Brain–computer interfaces have revolutionized the field of neuroscience by providing a
solution for paralyzed patients to control external devices and improve the quality of daily …

Implanted brain–computer interfaces (iBCIs) translate brain activity recorded intracranially
into commands for virtual or physical machines to restore or rehabilitate motor, sensory or …

Paralyzed muscles can be reanimated following spinal cord injury (SCI) using a brain-
computer interface (BCI) to enhance motor function alone. Importantly, the sense of touch is …

Objective. To evaluate the potential of intracortical electrode array signals for brain-computer
interfaces (BCIs) to restore lost speech, we measured the performance of decoders trained …

Intracortical brain–machine interfaces decode motor commands from neural signals and
translate them into actions, enabling movement for paralysed individuals. The subjective …

Objective. Brain-computer interfaces (BCIs) that record neural activity using intracortical
microelectrode arrays (MEAs) have shown promise for mitigating disability associated with …

Bioelectronic medicine is an evolving field in which new insights into the regulatory role of
the nervous system and new developments in bioelectronic technology result in novel …

Objective. Among the different approaches for denoising neural signals, wavelet-based
methods are widely used due to their ability to reduce in-band noise. All wavelet denoising …

Objective. Brain–machine interfaces (BMIs) seek to restore lost motor functions in individuals
with neurological disorders by enabling them to control external devices directly with their …

It is an exciting time for the expanding field of Bioelectronic Medicine. Ongoing innovative
preclinical research and development provide a rationale for studying new diagnostic and …