Abstract: A defrost window includes a transparent substrate, a carbon nanotube film, a first electrode, a second electrode and a protective layer. The transparent substrate has a top surface. The carbon nanotube film is disposed on the top surface of the transparent substrate. The first electrode and the second electrode electrically connect to the carbon nanotube film and space from each other. The protective layer covers the carbon nanotube film.

Abstract: A heating cartridge is intended especially for a thermostatic working valve. The cartridge is provided with a resistance wire winding (3), which is wound on a winding support (2) and is embedded in an insulating material filling (5) in a metal sheathing (7). The metal sheathing (7) is provided at one end (6) with a dimensionally stable coupling element (8) manufactured from a plastic, in which connecting lines (17, 18) are arranged, which electrically connect pluggable contact elements, especially pins (9, 10) of a connector plug, to the ends of the resistance wire winding (3). To simplify the manufacture and to obtain a compact design, the connecting lines (17, 18) are rigidly seated in the coupling element (8).

Abstract: A heater probe assembly, a metallic glow plug assembly therewith and method of constructing the heater probe assembly is provided. The metallic glow plug assembly includes a metal shell having a through bore and a metal sheath extending between a distal end and a terminal end. The terminal end of the metal sheath is fixed in the through bore of the shell. Further, an electrode is provided having an end with a heating element attached to thereto. The heating element and end of the electrode are received in the sheath. A packing powder is disposed in the sheath about the heating element. Further, a ceramic seal has an outer surface attached to the sheath by a braze joint and an inner surface attached to the electrode by a braze joint. The ceramic seal provides a hermetic seal between the packing powder and an environment external to the sheath.

Abstract: A uniform heating assembly including at least one first insulative substrate, at least one first common terminal, at least one second common terminal and a multiplicity of conductive filaments at least partially embedded in the at one insulative substrate and extending at least mainly along both electrically parallel and geometrically parallel paths between the at least one first common terminal and the at least one second common terminal.

Abstract: A heat generating element for heating air in an electric auxiliary heater of a motor vehicle includes at least one PTC heating element and an insulating housing surrounding the PTC heating element as well as electric strip conductors lying against the PTC heating element at opposite sides. The housing is embodied in two parts with a housing shell element and a shell counter element which are lying against each other with the interposition of a sealing strip and sealingly surround the at least one PTC heating element. The present invention further relates to an electric auxiliary heater for a motor vehicle with a layer composition held in a frame, comprising the at least one heat generating element.

Abstract: A heating structure includes an opening that surrounds a heating element and a heat transfer element. Each heat transfer element is disposed between an exterior surface of the heating element and an interior surface of the opening. A clamping mechanism is used to clamp each heating element against a heat transfer element. Each heat transfer element partially surrounds a heating element and is configured to create at least two elongated and spatially separate contact regions along a length of the heating element. The at least two contact regions form a line of contact between the heating element and the interior surface of the opening when the heating element is clamped against the heat transfer element. The at least two contact regions allow the heating element to transfer heat to the opening and to the tooling device. The clamping mechanism may also be used to transfer heat to the tooling device.

Abstract: The invention provides a flexible hot plate and cooking unit, with a temperature differential of at least 40° C. between the two sides of the unit comprising a heating element sandwiched between an upper and a lower layer of flexible material wherein said upper layer provides a temperature along its upper surface of at least 80° C. for heating an object placed thereon, and said lower layer is provided with a plurality of insulating air passages.

Abstract: A heating device and a temperature control device are provided. The heating device includes a heating element, and a heat conducting film disposed on the surface of the heating element, wherein the heat conducting film has a surface area that is larger than the contact area between the heat conducting film and the heating element. The heat conducting film is used for uniformly conducting heat generated by the heating element. Therefore, the existing non-uniform heating and slow heat dissipation problems for the heating element having a large surface area can be solved. Furthermore, because the metallic heat conducting film has good heat conduction, the heat can be quickly spread over a larger area to prevent localized overheating and damage to the heating element itself or the electrical product.

