Abstract: A layered structure is produced on a support structure's surface. The layered structure can include a component that responds electrically to thermal signals, such as a thermistor, and can also include a layer part that has a printed patterned artifact such as an uneven boundary or an alignment. A layered structure can be produced by depositing a layer of material, printing a mask, and removing the exposed part of the layer.

Abstract: A method is provided for filling a hollow structure with metal foam. A mixture is made of a metal powder and a foaming agent. An electric resistance heating wire is provided and the mixture is consolidated into a solid preformed charge with the wire embedded in the charge and extending from the ends thereof. The preformed charge is placed into the hollow structure and electric current is applied to the resistance heating wire so that the metal powder is melted and the foaming agent foams the melted metal to fill the hollow structure.

Abstract: Methods for fabricating micro-fluid ejection heads and micro-fluid ejection heads are provided herein, such as those that use non-conventional substrates. One such micro-fluid ejection head includes a substrate having first and second glass layers disposed adjacent to a surface thereof and a plurality of fluid ejection actuators disposed adjacent to the second glass layer. The first glass layer is thicker than the second glass layer and the second glass layer has a surface roughness of no greater than about 75 ? Ra.

Abstract: A heating element includes a continuous planar strip and a plurality of mounting members. A path of the continuous strip from a first end to a second end is circuitous and includes a plurality of repeating cycles, each of which includes a plurality of first straight segments, a plurality of second straight segments and a plurality of radiused segments. A length of the first straight segment is greater than a length of the second straight segment and an angular sum of a single cycle of the circuitous path is greater than 360 degrees. The heating element can be incorporated into a heating assembly for, as an example, semiconductor processing equipment.

Abstract: A mass flow sensor is manufactured by a process of carrying out a micro-machining process on an N or lightly doped P-type silicon substrate with orientation <100>. This mass flow sensor comprises a central thin-film heater and a pair of thin-film heat sensing elements, and a thermally isolated membrane for supporting the heater and the sensors out of contact with the substrate base. The mass flow sensor is arranged for integration on a same silicon substrate to form a one-dimensional or two-dimensional array in order to expand the dynamic measurement range. For each sensor, the thermally isolated membrane is formed by a process that includes a step of first depositing dielectric thin-film layers over the substrate and then performing a backside etching process on a bulk silicon with TMAH or KOH or carrying out a dry plasma etch until the bottom dielectric thin-film layer is exposed.

Abstract: A micro-heater according to example embodiments may include a substrate, a metal pattern, and a passivation layer. The metal pattern may be spaced apart from the substrate. The passivation layer may be on the metal pattern and made of a solid solution including a material constituting the metal pattern. Alternatively, the passivation layer may be on the substrate and the metal pattern. A method for manufacturing a micro-heater according to example embodiments may include arranging a metal pattern so as to be spaced apart from a substrate. A first passivation layer may be formed on the substrate and the metal pattern. A voltage may be applied to the metal pattern to heat the metal pattern. As a result, a material constituting the metal pattern may diffuse into the first passivation layer to form a second passivation layer.

Abstract: A soldering device includes a tip member and a temperature sensor embedded within the tip member by a buckled copper pipe that is thermally conductive. A soldering device includes a tip member and a temperature sensor embedded within the tip portion by application of a crimping force that deforms the tip portion onto the temperature sensor. A soldering device includes a tip member, a heater member, and a thermally conductive wedge that is pushed into a gap between the tip member and the heater member. A soldering device includes a tip cartridge carried by a handle assembly that includes an o-ring and an o-ring cover that keeps the o-ring from falling off of the handle assembly. The o-ring cover includes a hook portion that engages a catch feature of the handle housing.

