Abstract: An improved solid heat transfer element composed of an elongate member having a generally cylindrical surface with male vortex generating protrusions is provided. The vortex generating protrusions, which may be referred to as “turbulators,” provide improved heat transfer by convection to a flow of air transverse to the elongate members without substantially increasing the pressure drop in the flow of air passing over the members. Advantageously, a plurality of the heat transfer elements, or of straight portions of a single serpentine heat transfer element, may be arranged in an aligned or staggered array of elements or straight portions. Many advantageous profile shapes of the element and vortex generators are provided, including aerodynamic profile shapes that are symmetrical with respect to a fluid flow to provide low drag and pressure drop. Heat in the element may be generated by means of electrical resistance or absorption of radiation.

Abstract: An apparatus, such as a heater, is provided that includes a base member having at least one fluid passageway. A two-phase fluid is disposed within the fluid passageway, a pressure of the two-phase fluid being controlled such that the two-phase fluid provides at least one of heating and cooling to the base member. A tuning layer is secured to the base member, and the tuning layer includes a plurality of zones. Furthermore, a component, such as a chuck by way of example, is secured to the tuning layer.

Abstract: A heater comprising: (a) a non-woven heating layer having: a forward surface, a rearward surface, and a plurality of edges around a periphery of the heating layer; (b) two or more connections to a power source; wherein the heating layer is made up of a plurality of individual fibers that are randomly oriented; and wherein substantially all of the non-woven heating layer produces heat when power is to the non-woven heating layer.

Abstract: A micro heater includes a first electrode, a second electrode, a first carbon nanotube, and a second carbon nanotube. The first carbon nanotube extends from the first electrode. The second carbon nanotube branches from the second electrode. The first carbon nanotube and the second carbon nanotube intersect with each other to define a node therebetween.

Abstract: The present invention relates to a heating element comprising: two or more heating units comprising two busbars and a conductive heating means electrically connected to the two busbars, in which the busbars of the heating units are connected with each other in series and power per unit area of each of the heating units in the heating element decreases as a length of the busbar increases, and a method of preparing the same.

Abstract: Provided are a quick heating equipment that is small sized, has a simple structure, consumes less energy, and is easy repairable and replaceable, and a quick heating method. The heating equipment of a plate material to be heated has a contact-heating surface configured by arranging a plurality of heating elements on heat-insulating base plates at predetermined intervals, in a planar fashion and in a predetermined pattern and the contact-heating surface(s) is/are directly contacted with the plate material to be heated for heating thereof.

Abstract: A surface heating system and method of heating a surface in which there are two or more heating cables adapted to be embedded in a cementitious material and using a single feed cold lead wire is described. One or more heating cables are provided to define one or more heating circuits. The heating cables have electrically conductive wires. A cold lead connector is secured to the electrically conductive wires at an end of the one or more heating cables. A feed cold lead wire is secured at one end to a thermostat to which is connectable an electrical supply source, and at a second end to the cold lead connector of the one or more heating cables.

Abstract: The helix heated hoses 10 and 12 use two features to increase the flexibility. The first feature is a braided-copper heating element 14, which has increased flexibility over the prior art solid copper heating element. The element is spiral wound around the hose and held in place with a moisture barrier 16. The second feature is the helix twist 18 located just before the point where the hoses 10 and 12 attach to the manifold 20. The helix feature is created with the helix support 22, which initiates the twist around 24 inches back from the point of termination. The helix feature works to reduce the moment of inertia about the neutral axis 26 of the two supply hoses 10 and 12.

Abstract: In the heating device, PTC heating elements arranged between current rails lying opposite each other are used, which are fed with supply current from a control electronics unit via the current rails. Metallic heating rib structures are respectively coupled to one of the current rails via an electrically insulating but thermally conducting coupling layer. The air to be heated flows through the heating rib structures which have an undulating shape. The metallic heating rib structures are electrically connected to vehicle ground and thus form a shield that eliminates emissions of electromagnetic interfering radiation without impeding the flow of air.

Abstract: A vane type electric heater includes a heat generator and a vane structure, and the heat generator includes a rod, and the vane structure includes a plate and at least one heat pipe attached on a surface of the plate, and the plate includes a through hole for passing the rod, and the heat pipe surrounds the periphery of the through hole for enhancing the speed of thermal conduction and the effect of uniform temperature, so as to improve the heat output performance of the invention.

