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Hiroshi Ito

9 accepted papers

2025

UF-RNN: Real-Time Adaptive Motion Generation Using Uncertainty-Driven Foresight Prediction

IROS 2025

Training robots to operate effectively in environments with uncertain states—such as ambiguous object properties or unpredictable interactions—remains a longstanding challenge in robotics. Imitation learning methods typically rely on successful examples and often neglect failure scenarios where unce

Cited by 1SourceScholar
2024

3D Space Perception via Disparity Learning Using Stereo Images and an Attention Mechanism: Real-Time Grasping Motion Generation for Transparent Objects

RA-L 2024

Object grasping in 3D space is crucial for robotic applications. Such tasks are performed by utilizing depth map data acquired from RGB-D images or 3D point cloud data. However, these methods struggle when dealing with transparent objects, as transparency limits sensor performance when predicting de

Cited by 2SourceScholar
2024

Real-time Coordinated Motion Generation: A Hierarchical Deep Predictive Learning Model for Bimanual Tasks

IROS 2024poster

Robots that autonomously operate in human living environments require the ability to adapt to unpredictable changes and flexibly handle a variety of tasks. Particularly, coordinated bimanual motions are essential for enabling tasks that are difficult with just one hand, such as grasping bulky object…

Cited by 1SourceScholar
2023

Modality Attention for Prediction-Based Robot Motion Generation: Improving Interpretability and Robustness of Using Multi-Modality

RA-L 2023

We developed a modality attention motion generation model on the basis of multi-modality prediction. This model provides interpretability about modality usage and demonstrates robustness against disturbances. We used a hierarchical model consisting of low-level recurrent neural networks (RNNs) for p

Cited by 8SourceScholar
2023

Multimodal Time Series Learning of Robots Based on Distributed and Integrated Modalities: Verification with a Simulator and Actual Robots

ICRA 2023poster

We have developed an autonomous robot motion generation model based on distributed and integrated multimodal learning. Since each modality used as a robot's senses, such as image, joint angle, and torque, has a different physical meaning and time characteristic, the generation of autonomous motions…

Cited by 8SourceScholar
2023

Visual Spatial Attention and Proprioceptive Data-Driven Reinforcement Learning for Robust Peg-in-Hole Task Under Variable Conditions

RA-L 2023

Anchor-bolt insertion is a peg-in-hole task performed in the construction field for holes in concrete. Efforts have been made to automate this task, but the variable lighting and hole surface conditions, as well as the requirements for short setup and task execution time make the automation challeng

Cited by 31SourceScholar
2022

Contact-Rich Manipulation of a Flexible Object based on Deep Predictive Learning using Vision and Tactility

ICRA 2022poster

We achieved contact-rich flexible object manipulation, which was difficult to control with vision alone. In the unzipping task we chose as a validation task, the gripper grasps the puller, which hides the bag state such as the direction and amount of deformation behind it, making it difficult to obt…

Cited by 31SourceScholar
2022

Deep Active Visual Attention for Real-Time Robot Motion Generation: Emergence of Tool-Body Assimilation and Adaptive Tool-Use

RA-L 2022

Sufficiently perceiving the environment is a critical factor in robot motion generation. Although the introduction of deep visual processing models have contributed in extending this ability, existing methods lack in the ability to actively modify what to perceive; humans perform internally during v

Cited by 13SourceScholar
2022

Integrated Learning of Robot Motion and Sentences: Real-Time Prediction of Grasping Motion and Attention based on Language Instructions

ICRA 2022poster

We propose a motion generation model that can achieve robust behavior against environmental changes based on language instructions at a low cost. Conventional robots that communicate with humans use a restricted environment and language to build up a mapping between language and motion, and thus nee…

Cited by 13SourceScholar