Abstract: An electric heating film comprising of an first polymeric layer having a top surface and bottom surface, a second polymeric layer, a metalized surface, and conductive bus electrodes. The top surface of the first polymeric layer includes a continuous metalized surface of vacuum deposited metal coating and at least one pair of parallel spaced conductive bus electrodes, i.e. copper strips, for connection to a power source. The conductive bus electrodes are conductively adhered to the metalized surface to distribute an electrical current onto the metalized surface to provide a heat across the metalized surface. The second polymeric film sheet layer is provided as a protective layer positioned atop of the top surface of the first polymeric film sheet or enclosing the top and bottom surface of the first polymeric film sheet.

Abstract: A connector for incorporation into a heater system for inlet struts includes a body having a tapered forward end and an opposite rear end. A plurality of forward electrical terminals are formed on the outer surface of the tapered end. A plurality of rearward electrical terminals are formed on the rear end of the body. The rearward electrical terminals are in electrical connection with the forward electrical terminals. The forward electrical terminals on the tapered end are in electrical contact with a plurality of electrical contacts connected to heating elements formed in a heating mat. The heating mat entirely envelops the connector. The heater mat is formed within a substantially rigid outer shell.

Abstract: Provided is a micro heater, which includes an elastic thin film formed by sequentially depositing a first silicon oxide layer, a silicon nitride layer and a second silicon oxide layer, a heating part, a heat spreading structure and a heating part electrode, which are patterned on the elastic thin film, and an insulating layer formed on the heating part, the heat spreading structure and the heating part electrode. Here, the heat spreading structure is perpendicularly connected to the heating part at a connection portion.

Abstract: An assembly of a Ta inner conductor (20) and a Ta outer sheath (22 or 22?) has an intermediate layer (24) of fused grain alumina or aluminum nitride insulation material. The assembly is swaged and wound to form a helical coil of several wraps. Individual wraps can be of square or rectangular cross-section.

Abstract: The invention relates to the arrangement of a film resistor (chip) in an exhaust-gas pipe or exhaust-gas recirculation pipe, wherein the film resistor is fixed in a carrier, which is sealed against a shield or a housing, wherein this shield or housing is connected tightly to the exhaust-gas pipe or exhaust-gas recirculation pipe, wherein the carrier and the shield or the housing are sealed against each other spaced apart from the exhaust-gas pipe or exhaust-gas recirculation pipe radially outside of this pipe.

Abstract: A glow plug assembly includes an integrated, internal pressure sensor. In order to reduce loading on the center electrode, improve sensor responsiveness, and provide better thermal performance, the pressure sensor assembly is housed in a canister which forms a containment capsule and rigidly connects inside the glow plug shell near its seat area. The pressure sensor makes direct contact with the base end of the heater probe so that movements of the heater probe caused by fluctuations in gas pressure lead directly to changing force on the sensor stack.

Abstract: A thermal fluid flow sensor having a diaphragm structure body configured by an insulating film formed by stacking a film having compressive stress and a film having tensile stress on the top and bottom of a temperature-measuring resistive element and a heater resistive element which are processed by microprocessing is provided. The insulating film at a lower layer of the heater resistive element, a temperature-measuring resistive element for heater resistive element, upstream temperature-measuring resistive elements, and downstream temperature-measuring resistive elements, has films having compressive stress (a first insulating film, a third insulating film, and a fifth insulating film) and films having tensile stress (a second insulating film and a fourth insulating film) being alternately arranged, and two layers or more of the films having tensile stress are arranged.

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: The present invention relates to a method for fabricating a heat dissipating apparatus. The method provides two highly heat conductive members having structure patterns. A highly heat conductive material is coated on the structured patterns for forming a micro-structure layer. The two highly heat conductive members are assembled to form a heat dissipating apparatus having micro-structure layer. The heat dissipating apparatus comprises a main body composed of the highly heat conductive members. The main body forms an accommodating cavity, and inner surfaces of the accommodating cavity form the micro-structure layer. A working fluid is filled into the accommodating cavity for transferring heat from a heat absorbing surface to a heat dissipating surface.

