To be correctly mastered, brain-computer interfaces (BCIs) need an uninterrupted flow of feedback to the user. This feedback is usually delivered through the visual channel. Our aim was to explore the benefits of vibrotactile feedback during users' training and control of EEG-based BCI applications. A protocol for delivering vibrotactile feedback, including specific hardware and software arrangements, was specified. In three studies with 33 subjects (including 3 with spinal cord injury), we compared vibrotactile and visual feedback, addressing: (I) the feasibility of subjects' training to master their EEG rhythms using tactile feedback; (II) the compatibility of this form of feedback in presence of a visual distracter; (III) the performance...
International audienceMotor-Imagery based Brain Computer Interfaces (MI-BCIs) allow users to interac...
EEG-based brain computer interfaces (BCI) allow users to communicate with the outside world directly...
International audienceWe are developing a brain-computer interface integrating visual and vibrotacti...
Brain-Computer Interfaces (BCIs) need an uninterrupted flow of feedback to the user, which is usuall...
Controlling a brain-actuated device requires the participant to look at and to split his attention b...
Controlling a device via a brain-computer interface (BCI) requires the participant to look and to sp...
Brain–computer interfaces (BCI) often rely on visual stimulation and feedback. Potential end-users w...
Tactile feedback has the capability of reducing the workload on the visual channel, during visual fe...
Motor-Imagery based Brain Computer Interfaces (MI-BCIs) allow users to interact with computers by im...
International audienceMotor-Imagery based Brain Computer Interfaces (MI-BCIs) allow users to interac...
International audienceBy performing motor-imagery tasks, for example, imagining hand movements, Moto...
Feedback plays an important role when learning to use a brain computer interface (BCI), particularly...
Brain-Computer Interface (BCI) systems establish a direct communication channel from the brain to an...
Brain Computer Interfaces (BCIs) rely on the user's brain activity to control equipment or computer ...
A brain-computer interface (BCI) translates task-related brain activity into computer commands. Dete...
International audienceMotor-Imagery based Brain Computer Interfaces (MI-BCIs) allow users to interac...
EEG-based brain computer interfaces (BCI) allow users to communicate with the outside world directly...
International audienceWe are developing a brain-computer interface integrating visual and vibrotacti...
Brain-Computer Interfaces (BCIs) need an uninterrupted flow of feedback to the user, which is usuall...
Controlling a brain-actuated device requires the participant to look at and to split his attention b...
Controlling a device via a brain-computer interface (BCI) requires the participant to look and to sp...
Brain–computer interfaces (BCI) often rely on visual stimulation and feedback. Potential end-users w...
Tactile feedback has the capability of reducing the workload on the visual channel, during visual fe...
Motor-Imagery based Brain Computer Interfaces (MI-BCIs) allow users to interact with computers by im...
International audienceMotor-Imagery based Brain Computer Interfaces (MI-BCIs) allow users to interac...
International audienceBy performing motor-imagery tasks, for example, imagining hand movements, Moto...
Feedback plays an important role when learning to use a brain computer interface (BCI), particularly...
Brain-Computer Interface (BCI) systems establish a direct communication channel from the brain to an...
Brain Computer Interfaces (BCIs) rely on the user's brain activity to control equipment or computer ...
A brain-computer interface (BCI) translates task-related brain activity into computer commands. Dete...
International audienceMotor-Imagery based Brain Computer Interfaces (MI-BCIs) allow users to interac...
EEG-based brain computer interfaces (BCI) allow users to communicate with the outside world directly...
International audienceWe are developing a brain-computer interface integrating visual and vibrotacti...