Financial Mathematics and AI-Driven Predictive Models

Report on Current Developments in Financial Mathematics and AI-Driven Predictive Models

General Direction of the Field

The field of financial mathematics, particularly in the context of option pricing and volatility prediction, is witnessing a significant shift towards the integration of advanced AI methodologies. This trend is driven by the need for more accurate and data-efficient models that can handle the complexities inherent in financial markets, such as non-linear payoffs, stochastic paths, and the scarcity of high-quality data. Recent developments are characterized by the fusion of traditional financial models with deep learning techniques, resulting in hybrid models that leverage the strengths of both approaches.

One of the key innovations is the incorporation of transfer learning and data augmentation techniques to enhance the performance of neural networks under data scarcity. This is particularly relevant for American option pricing, where the determination of optimal exercise times and the modeling of non-linear payoffs pose significant challenges. The use of physically constrained neural networks, informed by jump diffusion processes, is another notable advancement, as it allows for a more accurate capture of the leptokurtosis in log return distributions.

In the realm of cryptocurrency price prediction, there is a growing emphasis on the fusion of hard and soft information sources. This approach, which combines historical price data and technical indicators with sentiment analysis from social media, is proving to be highly effective in capturing the influence of social sentiment on price fluctuations. The integration of bidirectional long short-term memory (BiLSTM) models with sentiment analysis tools like FinBERT is a promising direction that enhances the accuracy of price movement forecasts.

Volatility prediction, a critical aspect of risk management, is also benefiting from the adoption of hybrid models that combine GARCH models with deep learning techniques. These GARCH-informed neural networks (GINNs) are demonstrating superior performance in out-of-sample predictions, offering a more accurate measure of risk in financial markets.

Noteworthy Innovations

  • Jump Diffusion-Informed Neural Networks with Transfer Learning: This framework significantly advances American option pricing by integrating nonlinear optimization, numerical data augmentation, and physically constrained neural networks, showing superior performance in pricing deep out-of-the-money options.

  • Multi-Source Hard and Soft Information Fusion Approach: This novel approach for cryptocurrency price prediction, combining technical analysis with sentiment analysis from social media, achieves high accuracy (96.8%) in predicting Bitcoin price movements.

  • GARCH-Informed Neural Networks (GINNs): These hybrid models outperform traditional time series models in volatility prediction, offering a more accurate measure of risk in financial markets.

  • KAN-based Option Pricing (KANOP) Model: This data-efficient option pricing model leverages Kolmogorov-Arnold Networks to provide more reliable estimates of American-style option values, particularly in complex scenarios involving multiple input variables.

Sources

Jump Diffusion-Informed Neural Networks with Transfer Learning for Accurate American Option Pricing under Data Scarcity

Multi-Source Hard and Soft Information Fusion Approach for Accurate Cryptocurrency Price Movement Prediction

GARCH-Informed Neural Networks for Volatility Prediction in Financial Markets

KANOP: A Data-Efficient Option Pricing Model using Kolmogorov-Arnold Networks

On the expressiveness and spectral bias of KANs

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