Research
- Research Proposals
- 本書の紹介(マサチューセッツ工科大学出版)
- 麻省理工学院出版社关于本书的介绍
- Projects
- The ShanghAI Lectures
- Embryogenetic Evolution: From Simulations to Robotic Applications
- From Morphology to Functionality
- Programmable Artificial Cell Evolution
- Compound Macroscale Structures
- From Locomotion to Cognition
- LOCOMORPH
- ECCEROBOT
- EU Cog II
- OCTOPUS
- Open Positions
- "Cheap" Rapid Legged Locomotion
- Dynamical Coupling in Motor-Sensory Function Substitution
- Open Student Projects
- Research strands
- DREAM
- Tribolon: Scalable Self-Assembly Robots
- Under-water Locomotion
- RobotCub
- Book: How the Body Shapes the Way We Think
- Book: 知能の原理 ―身体性に基づく構成論的アプローチ―
- Book: 身体的智能-- 智能科学新视角
- Oktopus
| Dynamical Coupling in Motor-Sensory Function Substitution |
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Investigating the relationship between morphology, intrinsic body dynamics, information structure generation through coordinated sensory-motor activities and learning. In collaboration with the Developmental Cognitive Machines Lab. at the University of Tokyo (Prof. Hiroshi Yokoi), we have developed a prosthetic robotic hand inspired by the muscle tendon system of the human hand. The robotic hand has 13 degrees of freedom, and each finger has been equipped with different types of sensors (i.e., flex/bend, angle, and pressure). In this project, we use the robotic hand to investigate the relationship between morphology, intrinsic body dynamics, generation of information structure through sensorimotor coordinated activity, and learning. We have implemented biologically inspired learning mechanism to allow the robotic hand to explore its own movement capabilities. Moreover, by correlating the sensory input as a result of its motor outputs, the robotic hand can learn to manipulate and grasp objects by itself. The same robotic hand has been used as a prosthetic device. EMG signals can be used to interface the robot hand non-invasively to a patient and electrical stimulation can be used as a substitute for tactile feedback. The goal of this project is the development of a prosthetic hand for motor-sensory function substitution which is dynamically coupled to an amputee’s sensor and motor control system. The hand will be based on EMG signals and various types of sensory feedback. By carefully investigating human upper limb dynamics and by taking into account morphological and material properties of assistive devices we hope to develop a scheme by which patients quickly learn to control the hand with less and less cognitive awareness by the user. The main researchers involved in the project are: Prof. This e-mail address is being protected from spambots. You need JavaScript enabled to view it , Prof. This e-mail address is being protected from spambots. You need JavaScript enabled to view it , Prof. Robert Riener, Dr. Gabriel Gomez, Dr. Alejandro Hernandez, Konstantinos Dermitzakis and Dana Damian.
Student Projects In this project we have a couple of students projects, ranging from making new classification algorithms to construct novel sensors and hardware mechanisms. Currently we have the following students projects:
for more information please contact: Dr. Alejandro Hernandez ( This e-mail address is being protected from spambots. You need JavaScript enabled to view it )
Stay tuned :) |

