Inferensys

Service

Derivatives Pricing AI Solutions

Development of neural network-based models for pricing complex OTC derivatives and calculating XVA adjustments (CVA, DVA, FVA) faster than traditional Monte Carlo simulations, improving hedge effectiveness and capital efficiency.
ML engineer developing custom LLM, model architecture diagrams on screens, technical deep work environment.
DERIVATIVES PRICING AI SOLUTIONS

The Computational Bottleneck in Modern Derivatives Trading

Replace slow Monte Carlo simulations with neural network models for real-time pricing and XVA adjustments.

Traditional methods for pricing complex OTC derivatives and calculating XVA adjustments (CVA, DVA, FVA) are computationally prohibitive, creating a critical bottleneck. Monte Carlo simulations can take hours, delaying trading decisions and hedge execution.

Our neural network-based models deliver pricing results in milliseconds, not hours, enabling real-time risk management and capital efficiency.

  • Faster Time-to-Price: Deploy models that price exotic options and structured products up to 1000x faster than traditional Monte Carlo methods.
  • Improved Hedge Effectiveness: Calculate accurate Greeks and sensitivities in real-time for dynamic hedging strategies.
  • Capital Optimization: Accurately compute capital-intensive XVA metrics on-demand to optimize balance sheet usage.
  • Seamless Integration: Models built with PyTorch or TensorFlow integrate directly into your existing quant libraries and risk systems.
DELIVERING MEASURABLE IMPACT

Quantifiable Business Outcomes

Our derivatives pricing AI solutions are engineered to deliver specific, measurable improvements in capital efficiency, risk management, and operational speed. We focus on outcomes you can track and report.

01

Accelerated Pricing & Hedging

Deploy neural network-based models that price complex OTC derivatives and calculate XVA adjustments (CVA, DVA, FVA) up to 1000x faster than traditional Monte Carlo simulations, enabling real-time hedging decisions and improved capital efficiency.

1000x
Faster than Monte Carlo
< 100ms
Pricing Latency
02

Enhanced Capital Optimization

Improve hedge effectiveness and reduce capital reserves by leveraging more accurate, real-time risk sensitivities (Greeks) from our AI models. Directly impacts regulatory capital calculations under frameworks like FRTB.

15-30%
Capital Efficiency Gain
Real-time
Sensitivity Updates
04

Operational Cost Reduction

Significantly lower compute costs by replacing high-frequency Monte Carlo simulations on expensive hardware with efficient, inference-optimized neural networks, while maintaining or exceeding pricing accuracy.

60-80%
Compute Cost Savings
Cloud/On-Prem
Deployment Flexibility
05

Integration with Existing Risk Systems

Seamlessly integrate AI pricing engines into your existing front-office trading and middle-office risk systems (e.g., Murex, Calypso, proprietary platforms) via robust APIs, ensuring minimal disruption.

4-8 weeks
Typical Integration
REST/gRPC
API Standards
Structured Implementation for Risk-Sensitive Environments

Phased Development and Delivery Timeline

Our proven, phased approach to developing and deploying neural network-based derivatives pricing solutions ensures rapid value delivery, rigorous validation, and seamless integration with your existing risk systems.

Phase & Key DeliverablesTimelineCore ActivitiesClient Involvement

Phase 1: Discovery & Model Design

1-2 Weeks

Requirements workshop, data pipeline audit, initial architecture design for XVA models

Key stakeholder interviews, data access provisioning

Phase 2: Data Pipeline & Prototype

2-3 Weeks

Build secure data ingestion, train initial pricing model prototype, establish validation benchmarks

Review prototype outputs, provide domain feedback on model assumptions

Phase 3: Core Model Development

3-4 Weeks

Develop production-grade neural networks for OTC derivatives, integrate with Monte Carlo benchmarks, implement explainability (XAI) layers

Weekly review sessions, validation against internal pricing libraries

Phase 4: Integration & Back-Testing

2-3 Weeks

API integration with risk systems (e.g., Murex, Calypso), rigorous historical back-testing, performance optimization for sub-second inference

UAT environment testing, performance sign-off, security review

Phase 5: Deployment & Knowledge Transfer

1-2 Weeks

Production deployment, monitoring dashboard setup, comprehensive documentation and training for quant teams

Go/No-Go decision, internal team training, support handover

Total Project Timeline

8-12 Weeks

End-to-end delivery of a validated, integrated AI pricing system

Continuous collaboration via dedicated project channel

Ongoing Support & ModelOps

Post-Launch

Performance monitoring, model retraining pipelines, quarterly model validation reports

Optional SLA for 99.9% uptime and dedicated support

PRECISION ENGINEERING

Our Development Methodology

We build deterministic, high-performance derivatives pricing systems using a rigorous, four-phase process designed for quant teams and risk managers. Our methodology ensures models are production-ready, auditable, and deliver measurable improvements in capital efficiency and hedge effectiveness.

01

Quantitative Problem Framing & Data Strategy

We begin by co-defining the precise pricing objective—whether for complex OTC exotics, XVA adjustments, or real-time Greeks—and architecting the data pipeline. This includes sourcing and structuring clean market data, historical volatility surfaces, and counterparty risk factors, ensuring the foundation supports neural network training without data leakage.

Client Value: Eliminates costly rework by aligning technical execution with business requirements from day one.

02

Model Architecture & Prototype Development

Our quants and ML engineers design and prototype custom neural architectures—such as PDE-solving networks or attention-based models for path-dependent options—tailored to your specific derivative book. We rigorously benchmark against traditional Monte Carlo and finite difference methods to validate speed and accuracy gains.

Client Value: Delivers a working prototype in 2-3 weeks, providing tangible proof of concept and a clear path to production.

03

High-Performance Engineering & Integration

We engineer the model for low-latency inference, optimizing for GPU/TPU acceleration and integrating with your existing risk systems (Murex, Calypso, proprietary platforms) via secure APIs. This phase includes building robust calibration loops and real-time market data connectors.

Client Value: Achieves inference speeds 10-100x faster than traditional simulations, enabling intraday risk rebalancing and more effective hedging.

04

Validation, Explainability & Production Deployment

Every model undergoes rigorous back-testing, stress testing across extreme market scenarios, and implementation of Explainable AI (XAI) frameworks to meet model risk management (SR 11-7) and audit requirements. We manage the full deployment lifecycle with comprehensive monitoring dashboards.

Client Value: Ensures regulatory compliance and model trustworthiness, providing full audit trails for risk committees and reducing validation cycle time.

Derivatives Pricing AI

Frequently Asked Questions

Get specific answers about our neural network-based derivatives pricing solutions, from deployment timelines to model validation.

Our neural network models are trained to approximate the pricing function of complex derivatives, learning from high-fidelity Monte Carlo simulations. Once trained, they deliver pricing and XVA (CVA, DVA, FVA) calculations up to 1,000x faster than traditional methods, with accuracy within a pre-defined tolerance (e.g., 1-5 bps). This enables real-time risk assessment and more dynamic hedging strategies.

Prasad Kumkar

About the author

Prasad Kumkar

CEO & MD, Inference Systems

Prasad Kumkar is the CEO & MD of Inference Systems and writes about AI systems architecture, LLM infrastructure, model serving, evaluation, and production deployment. Over 5+ years, he has worked across computer vision models, L5 autonomous vehicle systems, and LLM research, with a focus on taking complex AI ideas into real-world engineering systems.

His work and writing cover AI systems, large language models, AI agents, multimodal systems, autonomous systems, inference optimization, RAG, evaluation, and production AI engineering.