Apparatus and methods are described herein that provide a vibratory device that can apply a vibratory signal to a portion of a head of a user such that the vibratory signal can be conducted via bone to a vestibular system of the user and cause a portion of the vestibular system to move in a manner equivalent to that of a therapeutically effective vibratory signal applied to an area overlaying a mastoid bone of the user. The vibratory device can be associated with frequencies less than 200 Hz. The vibratory device can be effective at treating a physiological condition associated with the vestibular system.

An electronic device is disclosed. The electronic device comprises: a biological signal input unit for receiving the input of a biological signal detected through an electrode; and a processor which determines, based on a usage context of the electronic device, a biological signal to be inputted, sets up, according to the determined biological signal, the state of a channel corresponding to the electrode, and determines a biological change by using the biological signal inputted according to the set channel state.

An electronic device is disclosed. The electronic device comprises: a biological signal input unit for receiving the input of a biological signal detected through an electrode; and a processor which determines, based on a usage context of the electronic device, a biological signal to be inputted, sets up, according to the determined biological signal, the state of a channel corresponding to the electrode, and determines a biological change by using the biological signal inputted according to the set channel state.

Systems and methods of the present disclosure are directed to systems and methods for treating cognitive dysfunction in a subject in need thereof. The system can include eyeglasses, a photodiode positioned to detect ambient light, light sources, and an input device. The system can include a neural stimulation system that retrieves a profile and selects a light pattern having a fixed parameter and a variable parameter. The neural stimulation system can set a value of the variable parameter of the light pattern, construct an output signal, and then provide the output signal to the light sources to direct light towards the fovea.

In the electronic apparatus, a contact impedance compensation controller calculates a first compensation value and a second compensation value so that a resulting value obtained by adding a third resistance value between a measuring electrode and first skin to a first resistance value is equal to a resulting value obtained by adding a fourth resistance value between a reference electrode and second skin to a second resistance value, determines first information on the basis of the first compensation value, determines the second information on the basis of the second compensation value, and sends the first information to the first compensation circuit.

In the electronic apparatus, a contact impedance compensation controller calculates a first compensation value and a second compensation value so that a resulting value obtained by adding a third resistance value between a measuring electrode and first skin to a first resistance value is equal to a resulting value obtained by adding a fourth resistance value between a reference electrode and second skin to a second resistance value, determines first information on the basis of the first compensation value, determines the second information on the basis of the second compensation value, and sends the first information to the first compensation circuit.

Methods and systems are provided to monitor bio-signals associated with one or more physiological structures of a subject, process the bio-signals to determine neural information, determine a current state of the subject based on the neural information, determine feedback to be provided to the subject based on the current state and a desired state, and/or to provide the feedback to the subject in order to modify the subject's current state to the desired state. The neural information may include validated neural indices relating to dynamic regulation of the monitored physiological structures via identifiable neural pathways and/or neural metrics quantified from such neural indices.

Methods and systems are provided to monitor bio-signals associated with one or more physiological structures of a subject, process the bio-signals to determine neural information, determine a current state of the subject based on the neural information, determine feedback to be provided to the subject based on the current state and a desired state, and/or to provide the feedback to the subject in order to modify the subject's current state to the desired state. The neural information may include validated neural indices relating to dynamic regulation of the monitored physiological structures via identifiable neural pathways and/or neural metrics quantified from such neural indices.

Device and method for determining an efficacy of chronic pain treatment including providing a first set of at least one stimulus to a subject, obtaining first measurements of at least two physiological parameters in response to the first set of at least one stimulus, providing chronic pain treatment to the subject, providing a second set of at least one stimulus to the subject, obtaining second measurements of the at least two physiological parameters in response to the second set of at least one stimulus; and determining an efficacy of the chronic pain treatment by applying a classification algorithm on the first and second measurements of the at least two physiological parameters.

An earpiece module includes a housing configured to be attached to an ear of a person, a first audio sensor within the housing configured to detect auscultatory sounds from an ear canal of the ear and generate a physiological information signal from the auscultatory sounds, and a second audio sensor within the housing and oriented in a direction towards an outside environment of the person. The second audio sensor is configured to detect sounds external to the person including voice sounds and footstep sounds, and to generate an environmental information signal from the external sounds. A processor is configured to receive the physiological information signal and the environmental information signal, process the external sounds in the physiological information signal and the environmental information signal to reduce the voice sounds and the footstep sounds from the physiological information signal and generate a cleaner physiological information signal.