Abstract: A ceramic heater (12) includes a substrate (60) and a resistor element (30) buried in the substrate (60). The resistor element (30) includes a heat-generating portion (33), lead portions (31), and intermediate portions (40) located between the heat-generating portions (33) and the lead portions (31). The intermediate portions (40) are formed such that, when cross sections at arbitrary two points P1 and P2 along the axis XA direction are compared, both the diameter CL of an imaginary circumscribed circle CG containing cross sections of the resistor element 30 and the total cross sectional area HS of the cross sections become small in the front end side cross section as compared with those in the rear end side cross section.

Abstract: A vaporizing dispenser comprising a user-activatable chemical reaction heat source and a volatile compound inside a container such that convection currents from the activated heat source volatilize the volatile compound and carry it out of the container.

Abstract: A heater with temperature detecting device, arranged to accurately detect the temperature of a laminated sheet heater over long periods, and a battery structure including the same. A first embodiment includes a laminated sheet heater and a temperature sensor having a temperature measuring portion. The laminated sheet heater includes first and second insulating resin films, a heater element, a first metal sheet, and a second metal sheet and includes a heater metallic section in which, any one of only the first metal sheet and only a combination of the first metal sheet and the second metal sheet is arranged in a lamination layering direction of the laminated sheet heater. The temperature sensor is fastened to the heater metallic section with a flat rivet and fixed to an outer surface of the first metal sheet with the temperature measuring portion in contact with the first metal sheet.

Abstract: Example embodiments provide micro-heaters including a heating section, a plurality of connecting sections, and a plurality of support structures. The heating section is on the substrate, separated from the substrate and extended in a longitudinal direction. The plurality of connecting sections are arranged at a distance from each other in the longitudinal direction of the heating section, and extended from two sides of the heating section in a perpendicular direction with respect to the longitudinal direction of the heating section. The plurality of support structures are formed between the substrate and the plurality of connecting sections, so as to support the heating section and the plurality of connecting sections from underneath the plurality of connecting sections.

Abstract: A far infrared ray ceramic flat plate heating module is provided. The far infrared ray ceramic flat plate heating module includes a ceramic heat-generating flat plate, an integrated terminal block for electrical distribution, a metal plate and a metal frame. The ceramic heat-generating flat plate includes a ceramic flat plate, a heat-generating film coated on a surface of the ceramic flat plate, silver paste electrodes configured on and coupled to two opposite sides of the heat-generating film, a first insulating layer coated on the heat-generating film and the silver paste electrodes, a temperature sensor configured by forming a temperature sensing paint layer on the first insulating layer, and a second insulating layer formed on the temperature sensor. The integrated terminal block is secured on the metal plate. The metal frame is disposed surrounding the periphery of the metal plate and the ceramic heat-generating flat plate.

Abstract: The invention relates to an electric hot wedge (1) for a welding device for the seam-like connecting of plastic webs, having a welding wedge (2) and a welding wedge attachment (3) made of metal, wherein the welding wedge (2) comprises at least one electric heating resistor (13) having a heating conductor (16), which is bonded to a ceramic carrier (15) as a conductive layer (12) and is preferably protected by a ceramic cover layer. According to the invention, the welding wedge attachment (2) has a support structure (28) made of metal on the side thereof, which substantially extends across the entire length and/or width of the electric heating resistor (16) and which mechanically stabilizes the carrier (15) of the heating resistor (16).

Abstract: A heating cable includes a bus wire structure that includes a plurality of bus wires. An insulation layer is provided to insulate the plurality of bus wires. A plurality of node areas exposes portions of the bus wires from the insulation. A heating element is wrapped around the bus wire structure in a helical manner. The heating element includes an insulating core and one or more resistance wires wrapped around the core in a helical manner. The heating element is electrically coupled to the nodes of the bus wire structure at the plurality of node areas. The insulating core may be made of a folded-over tape made of a cloth material, such as glass cloth. Pluralities of redundant paths in between two nodes are provided to allow for current to flow in a zone if one of the redundant paths is broken.

Abstract: A system includes a first heater located at the leading edge of a gas turbine structural member, a second heater located aft of the first heater, and a third heater located aft of the second heater. The first, second and third heaters are electrically-powered to prevent icing of the gas turbine structural member. Each of the heaters has a Watt density, and the Watt densities of the heaters differ from one another as a function of a magnitude of a cooling coefficient for airflow passing the vicinity of each heater.

