Bridging the Gap Between Markowitz Planning and Deep Reinforcement Learning

E. Benhamou, D. Saltiel, Sandrine Ungari, Abhishek Mukhopadhyay
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引用次数: 14

Abstract

While researchers in the asset management industry have mostly focused on techniques based on financial and risk planning techniques like Markowitz efficient frontier, minimum variance, maximum diversification or equal risk parity , in parallel, another community in machine learning has started working on reinforcement learning and more particularly deep reinforcement learning to solve other decision making problems for challenging task like autonomous driving , robot learning, and on a more conceptual side games solving like Go. This paper aims to bridge the gap between these two approaches by showing Deep Reinforcement Learning (DRL) techniques can shed new lights on portfolio allocation thanks to a more general optimization setting that casts portfolio allocation as an optimal control problem that is not just a one-step optimization, but rather a continuous control optimization with a delayed reward. The advantages are numerous: (i) DRL maps directly market conditions to actions by design and hence should adapt to changing environment , (ii) DRL does not rely on any traditional financial risk assumptions like that risk is represented by variance, (iii) DRL can incorporate additional data and be a multi inputs method as opposed to more traditional optimization methods. We present on an experiment some encouraging results using convolution networks.
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弥合马科维茨计划和深度强化学习之间的差距
虽然资产管理行业的研究人员主要关注基于财务和风险规划技术的技术,如马科维茨有效边界、最小方差、最大多样化或等风险等值,与此同时,机器学习领域的另一个社区已经开始研究强化学习,尤其是深度强化学习,以解决其他具有挑战性的任务的决策问题,如自动驾驶、机器人学习、还有更概念化的游戏,比如围棋。本文旨在弥合这两种方法之间的差距,通过展示深度强化学习(DRL)技术可以为投资组合分配提供新的亮点,这要归功于更一般的优化设置,将投资组合分配作为最优控制问题,而不仅仅是一步优化,而是具有延迟奖励的连续控制优化。DRL的优势有很多:(i) DRL直接将市场条件映射到设计的行动上,因此应该适应不断变化的环境;(ii) DRL不依赖于任何传统的金融风险假设,比如风险是由方差表示的;(iii) DRL可以纳入额外的数据,是一种多输入方法,而不是更传统的优化方法。我们在一个实验中给出了一些使用卷积网络的令人鼓舞的结果。
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