Field-programmable gate array (FPGA) is an ideal technology for addressing the massive computational requirements and high operational costs associated with derivatives portfolio and risk management services within financial institutions. In the past, these pricing and risk management groups utilized simplified models to reduce the computational load. However, evolving regulations now specify that the pricing models in risk analytics workloads, such as Comprehensive Capital Analysis and Review (CCAR) and Fundamental Review of the Trading Book (FRTB), should closely emulate and even duplicate sophisticated front office trading models.
Typically, risk management groups run a multitude of risk scenarios that entail thousands of risk factors on huge derivatives portfolios. With millions of risk calculations, financial organizations have invested in large compute farms to process the required risk analysis, typically overnight. Such hardware infrastructures tend to be slow and are expensive to operate given the high energy consumption.
To help accelerate these massive computational requirements many financial institutions have implemented parallel computing solutions. While useful, these solutions have typically ignored the high energy consumption associated with compute farms.
Benefits of FPGA Technology
• Performance improvements typically comparable to GPU-enabled models
• Deterministic latency provides consistent performance
• Significant reduction in operational costs relative to both CPUs and GPUs through lower energy usage
FPGA Provides Significant Acceleration at a Fraction of the Energy Consumption
FPGA accelerated derivative pricing and risk models provide significant performance acceleration (typically comparable to GPU-enabled models) at a fraction of the energy consumption, resulting in reduced power and cooling costs. In addition, FPGA offers deterministic latency, which means no jitter and predictable reaction times, thereby reducing variations in performance.
SciComp’s team of numerical experts has worked closely with top tier practitioners around the globe implementing derivatives pricing and risk management solutions. SciComp’s Xilinx trained quantitative development team, provides expert, cost-effective FPGA programming services for any Monte Carlo based pricing, scenario generation or risk simulation model.
Equity Linked Structured Note Valued Using Monte Carlo Simulation
Key Model Features
- Correlated Heston stochastic volatility processes
- Continuous barrier monitoring via a continuity correction
- Optional redemption
Key Performance Metrics
- Performance (paths per second) Per unit of currency (USD) and Performance per unit of power (mW)
- Based on Recommended Customer Price (RCP) in USD
- CPU/GPU power estimate is based on 80% of Thermal Design Power (TDP)
- FPGA power estimate is based on a post-route and placement analysis.
- CPU: Intel Xeon E5-2673 v4 (Intel Parallel Studio XE 2019)
- GPU: Nvidia V100 16GB PCIe (CUDA 10.1)
- FPGA: Xilinx Alveo U200 (SDAccel 2018.3)
- Operating system: Ubuntu 16.04 LTS