Abstract: A vehicle includes a rear window and a defroster assembly including heating lines extending across the rear window. A protective barrier at least partially covers the heating lines. The protective barrier includes a film that provides a barrier between the heating lines and sulfur gases generated by components of the vehicle.

Abstract: A resistive heating element 30 has a higher molybdenum carbide content in a central portion 35 than in a peripheral portion 34. Since molybdenum carbides have a low temperature coefficient of resistance compared to molybdenum, the amount of heat generated in the central portion 35 of the resistive heating element 30 does not increase as much as in the peripheral portion 34 even when the temperature is increased, and the increase in difference in temperature between the peripheral portion 34 and the central portion 35 can be suppressed. In other words, generation of hot spots near the center can be suppressed and a good uniform heating property in a wide range of operation temperatures can be obtained.

Abstract: A heated element includes a thermally and electrically conductive polymer in a shaped or spaced arrangement. The spaced arrangement has at least one string of material with ends that are configured to be electrically connected to a power source. A first end is connected to a positive terminal of the power source while the other end is connected to a negative terminal of the power source. A hand grip includes the heating element disposed on an inner layer, and may include an outer layer. The spaced arrangement may be disposed between the inner and outer layer for indirect heating applications. Alternatively, portions of the spaced arrangement may protrude from either the inner layer or the outer layer for direct heating applications. The heated element may be used with a number of devices, including but not limited to, golf club grips, hand grips, heating pads, blankets, or other applications.

Abstract: A heating device made of ceramics includes: a plate-like heating base having a heating surface; and a hollow cylindrical support member bonded to a back surface of the heating base. A concave surface portion that connects the back surface of the heating base and an outer surface of the support member smoothly to each other is formed in the vicinity of an outer end of a bonding interface between the heating base and the support member. On a cross section including an axis of the support member, the concave surface portion has a curved line of an arc of a ellipsoid in which a minor axis direction is parallel to an axis direction of the support member.

Abstract: An electric heating blanket including a flexible sheet-like heating element and a shell. The shell covers the heating blanket an includes two sheets of flexible material welded together.

Abstract: A pocketable body warmer includes: a metallic exterior casing with a metal plate being formed in the shape of a tube having a closed bottom end and an open opposite end; and a plastic interior casing with an outer contour being formed to be inserted in the metallic exterior casing. The interior casing is provided with a battery storage portion and a battery is loaded in the battery storage portion. Also, a heater is thermally connected to the metallic exterior casing for heating the metallic exterior casing.

Abstract: Disclosed herein is a heating apparatus. The heating apparatus includes a plurality of heating bars, electric wires, and connection members. Each of the heating bars has a conductive carbon heating element and an insulating outer coat surrounding the carbon heating element. The electric wires are connected to respective ends of each of the heating bars to enable electricity to flow to the carbon heating elements. Each of the connection members includes insertion portions and at least one seating portion. The insertion portions have respective tip portions which are configured to pass through any of the electric wires and to be inserted into any of the carbon heating elements of the heating bars. The seating portion is provided at the upper ends of the insertion portions to be seated on the electric wire.

Abstract: The invention relates to a method for operating a heating element in a motor vehicle by pulse width modulation, wherein fluctuations in the supply voltage are compensated for by adapting the duty cycle so as to achieve a desired heating output. According to the invention, during a voltage pulse the voltage that is present at the heating element and/or the current flowing through the heating element are measured at specified intervals, and the measured values or values determined therefrom are added to calculate a sum value, which rises with the energy that is fed into the heating element by the voltage pulse, and the voltage pulse is ended at the latest when the sum value has reached a target value. The invention furthermore relates to a glow plug controller for carrying out the method according to the invention.

Abstract: A heater plate may be manufactured by receiving a sheath heater within a groove portion formed in a base member made of aluminum or aluminum alloy. At least one joint member made of aluminum or aluminum alloy may be placed into the groove portion so as to fix the sheath heater in the groove portion. The joint member may have two correspondingly tapered portions facing each other which extend toward a lower end thereof such that a distance between the two tapered portions becomes narrower and a width of a surface portion contacting with the sheath heater in the joint member is larger than a width of the sheath heater. The base member and the joint member may be metal-bonded such that a force is added from an upper surface of the base member toward the sheath heater direction, wit the sheath heater fixed in place therebetween.

