A system for coating removal comprises a frame having a platform extending within the frame. A plurality of heat lamps are mounted on the platform. The plurality of heat lamps are arranged to provide a heat density of at least 40 watts per square inch. A method of removing a coating is also disclosed.

A resistance water lamp includes: a main body, made of plastic material, and being a transparent hollow three-dimensional type, low boiling point liquid filled in an inside thereof, and an accommodation tank, fixed to one side of the main body, an inside thereof provided with an electric control unit including at least one electric heater and power source, the electric heater positioned correspondingly to the side of the main body, and power thereof provided by the power source, the electric heater producing a thermistor effect and generating heat energy when the electric heater is energized, thereby driving the liquid inside the main body to generate relative flowing with the heat energy.

A system for coating removal comprises a frame having a platform extending within the frame. A plurality of heat lamps are mounted on the platform. The plurality of heat lamps are arranged to provide a heat density of at least 40 watts per square inch. A method of removing a coating is also disclosed.

An iron according to the present disclosure includes a light emitter that emits light, a base surface that transmits the light, a detector that detects a temperature of the base surface, and a controller that controls an output of the light emitter in accordance with the temperature of the base surface detected by the detector. Variations in the temperature of the base surface are less than a temperature of clothes. According to the iron, since the output of the light emitter can be controlled in accordance with the temperature of the base surface, heat can be suitably transmitted to the clothes.

A refrigeration system includes: a vacuum chamber forming a cooling region accommodating an object; a cooling unit that cools the object accommodated in the cooling region; and a heating unit disposed in the cooling region to generate heat. The heating unit includes an optical fiber that guides light provided from an outside of the vacuum chamber, and a heating block that is disposed in the cooling region and that receives the light emitted from the optical fiber, to generate heat. The heating block includes a closed region configured to be isolated from the cooling region. A light-emitting end of the optical fiber is exposed to the closed region.

A toilet air heating device, control method and a toilet including such device/method, which include an air heating fan, an external air duct, an internal air duct, an air heating wire component, a drive mechanism, and a controller. The internal air duct is accommodated inside the external air duct and telescopes, as driven by the drive mechanism, along the extension direction of the external air duct. An air outlet of the air heating fan is sequentially in communication with the air heating wire component, the external air duct, and the internal air duct. An internal air duct outlet of the internal air duct includes an auxiliary heater. The controller is in communication connection with each of the air heating wire component, the air heating fan, the drive mechanism and the auxiliary heater.

A heating system includes a sensing and tracking module to sense length in at least one dimension of an object to-be-heated in a previously determined area. A light source module has at least one light source that can change its lighting direction and can also change its beam angle e along the at least one dimension. A control module is provided for regulating light emitted by the light source module onto the to-be heated object along the at least one dimension to match with the length of the to-be-heated object based on the length sensed by the sensing and tracking module. The heating system described above and a bed incorporated having this kind of heating system may automatically adjust its output power according to the physical characteristics of the object to-be-heated to avoid heating unrelated object, area or space so as to ensure high energy efficiency.

A scent warmer may include an at least substantially hollow member having at least one inner surface defining an internal cavity therein, a receptacle disposed at a first longitudinal end of the at least substantially hollow member for holding scented material therein, and a support structure configured to support at least one lighting module within the internal cavity of the at least substantially hollow member. The support structure may be a separate member from the at least substantially hollow member. The at least substantially hollow member may be configured to conceal at least substantially all of the support structure when the at least substantially hollow member is placed over the support structure on a flat surface.

A heating system for a machine includes a tungsten halogen light bulb, a socket, a heat sink, and a reflector. The tungsten halogen light bulb is configured to emit light when connected to an electric power source. The socket is selectively electrically connected to the electric power source. The tungsten halogen light bulb is removeably connected to the socket. The reflector includes a reflecting surface, and is fixedly mounted in relation to the heat sink, such that the reflecting surface reflects at least a portion of the light onto the heat sink.

The present invention discloses a heat radiator, especially an infrared radiator, having at least one radiation source by means of which supplied electrical energy is convertible into heat radiation, as well as a control. This control comprises at least one frequency converter having a first, a second and a third output so that between the first and the third output a first alternating current is providable and between the second and the third output a second alternating current is providable by means of which the at least one radiation source is operable.