Subjects performed a memory-guided, double-saccade, outward-adaptation task designed to maximize visual adaptation and to dissociate the visual and motor corrections.
The present study aimed to identify brain functional abnormalities specifically related to motor response inhibition in mania by using event-related fMRI in combination with a Go/NoGo task designed to control for extraneous cognitive processes involved in task performance.
We aimed to clarify brain functional abnormalities related to motor response inhibition in schizophrenia by using event-related fMRI in combination with a Go NoGo task designed to control for non-inhibitory cognitive processes involved in task performance.
Method: One hundred 6- and 8-year-olds completed a battery of nine tasks designed to assess motor ability.
In the designed motor task, a trainee has to contact an approaching ball with a racket at the desired time to hit the target on the wall while predicting the behavior of the ball before and after the contact.
The skilled hand movement for the designed motor task was first determined using a set of results measured from four skilled subjects, and the primitive reference velocity profile with multiple peaks was successfully regenerated in a minimum-jerk model by utilizing the task-related constraints.
We examined the paw use of 42 domestic cats on three tasks designed to determine whether the animals performed asymmetrical motor behaviour.
Blood oxygen level-dependent (BOLD) contrast data from healthy volunteers performing a block design motor task and an event-related memory task requiring performance of a motor response were analyzed from the regions of interest (ROIs) surrounding the primary and supplementary motor cortices.
Based on these findings, we designed a functional MRI motor task that enabled us to contrast basic motor function (finger tapping) with higher motor control (internal response preparation and selection) (Michely et al., 2012; Hoffstaedter et al., 2013).
To examine the asymmetry of the involvement of the ipsilateral motor cortex during a unimanual motor task under frequency stress, we conducted block-design functional magnetic resonance imaging with 22 normal right-handed subjects.
The PMPD was designed so that the progress of the visual motor task would be immediately examined.