Abstract: A heating unit for use in heating buckets or barrels. The heating unit includes a first pliable cover layer and a second pliable cover layer. A pliable electrical heating element is disposed between the first and the second cover layers and configured to convert electrical energy to heat energy and to distribute the heat energy. The pliable electrical heating element includes a heat generating element for converting electrical current to heat energy and a heat spreading element comprising carbon thermally coupled to the heat generating element. The heating unit further includes a thermal insulation layer. The heating unit includes a receiving power connector electrically connected to the heat generating element. The heating unit further includes one or more fasteners allowing the heating unit to be wrapped around a bucket or barrel and secured by the one or more fasteners.

Abstract: The heating apparatus comprises a stratified and flattened body, said body comprising, from the centre outwards, two first layers of laminar electricity conducting elements coupled together by interposing one centre layer of first laminar insulating means; two second layers of second laminar insulating means covering said two first layers; at least one third layer of laminar means covering said second layers, said second layers comprising sheets of adhesive material that can be removed by pulling them from said first layers.

Abstract: Disclosed is a reactor including: a heater provided on a surface of the reactor; an electrical insulating film which covers the heater and includes a crystalline RFeO3, where R is a rare earth element; and a radiation prevention film provided on the insulating film.

Abstract: A towel dryer includes an aluminum body having an outer surface that supports a towel to be dried. The surface has a degree of reflectance of not less than 80% for more efficient transfer of heat from the body to the towel. The outer body surface is an oxidized surface to resist corrosion, and a clear coating may be provided over the surface.

Abstract: A more comfortable seat is provided by detecting whether or not a person is in a seat. A seat has a heating element 1, a seat surface temperature detector 5 that is situated below a seat surface cover and that detects the temperature of the seat surface, and a seating determination unit 6 for determining whether or not a seat is occupied. A determination is made as to whether or not a seat is occupied according to an amount of temperature change detected by the seat surface temperature detector 5 for a predetermined period of time, whereby a determination can be readily made as to whether or not a person is seated. When no one is seated, application of power to the heating element 1 is stopped, and the like, which in turn contributes to energy saving and enhancement of fuel efficiency.

Abstract: A bonding structure including: a ceramic member made of aluminum nitride and including a hole; a terminal embedded in the ceramic member, exposed to a bottom surface of the hole, and made of molybdenum; a brazed bond layer consisting of gold (Au) only; and a connecting member inserted in the hole, bonded to the terminal via the brazed bond layer, and made of molybdenum.

Abstract: A susceptor [1] is manufactured by providing a protruding part [8] on the joining surface of a retainer plate [4], and additionally providing a groove part [9] composed of a dovetail groove on the joining surface of a heat transfer plate [3] in a position facing the protruding part [8]. By fitting the protruding part [8] into the groove part [9] and caulking, the heat transfer plate [3] and the retainer plate [4] are conjoined.

Abstract: A heated element includes a thermally and electrically conductive polymer in a shaped or spaced arrangement. The spaced arrangement has at least one string of material with ends that are configured to be electrically connected to a power source. A first end is connected to a positive terminal of the power source while the other end is connected to a negative terminal of the power source. A hand grip includes the heating element disposed on an inner layer, and may include an outer layer. The spaced arrangement may be disposed between the inner and outer layer for indirect heating applications. Alternatively, portions of the spaced arrangement may protrude from either the inner layer or the outer layer for direct heating applications. The heated element may be used with a number of devices, including but not limited to, golf club grips, hand grips, heating pads, blankets, or other applications.

Abstract: A heat-generating element includes at least one PTC heating element, strip conductors lying flat on it on both sides, and a frame which forms at least one frame opening for holding the at least one PTC heating element. The frame, as a part of a housing, forms a structural unit with a wedge element having a first wedge surface that extends parallel to the strip conductor and a second wedge surface that lies exposed on the exterior side of the housing and that is aligned diagonally to the first wedge surface. For fixing the heat-generating element precisely in place in a slot in the housing, the heat-generating element has spacing surfaces positioned upstream or downstream of the at least one PTC heating element in the direction of the length of the slot. Also provided is a method of manufacturing an electric heating device.