Abstract: Disclosed herein are a heater for cookers with high economical efficiency and improved performance, a method of manufacturing the same, and a cooker including the heater. The heater for cookers includes a heat-generator, and a heater body to house the heat-generator, a surface of the heater body having a prominence/depression pattern provided by surface-treating. The heater body is processed by sandblasting.

Abstract: The present invention provides a glow plug capable of preventing a deformation or eccentricity of the coil, thereby improving a durability of the coil and preventing a variation in temperature-rising characteristic. Also, the present invention provides a method for manufacturing the glow plug.

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 configuration contains a first honeycomb body, which is formed by at least one convoluted or wound stack and has a plurality of channels allowing a flow, wherein a first end of the stack is connected to an electric connection and a second end is connected to an electric ground. The stack contains a plurality of sheet metal foils in electric contact with each other, the foils being structured at least in some regions. At the same time, the honeycomb body has support pins for connecting to a second honeycomb body, the pins have a distance of at least 25 mm from each other along the course of the stack at least outside an inner region. A method introduces support pins into the honeycomb body and a device receives a honeycomb body and/or for positioning support pins. The device enables the installation of the support pins in the honeycomb body.

Abstract: Device for creating a temperature gradient, especially in gaseous media, comprising at least one ohmic resistor and at least two non-conducting insulators and at least one casing and at least one elastic element positioned between the non-conducting insulator and the casing.

Abstract: To improve heating efficiency and printing quality, a heating resistor element component (4) includes a plurality of heating resistors (14) arranged with intervals on a heat storage layer (13) laminated on a supporting substrate (11) through an intermediation of an adhesive layer (12), in which: the adhesive layer (12) includes an adhesive (12a) for bonding one surface of the supporting substrate (11) and another surface of the heat storage layer (13), and a plurality of gap members (12b) kneaded in the adhesive (12a), for keeping a distance between the one surface of the supporting substrate (11) and the another surface of the heat storage layer (13) constant; and a cavity portion (19) is formed in a region of the adhesive layer (12), the region being opposed to a heating portion of the heating resistor (14).

Abstract: A heating element of a printhead has a conductive layer deposited over a substrate, and a resistive layer deposited over and in electrical contact with the conductive layer.

Abstract: The present invention is a process for fabricating a cloth-like heating element with two pairs of electrical conductors and parallel circuits which are formed via a severing process. A pair of electrical conductors, which looks as a twin belt aligned in parallel, is fabricated on both edges of the heating element by the weaving process; Severing predetermined portions of the inner electrical conductor in order to increase the electrical resistance of heating wires, the pertinent heating wires are connected in series circuitry with each side of the outer electrical conductors; and the heating element is completed when the said process of series linkage is continuously carried out in parallel alignment in accordance with predetermined design.

Abstract: The present invention relates to an electric heating material. Said electric heating material comprises a substrate and an electric heating layer substantially homogeneously attached to said substrate. Said electric heating layer is obtained from an electric heating coating that contains an electric heating base material and a binder. Said electric heating base material is selected from the group consisting of natural graphite, artificial graphite or conductive carbon black; said binder is selected from the group consisting of acrylic resin, epoxy resin, polyurethane, melamine, gelatin, carboxymethyl cellulose, or polyvinyl alcohol. In some embodiments, the substrate is paper. Said electric heating material can be applied to make an electric heating laminate floor the temperature of the surface of which can be heated to 15-70° C. within 5 minutes when a 220 V power source is supplied, and this temperature can be kept consistent for a long period of time.

Abstract: Provided is a manufacturing method for a thermal head, which enables to manufacture a thermal head having high heating efficiency and stable quality.

Abstract: The present invention relates to a method for manufacturing a SrTiO3 series varistor using grain boundary segregation, and more particularly, to a method for manufacturing a SrTiO3 series varistor by sintering a powdered composition in which acceptors such as Al and Fe are added in powdered form and then sintered under a reducing atmosphere and heat-treated them in the air to selectively form electrical conduction barriers at grain boundaries in a process for manufacturing SrTiO3 series varistor having an excellent non-linear coefficient and a breakdown voltage suitable for use.

