Computational neuroscience provides powerful methodologies to address one of the greatest scientific challenges of our time: understanding how the nervous system controls behavior. Models of the nervous system allow for exploring the roles of neural circuits in sensory processing, cognition, behavior generation, and motor control. However, understanding how the nervous system controls behavior is impossible without the consideration of the body it evolved to function within. Embodiment addresses this critical aspect by closing the perception-action loop through real-world physical interactions. Robotics and physics-simulators effectively help bridge this gap by providing physical embodiment to computational neural models, facilitating tangible interactions with the environment. Furthermore, biological neural circuits have evolved to develop robust solutions to challenges that closely parallel those in robotics, including motor learning, adaptation to novel settings, robust locomotion, and navigation in complex environments. Harnessing solutions refined over millions of years of evolution, thus, holds immense potential to inspire the next breakthroughs in robotics.
This workshop at IROS 2025 brings together roboticists leveraging computational neuroscience to address robotics challenges and neuroscientists using robots to study neural function. Unlike previous related events, this workshop introduces cutting-edge approaches in neuroAI, neuromorphic engineering, embodied neural computation, and bio-inspired robotics to enhance the real-world applicability and robustness of robotic systems. The workshop promotes interdisciplinary collaboration, advancing fundamental understanding in neuroscience while simultaneously fostering innovative, bio-inspired solutions to contemporary robotic challenges.
| Time | Title | Speaker |
|---|---|---|
| 9:00 | Welcome presentation | - |
| 9:05 | Dissecting Spinal Locomotor Circuit Function through Neuromechanical and Robotic Embodiment | Simon Danner (online), Drexel University |
| 9:25 | In roboto: Understanding soft-bodied neuromechanics using robotic models | Victoria Webster-Wood (online), Carnegie Mellon University |
| 9:45 | Learning from Human Dyads: Embedded Strategies for Physical Adaptation in Human–Robot Collaboration | Tadej Petric, Jožef Stefan Institute |
| 10:05 | Hierarchical Learning Framework for Humanoid Robot Control | Koji Ishihara, ATR Computational Neuroscience Laboratories |
| 10:30 | Coffee Break | - |
| 11:00 | The Age of Large Language Models: Whither Brain-Inspired Intelligence? | Yansong Chua, CNAEIT |
| 11:20 | Increasing agility of insect robots through body shape morphing | Heiko Kabutz (online), University of Colorado Boulder |
| 11:40 | Proprioception and State Encoding in Soft Robots exploiting Fluids | Nana Obayashi (online), EPFL - New York University |
| 12:00 | Using robots to understand the insect brain | Barbara Webb (online), University of Edinburgh |
With consent from speakers, we will record the workshop and make the video available to the public. Check back for more information.