Abstract: A process for producing a microbolometer including a vanadium-oxide-based sensitive material containing an additional chemical element chosen from arsenic, germanium, silicon and phosphorus, the process including: determining an effective amount of the additional chemical element from which the modified compound, having undergone a step of exposure to a temperature Tr for a time ?tr, exhibits an electrical resistivity ?a|r at room temperature that is higher than 10% of its native value; producing the sensitive material in a thin layer, this material being formed from the modified compound having an amount of the additional chemical element that is greater than or equal to the effective amount; and exposing the sensitive material to the temperature Tr for the time ?tr.

Abstract: A microbolometer may include a sensitive material based on vanadium oxide (VOx) with an additional chemical element such as boron (B), but excluding nitrogen (N), the sensitive material wherein the sensitive material (i) is amorphous, (ii) has an electrical resistivity at ambient temperature in a range of from 1 to 30 ?·cm, (ii) has a homogeneous chemical composition, and (iv) has an amount of boron, defined as a ratio of a number of boron to vanadium atoms to that of vanadium, at least equal to 0.086.

Abstract: The invention relates to a process for manufacturing a microbolometer (10) comprising a sensitive material (15) based on vanadium oxide (VOx) comprising an additional chemical element chosen from among boron (B), carbon (C), with the exception of nitrogen (N), comprising the following steps: i. determining a non-zero effective amount of the additional chemical element (B, C) starting from which the sensitive material (15), having undergone exposure to a temperature Tr for a duration ?tr, has an electrical resistivity ?a|r at ambient temperature greater than or equal to 50% of the native value ?a of said sensitive material (15); ii. producing the sensitive material (15) in a thin layer having an amount of the additional chemical element (B, C) greater than or equal to the effective amount determined beforehand, the sensitive material being amorphous and having an electrical resistivity of between 1 and 30 ?·cm; iii.

Abstract: The present invention relates to a film type heater and an electroconductive thin-film. The film type heater includes a substrate; and a heat emitting layer that is formed on the substrate and contains a tin oxide doped with one or more metalloids and one or more post-transition metals.

Abstract: Under predetermined film depositing conditions, the raw material solution of the thermistor film is atomized or dropletized, the carrier gas is supplied to the obtained mist or droplet, the mist or droplet is conveyed to the substrate, and then the mist or droplet is thermally reacted on the substrate to deposit a film. A resultant thermistor thin film has a film thickness of 1 ?m or less, a film width of 5 mm or more, a thickness of 50 nm or more and 5 ?m or less, a thickness in the range of less than ±50 nm, a thickness of 5 mm or less, and/or a thickness of 50 nm or more and 5 ?m or less, and has a film surface roughness (Ra) of 0.1 ?m or less.

Abstract: Disclosed are apparatus and associated methodology providing for fixed components that exhibit tailorable variations in frequency response depending on the applied frequencies over the component's useful frequency range. The presently disclosed subject matter provides improved operational characteristics of generally known transmission line capacitor devices by providing a parallel resistive component constructed as a portion of the dielectric separating electrodes corresponding to a capacitor.

Abstract: A sensor of volatile substances includes: a first electrode structure and a second electrode structure capacitively coupled, comb-fingered, and arranged coplanar in a plane; and a sensitive layer, of a sensitive material that is permeable to a volatile substance and has electrical permittivity depending upon a concentration of the volatile substance absorbed by the sensitive material. The sensitive layer extends from opposite sides of the plane.

Abstract: A resistive element including a main body portion, and first and second terminal portions with different shapes that are provided at opposite ends of the main body portion in the long-side direction. At least one side portion of the main body portion in the short-side direction has a protruding portion.

Abstract: Provided are a metal nitride material for a thermistor, which exhibits high reliability and high heat resistance and can be directly deposited on a film or the like without firing, a method for producing the metal nitride material for a thermistor, and a film type thermistor sensor. The metal nitride material for a thermistor consists of a metal nitride represented by the general formula: TixAly(N1-wOw)z (where 0.70?y/(x+y)?0.95, 0.45?z?0.55, 0<w?0.35, and x+y+z=1), and the crystal structure thereof is a hexagonal wurtzite-type single phase.

Abstract: Provided are a metal nitride film for a thermistor, which has an excellent bending resistance and can be directly deposited on a film or the like without firing, a method for producing the same, and a film type thermistor sensor. The metal nitride film for a thermistor, which consists of a metal nitride represented by the general formula: TixAlyNz (where 0.70?y/(x+y)?0.95, 0.4?z?0.5, and x+y+z=1), wherein the crystal structure thereof is a hexagonal wurtzite-type single phase, and the peak ratio of the diffraction peak intensity of a-axis orientation (100) relative to the diffraction peak intensity of c-axis orientation (002) (i.e., the diffraction peak intensity of a-axis orientation (100)/the diffraction peak intensity of c-axis orientation (002)) is 0.1 or lower in X-ray diffraction.