Abstract: An energy saving electric heating fan and the making method of its electric heating element are disclosed. The electric heating fan includes a blower and a motor driving the blower in a case (1), an insulation base board with some electric heating elements (2) in the case (1), and a connection electric heating elements (2) with a electric circuit for connecting the power supply. The electric heating elements (2) are heating bodies prepared by steps: coating or screen printing a thin layer of high strength glue with high temperature resistant on a mica base material, then coating or screen printing a layer of heating film with electrodes. The adhesive agent of the heating film of the heating bodies is prepared by steps: sintering the main material of silicon oxide, alumina, silicon carbide, calcium, kalium at high temperature and high pressure, smashing and filtrating to produce powder, then mixing with a high temperature resistant organic adhesive agent with the expansion coefficient equal to mica.

Abstract: A heater includes at least two leads, and a heating element which is formed between the at least two leads, a material of the heating element being different from a material of the at least two leads such that a location of a hot spot in the heater is controllable based on a polarity of current in the heater.

Abstract: A method for forming a ceramic laminate ceramic laminate from first and second sheets of ceramic material, the sheets having a first and a second surface, wherein the first ceramic material has a different coefficient of thermal expansion than the second ceramic material and the outer layers comprises ceramic materials having substantially the same thermal properties, comprising (a) heating the first and the second sheets of ceramic material; (b) stacking the first and the second sheets of ceramic material wherein the second surfaces are opposed to one another to provide stacked sheets; and (c) pressing the stacked sheets and forming the ceramic laminate.

Abstract: A heater includes a conduit and three insulated electrical conductors located in the conduit. At least one of the three insulated conductors includes an electrical conductor at least partially surrounded by an insulation layer and an electrically conductive sheath at least partially surrounding the insulation layer. One or more layers of electrical insulation at least partially surround the three insulated electrical conductors in the conduit. The one or more layers of electrical insulation electrically isolate the insulated electrical conductors from the conduit.

Abstract: A spark plug of the present invention includes a cylindrical metal shell, a cylindrical ceramic insulator retained in the metal shell, a center electrode retained in the ceramic insulator and extending in an axial direction, and a ground electrode formed into a bent shape and having a rear end portion fixed to the metal shell and a front end portion facing a front end portion of the center electrode with a gap left therebetween. The ground electrode contains a large thickness region formed on a rear end side thereof with a large thickness, a small thickness region formed on a front end side thereof with a smaller thickness than that of the large thickness region, a protruding region formed on the small thickness region and facing the center electrode and a thickness changing region formed between the large thickness region and the small thickness region and located at a different position from a position of a minimum curvature radius region of the bent shape of the ground electrode.

Abstract: An electrical heater is made by first providing on a surface of a heater support a dielectric inner layer and then projecting by an inkjet-printing method droplets of an emulsion or dispersion of conductive particles in a vehicle or binder onto the dielectric layer to form thereon a continuous film. The binder or vehicle are removed and a protective dielectric outer layer is provided over the film.

Abstract: A method for manufacturing a thermal head, including: forming a resistance heating element and an electrode on an insulating substrate, the resistance heating element emitting heat by a current flowing the resistance heating element, the electrode being connected to the resistance heating element; forming a corrosion prevention layer on the resistance heating element and the electrode; annealing the resistance heating element; adjusting an electrical resistance of the resistance heating element; and forming a protective layer on the corrosion prevention layer, the protective layer having glass as a main component. The annealing is implemented prior to the adjusting. The forming the corrosion prevention layer is implemented prior to the annealing.

Abstract: The invention relates to an electric heating unit (10; 30) for hot runner systems, in particular hot runner nozzles (12) and/or hot runner manifolds, comprising at least one tubular or muff-like support (20; 32) fitted with at least one heating conductor (22) which is constituted by a resistance wire (23). The invention furthermore relates to a hot runner system fitted with such an electric heating unit, also to a hot runner nozzle.

