Device for non-invasive personalized treatment of skin disorders and imperfections, including: a console having recesses suitable for housing handpieces capable of being grasped by an operator to treat a patient's body or face thanks to the vibration generated by an internal cylinder at each handpiece at a predetermined frequency, each cylinder having rotating elements; a vibration adjustment device for each handpiece; an electric energy absorption sensor possibly combined with pressure and/or rpm sensors for each handpiece, suitable for communicating the data detected to a control unit adapted to process the data from the absorption sensors and to act on the frequency regulation devices of each handpiece to obtain an immediate variation of the vibration of the cylinders according to the mechanical resistance offered by the patient's tissue; and a communication interface.

A haptic device is disclosed comprising at least one fluidic actuator operatively connectable with pumping means; and a plurality of movable members mechanically connected with said at least one fluidic actuator, wherein said movable members can perform a displacement upon actuation of the fluidic actuator and/or resist the movements of a body part of a user upon actuation of the fluidic actuator, to provide a tactile and/or force haptic sensation to a body part of a user. Methods for providing a haptic sensation to a user and receiving haptic input commands from a user are also disclosed.

An Achilles tendon massage assembly includes a housing that can have a user stand thereon. The housing has a pair of foot wells integrated for having a respective user's foot placed therein. A pair of massaging units is each movably integrated into the housing and each of the massaging units includes a pair of massage rollers. Each of the massage rollers is positioned in a respective one of the foot wells to frictionally engage the Achilles tendon on a respective user's foot when the user's feet are positioned in the foot wells. Each of the massage rollers in each of the massage units rotates when the massage units are turned on. In this way each of the massage rollers of each of the massage units can massage the Achilles tendon on the respective user's foot.

An Achilles tendon massage assembly includes a housing that can have a user stand thereon. The housing has a pair of foot wells integrated for having a respective user's foot placed therein. A pair of massaging units is each movably integrated into the housing and each of the massaging units includes a pair of massage rollers. Each of the massage rollers is positioned in a respective one of the foot wells to frictionally engage the Achilles tendon on a respective user's foot when the user's feet are positioned in the foot wells. Each of the massage rollers in each of the massage units rotates when the massage units are turned on. In this way each of the massage rollers of each of the massage units can massage the Achilles tendon on the respective user's foot.

The present disclosure discloses a massage device with replaceable massage subassemblies, including a stick body and at least one massage subassembly. A printed circuit board (PCB), a first massage module, and a power supply are arranged in the stick body. The PCB is electrically connected to the first massage module and the power supply. A second massage module is arranged in each massage subassembly. The stick body is provided with a conducting sliding rail, and the PCB is electrically connected to the conducting sliding rail. Each massage subassembly is provided with a conducting sheet adapting to the conducting sliding rail. The conducting sheet is capable of sliding in a reciprocating manner on the conducting sliding rail. Therefore, by means of configuring several massage subassemblies, each massage subassembly has a different massage function, so that a user can replace massage subassemblies to achieve different massage modes.

A unique and innovative vest provides vibrating and heating massage. A controller is used to control vibrating modules and heating elements positioned on the vest. Through a vibration button and a heat button, the controller allows a user to selectively control vibrating and vibrating/heating massages. Using increase/decrease intensity buttons the vest facilitates optimal massage effects per the user's desire. The vibrating modules is configured to vibrate and/or oscillate in various controlled directional and rotational movements, providing a therapeutic massage. Multiple body zone switches corresponding to various massage zones of the user's body offer the user efficient control of any specific local area for achieving effective massage, thus substantially facilitating the recovery of muscles/tissues injury, alleviation of body pain, stress relief of neck, back, shoulders, etc. Further, the massage vest includes a design that promotes good posture while the user is seated.

An air pump device for a massage device includes a recognition device to acquire a type of the massage device via a wireless communication with an identification device of the massage device, and a controller to set an operation pattern based on the type of the massage device. The controller controls a pump connectable to an inflatable bladder of the massage device, based on the operation pattern.

A skin cleanser includes a surface, such as a silicone surface, with at least one textured portion for transmitting vibrational tapping to the skin. The skin cleanser includes at least one oscillating motor for generating the tapping motion to the skin. The textured portion includes touch-points or a wave that transmit the tapping motion to skin in contact with the textured portions. The touch-points may include thicker and thinner formations of the touch-points to provide firmer or softer vibrations to the skin. The touch-points are within about 0.5 to 2.5 mm in diameter. One configuration includes multiple oscillating motors configured to provide different vibration frequencies at around 50-300 Hertz and operable simultaneously.

The present invention relates to a device (100) wearable at a user's neck, which device (100) comprises:—a main body (10) provided with movable pushing means (11),—a control unit (20) configured to receive as input data associated with the user's heart rate and to generate a corresponding output signal (20′), wherein said output signal (20) determines a pulsating movement of said pushing means (11) according to the heart rate and wherein said pushing means (11) is positioned so as to compress and decompress the neck at the jugular veins.

A compression garment system and method that may include a head garment portion configured to be donned on a head of a body. The compression garment and method may further include a neck garment portion configured to be donned on a neck of the body. A controller may be configured to control pressure applied by each of one or more head pressure applying regions and/or each of one or more neck pressure applying regions to move lymph at least from the head towards the neck.