AI-DRIVEN DV01 HEDGING OPTIMIZATION VIA NEURAL SURROGATE MODELING AND STRUCTURED LEAST-SQUARES ACCELERATION

An AI-assisted framework for accelerating DV01-based interest-rate hedging is presented. Classical bumpand-revalue DV01 computation is computationally intensive when applied to large portfolios or complex pricing engines. The proposed framework integrates a neural operator surrogate for DV01 prediction and a graph neural network (GNN) for learning sparsity patterns in the DV01 matrix. A trust-region reflective (TRF) least-squares solver then exploits surrogate DV01 evaluations and learned sparsity to reduce computational cost while preserving the original hedging formulation. A controlled numerical experiment is further conducted to compare the baseline TRF solver and the proposed hybrid AI-LS method. The results highlight substantial reductions in runtime while maintaining hedging accuracy.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-12-09
DOI
https://doi.org/10.5281/zenodo.17865314
Primary Topic
Stochastic processes and financial applications
Type
article
Field-Weighted Citation Impact
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article

AI-DRIVEN DV01 HEDGING OPTIMIZATION VIA NEURAL SURROGATE MODELING AND STRUCTURED LEAST-SQUARES ACCELERATION

Zenodo (CERN European Organization for Nuclear Research)
Stochastic processes and financial applications
article

AI-DRIVEN DV01 HEDGING OPTIMIZATION VIA NEURAL SURROGATE MODELING AND STRUCTURED LEAST-SQUARES ACCELERATION

article en

Abstract

An AI-assisted framework for accelerating DV01-based interest-rate hedging is presented. Classical bumpand-revalue DV01 computation is computationally intensive when applied to large portfolios or complex pricing engines. The proposed framework integrates a neural operator surrogate for DV01 prediction and a graph neural network (GNN) for learning sparsity patterns in the DV01 matrix. A trust-region reflective (TRF) least-squares solver then exploits surrogate DV01 evaluations and learned sparsity to reduce computational cost while preserving the original hedging formulation. A controlled numerical experiment is further conducted to compare the baseline TRF solver and the proposed hybrid AI-LS method. The results highlight substantial reductions in runtime while maintaining hedging accuracy.

Zenodo (CERN European Organization for Nuclear Research)
Jining Normal University (CN)
Openalex Percentile: Top 32%
Stochastic processes and financial applications
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