Abstract: A micro-heater according to example embodiments may include a metal line formed on a substrate. A deforming portion may be integrally formed as part of the metal line. A support may be positioned between the metal line and the substrate. The support may secure the metal line to the substrate while spacing the metal line apart from the substrate. When the metal line is expanded or compressed by the heating or cooling that occurs during the operation of the micro-heater, the deforming portion of the metal line may deform so as to help absorb the resulting tensile stress. As a result, the amount of tensile stress experienced by the metal line may be decreased. Accordingly, the possibility of breakage of the metal line may be reduced or prevented.

Abstract: A method of fabricating a composite item may include dispensing a composite material comprising a reinforcement and a resin. The method may further include energizing an infrared heat source. The infrared heat source may tend to generate a wavelength of electromagnetic radiation that is preferentially absorbed by the reinforcement. The method may additionally include controlling power to the infrared heat source to cause the infrared heat source to emit a wavelength of electromagnetic radiation that is absorbed by the resin to a relatively greater extent than the wavelength of electromagnetic radiation that is absorbed by the reinforcement.

Abstract: The present invention describes a blade for a wind turbine. The blade includes a heating mat for generating heat by resistive heating, wherein the heating mat is mounted to the blade. The heating mat includes a first heating power emitting section for emitting a first heating power and a second heating power emitting section for emitting a second heating power. The heating mat is coupleable to a power supply unit for transferring power to the heating mat in such a way that the first heating power differs to the second heating power.

Abstract: A steam oven includes a cooking cavity for receiving food product and a water reservoir for receiving water to be heated to generate steam, the water reservoir defined in part by a bottom wall structure of the cooking cavity. A heater plate located adjacent the bottom wall structure delivers heat through the bottom wall structure to water in the water reservoir. A spring-loaded heater plate mount arrangement supports the heater plate adjacent the bottom wall structure while permitting some movement of the heater plate.

Abstract: The present invention provides a heater apparatus that divides a heater capacity (heater wire), connects the divided heater wire portions each other outside the heater, changes a connection mode outside irrespective of which of a 100 V system or a 200 V system is used as a supply voltage, and can thereby suppress a heater temperature to within a safe range even in a continuous current conduction mode, use a common heater and suppress management cost. Furthermore, since the heater wires are connected each other outside the heat insulating layer for the heater embedded in the heat insulating layer of the refrigerator, the present invention provides a heater apparatus capable of reducing production loss due to misconnections and using a common heater.

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: 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 gas heating device and a processing system for use therein are described for depositing a thin film on a substrate using a vapor deposition process. The gas heating device includes a heating element array having a plurality of heating element zones configured to receive a flow of a film forming composition across or through said plurality of heating element zones in order to cause pyrolysis of one or more constituents of the film forming composition when heated. Additionally, the processing system may include a substrate holder configured to support a substrate. The substrate holder may include a backside gas supply system configured to supply a heat transfer gas to a backside of said substrate, wherein the backside gas supply system is configured to independently supply the heat transfer gas to multiple zones at the backside of the substrate.

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: A very thin, laminated sheet material supplies evenly-distributed heat over its entire surface when an electrical voltage is applied to its opposite faces has an interior layer material sandwiched between outer layer materials. The sheet may be cut into any shape and produces an even heat with a constant watt-density over its entire surface at the same low voltage, regardless of size. The voltage may be applied at any point on the opposite faces of the material to produce the same effect.

Abstract: A microheater for heating at least one target area, the microheater comprising a substrate, a resistive material adjacent to the substrate and connector traces connected to the resistive material. The microheater is formed so that when a predetermined current flows through the resistive material, the target area is heated to a substantially isothermal temperature.

Abstract: To fabricate a composite item, an infrared heat source is energized and a composite material is dispensed. The composite material includes a reinforcement and a resin. In addition, the composite material is applied to a substrate of previously applied composite material. The infrared heat source is configured to emit a wavelength of electromagnetic radiation that is absorbed by the resin to a relatively greater extent than the wavelength of electromagnetic radiation is absorbed by the reinforcement.

