Control method for oscillating motor and osculating motor The control unit is further used for storing the set pulse parameters, and outputting alternating pulses with corresponding pulse widths and frequencies according to the set pulse parameters, so that the oscillating arm oscillates in an oscillation mode corresponding to the pulse parameters; wherein the oscillation mode comprises at least one of a full-amplitude oscillation mode, a sub-amplitude oscillation mode, an in-situ shaking mode and a composite oscillation mode, wherein the composite oscillation mode is generated by superposition of the full-amplitude oscillation mode and the in-situ shaking mode, or is generated by superposition of the sub-amplitude oscillation mode and the in-situ shaking mode.

An improved portable massage device includes a first housing including a plurality of acupressure protrusions formed on an upper surface thereof and spaced apart from each other. The portable massage device further includes a battery supplying power, a motor connected to the battery to be turned on/off, and a rotating member mounted to surround the motor. In addition, the portable massage device includes a shield plate provided on the rotating member, at least one magnet detachably attached to the shield plate so that the shield plate vibrates when the motor rotates, a case accommodating the motor, a first switch connected to and controlling the battery to be turned on/off, and a second housing detachably combined with the first housing. The battery and the case are accommodated in the first housing or the second housing.

An improved portable massage device includes a first housing including a plurality of acupressure protrusions formed on an upper surface thereof and spaced apart from each other. The portable massage device further includes a battery supplying power, a motor connected to the battery to be turned on/off, and a rotating member mounted to surround the motor. In addition, the portable massage device includes a shield plate provided on the rotating member, at least one magnet detachably attached to the shield plate so that the shield plate vibrates when the motor rotates, a case accommodating the motor, a first switch connected to and controlling the battery to be turned on/off, and a second housing detachably combined with the first housing. The battery and the case are accommodated in the first housing or the second housing.

Disclosed herein a method of determining the type of human body in a thermo-therapeutic apparatus. In the method of determining the type of human body in a thermo-therapeutic apparatus, a control unit scans the entire spine of a user by moving a moxibustion device using a horizontal motor, measures the operating current of the horizontal motor, calculates the length of the spine of the human body based on the measured operating current, and precisely determines the positions of the cervical vertebrae, the thoracic vertebrae, the lumbar vertebrae, and the coccyx that form the spine. As a result, acupuncture points suitable for a specific person are calculated and then the calculated acupuncture points are enabled to be used to administer thermotherapy.

Disclosed herein a method of determining the type of human body in a thermo-therapeutic apparatus. In the method of determining the type of human body in a thermo-therapeutic apparatus, a control unit scans the entire spine of a user by moving a moxibustion device using a horizontal motor, measures the operating current of the horizontal motor, calculates the length of the spine of the human body based on the measured operating current, and precisely determines the positions of the cervical vertebrae, the thoracic vertebrae, the lumbar vertebrae, and the coccyx that form the spine. As a result, acupuncture points suitable for a specific person are calculated and then the calculated acupuncture points are enabled to be used to administer thermotherapy.

A method for heat source acupuncture and body shaping. The method for heat source acupuncture includes the steps of inserting a plurality of needles various tissue locations. The tissue locations are of various depths and locations. The method further includes having at least three needles placed into the tissue at 45-degree angles. The needles are inserted at various depths between a quarter inch to 5 inches of tissue Once the needles are inserted into the tissue, the ends not in the tissue are heated. The needles are heated for 3 seconds each. The process of heating is repeated for each needle 30 times or until sweating is induced.

A therapeutic thermal energy measuring system, method and application for a meridian thermal therapy device. The therapeutic thermal energy measuring system for a meridian thermal therapy device comprises: a time setting module for setting a time; a temperature setting module or an intensity level setting module for setting a temperature or an intensity level; a therapeutic thermal energy measuring module for measuring therapeutic thermal energy on the basis of a preset time and a preset temperature or intensity level, and outputting a result, and/or performing real-time measurement of therapeutic thermal energy on the basis of a preset temperature or intensity level and cumulative working hours of a treatment head of the meridian thermal therapy device, and outputting a result. The therapeutic heat energy measuring system can solve a bottleneck problem of having no way of quantizing therapeutic thermal energy in meridian thermal therapy.

A therapeutic thermal energy measuring system, method and application for a meridian thermal therapy device. The therapeutic thermal energy measuring system for a meridian thermal therapy device comprises: a time setting module for setting a time; a temperature setting module or an intensity level setting module for setting a temperature or an intensity level; a therapeutic thermal energy measuring module for measuring therapeutic thermal energy on the basis of a preset time and a preset temperature or intensity level, and outputting a result, and/or performing real-time measurement of therapeutic thermal energy on the basis of a preset temperature or intensity level and cumulative working hours of a treatment head of the meridian thermal therapy device, and outputting a result. The therapeutic heat energy measuring system can solve a bottleneck problem of having no way of quantizing therapeutic thermal energy in meridian thermal therapy.

A device for therapeutic, fitness and sports enhancement can include an elongated apparatus body. The apparatus body can include three or more rounded and/or sharp edges connected by curvilinear surfaces between each of the edges about a longitudinal axis of the apparatus body. The device may or may not also include multiple projections along the outer surface of the apparatus body that are configured to be applied to the user of the device.

Provided is a vertical motion adjuster for a thermotherapy device capable of simultaneously accomplishing a pressing acupressure therapy effect and a pushing acupressure therapy effect. The vertical motion adjuster for the thermotherapy device includes a conveyance unit including a movable member configured to move along a mat, a support unit having one side hinged with the conveyance unit, and an elevation unit installed between the conveyance unit and the support unit and configured to raise the other side of the support unit in an arc shape. Accordingly, since the pressing acupressure therapy effect and the pushing acupressure therapy effect can be simultaneously accomplished as a moxibustion device is raised according to movement in an arc shape, a thermotherapy effect as well as an acupressure therapy effect through the moxibustion device can be improved.