A hybrid wavelet-based physics-informed neural network for portfolio management
Bahadur Yadav, Mahaprasad Mohanty, Ratikanta Behera, Sanjay Kumar Mohanty

TL;DR
This paper introduces a hybrid wavelet-based physics-informed neural network framework tailored for portfolio management, effectively modeling jump-diffusion processes and offering high accuracy and robustness in derivative pricing under market uncertainties.
Contribution
The paper develops a novel HW-PINN framework adapted to the Merton jump-diffusion model, incorporating efficient FFT-based computation and a simplified optimization strategy for improved derivative pricing.
Findings
Achieves a mean relative error of 0.27% in low jump scenarios
Demonstrates high accuracy and robustness across market conditions
Provides insights into downside risk via VaR and CVaR analysis
Abstract
In this paper, we present a Hybrid Wavelet-based Physics-Informed Neural Networks (HW-PINNs) framework for portfolio management that provides a promising alternative to Physics-Informed Neural Networks (PINNs). Here, we first discuss the generalized framework of the Merton jump diffusion model and the associated HW-PINNs, followed by the one-dimensional case of a European option. Our work adapts the HW-PINN framework to the Merton jump-diffusion model for a European option, using a simplified direct coefficient optimization strategy, a mathematically corrected log-space formulation, and an efficient FFT -based computation of the integro-differential operator. Through numerical experiments across realistic market scenarios, we show that our proposed model achieves high accuracy and robustness, with a mean relative error of 0.27\% in low jump intensity scenarios compared to high-fidelity…
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Taxonomy
TopicsModel Reduction and Neural Networks · Stochastic Gradient Optimization Techniques · Stochastic processes and financial applications
