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Mitsuhiro Hayashibe

18 accepted papers

2026

Iterative Adversarial Learning With Chaser Agents for Time-Efficient Crowd-Aware Navigation

RA-L 2026

This paper addresses the challenge of safe and time-efficient crowd navigation for autonomous robots in dynamic environments. Existing methods struggle in scenarios with unpredictable or obstructive pedestrian behaviors. These limitations raise serious safety and efficiency concerns in real-world de

Cited by 0SourceScholar
2026

Language-Driven Multi-Task Manipulation With Action-Mask-Enhanced Multimodal Learning

RA-L 2026

For long-horizon multi-task robotic manipulation, hierarchical approaches provide an effective way to combine high-level language-based task planning with low-level vision-language based sub-task execution. Then, we propose a framework that integrates a two-stage task planner with a multimodal low-l

Cited by 0SourceScholar
2025

Concerted Control: Modulating Joint Stiffness Using GRF for Gait Generation At Different Speeds

RA-L 2025

This letter proposes a bio-inspired, simple, and easy-to-implement walking controller, termed <italic xmlns:mml="http://www.w3.org/1998/Math/MathML" xmlns:xlink="http://www.w3.org/1999/xlink">Concerted Control</i>, which leverages a shared common signal to coordinate movements across multiple joints

Cited by 3SourceScholar
2025

Two-stage Learning Framework Combining Joint-level Reinforcement Learning and Muscle-level Adaptation for Musculoskeletal Locomotion

IROS 2025

Animal musculoskeletal systems are renowned for their ability to dynamically regulate stiffness and achieve energy-efficient motion. Being inspired by the biological control structure, this study presents a hybrid control framework that utilizes two-stage learning processes for body movement plannin

Cited by 0SourceScholar
2024

AI-CPG: Adaptive Imitated Central Pattern Generators for Bipedal Locomotion Learned Through Reinforced Reflex Neural Networks

RA-L 2024

Humans have many redundancies in their bodies and can make effective use of them to adapt to changes in the environment while walking. They can also vary their walking speed in a wide range. Human-like walking in simulation or by robots can be achieved through imitation learning. However, the walkin

Cited by 21SourceScholar
2023

Learnable Tegotae-based Feedback in CPGs with Sparse Observation Produces Efficient and Adaptive Locomotion

ICRA 2023poster

Central Pattern generators (CPG) are a biologically inspired, decentralized control architecture that enables model-free, but yet adaptively stable and computational lightweight locomotion capabilities on complex robots. Nevertheless, no unified design guidelines for closed-loop CPG controllers are…

Cited by 3SourceScholar
2023

Morphological Characteristics That Enable Stable and Efficient Walking in Hexapod Robot Driven by Reflex-based Intra-limb Coordination

ICRA 2023poster

Insects exhibit adaptive walking behavior in an unstructured environment, despite having only an extremely small number of neurons (105 to 106). This suggests that not only the brain nervous system but also properties of the physical body, such as the morphological characteristics, play an essential…

Cited by 2SourceScholar
2022

Prediction of Whole-Body Velocity and Direction From Local Leg Joint Movements in Insect Walking via LSTM Neural Networks

RA-L 2022

Extracting motion information from videos is important for quantifying data from behavioral experiments to deepen the understanding of generation mechanisms of animal behavior. For insect walking, inter-leg coordination plays a crucial role, and the thorax-coxa (ThC) and femur-tibia (FTi) joint moti

Cited by 6SourceScholar
2021

Deep Reinforcement Learning Framework for Underwater Locomotion of Soft Robot

ICRA 2021poster

Soft robotics is an emerging technology with excellent application prospects. However, due to the inherent compliance of the materials used to build soft robots, it is extremely complicated to control soft robots accurately. In this paper, we introduce a data-based control framework for solving the…

Cited by 45SourceScholar
2021

Quantification of Joint Redundancy considering Dynamic Feasibility using Deep Reinforcement Learning

ICRA 2021poster

The robotic joint redundancy for executing a task and the optimal usage of robotic joints given the redundant degrees of freedom are crucial for the performance of a robot. It is therefore of interest to quantify the joint redundancy to better understand the robotic dexterity considering the dynamic…

Cited by 0SourceScholar
2020

Simultaneous Online Motion Discrimination and Evaluation of Whole-body Exercise by Synergy Probes for Home Rehabilitation

ICRA 2020poster

The development of algorithms for motion discrimination in home rehabilitation sessions poses numerous challenges. Recent studies have used the concept of synergies to discriminate a set of movements. However, the discrimination depends on the correlation of the reconstructed movement with the onlin…

Cited by 3SourceScholar
2019

Identification of Time-Varying and Time-Scalable Synergies From Continuous Electromyographic Patterns

RA-L 2019

Muscle synergies, which is the concept of modular activation of a set of muscles for producing complex motor behaviors, have been studied for a long time. Several definitions of muscle synergies have been proposed, and different algorithms have identified synergies in a large number of contexts. How

Cited by 10SourceScholar