Crowdsourcing eHMI Designs: A Participatory Approach to Autonomous Vehicle-Pedestrian Communication (RO-MAN 2025)

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We recently explored how crowdsourcing platforms can be used to design external Human–Machine Interfaces (eHMIs) for autonomous vehicles (AVs). These interfaces are key for helping AVs communicate clearly with pedestrians.

🪧Paper: [Proceedings are not published yet]
📌Venue: 34th IEEE International Conference on Robot and Human Interactive Communication (RO-MAN), Eindhoven, NL, 2025

Enabling Symbiosis in Multi-Robot Systems via MARL (ICPS 2025)

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We present a CTDE value-decomposition MARL scheme that shares only battery state to induce symbiotic coordination in warehouse robots. In long-horizon delivery with charger contention, it cuts completion time by about 10.7% and reduces task and energy imbalance by about 13.8% compared with non-symbiotic baselines.

🪧Paper: Enabling Symbiosis in Multi-Robot Systems Through Multi-Agent Reinforcement Learning
📌Venue: IEEE 8th International Conference on Industrial Cyber-Physical Systems (ICPS), Emden, Germany, 2025.

Investigating Symbiosis in Robotic Ecosystems (ICRAS 2025)

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We introduce a symbiosis-guided reward shaping approach for MARL in heterogeneous multi-robot systems. On
high-dimensional tasks (ShadowHand object passing, mobile manipulation), mutualistic rewards improve training stability and reduce variance compared with standard rewards.

🪧Paper: Investigating Symbiosis in Robotic Ecosystems: A Case Study for Multi-Robot Reinforcement Learning Reward Shaping
📌Venue: 9th International Conference on Robotics and Automation Sciences (ICRAS), Osaka, Japan, 2025.
💻Code: RewMARL

Optimal Gait Control for a Tendon-driven Soft Quadruped Robot by Model-based Reinforcement Learning (ICRA 2025)

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We first learn a DNN surrogate of the robot’s dynamics from Simscape trajectories, then train SAC on the surrogate for speed, and finally run post-training on Simscape to close the sim-to-real gap. A parametric gait space (trot) and an inverse-kinematics mapping reduce actions from 12 motor commands to 4 gait parameters per step, cutting exploration of infeasible motions.

🪧Paper: [Proceedings are not published yet]
📌Venue: IEEE International Conference on Robotics and Automation (ICRA), Atlanta, USA, 2025
💻Code: KTH-MasterThesis