Abstract: A substrate supporting mechanism includes a function for heating a substrate placed thereon in a process container of a substrate processing apparatus. The substrate supporting mechanism includes a worktable configured to place the substrate thereon and including a heating element made of silicon carbide and formed in a predetermined pattern; an electric feeder electrode configured to supply electricity to the heating element; and a partition member made of an electrically insulating material and interposed between portions adjacent to each other in the heating element formed in the predetermined pattern.

Abstract: A heater for heating an aerosol-forming substrate includes a plurality of elongate heating elements arranged in an elongate array. The elongate array has a support end with a first dimension, a heating end with a second dimension and a middle portion with a third dimension. The array is arranged to heat the substrate to form an aerosol. The third dimension is greater than the first dimension and greater than the second dimension. An electrically heated aerosol generating system can include the heater.

Abstract: An internal start-up heater (10) for an ammonia reactor (1), comprising longitudinal heating members (16) and a supporting structure for said heating members (16), the structure comprising plates (20A-20D) with parallel beams (22A-22D) in contact with said heating members (16), wherein the plates are arranged in plate sets formed by at least a first and a second plate having differently arranged supporting beams.

Abstract: A gas heating device that may be used in a system for depositing a thin film on a substrate using a vapor deposition process is described. The gas heating device may be configured for heating one or more constituents of a film forming composition. The gas heating device comprises one or more resistive heating elements. Additionally, the gas heating device comprises a mounting structure configured to support at least one of the one or more resistive heating elements. Furthermore, the gas heating device comprises a static mounting device coupled to the mounting structure and configured to fixedly couple the at least one of the one or more resistive heating elements to the mounting structure, and a dynamic mounting device coupled to the mounting structure and configured to automatically compensate for changes in a length of the at least one of the one or more resistive heating elements.

Abstract: To provide a heater that can reduce fixing failure in a paper passing area while suppressing a temperature rise in a sheet non-passing area, and a fixing apparatus including the heater. Resistors are connected in parallel between two conductive patterns that are provided on a heater substrate along the longitudinal direction of the substrate, and resistors are arranged so that the shortest current path of each of the resistors can overlap the shortest current path of an adjacent resistor in the longitudinal direction of the substrate.

Abstract: A steam oven includes a cooking cavity for receiving food product and a water reservoir for receiving water to be heated to generate steam, the water reservoir defined in part by a bottom wall structure of the cooking cavity. A heater plate located adjacent the bottom wall structure delivers heat through the bottom wall structure to water in the water reservoir. A spring-loaded heater plate mount arrangement supports the heater plate adjacent the bottom wall structure while permitting some movement of the heater plate.

Abstract: Provided are a quick heating equipment that is small sized, has a simple structure, consumes less energy, and is easy repairable and replaceable, and a quick heating method. The heating equipment of a plate material to be heated has a contact-heating surface configured by arranging a plurality of heating elements on heat-insulating base plates at predetermined intervals, in a planar fashion and in a predetermined pattern and the contact-heating surface(s) is/are directly contacted with the plate material to be heated for heating thereof.

Abstract: A storage device transporter is provided for transporting a storage device and for mounting a storage device within a test slot. The storage device transporter includes a frame that is configured to receive and support a storage device. The storage device transporter also includes a conductive heating assembly that is associated with the frame. The conductive heating assembly is arranged to heat a storage device supported by the frame by way of thermal conduction.

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: A heater that may be applied to a substrate. The heater may include a graduating material deposited on at least a portion of a substrate, a resistive material and a thermal barrier dielectric coating. The resistive material may include at least two resistive compositions, wherein the resistivity of the material may be altered by varying the composition in given areas.

Abstract: The present invention relates to a self-regulating electrical resistance heating element, to an appliance containing same, and to processes for their manufacture. The self regulating electrical resistance heating element (10) comprises a substrate (12) comprising an electrically conductive coating (12a) which serves as a first electrical contact (18) on one side of the composite metal oxide layers. Disposed on said electrically conductive layer (12a) is a first metal oxide (14) which has a positive temperature coefficient of resistance. Overlaying the first metal oxide layer, and in electrical series thereto, is a second metal oxide layer (16) having a negative temperature coefficient of resistance and overlaying this layer is a second electrical contact (20). The second metal oxide layer (16) having a negative temperature coefficient of resistance is applied to the element in a manner which ensures it's resistive characteristics are not altered.

