Abstract: Technologies that stimulate the mammalian central nervous system are described. A method includes: (a) causing a pair of glasses to be worn by a user, where the pair of glasses hosts/interacts with a processor, a first light source, a second light source, a first sound source, and a second sound source; (b) causing the processor to read sets of parameters that include information regarding base frequencies, variability, frequency ranges, and time ranges, where the frequency ranges are positively and negatively off the base frequencies; and (c) causing the processor to request the light sources to (i) flash light to visual fields (left/right) of each eye according to selected frequencies for a duration of time and to (ii) pulse sound to the each ear according to selected frequencies for a duration of time such that an audio-visual entrainment (AVE) occurs that causes neuron and the glia to respond dynamically to the AVE.

Abstract: This discloses enables various technologies for audio-visual entrainment with breathing cues for managing heart rate variability.

Abstract: This discloses enables various technologies for audio-visual entrainment with breathing cues for managing heart rate variability.

Abstract: Technologies that stimulate the mammalian central nervous system are described. A method includes: (a) causing a pair of glasses to be worn by a user, where the pair of glasses hosts/interacts with a processor, a first light source, a second light source, a first sound source, and a second sound source; (b) causing the processor to read sets of parameters that include information regarding base frequencies, variability, frequency ranges, and time ranges, where the frequency ranges are positively and negatively off the base frequencies; and (c) causing the processor to request the light sources to (i) flash light to visual fields (left/right) of each eye according to selected frequencies for a duration of time and to (ii) pulse sound to the each ear according to selected frequencies for a duration of time such that an audio-visual entrainment (AVE) occurs that causes neuron and the glia to respond dynamically to the AVE.

Abstract: A method of reducing muscle pain in a person by removably attaching an electrode to each ear on a person's head and connecting the electrodes to receive a modified pulse signal from a computer or a digital port. The signal from the computer or the digital port are rectangular voltage pulses of “1s” and “0s” at varying frequencies. The rectangular pulse signal from the computer or digital port is modified to have at least the leading square corner of each of the rectangular voltage pulses rounded before it is sent to the electrodes. A method of randomizing the stimulus at about 100 Hz for improved sleep and an alternate method of randomizing stimuli for the neurological reduction of perceived pain and a similar method for reducing pain output from a muscle and its associated tissues directly.

Abstract: A method of reducing muscle pain in a person by removably attaching an electrode to each ear on a person's head and connecting the electrodes to receive a modified pulse signal from a computer or a digital port. The signal from the computer or the digital port are rectangular voltage pulses of “1s” and “0s” at varying frequencies. The rectangular pulse signal from the computer or digital port is modified to have at least the leading square corner of each of the rectangular voltage pulses rounded before it is sent to the electrodes. A method of randomizing the stimulus at about 100 Hz for improved sleep and an alternate method of randomizing stimuli for the neurological reduction of perceived pain and a similar method for reducing pain output from a muscle and its associated tissues directly.

Abstract: A method of reducing muscle pain in a person by removably attaching an electrode to each ear on a person's head and connecting the electrodes to receive a modified pulse signal from a computer or a digital port. The signal from the computer or the digital port are rectangular voltage pulses of “1s” and “0s” at varying frequencies. The rectangular pulse signal from the computer or digital port is modified to have at least the leading square corner of each rectangular voltage pulse rounded before it is sent to the electrodes. A method of randomizing the stimulus at about 100 Hz for improved sleep and an alternate method of randomizing stimuli for the neurological reduction of perceived pain and a similar method for reducing pain output from a muscle and its associated tissues directly.

Abstract: The present invention provides a method of stimulating the central nervous system and brain waves of a human subject by stimulating a beta frequency in the left brain hemisphere while simultaneously stimulating a low beta frequency in the right brain hemisphere and subsequently stimulating the left and the right brain hemispheres at an alpha frequency. The present invention also provides a process for suppressing aberrant brain wave frequencies, by stimulating the brain at approximately twice the aberrant brain wave frequency. The present invention further provides a process for dissociating a subject by stimulating a left brain hemisphere at a frequency that differs by 0.1 to 3 Hz from a frequency at which right brain hemisphere is stimulated. The present invention also provides a method of pacing breathing in a subject to a predetermined rate comprising exposing the subject to an auditory cue and simultaneously exposing the subject to various frequencies and combinations of stimulation.

Abstract: A photic stimulator for stimulating the central nervous system and the brain waves of a human subject having left and right eyes and left and right visual fields within each eye. The stimulator includes light assemblies providing pulsating light signals individually to the left and right visual fields of each of the left and right eyes of the subject and a control module for varying frequency and intensity of the light assemblies. The photic stimulator can stimulate the left and right visual fields of each eye independently of each other. This capability exploits the anatomical structure of the optic chiasm found within the human brain where stimuli of both eyes stimulates the side of the visual cortex opposite the side where the visual stimulation is seen in the visual field.