Deep-MKV-TS: Path-Dependent McKean--Vlasov Control for Financial Time Series Generation
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Abstract (arXiv)
We introduce Deep-MKV-TS, a path-dependent McKean-Vlasov framework for financial scenario generation. The stochastic dynamics are chosen by matching selected path and volatility features of generated scenarios to those observed in the data. Starting from an interpretable reference model, Deep-MKV-TS preserves the reference drift and adjusts its volatility, while a regularization penalty limits unnecessary departures from the calibrated dynamics. We solve the resulting control problem using a neural, sample-based implementation of the stochastic maximum principle. We validate the method against an exactly computable oracle. On Heston and Heston-mixture models, Deep-MKV-TS substantially reduces path-dependent and volatility-related deficiencies of the reference model. In delayed-volatility experiments, the correction remains effective as the forecasting horizon increases, while direct training becomes less reliable. On held-out intraday equity-index futures, the corrected model improves conditional forecasts relative to the reference and reaches a level of performance comparable to flexible generative and historical baselines. The resulting scenarios also support greater exposure than the reference under a fixed drawdown-risk target. These results show that path-dependent McKean-Vlasov control can enrich an interpretable reference model without replacing it.
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References · 13
- 2021Neural SDEs as Infinite-Dimensional GANscited by 159
- 2019Quant GANs: Deep Generation of Financial Time Seriescited by 107
- 2021Sig-Wasserstein GANs for Time Series Generationcited by 60
- 2022Deep Latent State Space Models for Time-Series Generationcited by 37
- 2023A mean-field games laboratory for generative modelingcited by 28
- 2023Generative modeling for time series via Schr"odinger bridgecited by 18
- 2025Robust time series generation via Schr"odinger Bridge: a comprehensive evaluationcited by 7
- 2024Optimal Execution with Reinforcement Learningcited by 5
- 2025Reinforcement Learning in Queue-Reactive Models: Application to Optimal Executioncited by 2
- 2026Schr"odinger bridge with transport relaxationcited by 2
- 2024Entropic Semi-Martingale Optimal Transportcited by 1
- 2026SBBTS: A Unified Schr"odinger-Bass Framework for Synthetic Financial Time Seriescited by 1
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- 2026Diffusion Models for Adaptive Sequential Data Generationcited by 1
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