Abstract: A method of fabricating by co-sputtering deposition a lanthanoid aluminate film with enhanced electrical insulativity owing to suppression of deviation in composition of the film is disclosed. Firstly within a vacuum chamber, hold two separate targets, one of which is made of lanthanoid aluminate (LnAlO3) and the other of which is made of aluminum oxide (Al2O3). Then, transport and load a substrate into the vacuum chamber. Next, introduce a chosen sputtering gas into this chamber. Thereafter, perform sputtering of both the targets at a time to thereby form a lanthanoid aluminate film on the substrate surface. This film is well adaptable for use as ultra-thin high dielectric constant (high-k) gate dielectrics in highly miniaturized metal oxide semiconductor (MOS) transistors.

Abstract: Provided are a metal nitride material for a thermistor, which has high reliability and high heat resistance and can be directly deposited on a film or the like without firing, a method for producing the same, and a film type thermistor sensor. The metal nitride material for a thermistor consists of a metal nitride represented by the general formula: (M1-vAv)xAly(N1-wOw)z (where “M” represents at least one element selected from Ti, V, Cr, Mn, Fe, and Co, “A” represents at least one element selected from Mn, Cu, Ni, Fe, and Co, which is different from the selected “M”, 0.0<v<1.0, 0.70?y/(x+y)?0.98, 0.45?z?0.55, 0<w?0.35, and x+y+z=1), wherein the crystal structure thereof is a hexagonal wurtzite-type single phase.

Abstract: Provided are a metal nitride material for a thermistor, which has high reliability and high heat resistance and can be directly deposited on a film or the like without firing, a method for producing the same, and a film type thermistor sensor. The metal nitride material for a thermistor consists of a metal nitride represented by the general formula: (M1-wAw)xAlyNz (where “M” represents at least one element selected from Ti, V, Cr, Mn, Fe, and Co, “A” represents at least one element selected from Mn, Cu, Ni, Fe, and Co, which is different from the selected “M”, 0.0<w<1.0, 0.70?y/(x+y)?0.98, 0.4?z?0.5, and x+y+z=1), wherein the crystal structure thereof is a hexagonal wurtzite-type single phase.

Abstract: Micro-fluid ejection devices, methods for making micro-fluid ejection heads, and micro-fluid ejection heads, including a micro-fluid ejection head. One such micro-fluid ejection head has relatively high resistance thin film heaters adjacent to a substrate. The thin film material comprises silicon, metal, and carbon (SiMC wherein M is a metal). Each thin film heater has a sheet resistance ranging from about 100 to about 600 ohms per square and a thickness ranging from about 100 to about 800 Angstroms.

Abstract: To provide a resistance change device that can be protected from an excess current without enlarging a device size. A resistance change device 1 according to the present embodiment includes a lower electrode layer 3, an upper electrode layer 6, a first metal oxide layer 51, a second metal oxide layer 52, and a current limiting layer 4. The first metal oxide layer 51 is disposed between the lower electrode layer 3 and the upper electrode layer 6, and has a first resistivity. The second metal oxide layer 52 is disposed between the first metal oxide layer 51 and the upper electrode layer 6, and has a second resistivity higher than the first resistivity. The current limiting layer 4 is disposed between the lower electrode layer 3 and the first metal oxide layer 51, and has a third resistivity higher than the first resistivity and lower than the second resistivity.

Abstract: [Object] To provide a method and an apparatus for manufacturing a variable resistance element by which a metal oxide layer having a desired resistivity can be precisely formed. [Solving Means] The method of manufacturing the variable resistance element according to an embodiment of the present invention includes a step of forming a first metal oxide having a first resistivity and a step of forming a second metal oxide having a second resistivity different from the first resistivity. The first metal oxide is formed on a substrate by sputtering, while sputtering a first target made of an oxide of metal, a second target made of the metal with a first power. The second metal oxide layer is formed on the first metal oxide layer by sputtering the second target with a second power different from the first power while sputtering the first target.

Abstract: Methods of forming a thin film are disclosed. One such method can include sputtering a target material to form a first thin film resistor and adjusting a parameter of deposition to modulate a property of a subsequently formed second thin film resistor. For instance, a substrate bias and/or a substrate temperature can be adjusted to modulate a property of the second thin film resistor. A temperature coefficient of resistance (TCR) and/or another property of the second thin film resistor can be modulated by adjusting the parameter of deposition. The target material sputtered onto the substrate can include, for example, a Cr alloy, a Ni alloy, SiCr, NiCr, or the like. A relationship can be established between the substrate bias and/or substrate temperature and the thin film resistor property, and the relationship can be used in selecting deposition conditions for a desired property value.

