The posterior parietal cortex (PPC) of humans and non-human primates plays a key role in
the sensory and motor transformations required to guide motor actions to objects of interest …

Interaction with a rapidly changing world relies on dynamically integrating sensory inflows
and motor outflows. Numerous studies have shed light on sensorimotor transformations in …

Brain–machine interfaces (BMIs) enable people living with chronic paralysis to control
computers, robots and more with nothing but thought. Existing BMIs have trade-offs across …

Brain–computer interfaces (BCIs) offer a potential means to replace or restore lost motor
function. However, BCI performance varies considerably between users, the reasons for …

A tradeoff exists when dealing with complex tasks composed of multiple steps. High-level
cognitive processes can find the best sequence of actions to achieve a goal in uncertain …

Reaching movements in the real world have typically a direction and a depth component.
Despite numerous behavioral studies, there is no consensus on whether reach coordinates …

It has been proposed that the posterior parietal cortex (PPC) is characterized by an effector-
specific organization. However, strikingly similar functional MRI (fMRI) activation patterns …

Area PE (Brodmann's area 5), located in the posterior parietal cortex (PPC), is involved in
the control of arm movements. Many monkey studies showed PE's involvement in reach …

Although the motor cortex has been found to be modulated by sensory or cognitive
sequences, the linkage between multiple movement elements and sequence-related …

While remarkable progress has been made in brain-machine interfaces (BMIs) over the past
two decades, it is still difficult to utilize neural signals to drive artificial actuators to produce …