Abstract: A wearable tactile display device is disclosed wherein vibrating stimulation pins are located close to each other by means of underlying vibratory actuation piezoelectric bending elements arranged in a cantilever configuration partially overlapping over each other. Optionally, the plane in which the tips of stimulation pins protrude may be a curved surface providing with the ability to comply with a curved human body part such as a finger. Vibratory stimulation can be achieved at close spatial resolution by advantageously reducing the space between adjacent stimulation pins through their ability to engage with different adjacent piezoelectric cantilever bending elements when they are placed at different planes and at additional closer spatial resolution when they are placed at an angle to each other. The programmable controller employed in order to program the pattern of stimulation pin vibrations can be used for generating different amplitudes and frequencies of vibration.

Abstract: A wearable tactile display device is disclosed wherein vibrating stimulation pins are located close to each other by means of underlying vibratory actuation piezoelectric bending elements arranged in a cantilever configuration partially overlapping over each other. Optionally, the plane in which the tips of stimulation pins protrude may be a curved surface providing with the ability to comply with a curved human body part such as a finger. Vibratory stimulation can be achieved at close spatial resolution by advantageously reducing the space between adjacent stimulation pins through their ability to engage with different adjacent piezoelectric cantilever bending elements when they are placed at different planes and at additional closer spatial resolution when they are placed at an angle to each other. The programmable controller employed in order to program the pattern of stimulation pin vibrations can be used for generating different amplitudes and frequencies of vibration.