A heating patch for skin care including a substrate unit; an application electrode unit formed on the substrate unit in a predetermined pattern, and which includes a first electrode and a second electrode to which power supplied from the outside is applied; a heating unit including first and second heating electrodes, which respectively extend a predetermined length from the first and second electrodes so as to face each other at a certain length without being electrically connected, and a plurality of conductive heating materials formed to have predetermined areas in an overlapping part in which the first and second heating electrodes face each other and generate heat while allowing the first and second heating electrodes to communicate with each other during application of power; and a pair of cover members arranged on both surfaces of the substrate unit to prevent external exposure of the applied electrode unit and heating unit.

A thermal therapy headgear for a patient includes a plurality of thermal reaction compartments, a liquid chamber, a gas chamber, and a gas container. The thermal reaction compartments contain a first of at least two thermal reaction components, and the liquid chamber contains the second thermal reaction component. The gas container has therein a pressurized gas and a gas valve for selectively releasing the pressurized gas into the gas chamber. The gas in the gas chamber will apply pressure to the liquid chamber and force the second thermal reaction component through the valve and into the thermal reaction compartments to react and transfer heat with the patient, and the presence of the gas within the gas chamber will cushion the patient. A method for conducting hypothermic therapy is also disclosed.

A modular cooling pack and method of cooling a head of a patient includes a first pocket, a first cooling capsule, a second pocket, a second cooling capsule, a third pocket, a third cooling capsule, and a securement strap. Each of the first, second, and third cooling capsules are respectively configured to be received within the first, second, and third pockets, cooled, and applied to the head of the patient. The securement strap is configured to receive the first, second, and third pockets thereagainst and at least partially define a closed loop configured to be received about the head of the patient to thereby removably secure the first, second, and third pockets against the head of the patient in at least one of a plurality of assembled configurations.

Embodiments disclosed include systems, methods, and apparatuses, directed to administering thermal neural modulation to mammalian tissue to control nerve conduction. Embodiments disclosed include an apparatus comprising a thermal energy source, a first heat exchanger coupled to the thermal energy source and configured to receive thermal energy therefrom, a thermal applicator configured to be disposed and secured to the anatomy of a subject having a nerve therein, in contact with the skin on the anatomy and overlying a treatment portion of the nerve, the thermal applicator configured to transfer thermal energy to the skin to raise the temperature of the treatment portion of the nerve above a physiologic temperature, a second heat exchanger is coupled to the thermal applicator and configured to transfer thermal energy thereto, and a fluid conduit having a first portion coupled to the first heat exchanger and a second portion coupled to the second heat exchanger. The fluid conduit is configured to have fluid circulated therethrough to convey thermal energy from the thermal energy source via the first heat exchanger and to the thermal applicator via the second energy at a temperature.

One variation of a method for fabricating a dermal heatsink includes: fabricating a substrate defining an interior surface, an exterior surface opposite the interior surface, and an open network of pores extending between the interior surface and the exterior surface; activating surfaces of the substrate and walls of the open network of pores; applying a coating over the substrate to form a heatsink, the coating comprising a porous, hydrophilic material and defining a void network; removing an excess of the coating from the substrate to clear blockages within the open network of pores by the coating; hydrating the heatsink during a curing period; heating the heatsink during the curing period to increase porosity of the coating applied over surfaces of the substrate; and rinsing the heatsink with an acid to decarbonate the coating along walls of the open network of pores in the substrate.

Methods, devices and systems for improving sleep (including reducing sleep onset and maintenance of sleep duration), enhancing, or increasing sleep, including (but not limited to) treating sleeping disorders such as insomnia.

The system includes a pump, a heat exchanger, a bladder, a thermometer, and a controller. The heat exchanger is in fluid communication with the pump. The bladder is configured to be placed over a carotid artery, and is in fluid communication with the heat exchanger. The thermometer is located with respect to the heat exchanger and configured to measure a temperature of fluid downstream from the heat exchanger. The controller is in electrical communication 28 with the thermometer and the heat exchanger. The controller is configured to 20 control power delivered to or flow through the heat exchanger such that the temperature of the fluid downstream from the heat exchanger measured by the thermometer is between 2 degrees C. and 10 degrees C. for between 10 minutes and 50 minutes.

A method for using beauty instrument with mask includes steps of: providing a beauty instrument with mask; applying the flexible mask of the beauty instrument with mask on a user's face; and turning on the controller and selecting a function button from the plurality of function buttons on the controller, inputting a current to the at least one heating layer in the flexible mask, and heating the at least one heating layer. The beauty instrument with mask includes a flexible mask and a controller. The controller is electrically coupled with the flexible mask.

A dressing system for cooling skin or a wound site on a subject comprises a dressing having a reservoir for holding a liquid. The dressing may be configured for placement proximate to a postoperative surgical wound site of the subject or on the facial area of the subject. The dressing system includes a cooling chamber external to the dressing configured to cool the liquid. The dressing system includes a pump configured to circulate the liquid between the cooling chamber and the reservoir. The dressing system may include a suction element for applying suction at, or proximate to, the dressing for removing sweat or wound drainage.

A thermal therapy headgear for a patient includes a plurality of thermal reaction compartments, a liquid chamber, a gas chamber, and a gas container. The thermal reaction compartments contain a first of at least two thermal reaction components, and the liquid chamber contains the second thermal reaction component. The gas container has therein a pressurized gas and a gas valve for selectively releasing the pressurized gas into the gas chamber. The gas in the gas chamber will apply pressure to the liquid chamber and force the second thermal reaction component through the valve and into the thermal reaction compartments to react and transfer heat with the patient, and the presence of the gas within the gas chamber will cushion the patient. A method for conducting hypothermic therapy is also disclosed.