Hardware-accelerated low-latency trading infrastructure
Open-source Verilog/VHDL components for building FPGA-based trading systems. Implements market data parsing, order book management, and strategy execution with sub-microsecond latency. Designed for Xilinx/Intel FPGAs with PCIe and 10G/100G Ethernet support.
- Protocol Decoders: Hardware parsers for FIX/ITCH/OUCH protocols.
- Tick-to-Order Book: Real-time aggregation of price/volume data.
- Order State Machine: Cancel/replace logic with 16ns latency (simulated).
- Risk Controls: Pre-trade checks (e.g., position limits) in hardware.
- Arbitrage: Cross-exchange latency optimizations.
- TWAP/VWAP: Time-weighted execution with RTL reference designs.
| Component | Recommended Specs |
|---|---|
| FPGA Board | Xilinx Alveo U50 / Intel Stratix 10 MX |
| Networking | Solarflare X2522 NIC (10G/100G) |
| Host CPU | Linux kernel ≥5.4 (with PREEMPT_RT) |
- Install Icarus Verilog:
sudo apt install iverilog gtkwave
- Run testbench:
cd sim/itch_parser && make simulate
- Synthesis(Incase of a Physical FPGA):
vivado -mode batch -source scripts/synth_zynq.tcl
For comprehensive trading system simulation without hardware:
-
Quick Start:
cd fpga_simulation python3 simple_example.py -
Full Simulation Setup:
cd fpga_simulation make setup make simulate -
Performance Testing:
cd fpga_simulation make benchmark
- Hardware-accurate timing: Sub-microsecond latency modeling
- Multiple trading strategies: Arbitrage, market making, TWAP/VWAP
- Real-time market data: Configurable tick rates and protocols
- Performance analysis: Latency statistics and throughput metrics
- Risk management: Position limits and pre-trade checks
=== Simulation Results ===
Total trades: 15,420
Average latency: 45.2 ns
P99 latency: 128.5 ns
Throughput: 1.2M orders/sec
For hardware-level simulation with virtual FPGA simulators:
-
Install Dependencies:
# Ubuntu/Debian sudo apt install iverilog gtkwave verilator # macOS brew install icarus-verilog gtkwave verilator
-
Run HDL Simulations:
cd hdl_simulation make all # Run all tests make iverilog # Icarus Verilog tests make verilator # Verilator tests
-
Automated Testing:
cd hdl_simulation ./run_simulation.py --simulator both -
Waveform Analysis:
make wave # View with GTKWave
- Open-source simulators: Icarus Verilog and Verilator support
- Comprehensive testbenches: Market data, order management, strategies
- C++ co-simulation: High-performance Verilator integration
- Performance benchmarking: Latency and throughput analysis
- Automated testing: Regression suite and CI/CD ready
- Docker environment: Reproducible simulation setup
- ✅ Market data processing (ITCH/FIX protocols)
- ✅ Order management and execution
- ✅ Trading strategy engines
- ✅ Risk management systems
- ✅ End-to-end integration testing
- ✅ Performance characterization
=== HDL Simulation Results ===
Market Data Latency: 16-32 ns
Order Processing: 32-64 ns
End-to-End Latency: 64-128 ns
Throughput: 1M+ orders/sec
Clock Frequency: 250 MHz
- Interactive Dashboard: Streamlit-based real-time monitoring
- Web Interface: Flask-based monitoring with WebSocket support
- Performance Profiler: Comprehensive performance analysis
- GPU-FPGA Bridge: Hybrid acceleration pipeline
- Protocol Support: NASDAQ ITCH 5.0, FIX 4.4, OUCH 4.2
- Realistic Timing: Hardware-accurate latency simulation
- Burst Testing: High-frequency stress testing
- Statistical Analysis: Comprehensive performance metrics
cd fpga_simulation
make dashboard
# Opens at http://localhost:8501cd fpga_simulation
make web-monitor
# Opens at http://localhost:5000cd fpga_simulation
make profiler
# Generates comprehensive performance reportscd fpga_simulation
make gpu-bridge
# Tests hybrid acceleration pipeline- GPU Acceleration: CuPy/CUDA integration for batch processing
- Protocol Simulation: Binary protocol parsing and generation
- Performance Analytics: Statistical analysis and reporting
- Load Testing: Configurable stress testing scenarios
- Real-time Alerts: Performance threshold monitoring
For detailed documentation on advanced features, see Advanced Tools Guide.
- Report Issues: Use GitHub Issues for bugs/feature requests.
- Development Flow:
- Branch naming: feat/itch-parser or fix/orderbook-bug.
- PRs require:
- Passing testbench simulations.
- Synthesis reports for target FPGAs.