We investigate the performance of the Deep Hedging framework under training paths beyond the (finite dimensional) Markovian setup. In particular, we analyse the hedging performance of the original architecture under rough volatility models in view of existing theoretical results for those. Furthermore, we suggest parsimonious but suitable network architectures capable of capturing the non-Markoviantity of time-series. We also analyse the hedging behaviour in these models in terms of Profit and Loss (P&L) distributions and draw comparisons to jump diffusion models if the rebalancing frequency is realistically small
Rough volatility models have brought a breeze of fresh air into financial modelling, which historica...
Using techniques from deep learning, we show that neural networks can be trained successfully to rep...
The quadratic rough Heston model provides a natural way to encode Zumbach effect in the rough volati...
We investigate the performance of the Deep Hedging framework under training paths beyond the (finite...
We present a method for finding optimal hedging policies for arbitrary initial portfolios and market...
The availability of deep hedging has opened new horizons for solving hedging problems under a large ...
We present a method for finding optimal hedging policies for arbitrary initial portfolios and market...
In this thesis, we develop machine learning frameworks that are suitable for algorithmic trading, wh...
This work studies the deep learning-based numerical algorithms for optimal hedging problems in marke...
Models trained under assumptions in the complete market usually don't take effect in the incomplete ...
Automated asset trading is a crucial method used by financial entities such as investment firms or h...
Is there an informational gain by training a Deep Reinforcement Learning agent for automated stock t...
Existing hedging strategies are typically based on specific financial models: either the strategies ...
While most generative models tend to rely on large amounts of training data, here Hans Buehler et al...
Deep reinforcement learning (DRL) has achieved significant results in many machine learning (ML) ben...
Rough volatility models have brought a breeze of fresh air into financial modelling, which historica...
Using techniques from deep learning, we show that neural networks can be trained successfully to rep...
The quadratic rough Heston model provides a natural way to encode Zumbach effect in the rough volati...
We investigate the performance of the Deep Hedging framework under training paths beyond the (finite...
We present a method for finding optimal hedging policies for arbitrary initial portfolios and market...
The availability of deep hedging has opened new horizons for solving hedging problems under a large ...
We present a method for finding optimal hedging policies for arbitrary initial portfolios and market...
In this thesis, we develop machine learning frameworks that are suitable for algorithmic trading, wh...
This work studies the deep learning-based numerical algorithms for optimal hedging problems in marke...
Models trained under assumptions in the complete market usually don't take effect in the incomplete ...
Automated asset trading is a crucial method used by financial entities such as investment firms or h...
Is there an informational gain by training a Deep Reinforcement Learning agent for automated stock t...
Existing hedging strategies are typically based on specific financial models: either the strategies ...
While most generative models tend to rely on large amounts of training data, here Hans Buehler et al...
Deep reinforcement learning (DRL) has achieved significant results in many machine learning (ML) ben...
Rough volatility models have brought a breeze of fresh air into financial modelling, which historica...
Using techniques from deep learning, we show that neural networks can be trained successfully to rep...
The quadratic rough Heston model provides a natural way to encode Zumbach effect in the rough volati...