In order to heat a bag filled, for example, with a food product to a predeterminable temperature, the entire cassette (1) has been heated in the past. The invention relates to a cassette (1) made of plastic, wherein in each of the cassette shells (2, 3) a receiving recess (10) is formed, in each of which a respective heat-conducting plate (11) is arranged securely in position. A heating element (20) is applied to the heat-conducting plate (11) and the heat-conducting plate (11) is retained in an insulated manner on the respective cassette shell (2, 3) such that a thermal insulating air gap remains between the heat-conducting plate (11) or the heating element (20) and the cassette shell (2, 3).

A heating device (100) comprises: a heater (10) for heating an item (1); a temperature detection unit (20) for detecting the temperature of the item (1); and a temperature adjustment unit (30) for controlling the heater (10) on the basis of a target temperature and the detected value of the temperature detection unit (20) so that the temperature of the item (1) reaches the target temperature. The heating device (100) determines, as a system gain change rate, the rate of change from the initial value of a system gain determined as a ratio of a temperature increase value of the item (1) with respect to electric power inputted to the heater (10), and determines the rate of change in the heat retention of the item (1) using the system gain change rate.

A system and method for heating steam sample and chemical sample and feed tubes/lines in a natural gas fired heat recovery steam generator (HRSG) power plant including a tube impedance heater (IH) control system and at least one impedance heated tube having an outer insulation and an electrically conducting inner tube member, the impedance heated tube having an input IH feed power electrical connector and electrically connected at a first connection to the inner tube member, and a return IH power electrical connector electrically connected at a second connection by a first end of a return electrical cable and a first connector and second connector each mechanically and fluidly coupling the first and second connections respectively to the inner tube member to the steam sample or chemical sample or feed tube/line and electrically isolating the first end and second ends.

There is provided a substrate fixing device. The substrate fixing device includes: a base plate; and an electrostatic chuck that is fixed to the base plate and configured to adsorb a subject by electrostatic force. The electrostatic chuck includes: an adsorptive layer configured to adsorb and retain the subject; and a heater layer that is provided between the adsorptive layer and the base plate and configured to heat the subject retrained by the adsorptive layer. A thickness of the heater layer is uniform over an entire area of the heater layer.

A support pedestal includes a support member including a resistive layer having a plurality of zones, a routing layer, and a plurality of conductive vias. The plurality of zones are defined by a plurality of independently controllable resistive heating elements. The resistive layer and the routing layer are disposed in different planes of the support member and are connected by the plurality of conductive vias.

A specimen heating apparatus includes a heater unit configured to heat a test specimen held in a material testing machine, a heater holding unit configured to hold the heater unit in a set position relative to the test specimen for heating, a specimen temperature measurement unit attached to the heater unit and configured to measure temperature of the test specimen when the heater unit is in the set position, a temperature controller configured to control heating of the heater unit in response to a temperature measured by the specimen temperature measurement unit, and a thermal insulation unit configured to cover the heater unit, wherein the heater holding unit holds the heater unit in such a way that the heater unit is allowed to be brought to and removed from the set position while the test specimen is being held in the material testing machine.

This electronic cigarette (1) comprises: —a heating element (10) able to vapourize a substrate during a smoking period; —means (30) for measuring an approximation (AUIOMESOO, UIOMESOO) of a characteristic of the voltage (U10(t)) across the terminals of the heating element (10) during this smoking period, said approximation being measured across the terminals (BI, B2) of a circuit (500) no component of which exhibits intrinsic characteristics not disturbed by the inhalations; —means (30) of estimating an approximation (AU10TH(t), UIO-m(t)) of said characteristic of the voltage (U10(t)) across the terminals of the heating element (10) in the absence of inhalation during said smoking period; means (30) of calculating an intensity (F) representative of the intensity of the inhalations during said smoking period on the basis of an integration of the difference between said approximations during said smoking period; and —means (30) of estimating the said quantity of substrate vapourized by the heating element at least on the basis of said intensity.

A support pedestal includes a substrate, a plurality of resistive heating elements disposed on the substrate and defining a plurality of heating zones, and electric terminals disposed at a central region of the substrate. At least one of the electric terminals is connected to at least two of the plurality of resistive heating elements.

An ice protection system and method capable of anti-icing and de-icing aerodynamic structures and surfaces is provided comprising a Resistive Heat Coat (RHC) controller and a heating device. The RHC controller comprises a RHC power circuit topology having a processor and a buck converter. The RHC controller further comprises a RHC control algorithm. The heating device comprises a plurality of resistive heating elements, such as CNT-based resistive heaters. The ice protection systems and methods disclosed can achieve an efficiency of 98% or greater while employing a direct current (DC) power supply and “hard switching” with a switching frequency of at least 500 kHz.

The present disclosure provides a support pedestal that includes a support member including a resistive layer having at least two zones, a routing layer, and a plurality of conductive vias. The resistive layer and the routing layer are disposed in different planes of the support member and are connected by the plurality of vias. The number of zones of the resistive layer is greater than or equal to a number of wires coupled to the routing layer. The routing layer may include a plurality of arm portions that extend from a central region of the routing layer. The support pedestal may further include a second resistive layer disposed along the same plane as the routing layer.