The present invention relates to a treatment apparatus using high frequency waves, and to a method for controlling same. The treatment apparatus using high frequency waves comprises: a high frequency wave generating unit; a plurality of needles for providing, into the skin of a user, high frequency energy transferred from the high frequency wave generating unit; and a driving unit for inserting the plurality of needles into the skin of the user, wherein the apparatus further comprises a control unit for controlling the driving unit such that the plurality of needles are inserted into a first target point within the skin and then move to a second target point.

A photoelectric resonance chip includes, a chip main body, signal receiver having a first coil, encoding device, signal generator having a second coil; and at least one light wave generating element and at least one electric wave generating element. When a user carries the chip main body on their body, the first coil converts the type of external microwave from energy wave to current, the signal receiver receives the signals and transmits them to the encoding device, the encoding device increases the frequencies of the signals by means modulation to enlarge the power thereof and transmits them to the signal generator, the second coil converts the type of the signal from current to energy wave, the signal generator feeds the enlarged microwave back to the user's body, and the microwave fed back to the body carries light wave energy and electric wave energy to flow around the whole body.

A method of modulating glandular secretions by administering acoustic shock waves to a reflexology zone or region has been discovered. In one preferred embodiment, a treatment method achieves one or more of a) modulating blood sugar levels, b) stimulating insulin production levels or c) normalizing A1C levels by using the step of administering acoustic shock waves to a reflexology zone or region. The treatment method further has the steps of: activating acoustic shock waves of an acoustic shock wave generator to emit acoustic shock waves; subjecting the reflexology zone to acoustic shock waves stimulating the pancreas to have a modulated response wherein the modulated response is one of an adjustment in blood sugar levels or insulin production and release or normalizing A1C levels which increases low level output, decreases high level output or stabilizes erratic output; and wherein the emitted acoustic shock waves are focused or unfocused acoustic shock waves.

An apparatus and method utilizes photonics, particularly lasers, and biometric feedback for physiological and neurological stimulation. While many areas of the body are candidates, such laser stimulation is particularly directed to the outer ear. Lasers positioned over the ear stimulate targets on the outer ear for pain and stress management and regulation of the autonomic nervous system to affect symptoms and clinical conditions. Laser positioning, wavelength, aiming, focus, power, power density, timing, and sequencing are managed and modified dynamically in real time to effect a personalized and effective treatment protocol.

A device and method for stimulating tongue muscle spindles via stochastic resonance is disclosed. The device can include a stimulator for application to the tongue of a user. The stimulator can include a transducer configured to produce vibrations, a tongue pad coupled to the transducer, an amplifier, and a controller. The method can include selecting a type of vibrations to be at least one of Brownian, pink, or white noise, selecting a frequency range of the vibrations, and applying a stimulator to the tongue of a user to apply the vibrations to the tongue of the user.

A cranial detoxifier device (CDD) that includes a free electron generator module, an infrared (IR) generator module, a heater module, a visible light generator, and a microcontroller that controls the free electron generator module, the infrared generator module, the heater module, and the visible light generator, the microcontroller and components of the free electron generator module, the IR generator module, the heater module, and the visible light generator residing in the housing of the CDD.

Methods, devices and systems for recovering motor control of an area in the body of a patient affected by a neurological disorder. A device vibrotactilely stimulates a substitute site for the affected area thereby recovering the motor control of the affected area. The stimulation provided by the device is volitionally controlled by the patient.

Aspects for treating spinal cord injuries are disclosed. In a particular aspect, a method includes identifying a neurological level of a spinal cord injury, and activating neurons via laser therapy in which a laser beam is applied to an area proximate to the neurological level. In another aspect, a computer-readable storage medium includes computer-readable instructions for performing various acts. Such acts comprise ascertaining a neurological level of a spinal cord injury, and receiving data corresponding to a severity of the spinal cord injury. The acts further comprise outputting a laser calibration according to the neurological level and the severity. A medical device apparatus is also provided, which includes various computer executable components. The computer executable components include an assessment component configured to receive parameters corresponding to a spinal cord injury, and a calibration component configured to ascertain a laser calibration according to the at least one parameter.

An exemplary subcutaneous medical device implanted within a patient uses a coil-less magnetic field sensor included within the subcutaneous medical device to detect a toggling sequence between a presence and an absence of an externally-generated static magnetic field. The toggling sequence is representative of a digital data stream according to a digital wireless communication protocol. The subcutaneous medical device identifies, based on the detected toggling sequence and in accordance with the digital wireless communication protocol, a multi-bit command encoded within the digital data stream represented by the toggling sequence. The subcutaneous medical device further performs, in response to the identifying of the multi-bit command, an action associated with the multi-bit command. Corresponding methods and a corresponding external controller are also disclosed.

An apparatus includes a controller body configured to determine whether a light radiation mode is selected and an operation is started through a user's manipulation, the controller body comprising a wireless transmission unit configured to transform an LED driving signal output according to the selected light radiation mode into a radio signal and transmit the radio signal, and a wireless electrode probe configured to wirelessly receive the LED driving signal from the controller body by establishing wireless communication with the wireless transmission unit. The wireless electrode probe is configured to be driven by the LED driving signal received from the controller body to emit the light of a predetermined wavelength range, which increases concentration of a material for relaxing smooth muscles of a human body.