Performance Benchmark

Benchmark Results: AADC is 40-64x Faster than JAX, PyTorch, and TensorFlow

Comprehensive independent benchmark comparing leading ML frameworks for quantitative finance and specialized machine learning applications.

43x
Faster than JAX with compilation
AADC: 0.166s vs JAX: 6.82s
64x
Faster when reusing kernels
Critical for real-time pricing

Popular machine learning tools like JAX, TensorFlow, and PyTorch have made significant strides in ML applications with small-scale computation graphs featuring large nodes. However, quantitative finance models are fundamentally different.

MatLogica AADC is a pioneering framework initially designed for quantitative finance workloads that also excels for certain machine learning use cases. AADC leverages advanced graph compilation techniques and enables automatic differentiation (backpropagation) to achieve remarkable performance gains over JAX, PyTorch, and TensorFlow.

Fundamental Architectural Differences

Why quantitative finance needs different optimization strategies

ML Models (LLMs, YOLO)

  • Fewer than 100 nodes in computation graphs
  • Large parameter matrices - tens of millions of parameters
  • Matrix operations dominate the workload
  • Examples: GPT-3 (175B parameters, ~128 layers), YOLO v8 for object detection

Quantitative Finance Models

  • Over 1,000 nodes in computation graphs (millions for XVA)
  • Scalar operations - discounting individual cashflows
  • Complex control flow and derivatives pricing logic
  • Frequent recompilation as portfolios change

The Compilation Time Problem

Both the compilation time of the valuation graph and the performance of the resulting code (kernel) are integral parts of the execution process. Graph compilation time is often neglected in academic benchmarks, resulting in promising test results that become unviable for production use in real-world derivatives pricing.

Benchmark Methodology and Test Configuration

Rigorous testing on realistic quantitative finance workloads

Test Case: Down-and-out European Call Option
Monte Carlo Paths: 50,000 paths
Time Steps: 500 time-steps
CPU: AMD Ryzen 5 7600X (6-Core/12-Thread)
Vector Extensions: AVX512
Test Year: 2024

This test case represents typical quantitative finance workloads requiring both speed and accuracy for derivatives pricing. When graph compilation time is considered (critical for real-world scenarios where portfolios change), MatLogica AADC delivers exceptional performance.

Benchmark Results

Performance comparison across all frameworks

Performance with Graph Compilation Included

Framework Time Comparison
MatLogica AADC 0.166 seconds Baseline (Fastest)
JAX 6.82 seconds 43x slower
PyTorch >6.82 seconds Significantly slower
TensorFlow >6.82 seconds Significantly slower

All measurements for 50,000 Monte Carlo paths with 500 time-steps

Performance benchmark chart

Figure 1: AADC Performance vs ML Frameworks

Kernel Reuse Performance

In quantitative finance applications, tasks such as derivatives pricing, live risk management, stress testing, VaR, and XVA calculations allow the compiled graph to be reused as calculations remain the same and only input parameters change.

When reusing kernels, MatLogica AADC outperforms JAX by 64x. This is particularly beneficial for financial simulations with many nodes performing smaller scalar computations.

AADC Applications

Quantitative finance and specialized machine learning

Quantitative Finance

  • Monte Carlo simulations for derivatives pricing
  • Live risk calculations and portfolio revaluation
  • Stress testing and VaR computations
  • XVA calculations (CVA, DVA, FVA)
  • Exotic derivatives pricing with stochastic local volatility

Machine Learning

  • Time series prediction with neural networks
  • Optimal control problems
  • Novel recurrent neuron synthesis
  • Neural networks with up to 50,000 parameters
  • Rapid candidate evaluation - 10M+ neurons

Academic Research with AADC

MatLogica AADC's superiority for specialized ML is demonstrated in academic papers by Prof. Roland Olsson, showing how automatic programming can synthesize novel recurrent neurons designed for specific tasks:

AADC enables evaluation of approximately 10 million candidate neurons for each dataset, allowing researchers to automatically develop new neuron architectures delivering better accuracies than Transformers or LSTMs. This rapid screening cannot be achieved using JAX or PyTorch.

Why AADC Outperforms ML Frameworks

Technical advantages for quantitative finance workloads

Fast Graph Compilation

Critical for changing portfolios and real-time pricing scenarios where recompilation is frequent

AVX512 Exploitation

Full hardware optimization for modern CPUs with advanced vector extensions

Multi-threading Support

Safe parallel execution for maximum performance on multi-core systems

NumPy Compatibility

Supports well-known NumPy ufuncs for native Python integration

Mixed Language Graphs

Compile computation graphs written in mix of C++ and Python

Automatic Differentiation

Full backpropagation support for gradient calculations

Conclusions

The future of quantitative computing

As the demand for fast computations grows in quantitative finance and specialized ML applications, AADC provides a solution that outperforms popular best-in-class ML frameworks by orders of magnitude (40-64x) without requiring learning new programming languages or extensive code refactoring.

Performance Advantages

  • 43x faster than JAX with compilation
  • 64x faster when reusing kernels
  • 100x+ potential for exotic derivatives with stochastic local volatility
  • Sub-second pricing for real-time risk management

Integration Benefits

  • No new language required - use existing C++ or Python
  • Compatible with existing libraries
  • Fast deployment without extensive refactoring
  • Production ready for enterprise use

Download Full Benchmark Report

The complete benchmark report with detailed methodology, additional test cases, and full source code is available for download.

Experience 40-64x Performance Gains

See how AADC can transform your quantitative finance or machine learning workloads with dramatic performance improvements over JAX, PyTorch, and TensorFlow.

Source code available on request for independent verification