Abstract: A glow plug (10) which includes an annular metal shell (12), thermally conductive tubular sheath (20), electrode (22), resistance heating element (24), and electrically insulating, thermally conductive powder (26). A metallic seal (28) is disposed in an open end of the sheath (20) in sealing engagement with the electrode (22). An insulating layer (54) is formed on the outer surface of the electrode (22) so as to prevent electrical conductivity between the metal seal (28) and the electrode (22). An optional secondary metal layer (56) may be disposed between the insulating layer (54) and the metal seal (28).

Abstract: A solid ink printer comprises a melt plate configured to melt solid ink. A heater is connected to the melt plate in order to raise the temperature of the melt plate. The temperature of the melt plate is detected by a temperature sensor that is provided away from the surface of the melt plate but is configured to sense the temperature of the melt plate. A mount is positioned on the melt plate between the temperature sensor and the melt plate. The mount comprises a mica layer and at least one polyimide film layer. The mount is arranged on the melt plate such that the mica layer of the mount may be adjacent to the melt plate and the polyimide film layer may be adjacent to the temperature sensor. A pressure sensitive adhesive may be used to connect the mount to the melt plate.

Abstract: Methods for fabricating a printhead are described. In one embodiment, a method includes forming on a substrate using a single fabrication technique multiple resistors, some of the resistors to be used as heater resistors configured to eject fluid and some of the resistors to be used as storage resistors that store data, annealing the heater resistors, and intentionally not annealing at least one of the storage resistors, wherein the annealed storage resistors have a first state representing a first digital value and the unannealed storage resistors have a second state representing a second digital value, such that the values associated with the storage resistors can be read by an appropriate detection circuit.

Abstract: A ceramic heater capable of reducing power consumption, a method of manufacturing the ceramic heater and an apparatus for forming a thin layer having the ceramic heater are disclosed. The ceramic heater includes a plate, a first heating layer, a second heating layer and a connecting member. The first and second heater layers are disposed parallel to each other within the plate. The connecting member includes a ceramic material having a negative temperature coefficient (NTC) to electrically connect the first heating layer with the second heating layer at a temperature higher than a predetermined target temperature.

Abstract: A monolithic, multi-layer heating element forms the high temperature tip of a glow plug assembly. The heating element includes a conductive core which is surrounded by an insulator layer, which in turn supports a resistive layer. An optional conductive jacket can surround the resistive layer. These layered components are pre-formed in prior operations and then assembled one into the other to form a precursor structure. The precursor structure is transferred to a die, where it is compressed to form a so-called green part having dimensional attributes proportional to the finished heating element. The individual layers remain substantially intact, with some boundary layer mixing possible to enhance material-to-material bonding. The green part is sintered to bond to various materials together into an essentially solid mass. Various finishing operations may be required, following which the heating element is assembled to form a glow plug.

Abstract: A heater (A1) includes a substrate (1), a heating resistor (2) formed on the substrate (1) and an electrode (3) electrically connected to the heating resistor (2) and containing a metal component. The heater (A1) further includes a diffusion prevention layer (4) which is held in contact with at least part of the electrode (3) and prevents the metal component from diffusing from the electrode (3). By preventing the diffusion of the metal component from the electrode (3) to the heating resistor (2), the separation of the heating resistor (2) and the electrode (3) is prevented.

Abstract: In combustion chamber signal-based engine control in particular, a reliable and at the same time cost-effective option for detecting a combustion chamber pressure in compression-ignition internal combustion engines is required. A sheathed element glow plug is proposed, which has a glow plug module and a pressure measuring module connected to the glow plug module. The glow plug module has a heating element and a glow plug housing. The pressure measuring module has at least one force measuring element, which is integrated into the pressure measuring module. The at least one force measuring element is designed to generate an electrical signal as a function of a force. In the mounted state of the sheathed element glow plug, the at least one force measuring element is connected to the heating element in such a way that a force is transmittable to the at least one force measuring element via the heating element.

