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Deep Q-network for social robotics using emotional social signals
José Pedro R Belo1, Helio Azevedo2, Josué J G Ramos2
1Computer Science Department, Institute of Mathematics and Computer Science, University of São Paulo, São Carlos, Brazil.
This study introduces a Deep Reinforcement Learning system for social robots to autonomously adapt behavior based on human emotional states. The SocialDQN architecture enables robots to learn socially acceptable interactions by processing facial cues.
Area of Science:
- Robotics
- Artificial Intelligence
- Human-Robot Interaction
Background:
- Social robots require sophisticated interaction capabilities beyond pre-programmed responses.
- Current methods often overlook human emotional states, a crucial aspect of social cues.
- Developing autonomous social robots necessitates learning and adapting to human emotional feedback.
Purpose of the Study:
- To develop a Deep Reinforcement Learning (DRL) system for social robots to autonomously decide on appropriate behaviors based on human emotional states.
- To enhance human-robot interaction by enabling robots to perceive and react to human emotions.
- To create a novel DRL architecture, Social Robotics Deep Q-Network (SocialDQN), for socially intelligent robot behavior.
Main Methods:
- Utilized Deep Reinforcement Learning (DRL), combining Reinforcement Learning (RL) and Deep Learning (DL).
- Proposed the Social Robotics Deep Q-Network (SocialDQN) architecture for robot behavior learning.
- Extracted human emotional states from facial characteristics for robot perception, validated using the SimDRLSR simulator.
Main Results:
- The developed DRL system successfully learned to maximize rewards.
- The SocialDQN architecture enabled the robot to exhibit socially acceptable behavior.
- The system demonstrated satisfactory learning performance in simulated social interactions.
Conclusions:
- DRL is effective for creating social robots that can learn and adapt to human emotional states.
- The SocialDQN architecture provides a viable method for teaching robots socially appropriate responses.
- Integrating emotional state recognition significantly improves robot perception and interaction quality.
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