An aerosol generation device comprises a heating element (4). The heating element (4) comprises a base body (41), an infrared radiation layer (42), and at least one light convergence mechanism (43). The base body (41) has a chamber (411) for accommodating an aerosol substrate material. The infrared radiation layer (42) is disposed on a surface of the base body (41), and is used to generate infrared radiation to heat the aerosol substrate material disposed in the chamber (411). The at least one light convergence mechanism (43) is combined with the base body (41) and disposed thereon, and is configured to converge the infrared radiation into the chamber (411) to heat at least a portion of the aerosol substrate material. The aerosol generation device can increase the speed of aerosol formation.

A heating device is designed to heat a liquid while minimizing current that is induced in the liquid. The heating device includes a radiant heat source and a heated member such that the radiant heat source applies radiant energy to the heated member and the heated member is positioned within a vessel. The radiant energy from the radiant heat source is radiated across an empty or gas-filled gap between the radiant heat source and the heated member and the heated member transfers heat to the liquid.

The apparatus for cooking food with superheated steam includes an external casing (2) comprising inside a cooking chamber (4), suitable for containing one or more foods; a steam generating device (30), capable of vaporizing a liquid; a superheating device (31) of said steam associated with said steam generating device (30), said superheating device (31) being configured to heat said steam up to an operating temperature (T) higher than the boiling temperature of said liquid and to enable said superheated steam to come out towards said cooking chamber (4).

A coating-material drying method for drying a coating film of a coating material applied to a vehicle body by electrodeposition coating includes: an irradiation step of applying an electromagnetic wave to the coating material staying in a gap formed in the vehicle body to decrease the viscosity of the coating material such that the coating material flows out from the gap; and a drying step of drying and hardening the coating film by heating the vehicle body after the irradiation step. In the irradiation step, a part of the vehicle body is kept at a temperature less than 110° C., the part being a part where the coating material flowing out from the gap flows.

The present application discloses a heater and a smoking set including the heater. The heater includes: a base, having an inner surface and an outer surface; an infrared radiation layer, formed on the surface of the base; the infrared radiation layer is configured to generate infrared rays and at least heat an aerosol-forming matrix by radiation; a heating body arranged at the periphery of the base, and used to receive electric power from a power supply to generate heat. The heating body is configured to transfer the heat to heat the infrared radiation layer to generate the infrared rays. According to the present application, the infrared radiation layer is heated up by the heating body so that the infrared radiation layer generates infrared radiation to heat the aerosol-forming matrix, thereby reducing the preheating time of the aerosol-forming matrix and improving the user experience.

The invention relates to an electromagnetic wave irradiation reactor (fixed, mobile or portable) suitable for the physical, dynamic, continuous conditioning of materials having the ability to absorb electromagnetic radiation, which need to be treated through electromagnetic irradiation, without coming into contact with the electromagnetic source. In particular, this invention aims to treat those materials which tend to reflect such radiations, which are translucent or difficult to penetrate to irradiation or simply dirty. The invention mainly exploits the postulates of Lambert, and Stefan-Boltzmann, that is, the physical assumptions of the transmission of electromagnetic energy by radiation and in particular the angle, concentration and proximity of the emission of energy between emitter and receiver (which varies with the square of the distance) and the intensity of the emission (which varies with the 4th power of the temperature).

An apparatus is presented for thawing a frozen drink in a glass bottle. The apparatus includes: a housing with a bottle receiving space arranged therein and designed to accommodate a glass drinking bottle; a heating device that is arranged in the housing and has radiative heat sources that are arranged around the bottle receiving space in order to radiate heat energy onto the glass drinking bottle, and a thermal insulation and cooling device which is arranged in the housing. The thermal insulation and cooling device has a thermally insulating space which is formed between the radiative heat sources and an outer housing wall, so as to encompass the outer housing wall. An air cooling system draws air from the surroundings into the housing via an air intake and conveys the air via an air guide to an air outlet, where the air guide encompasses the thermally insulating space.

A process for regenerating a catalyst in an olefin production reactor. The process includes feeding a compressed, pre-heated air stream to a heating zone comprising an electrical heater, electrically heating the compressed, pre-heated air stream in the heating zone to a temperature in the range of 500-800° C., producing a regeneration air stream, feeding the regeneration air stream to the olefin production reactor, regenerating the catalyst using the regeneration air, producing a hot air stream, and feeding the hot air stream to a waste heat recovery unit configured to pre-heat a compressed air stream, producing the compressed, pre-heated air stream and a waste air stream.

An electronic cigarette includes a laser and a replaceable atomiser. A reservoir is provided for storing a vaporisable liquid. The replaceable atomiser includes a light guide, an absorber and a vaporisation chamber. A liquid inlet in the atomiser provides a flow path for liquid in the reservoir to flow towards the absorber and the vaporisation chamber. The light guide is configured to couple light from the laser towards the absorber which can generate heat by absorbing the emitted light and this can cause vaporisation of the vaporisable liquid. When the light guide becomes dirty or contaminated it can be replaced simply by replacing the atomiser.

The abstract of the disclosure is a thermal-ultrafine bubble generation unit which is configured to generate thermal-ultrafine bubbles by bringing a liquid into film boiling. More specifically, the thermal-ultrafine bubble generation unit in the disclosure includes a temperature detection element that is configured to detect generation of the film boiling.