantization
  • Different quantization algorithms and settings
  • Trade-offs between model size and quality

Performance Optimization:

  • fma-kernels implementation variants
  • Metal shader optimization approaches
  • Memory management strategies

Architecture Variants:

Methodology

Systematic Exploration:

  • Structured parameter space exploration
  • Quantitative validation of each approach
  • Documentation of both successes and failures

Rapid Iteration:

  • Quick experiment turnaround enabled by AI assistance
  • Automated benchmarking and validation
  • Continuous refinement based on results

Quality Validation:

Key Findings

The experimental process revealed:

  • Quality Cliff: Sharp degradation at 2-bit quantization affecting JSON formatting
  • FMA Optimization: Measurable performance improvement (3.90 → 4.36 tok/s)
  • Storage Trade-offs: 209GB (4-bit) vs 120GB (2-bit) with quality implications

Innovation Value

The systematic experimental approach enabled:

  • Comprehensive Optimization: Thorough exploration of solution space
  • Evidence-Based Decisions: Quantitative basis for technical choices
  • Documented Learning: Reusable insights from failed experiments
  • Breakthrough Performance: Results exceeding individual optimization attempts

Implications

90+ experiments in 24 hours suggests:

  • AI-human collaboration can dramatically accelerate experimentation
  • Systematic approaches can compress traditional R&D timelines
  • Comprehensive validation is possible within compressed development cycles
  • Failed experiments provide valuable learning when properly documented

See also