Abstract: Fluid analyte sensors include a photoelectrocatalytic element that is configured to be exposed to the fluid, if present, and to respond to photoelectrocatalysis of at least one analyte in the fluid that occurs in response to impingement of optical radiation upon the photoelectrocatalytic element. A semiconductor light emitting source is also provided that is configured to impinge the optical radiation upon the photoelectrocatalytic element. Related solid state devices and sensing methods are also described.

Abstract: Provided are: a metal foil provided with an electrically resistive film comprising nickel, chromium, silicon and oxygen; the metal foil provided with an electrically resistive film having an oxygen concentration of 20 to 60 at %; the metal foil provided with an electrically resistive film having chromium (Cr) and silicon (Si) concentrations (at %) satisfying that Cr/(Cr+Si)×100 [%] is 73 to 79%; and the metal foil provided with an electrically resistive film having a nickel (Ni) concentration of 2 to 10 at %.

Abstract: Methods for depositing an amorphous vanadium oxide (VOx) film include vaporizing vanadium from a vanadium source while the a gas containing an oxygen species and a process modifying additive are in the chamber so as to deposit an amorphous VOx film on the substrate, where x>0. The process modifying additive includes a gas flowing into the chamber or vaporized material from a target source. The additive may stabilize the deposition rate of VOx, reduce resistivity, improve thickness control, and improve uniformity of thickness and resistivity. The thin film may be a nitrogen-enhanced, amorphous vanadium oxide (VOxNy) film formed on a substrate, where x>y>0, and the film contains at least 0.2 atomic % nitrogen. The film may be used in a device, such as a thermal or infrared sensor, or more particularly a bolometer.

Abstract: Fluid analyte sensors include a photoelectrocatalytic element that is configured to be exposed to the fluid, if present, and to respond to photoelectrocatalysis of at least one analyte in the fluid that occurs in response to impingement of optical radiation upon the photoelectrocatalytic element. A semiconductor light emitting source is also provided that is configured to impinge the optical radiation upon the photoelectrocatalytic element. Related solid state devices and sensing methods are also described.

Abstract: Methods of arc prevention during sputtering of a thin film from a semiconducting target onto a substrate are provided. An alternating current (e.g., having a frequency of about 500 kHz to 15 MHz) can be applied from an electrical power supply to the semiconducting target to form a plasma between the substrate and the semiconducting target. This alternating current can be temporarily interrupted for a time sufficient to sustain the plasma between the substrate and the semiconducting target to inhibit arc formation during sputtering. Sputtering systems are also generally provided for arc prevention during sputtering of a thin film from a semiconducting target onto a substrate.

Abstract: Methods for depositing a resistive transparent buffer thin film layer on a substrate are provided. The methods can include cold sputtering a resistive transparent buffer layer on a substrate (e.g., at a sputtering temperature of about 10° C. to about 100° C.) in a sputtering atmosphere comprising about 0.01% to about 5% by volume water vapor (e.g., about 0.05% to about 1% by volume water vapor). The resistive transparent buffer layer can then be annealed at an anneal temperature of about 450° C. to about 700° C. The methods of depositing a resistive transparent buffer thin film layer on a substrate can be used in a method of manufacturing a cadmium thin film photovoltaic device by forming cadmium sulfide layer on the resistive transparent buffer layer, and forming a cadmium telluride layer on the cadmium sulfide layer.

Abstract: Forming memory using high power impulse magnetron sputtering is described herein. One or more method embodiments include forming a resistive memory material on a structure using high power impulse magnetron sputtering (HIPIMS), wherein the resistive memory material is formed on the structure in an environment having a temperature of approximately 400 degrees Celsius or less.

Abstract: A method of fabricating by co-sputtering deposition a lanthanoid aluminate film with enhanced electrical insulativity owing to suppression of deviation in composition of the film is disclosed. Firstly within a vacuum chamber, hold two separate targets, one of which is made of lanthanoid aluminate (LnAlO3) and the other of which is made of aluminum oxide (Al2O3). Then, transport and load a substrate into the vacuum chamber. Next, introduce a chosen sputtering gas into this chamber. Thereafter, perform sputtering of both the targets at a time to thereby form a lanthanoid aluminate film on the substrate surface. This film is well adaptable for use as ultra-thin high dielectric constant (high-k) gate dielectrics in highly miniaturized metal oxide semiconductor (MOS) transistors.

Abstract: Methods of depositing a transparent conductive oxide layer on a substrate are generally disclosed. A shield of greater than about 75% by weight molybdenum can be attached to a first surface of a substrate such that the shield contacts at least about 75% of the first surface. The shield can then be heated via an energy source to cause thermal exchange from the shield to the substrate to heat the substrate to a sputtering temperature. A transparent conductive oxide layer can then be sputtered on a second surface of the substrate at the sputtering temperature. Methods are also generally disclosed for manufacturing a cadmium telluride based thin film photovoltaic device.

