Developing Mathematical Models for Analyzing Financial Market Dynamics Using Partial Differential Equation"

In this paper we investigated the applications of partial differential equations (PDEs) in modeling financial market dynamics, with a focus on [Specify a focus, e.g., stochastic volatility option pricing, interest rate derivative modeling]. By leveraging the power of PDEs, we aim to provide a more accurate and robust framework for [Specify the goal, e.g., pricing complex derivatives, assessing market risk]. We explore the limitations of traditional models, such as the Black-Scholes equation, and examine advanced PDE-based models that incorporate [Specify key factors, e.g., jump-diffusion processes, fractional Brownian motion]. Numerical methods are employed to solve these PDEs, and the results are analyzed to demonstrate their effectiveness in capturing real-world market behavior. The findings contribute to a deeper understanding of financial market dynamics and provide valuable insights for risk management and investment strategies.

Authors

Publication Details

Journal
Journal of research in applied mathematics.
Published
2025-05-01
DOI
https://doi.org/10.35629/0743-11054652
Citations
1
Primary Topic
Complex Systems and Time Series Analysis
Type
article
Field-Weighted Citation Impact
3.13
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article

Developing Mathematical Models for Analyzing Financial Market Dynamics Using Partial Differential Equation"

Sofyan Ebrahim Abdou A, Ahmed Adel D Hassan Kubba
1 citations
Journal of research in applied mathematics.
Complex Systems and Time Series Analysis
3.13
article

Developing Mathematical Models for Analyzing Financial Market Dynamics Using Partial Differential Equation"

Sofyan Ebrahim Abdou A, Ahmed Adel D Hassan Kubba
article en
1 citations

Abstract

In this paper we investigated the applications of partial differential equations (PDEs) in modeling financial market dynamics, with a focus on [Specify a focus, e.g., stochastic volatility option pricing, interest rate derivative modeling]. By leveraging the power of PDEs, we aim to provide a more accurate and robust framework for [Specify the goal, e.g., pricing complex derivatives, assessing market risk]. We explore the limitations of traditional models, such as the Black-Scholes equation, and examine advanced PDE-based models that incorporate [Specify key factors, e.g., jump-diffusion processes, fractional Brownian motion]. Numerical methods are employed to solve these PDEs, and the results are analyzed to demonstrate their effectiveness in capturing real-world market behavior. The findings contribute to a deeper understanding of financial market dynamics and provide valuable insights for risk management and investment strategies.

Journal of research in applied mathematics.Vol. 11(5)
Openalex Percentile: Top 8%
Complex Systems and Time Series Analysis
3.13
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