Abstract: A high-power plastic aquarium heater includes a narrow, elongated, flat nickel-chrome steel strip wound on a mica tube and electrically connected with a circuit board inside a tubular plastic casing, and vacuum mounts fastened to the tubular plastic casing with pipe clamps for securing the tubular plastic casing to the inside wall of an aquarium. The use of the narrow, elongated, flat nickel-chrome steel strip facilitates positioning of the mica tube in the longitudinal center axis of the tubular plastic casing for even distribution of heat energy. Further, the nickel-chrome steel strip has a broad heat generating surface area in one particular direction to that the high-power plastic heater has a high performance while saving much the consumption of electric power.

Abstract: The invention relates to a flat heater, which is used for applications in the range of heating voltages of up to 1000 V, produces attainable powers of up to 2 kW/m2 and is characterized by the fact that the electrical resistance required for the heating is formed by an electrically conductive cellulose nonwoven. Metallic contacts which are incorporated ensure the connection of the conductive cellulose nonwoven to a voltage source. Polymer films applied on both sides provide mechanical and electrical protection and prevent the ingress of moisture into the cellulose nonwoven.

Abstract: A heating element includes a plurality of folded surfaces which can be resistively heating using electrical current. The heating element can advantageously function both as a heating source and a heat transfer device, as the need for separate fins or other heat dissipation members is eliminated. In some embodiments, the heating element can be included in a fluid heating system. The fluid heating system can include a fluid transfer device configured to deliver a volume or ambient air or other fluid through the heating element. As air moves past the heated folded surface of the heating element, it is heated. Heated air can then be discharged to one or more desired locations.

Abstract: The present invention relates to a thin film heater (2) including a thin film heat-producing resistor, and a first and a second thin film electrodes (22, 24) electrically connected to the thin film heat-producing resistor to apply voltage to the thin film heat-producing resistor. In the thin film heater (2), at least part of the thin film heat-producing resistor is light transmissive. Preferably, the first thin film electrode (22), the thin film heat-producing resistor and the second thin film electrode (24) are laminated in the film thickness direction in the mentioned order. The present invention further provides an analytical instrument (X) provided with the thin film heater (2).

Abstract: A positive temperature coefficient heater may include at least one positive temperature coefficient rod having a heating module inserted into a rod case made of brass and plated with tin, at least one heat-radiating fin made of brass, plated with tin, and contacted and coupled with each of opposite outer faces of the positive temperature coefficient rod, and upper and lower housings coupled to opposite longitudinal ends of the positive temperature coefficient rod, wherein the positive temperature coefficient rod and the heat-radiating fin are joined together by soldered portions.

Abstract: A tubular heater includes a continuous heat-generating resistance element formed in a predetermined pattern on one surface of a tubular insulating substrate, and first and second lead wires connected opposite ends of the heat-generating resistance element and extending from one end of the tubular insulating substrate in a common axial direction of the tubular insulating substrate. The first and second lead wires are disposed in diametrically opposed relation to each other about a central axis of the tubular insulating substrate.

Abstract: A heating cable includes a bus wire structure that includes a plurality of bus wires. An insulation layer is provided to insulate the plurality of bus wires. A plurality of node areas exposes portions of the bus wires from the insulation. A heating element is wrapped around the bus wire structure in a helical manner. The heating element includes an insulating core and one or more resistance wires wrapped around the core in a helical manner. The heating element is electrically coupled to the nodes of the bus wire structure at the plurality of node areas. The insulating core may be made of a folded-over tape made of a cloth material, such as glass cloth. Pluralities of redundant paths in between two nodes are provided to allow for current to flow in a zone if one of the redundant paths is broken.

Abstract: An electrical heating apparatus has: a fin brazed on at least one of a main body upper wall and a main body lower wall of a tube; an insertion unit having an electro-heat-generating element pressure-welded to a wall of one of the main body upper wall and the main body lower wall; and an edge part projecting in the width direction from each of main body vertical walls to form an edge space. The edge space is formed so as to be continuous with the insertion space and is smaller in thickness dimension than the thickness dimension of the insertion unit. The edge part has an edge part upper wall, an edge part lower wall, and an edge part vertical wall disposed in a concave shape.

