RFRL Gym: A Reinforcement Learning Testbed for Cognitive Radio Applications
Abstract
Radio Frequency Reinforcement Learning (RFRL) is anticipated to be a widely applicable technology in the next generation of wireless communication systems, particularly 6G and next-gen military communications. Given this, our research is focused on developing a tool to promote the development of RFRL techniques that leverage spectrum sensing. In particular, the tool was designed to address two cognitive radio applications, specifically dynamic spectrum access and jamming. In order to train and test reinforcement learning (RL) algorithms for these applications, a simulation environment is necessary to simulate the conditions that an agent will encounter within the Radio Frequency (RF) spectrum. In this paper, such an environment has been developed, herein referred to as the RFRL Gym. Through the RFRL Gym, users can design their own scenarios to model what an RL agent may encounter within the RF spectrum as well as experiment with different spectrum sensing techniques. Additionally, the RFRL Gym is a subclass of OpenAI gym, enabling the use of third-party ML/RL Libraries. We plan to open-source this codebase to enable other researchers to utilize the RFRL Gym to test their own scenarios and RL algorithms, ultimately leading to the advancement of RL research in the wireless communications domain. This paper describes in further detail the components of the Gym, results from example scenarios, and plans for future additions. Index Terms-machine learning, reinforcement learning, wireless communications, dynamic spectrum access, OpenAI gym
Keywords
Cite
@article{arxiv.2401.05406,
title = {RFRL Gym: A Reinforcement Learning Testbed for Cognitive Radio Applications},
author = {Daniel Rosen and Illa Rochez and Caleb McIrvin and Joshua Lee and Kevin D'Alessandro and Max Wiecek and Nhan Hoang and Ramzy Saffarini and Sam Philips and Vanessa Jones and Will Ivey and Zavier Harris-Smart and Zavion Harris-Smart and Zayden Chin and Amos Johnson and Alyse M. Jones and William C. Headley},
journal= {arXiv preprint arXiv:2401.05406},
year = {2024}
}