Optimizing Game Strategies with Deep Reinforcement Learning: A Framework for Intelligent Decision-Making
Year: 2024
Type: conference-paper
Abstract: In order to succeed, teams need strategies that play to their strengths while also being flexible enough to respond to unexpected challenges. Improving game strategy through intelligent decision-making under pressure is possible with the help of the novel and fascinating deep reinforcement learning (DRL) technology. As their names suggest, deep reinforcement learning (DRL) agents thrive in dynamic, unpredictable environments. In order to determine the most effective one, they conduct a myriad of tests. This might be accomplished by combining reinforcement learning with deep neural networks. The purpose of this research is to find out how sports strategy and other game strategies might benefit from dynamic response learning (DRL). This happens because players become distracted because they are tired, hurt, or suffering from mental pain. So, here are a few ways: Agents can adapt their optimization strategies with moss growth optimization (MGO) as the game demands. Modifying a few settings in the Deep Soft Actor-Critic (SAC) model should solve the problem. In order to overcome these obstacles and enhance sports tactical tactics procedures, some provide DRL innovative optimization. This hypothesis was tested by scientists using NBA data. Following minmax's cleaning and normalization of the data, we identified features. The suggested approach enhances sports techniques more effectively, according to NBA statistics. Significant DRL challenges in games are the focus of this research. Stability throughout training, accurate sampling, and limiting of state area are all ensured by them. To further the state of the art in intelligent game design, this project seeks to build a framework for optimizing strategies across different types of games.
Authors: Mahaveerakannan R, Hemavathi R, Cuddapah Anitha, Dinesh Goyal, Pankaj Dadheech
Language: English
Subfield: Artificial Intelligence
Field: Computer Science
Domain: Physical Sciences
Open Access status: hybrid
OpenAlex ID: W4413915554