A heating device is provided comprising: a wearable layer conformable to a part of a user's body; a heat source attached to the wearable layer for applying heat to a region of a user's body; a blood flow sensor attached to the wearable layer configured to detect a parameter indicative of blood flow in or adjacent to the region of the user's body and generate a signal indicative thereof; and one or both of: (i) a processor in electrical communication with the blood flow sensor for determining the blood flow in or adjacent to the region of the user's body based upon the signal; or (ii) a transmitter for transmitting the signal to a remote device.

A pillow for supporting a user's arm. The pillow includes a body defining a substantially circumferential shape around an aperture. The body includes a substantially flat support base, a first curved arm, and a second curved arm. The substantially flat support base defines a substantially flat geometry extending along a first axis to stably contact a substantially flat surface while a user's arm is inserted through the aperture, the body comprising an open state and a closed state. The first curved arm defines a first contact face with a first fastener. The second curved arm defines a second contact face with a second fastener. The first fastener is releasably fastened to the second fastener.

An apparatus for knee massage comprises a hollow L-shape structure that convexes to fit a user's knee. The L-shape structure further comprises an open top, an open back, and a hollow cavity to allow the user's knee rests within. The hollow cavity further comprises an array of massage devices disposed about the inner corner of the L-shape structure. The apparatus further comprises a CPU and PCB. The CPU processes the user's commands and controls the apparatus' massage functionality. The PCB further comprises a wireless communication component that processes request and response communication between the user and the apparatus. The apparatus further comprises a rechargeable lithium battery component. The PCB further comprises a charger component. The CPU controls the charger component and charging activities.

The present disclosure refers to a non-shivering cryothermogenesis method for locally reducing adipose tissue of a subject's body, including: (a) applying at least one applicator to the subject's skin; (b) applying at least one additional applicator to a local region wherein adipose tissue reduction is desired; (c) the applicator maintaining skin superficial temperature between 4 C. and 12 C.; and (d) applying the applicators for a total period of time between 20 and 60 min.

A tape 400 or wrap is provided which includes first and second elongated elastic layers 345, 346 sized to conform to the shape of a portion of the external skin of the body of a wearer; and a heated area comprising an exothermic material 310 sandwiched between said first and second elastic layers 345, 346, wherein said exothermic material 310 is activated by exposing said exothermic material 310 to oxygen; wherein said tape 400 or wrap has a elasticity of at least about 10-90% and said heated area is capable of substantially expanding and contracting with the tape or wrap. Methods of using the tape 400 or wrap are also provided.

A portable device for the thermal medical treatment of skin allows a treatment attachment to be coupled to a mobile data-processing unit, preferably a smartphone or a tablet, via an interface, wherein a housing of the treatment attachment which extends over the treatment attachment is provided with a heating element directly underneath the surface facing away from the data-processing unit in the coupled state, the heating element being coupled to a temperature sensor, wherein the heating element, with the interposition of a control unit, is connected to the electrically conductive interface or, via a Bluetooth connection, to the data-processing unit in such a way that the heating element is supplied with power via one or more rechargeable batteries integrated into the data-processing unit in such a way that the heating element can be heated to a temperature predefined via the control unit.

Aspects of the present disclosure provide for a patient warming system having a heating device configured to transfer heat to a patient based on a body heat score that indicates whether the patient is likely to sweat. The heating device includes a heater circuit configured to produce heat, the heater circuit thermally coupled to the patient. The heating device also includes a controller communicatively coupled to the heater circuit. The controller has one or more processors configured to receive one or more physiological indicators of the patient, determine the body heat score from one or more physiological indicators, determine whether the body heat score meets a score threshold, direct the heater circuit to produce a first amount of heat based on whether the body heat score meets a score threshold.

A heated blood pressure cuff assembly for warming a blood pressure cuff includes an electronic blood pressure monitor that has a plurality of controls and a display. A blood pressure cuff is provided and is in fluid communication with the electronic blood pressure monitor for checking blood pressure in a patient. A heating unit is coupled to the blood pressure cuff and the heating unit is in thermal communication with the blood pressure cuff. The heating unit warms the blood pressure cuff when the heating unit is turned on thereby inhibiting a physiological response to cold in the patient when the blood pressure cuff is applied.

A heating device is provided comprising: a wearable layer conformable to a part of a user's body; a heat source attached to the wearable layer for applying heat to a region of a user's body; a blood flow sensor attached to the wearable layer configured to detect a parameter indicative of blood flow in or adjacent to the region of the user's body and generate a signal indicative thereof; and one or both of: (i) a processor in electrical communication with the blood flow sensor for determining the blood flow in or adjacent to the region of the user's body based upon the signal; or (ii) a transmitter for transmitting the signal to a remote device.

The present invention relates to a method of controlling a flexible thermoelectric element to provide dynamic thermal therapy, and to a dynamic thermal therapy device, wherein the flexible thermoelectric element has a plurality of thermoelectric modules, each corresponding to a plurality of regions arranged sequentially, wherein the plurality of thermoelectric modules can selectively perform either exothermic or endothermic operation on the plurality of regions by control of a current.