Abstract: The invention depicts and describes a panel heating device (1) for placing in the area of floors, walls or ceilings, comprising an electrically conductive layer (2), another first layer (3), and electrical supply lines (5, 6). The invention provides that the first layer (3) is made of an electrically insulating and liquid-tight material.

Abstract: Defrosting, defogging, and de-icing structures are disclosed herein. An example of the structure includes at least one optically transparent member, at least one electrical strip extending along the at least one surface of the at least one optically transparent member; and an optically transparent composite established on at least the at least one surface of the at least one optically transparent member. The composite is in thermal communication with the at least one electrical strip. The composite includes a matrix, and a predetermined amount of graphene. The predetermined amount is based upon a predetermined transparency for the structure and a predetermined thermal conductivity of the structure. Furthermore, the structure is configured such that the graphene functions as a thermal conductor for substantially uniform heating of the composite and not an electrical conductor.

Abstract: An aircraft heating system wherein the heater includes a haven (34) constructed from dielectric layers (40-50), conductive lanes (60), bus bars (70), and strips (80-150). Façade sections (41, 51, 61) of the dielectric layers (40-50) and the lanes (60) form the primary heating surface (31). The strips (80-150), along with sections (42, 52, 62) of the layers/lanes, form havens (34) for harbor sections (72) of the bus bars (70).

Abstract: A system includes a first heater located at the leading edge of a gas turbine structural member, a second heater located aft of the first heater, and a third heater located aft of the second heater. The first, second and third heaters are electrically-powered to prevent icing of the gas turbine structural member. Each of the heaters has a Watt density, and the Watt densities of the heaters differ from one another as a function of a magnitude of a cooling coefficient for airflow passing the vicinity of each heater.

Abstract: [Problem] When abnormal conditions are encountered, for example, when the flow of a large current takes place immediately after the start-up of operation, due to a difference in instantaneous thermal expansion between a heat-generator and a base body, a gap may develop between them or cracks may appear in the base body. [Solution] A ceramic heater (10) is constructed by embedding a heat-generator (2) in a base body (1) made of ceramics. The heat-generator (2) has a recess (5) in a surface thereof, the ceramics being inside the recess (5). Even if a great thermal stress is developed due to a difference in thermal expansion between the heat-generator (2) and the base body (1), by the recess (5) inside which the ceramics that forms the base body (1) exists, occurrence of a gap between the heat-generator (2) and the base body (1), as well as appearance of cracks in the base body (1), can be prevented even in the direction of the length of the heat-generator (2) in which the thermal stress is applied heavily.

Abstract: A heating system in the form of a multi-layer, yet relatively thin and flexible panel. The panel contains a number of layers including first, second and third electrically insulating layers. A first electrically conductive resistive layer (heater layer) is sandwiched between the first and second insulating layers. A second electrically conductive resistive layer (resistive neutral plane layer) is sandwiched between the second and third insulating layers. The heater layer has a neutral electrical connection and a live electrical connection. The neutral and live electrical connections are electrically connected to each other at the panel only by electrically resistive material of the heater layer extending between the neutral and live electrical connections. The resistive neutral plane layer has a neutral electrical connection electrically connected with the neutral connection of the heater layer.

Abstract: An insulated conductor heater may include an electrical conductor that produces heat when an electrical current is provided to the electrical conductor. An electrical insulator at least partially surrounds the electrical conductor. The electrical insulator comprises a resistivity that remains substantially constant, or increases, over time when the electrical conductor produces heat. An outer electrical conductor at least partially surrounds the electrical insulator.

Abstract: The product is basically a heating blanket that is adapted in size to fit around a canister of refrigerant used to recharge heat pumps, air conditioners and refrigerators in a commercial or home setting. The blanket has a heating element within it which heats the canister when placed around the canister. From one corner of the blanket is an electrical cord which runs to a small control unit and then to a plug that fits a common 110 voltage household outlet. The control unit consists of a fitting that is designed to be attached to the valve on the top of the refrigerant canister. This fitting is attached to a pressure sensitive valve that sense the pressure of the refrigerant that passes through the valve. This pressure sensitive valve turns off the flow of electric to the blanket when the gas hits a certain pressure.