Abstract: Preferably, an embodiment of a sensor probe assembly includes at least a conductive pin securement member, and a multitude of conductive pins cooperating with the conductive pin securement member. Each conductive pin has a multitude of degrees of freedom relative to, as well as separate and distinct from, each of the remaining plurality of conductive pins. More preferably, an embodiment of a sensor probe assembly includes at least a flexible, electrically conductive pin securement member formed from a polymer filled with conductive particles. Interacting with the flexible, electrically conductive pin securement member is a plurality of electrically conductive pins, wherein each electrically conductive pin has a multitude of degrees of freedom relative to each of the remaining plurality of conductive pins, and cooperates with the electrically conductive pin securement member in a pressing engagement relationship.

Abstract: Preferably, an embodiment of a sensor probe assembly includes at least, a flexible, highly electrically conductive signal sensor component. The flexible, highly electrically conductive signal sensor component provides a main body portion, a plurality of spires protruding in a first direction from a first side surface of the main body portion, and a conductor confinement feature formed on a second side surface of the main body portion.

Abstract: Preferably, an embodiment of a tactile enabled sensor includes at least a sensor assembly providing at least a sensor probe. The sensor probe including a main body portion having a plurality of conductive spires extending from a first side of the main body, and a compressible electrically conductive member confinement feature extending from an opposite side of the main body. Each of the plurality of conductive spires passes through spire apertures provided by a sensor probe support member. The plurality of conductive spires conduct brainwave signals of a subject. An oscillation device communicates with the sensor assembly, wherein said sensor assembly is in communication with a signal processing circuit in electrical communication with the oscillation device and the brainwave signals of the subject. The oscillation device selectively agitates the plurality of conductive spires in response to an electrical state of the brainwave signal of the subject.

Abstract: Preferably, an embodiment of a sensor assembly includes at least a sensor probe providing a plurality of conductive spires, a compressible electrically conductive member in electrical communication with the sensor probe, a signal processing circuit in electrical communication with the compressible electrically conductive member, a housing confining the compressible electrically conductive member and sensor probe, a sensor probe support member supporting the sensor probe and cooperating with the housing to confine the compressible electrically conductive member, and a film of neurodiagnostic electrode paste applied to said spires, the film to the spires promotes improved conductivity of the subjects brain wave signals to a brainwave processing system. Continued use by the subject of the sensor assembly improves the conductivity of the subjects brain wave signals as the film coated spires adjust to the chemistry present on the subjects cranium.

Abstract: Preferably, an embodiment of a neurophysiological training headset includes at least a plurality of sensor assemblies each sensor assembly secured by a retention web. Each of the plurality of sensor assemblies are positioned in contact adjacent at a predetermined location about a cranium of a subject. The preferred neurophysiological training headset further includes a headphone secured to the retention web by an attachment member, in which the attachment member provides a continuously active tensioning mechanism. The continuously active tensioning mechanism promotes continuous force induced contact adjacency of each of the sensor assemblies with the cranium of the subject.

Abstract: Preferably, an embodiment of a sensor assembly includes at least a sensor probe assembly providing a plurality of conductive pins, a compressible electrically conductive member in electrical communication with the sensor probe assembly, and a signal processing circuit in electrical communication with the compressible electrically conductive member. Preferably, the sensor assembly of the preferred embodiment further includes at least a housing confining said sensor probe assembly, compressible electrically conductive member, and signal processing circuit to form said sensor assembly.

Abstract: Preferably, an embodiment of a sensor assembly includes at least a sensor probe assembly providing a plurality of conductive pins, a compressible electrically conductive member in electrical communication with the sensor probe assembly, and a signal processing circuit in electrical communication with the compressible electrically conductive member. Preferably, the sensor assembly of the preferred embodiment further includes at least a housing confining said sensor probe assembly, compressible electrically conductive member, and signal processing circuit to form said sensor assembly.

Abstract: Preferably, an embodiment of an apparatus includes at least a plurality of sensor assemblies, wherein each sensor assembly provides at least one electrically responsive surface, and an oscillation device communicating with the sensor assembly. Preferably, the sensor assembly includes at least a signal processing circuit in electrical communication with the oscillation device to selectively agitate the at least one electrically responsive surface. The preferred apparatus further included a brainwave processing system communicating with each of the plurality of sensor assemblies, and a ground reference interacting with the brainwave processing system, wherein a selected one of the plurality of sensor assemblies provides a reference signal for each of the remaining sensor assemblies, and in which each electrically responsive surface is in pressing contact with a cranium of a subject.