Abstract: A nano data writing and reading apparatus using a cantilever structure includes a cantilever formed by patterning a deposition material deposited on a sacrificial substrate, a probe formed at a front end portion of one surface of the cantilever and formed simultaneously with the cantilever as the deposition material is filled in a probe groove pattern formed on the sacrificial substrate when the deposition material is deposited on the sacrificial substrate, a heater formed of polycrystalline silicon at the cantilever, for heating the probe, a data sensing unit formed at the cantilever and sensing data written on media, a signal connection pad connected to the data sensing unit and formed at the cantilever to provide an electrical connection with an external signal line, a signal transfer circuit unit connected to the signal connection pad, for controlling writing and reading of data on and from the media, and a bonding unit allowing the cantilever to be supported at the signal transfer circuit unit and provid

Abstract: A method of forming an actuator and a relay using a micro-electromechanical (MEMS)-based process is disclosed. The method first forms the lower sections of a square copper coil, and then forms an actuation member that includes a core section and a horizontally adjacent floating cantilever section. The core section, which lies directly over the lower coil sections, is electrically isolated from the lower coil sections. The method next forms the side and upper sections of the coil, along with first and second electrodes that are separated by a switch gap. The first electrode lies directly over an end of the core section, while the second electrode lies directly over an end of the floating cantilever section.

Abstract: The invention relates to an electric heating unit for hot runner systems, in particular for hot runner nozzles and/or hot runner manifolds, comprising at least one tubular or muff-like support made of a sintered substance and comprising at least one heating layer fitted with heating conductor tracks, where said heating layer is a fired foil or a fired thick-film paste.

Abstract: A method for making a hollow heater is provided. The method includes providing a hollow supporter and, the hollow supporter defines a hollow space. A carbon nanotube structure is made and then fixed on a surface of the hollow supporter. A first electrode and a second electrode is provided and electrically connected to the carbon nanotube structure.

Abstract: A fixing heater (A2) includes an insulating substrate (1), a heating resistor (2) formed on the substrate, and a pair of electrodes (4) each of which overlaps a respective one of two ends of the heating resistor. The heating resistor (2) contains Ag—Pd and crystallized glass. Each of the electrodes (4) contains glass of the same composition as the crystallized glass. When the proportion by weight of the crystallized glass in the heating resistor (2) is represented by x, the proportion y by weight of Pd in the Ag—Pd satisfies ?0.091x+0.50?y??0.091x+0.57.

Abstract: A heating system for a subsurface formation includes a conduit located in a first opening in the subsurface formation. Three electrical conductors are located in the conduit. A return conductor is located inside the conduit. The return conductor is electrically coupled to the ends of the electrical conductors distal from the surface of the formation. Insulation is located inside the conduit. The insulation electrically insulates the three electrical conductors, the return conductor, and the conduit from each other.

Abstract: A ceramic heater and method of manufacturing of the ceramic heater are disclosed. A configuration and material composition of component parts of the ceramic heater allow the component parts to be formed together. Thereby, formation of cracks is reduced in a heat-generating resistor, leads, and a ceramic body. Uses of the ceramic heater may include an internal combustion engine glow plug.

Abstract: A method, which is capable of manufacturing an ink jet recording head with a high degree of accuracy even though the density of an ink passage pattern is increased, includes the steps of forming an ink passage pattern on a substrate formed therein with an ink discharge pressure generating element from dissoluble resin; depositing an organic material on the substrate formed thereon with the ink passage pattern from the dissoluble resin by a vapor growth process at a temperature at which the dissolubility of the dissoluble resin is not lost, so as to form a coated resin layer; forming an ink discharge port in the coated resin layer in parts located above the ink discharge pressure generating element; and eluting the dissoluble resin.