Reinforcement Learning in Non-Stationary Environments
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Abstract (arXiv)
Reinforcement learning (RL) methods learn optimal decisions in the presence of a stationary environment. However, the stationary assumption on the environment is very restrictive. In many real world problems like traffic signal control, robotic applications, one often encounters situations with non-stationary environments and in these scenarios, RL methods yield sub-optimal decisions. In this paper, we thus consider the problem of developing RL methods that obtain optimal decisions in a non-stationary environment. The goal of this problem is to maximize the long-term discounted reward achieved when the underlying model of the environment changes over time. To achieve this, we first adapt a change point algorithm to detect change in the statistics of the environment and then develop an RL algorithm that maximizes the long-run reward accrued. We illustrate that our change point method detects change in the model of the environment effectively and thus facilitates the RL algorithm in maximizing the long-run reward. We further validate the effectiveness of the proposed solution on non-stationary random Markov decision processes, a sensor energy management problem and a traffic signal control problem.
Key facts. Cited by 10 papers in the map (data through 14 Oct 2026). First posted on arXiv 10 May 2019.
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Citing papers per year: 2020: 1; 2021: 2; 2022: 5; 2023: 2.
10 papers.
- 2020Lipschitzness Is All You Need To Tame Off-policy Generative Adversarial Imitation Learningcited by 15
- 2021Continual Learning In Environments With Polynomial Mixing Timescited by 14
- 2022RAPid-Learn: A Framework for Learning to Recover for Handling Novelties in Open-World Environmentscited by 13
- 2022Reinforcement Learning in Presence of Discrete Markovian Context Evolutioncited by 9
- 2022Reactive Exploration to Cope with Non-Stationarity in Lifelong Reinforcement Learningcited by 9
- 2021AdaPool: A Diurnal-Adaptive Fleet Management Framework using Model-Free Deep Reinforcement Learning and Change Point Detectioncited by 4
- 2023Off-Policy Evaluation for Action-Dependent Non-Stationary Environmentscited by 2
- 2022Non-Parametric Stochastic Policy Gradient with Strategic Retreat for Non-Stationary Environmentcited by 0
- 2022Reinforcement Learning with Brain-Inspired Modulation can Improve Adaptation to Environmental Changescited by 0
- 2023Simple Noisy Environment Augmentation for Reinforcement Learningcited by 0
- 2023Simple Noisy Environment Augmentation for Reinforcement Learning4 May 2023
- 2023Off-Policy Evaluation for Action-Dependent Non-Stationary Environments24 Jan 2023
- 2022Reactive Exploration to Cope with Non-Stationarity in Lifelong Reinforcement Learning12 Jul 2022
- 2022RAPid-Learn: A Framework for Learning to Recover for Handling Novelties in Open-World Environments24 Jun 2022
- 2022Reinforcement Learning with Brain-Inspired Modulation can Improve Adaptation to Environmental Changes19 May 2022
- 2022Non-Parametric Stochastic Policy Gradient with Strategic Retreat for Non-Stationary Environment24 Mar 2022
- 2022Reinforcement Learning in Presence of Discrete Markovian Context Evolution14 Feb 2022
- 2021Continual Learning In Environments With Polynomial Mixing Times13 Dec 2021
- 2021AdaPool: A Diurnal-Adaptive Fleet Management Framework using Model-Free Deep Reinforcement Learning and Change Point Detection1 Apr 2021
- 2020Lipschitzness Is All You Need To Tame Off-policy Generative Adversarial Imitation Learning28 Jun 2020