Abstract: An electromagnet heating cable includes a center core, an inner layer body formed around the center core, an intermediate layer body formed around the inner layer body, an outer layer body formed around the intermediate layer body, an inner layer coil having a magnetic core disposed between the center core and inner layer body, an intermediate layer coil disposed between the inner layer body and the intermediate layer body, and an outer layer coil disposed between the intermediate layer body and outer layer body, wherein when a temperature of the heating cable exceeds a threshold, the intermediate layer body melts to electrically connect the intermediate layer coil to the outer layer coil.

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 improved heater for processing materials or growing crystals in supercritical fluids is provided. In a specific embodiment, the heater is scalable up to very large volumes and is cost effective. In conjunction with suitable high pressure apparatus, the heater is capable of processing materials at pressures and temperatures of 0.2-2 GPa and 400-1200° C., respectively.

Abstract: A heating device with plural thermistors comprises a conductive unit and plural positive temperature coefficient thermistors with different heat generation efficiencies. The positive temperature coefficient thermistors are provided on the conductive unit. With the characteristic that the electric resistance decreases with the increase of temperature of the thermistors, the temperature of the heating device can be kept constant, and different heating temperatures can be produced by controlling the number of the acting thermistors.

Abstract: Provided are a heated exhaust pipeline, a related plurality of heating elements attached to an exhaust pipeline, and a method of controlling the plurality of heating elements. Individual heating elements are characterized by a temperature indicator and/or an alarm.

Abstract: An integrate device includes a heater thermally coupled to a plurality of flow-through tubes to perform thermally-driven chemical reactions. A wire mesh heater is wrapped around each of multiple flow-through tubes, thereby creating a thermal interface between the mesh and the tubes. Each end of the wire mesh is coupled to an electrical contact. The electrical contacts are preferable positioned at an exterior portion of the integrated device to be easily placed in electrical contact with a voltage source. As current passes through the mesh, heat is produced. The heat passes from the mesh to each of the flow-through tubes via the thermal interface. The flow-through tubes can be fluidically coupled to a sample preparation module. The sample preparation module, the flow-through tubes, and the heater can be integrated within a single integrated device that provides automated sample preparation and thermally-driven chemical reactions for a variety of applications.

Abstract: The heating device mainly contains a dual-core heat cable and a control circuit. The dual-core heating cable mainly contains a core, a heating wire winding spirally around the core, a NTC (negative-temperature-coefficient) layer wrapping around the core and the heating wire, a PTC heating wire winding spirally around the NTC layer, and an insulating layer wrapping around the NTC layer and the PTC heating wire. The control circuit monitors the PTC heating wire's current for constant temperature control, and the leakage current through The NTC layer as a second over-temperature protection. As such, the heating device has a superior constant temperature effect and avoids the problem of burning down the heating cable. The heating device therefore has a longer operational life span.

Abstract: A cartridge heater, especially a compressed cartridge heater (1) has at least one heating coil (8, 9), which is arranged exposed in a metallic tubular body (2) and is embedded in a granulated insulating material. The ends of heating coil portions (8, 9) are provided with terminals (7) projecting from the tubular body (2). To make it possible to manufacture such a cartridge heater with minimal effort in terms of labor and material, a flat insulating plate (10) coordinated in its width with the internal diameter of the tubular body (2) is provided as the carrier. The heating coils (8, 9) extend along the two flat sides of the insulating plate (10) and the two heating coils (8, 9) are connected to one another by a coil section (12, 12?), which is led around a deflecting edge (27) of the insulating plate (10).

Abstract: A flexible thermal radiator made by using two comb powering conductors to power the electrical heating element. The electrical current passes from one powering conductor to the other through the electrical heating element. The comb powering conductors provide an even distribution of currents throughout the structure and hence maintain a uniform current density that results in uniform temperature distribution of the structure avoiding hot-spots.

