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Effects of Magnitude and Phase Cues on Human Motor Adaptation

Robotic Exoskeletons for Upper Extremity Rehabilitation

Haptic Interfaces

Principles of human-machine interfaces and interactions

Negative Efficacy of Fixed Gain Error Reducing Shared Control for Training in Virtual Environments

Passive and Active Discrimination of Natural Frequency of Virtual Dynamic System

Improved Haptic Fidelity via Reduced Sampling Period with an FPGA-Based Real-Time Hardware Platform

Motor Skill Acquisition and Motion Analysis in Robot-assisted Surgery

Our goals in this research project are to determine the significance of performance of inanimate tasks as a marker for robotic proficiency and assess the utility of inanimate task training on robotic skill performance.  We aim to establish standardized tasks for training, define accurate metrics for performance, and assess motor skill acquisition in virtual and real environments.

Origins of Intermittency in Slow Movements

It has been reported in the literature that the smoothness of human subjects' arm/hand movements vanishes as the movements become slower. Intermittencies in the movement are observed as distinct peaks in the speed profile. Doeringer and Hogan (1998) proposed two possibilities for the origin of intermittency in slow movements: (1) noise in neuromuscular circuitry, and (2) a movement planner that can only construct simple movements. They showed that the intermittency can not be due to noise or delays in visual feedback.

Tendon Vibration for Inducing Consistent and Controllable Proprioceptive Illusions

Vibrating muscle tendons at a range of frequencies is known to produce movement illusions in human subjects. Although there are examples in the literature on the use of vibrators to transmit simple cues such as direction information, movement illusions due to vibration have not been utilized as a method of providing illusory kinesthetic feedback. One possible main application is artificial proprioception for prosthetic devices.

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Mechatronics and Haptic Interfaces Lab at Rice University

Mechanical Engineering Department, MS 656, 713-348-2300
Bioscience Research Collaborative 980, Houston, TX 77030