A system for treating clogged glands of the eye includes a heated eye mask and an electrical cord. The heated eye mask includes an outer layer of surface material, an inner layer of surface material, and a carbon fiber heating element. The carbon fiber heating element is disposed between the outer and inner layers of surface material in a therapeutic region of the heated eye mask. The therapeutic region of the heated eye mask extends along the Meibomian glands of the eye. The carbon fiber heating element is encapsulated by an electrically insulating cover. A thermally conductive material evenly distributes heat across the therapeutic region of the heated eye mask. The electrical cord provides power to the heated eye mask.

A heated mask comprises a user-operated control providing a number of different parameters including temperature and duration of heat application. At least one area contains a heater element. The heated mask covers an upper portion of a face and has areas positioned to be in registration with sinuses of a user. The heating element in one form comprises a serpentine conductor having a path through each area and having a preselected resistance in each area. In another form, a plurality of separate electrodes are provided, each in one selected area. Each electrode section is separately controlled to provide a preselected level of heat. It has been found that selected temperatures for a heater provide relief for sinus congestion, and that particular combinations of relative setting of a plurality of electrodes are associated with enhanced therapeutic results.

A segmented limb heater system method for controlled therapeutic heating of a limb having different segments and joints, differentially heating different segments or joints of a limb, with safe, automatic controls based on sensing of the different actual temperatures, in a portable, easy to use embodiment.

A segmented limb heater system apparatus for controlled therapeutic heating of a limb having different segments and joints, differentially heating different segments or joints of a limb, with safe, automatic controls based on sensing of the different actual temperatures, in a portable, easy to use embodiment.

A system for treating clogged glands of the eye includes a heated eye mask, an electrical cord, and a controller. The heated eye mask includes an outer layer of surface material, an inner layer of surface material, and a graphene heating element. The graphene heating element is disposed between the outer and inner layers of surface material in a therapeutic region of the heated eye mask. The therapeutic region of the heated eye mask extends along the Meibomian glands of the eye. The graphene heating element is encapsulated by an electrically insulating cover. A thermally conductive material evenly distributes heat across the therapeutic region of the heated eye mask. The electrical cord provides power to the heated eye mask. The controller is provided on the electrical cord for controlling the heated eye mask to heat to one of at least four pre-set temperature levels.

A heated eye mask for treating clogged glands of an eye includes a mask body. The mask body includes an outer layer of surface material configured to be positioned away from an eye region of and an inner layer of surface material configured to contact the eye region, a heating element assembly disposed between the outer and inner layers of surface material in a therapeutic region of the mask body, and a thermally conductive material in contact with the heating element and disposed between the heating element and the second layer of surface material to evenly distribute heat across the therapeutic region of the mask body. The heated eye mask further includes an electrical cord configured to be coupled with a power source and in communication with the heating element and an adjustable strap to maintain contact of the mask body with the eye region of the user.

A heated eye mask for treating clogged glands of an eye includes a mask body. The mask body includes an outer layer of surface material configured to be positioned away from an eye region of and an inner layer of surface material configured to contact the eye region, a heating element assembly disposed between the outer and inner layers of surface material in a therapeutic region of the mask body, and a thermally conductive material in contact with the heating element and disposed between the heating element and the second layer of surface material to evenly distribute heat across the therapeutic region of the mask body. The heated eye mask further includes an electrical cord configured to be coupled with a power source and in communication with the heating element and an adjustable strap to maintain contact of the mask body with the eye region of the user.

The electronically regulated temperature compression device is a brace that applies pressure to an appendage. The electronically regulated temperature compression device applies heat therapy and cooling therapy to the appendage. The temperature of the selected therapy is electronically regulated and controlled. The electronically regulated temperature compression device uses a refrigerant-based heat exchange mechanism during the therapy process. The electronically regulated temperature compression device comprises a composite textile, plurality of fasteners, and a controller. The plurality of fasteners attaches the composite textile to the appendage of the patient. The plurality of fasteners controls the pressure applied by the composite textile to the appendage. The composite textile is a temperature controlled textile used to generate a heat exchange between the electronically regulated temperature compression device and the appendage. The controller manages the temperature and flow of the refrigerant during the therapy process.

A patch applied to the body to alleviate pain includes a heated section that is powered through a USB cable having temperature and time controls and includes a reusable adhesive for use multiple times.

This is a portable device that will safely stop the drop of the body core temperature of a hypothermic victim, and slowly raise the core temperature back to a safe level. This is accomplished by the use of a DC heating element, memory foam cushions, and a heat reflecting element. All of which is encased in a vinyl sleeve that is reusable.