Abstract: The present invention relates to a ceramic heating element, a ceramic heating element with terminals, and a ceramic heating tube, which consists of a mixture of china clay powder in a volume of 25% to 75% and conductive graphite powder in a volume of 25% to 75%, a vitreous insulation layer, and an enamel layer. The mixture is sintered to form the vitreous insulation layer and the enamel layer from inside to outside. Inside the vitreous insulation layer is the mixture of the china clay powder and the conductive graphite powder which are not vitrified to form a conductive layer. The ceramic heating element has two ends connected with a first terminal and a second terminal to form a ceramic heating element having terminal or a ceramic heating tube for heating.

Abstract: An electric heating element with radiant tube comprising a radiation pipe (1) and an electric heating element (2, 3) contained in said pipe, wherein the heating element has legs that run to and fro in the pipe, and wherein the heating element is connected at one end of the pipe close to a furnace wall with electric power outlets through which electric current is fed to the element, wherein the element is supported in the pipe by ceramic discs (9) that are provided with through-penetrating holes through which the legs of the elements extend, and wherein two elements (2, 3) are disposed sequentially in said radiation pipe along its long axis.

Abstract: Provided is a heating resistance element component, including: a supporting substrate; an insulating film laminated on the supporting substrate; a plurality of heating resistors arranged at intervals on the insulating film; a common wire connected to one end of each of the plurality of heating resistors; and individual wires each connected to another end of the each of the plurality of heating resistors, in which a surface of the supporting substrate is formed with a first concave portion and a second concave portion, the first concave portion being arranged in a region opposed to heating portions of the plurality of heating resistors, the second concave portion being arranged at an interval in a vicinity of the first concave portion. Accordingly, heating efficiency of the heating resistors can be increased to reduce power consumption, and a strength of the substrate under the heating resistors can be increased.

Abstract: A heating element that can maintain a laminator at a predetermined working temperature is disclosed. A low-power heating filaments and a high-power heating filaments are sandwiched between insulators. The high-power heating filaments are shut down once it is heated to a predetermined temperature. The low-power heating filaments are then turned on to maintain a constant temperature. When the temperature drops below a predetermined temperature, the low-power heating filaments are shut down and the high-power heating filaments are turned on to heat up the laminator. The temperature is thus maintained within a predetermined range through such cycles.

Abstract: A heating body is provided. The heating body includes a tube and a heating member disposed in the tube. When a radius from a center of the heating body to an outer circumference of the heating member is “r,” a radius of the tube is equal to or greater than 1.6r.

Abstract: A system and method for providing a woven fabric system is provided. Generally, regarding the structure of the system, the system contains a top fabric layer, a heating element, and a bottom fabric layer. The heating element further contains at least two electrically conductive buses, wherein the electrically conductive buses are parallel to each other, a series of electrical resistive wires located between the at least two electrically conductive buses, and a horizontal electrically conductive bus connecting the at least two electrically conductive buses to each other. The top fabric layer, the heating element, and the bottom fabric layer are connected to prevent the heating element from moving within the system.

Abstract: Oven for non-metal melting, in particular silicon melting, with a housing enclosing an interior, at least one mould arranged in the interior for receiving a non-metal melt, at least one electrical heating device enclosing, at least partially, the at least one mould for influencing the temperature of the non-metal melt, and a power supply device connected in an electrically conductive manner to the at least one heating device for providing the heating device with a time-variable current I(t), wherein the current I(t) has a frequency of 0.1 Hz to 1000 Hz and the current I(t) is of a magnitude sufficient for setting a predetermined temperature of the non-metal melt, the currents in the plurality, where necessary, of heaters having a defined phase position in respect of one another.

Abstract: The present invention generally relates to an insulating heater jacket, and more particularly, to a silicone rubber and a heater controller for an insulating heater jacket. According to the present invention, the use of the silicone rubber molded out of a mixture of polymethyl vinyl silica oxide solutions improves durability. Furthermore, a duplex heating pad is provided using first and second heaters, and a microprocessor and a temperature sensor monitor malfunction of the dual heating wires and perform control in such a manner that upon malfunction of one of the heating wires, the other heating wire can be operated. Therefore, there are advantages in that temperature can be accurately controlled and reliable performance can be always ensured without any malfunction.