News & Topics
- 10th Oct 2016
Director Seki gave a speech at IROS 2016(Korea).
- 4th Oct 2016
Hiroshi Yamada (Now at Tsukuba Univ)'s papar as to the method to identify area 3a of nonhuman primate using local field potentials has been published at Plos One.
- 1st-3rd Sep 2016
Lab members presented research results at the 10th Japanese Society for Motor Control.
- 16th Aug 2016
Director Seki gave a speech at the 38th Annual International Conference of the IEEE Engineering in Medicine and Biology Society.
- 20th-22nd July 2016
Lab members presented research results at the 39th Annual Meeting of the Japan Neuroscience Society.
- 6th May 2016
Nobuko Ohtani-san joined us.
- 1st April 2016
Akiyo KAWANOBE-san joined us.
Our research focuses on the control of hand and arm movement by the brain and spinal cord. Multiple muscles needed to be activated in appropriate patterns for executing intended behaviors. How are these motor patterns generated? Every behavior generates abundant sensory flow that activates cells in the central nervous system. How does the brain and spinal cord translate this sensory information into the command for upcoming movements? We are applying a multidisciplinary approach to these questions. We record the activity of individual neurons, multiple neurons, localized groups of neurons (local field potentials), and the activity of many skeletal muscles in behaving macaque monkeys during performance of different motor behaviors. Neuron recordings are done in conjunction with stimulation and correlational techniques to identify inputs and outputs. Neurophysiological approaches of this kind will allow us to describe the mechanism of sensory-motor transformation at a cellular level. Along with basic research, we are also attempting to restore arm and finger movements by stimulating the spinal cord. Developing a chronically implantable electrode and appropriate patterns of stimulation will allow people with spinal injuries to generate naturalistic movements of their own limb. Finally, we are developing new genetic tools to address clinically challenging questions. Generating a genetically-manipulated monkey may allow us to understand the mechanisms of many neurological disorders from cellular to behavioral levels. Application of optogenetic technology in the primate brain may allow us to manipulate abnormal brain activity with finer resolution.