Abstract: The present invention relates to a method for manufacturing a chip resistor having a low resistance. The method includes the following steps: (a) providing a substrate having a top surface; (b) sputtering a conducting layer directly on the top surface of the substrate, so that the conducting layer and the substrate contact each other, wherein the material of the conducting layer comprises nickel or copper; and (c) plating at least one metal layer directly on the conducting layer, so that the metal layer and the conducting layer contact each other, wherein the material of the metal layer comprises nickel or copper, and the conducting layer and the metal layer provide a resistive layer. As a result, the resistive layer has a precise pattern, and the duration of sputtering is reduced, so the yield rate and the efficiency are improved and the manufacturing cost is cut down.

Abstract: There are provided a nickel oxide film for a bolometer and a manufacturing method thereof, and an infrared detector using the nickel oxide film. The nickel oxide film has properties with a TCR value greater than ?3%/° C., a low noise value, and stable and high reproducibility properties. The nickel oxide film is applicable to manufacturing an infrared detector using a nickel oxide film for a bolometer.

Abstract: A sputtering method and a sputtering apparatus are provided in which a target is disposed being inclined relative to a substrate placed on a substrate-placing table so that the condition of d?D is satisfied, (d is the diameter of the substrate, and D is the diameter of the target), and the total number of rotations R of the substrate-placing table from the beginning of film-deposition on the substrate to the completion thereof becomes ten or more. Also the sputtering method and the sputtering apparatus are provided in which the rotational speed V of the substrate-placing table is controlled so that the total number of rotations R thereof satisfies the formula of 0.95×S?0.025?R?1.05×S+0.025 at R?10, (R is the total number of rotations of the substrate-placing table from the beginning of film-deposition on the substrate to the completion thereof, and S is the value of the number of total rotations R rounded off to integer).

Abstract: Flexible impact sensors are provided which are constructed of flexible polyimide substrate, electrodes and a pressure-sensitive electrically conductive polymer composite layer having conductive nanoparticles. Dual-purpose impact and temperature sensors are also described. Methods of making flexible impact sensors are disclosed.

Abstract: An electrically conductive separator element and assembly for a fuel cell which comprises an electrically conductive substrate having a monoatomic layer coating overlying the substrate. The monatomic layer coating may comprise an electrically conductive material, for example, a noble metal, desirably Ru, Rh, Pd, Ag, Ir, Os and preferably Au. Methods of making such separator elements and assemblies are also provided.

Abstract: A manufacturing method of a magnetoresistance element having a pinned magnetic layer, a non-magnetic intermediate layer, and a free magnetic layer, the method includes forming at least one thin film of the non-magnetic intermediate layer and the free magnetic layer at a pressure of 8.0×10?3 Pa or less in the vicinity of a substrate using a sputtering apparatus. The apparatus includes a vacuum chamber in which a cathode and a substrate holder are arranged, a first exhausting apparatus connected to an exhausting port of the vacuum chamber, a gas introduction mechanism to introduce a gas toward the target, a first pressure regulator to cause a pressure difference between a target space and a center space outside the target space, a second pressure regulator to cause a pressure difference between the center space and a substrate space, and a second exhausting apparatus to exhaust the center space.

Abstract: There is provided a method and circuit for trimming a functional resistor on a thermally isolated micro-platform such that a second functional resistor on the same micro-platform remains substantially untrimmed; a method and circuit for providing and trimming a circuit such that at least two circuit elements of the circuit are subjected to a same operating environment and the operating environment is compensated for by distributing heat generated during operation of the circuit among the two circuit elements; a method and circuit for trimming a functional resistor on a thermally-isolated micro-platform such that a constant temperature distribution is obtained across the functional resistor; and a method and circuit for calculating a temperature coefficient of resistance of a functional resistor.

Abstract: The present invention discloses a method of manufacturing a thin film resistor with a moisture barrier by depositing a metal film layer on a substrate and depositing a layer of tantalum pentoxide film overlaying the metal film layer. The present invention also includes a thin film resistor having a substrate; a metal film layer attached to the substrate; and a tantalum pentoxide layer overlaying the metal film layer, the tantalum pentoxide layer providing a barrier to moisture, the tantalum pentoxide layer not overlaid by an oxidation process.

Abstract: A thin layer of hafnium oxide or stacking of thin layers comprising hafnium oxide layers for producing surface treatments of optical components, or optical components, in which at least one layer of hafnium oxide is in amorphous form and has a density less than 8 gm/cm3. The layer is formed by depositing on a substrate without energy input to the substrate.

Abstract: The invention describes composite coatings, in particular comprising carbon and another metallic element such as silicon or aluminum. These coatings have improved properties compared with pure tetrahedral amorphous carbon coatings, in that they have reduced stress levels and can be deposited at higher thicknesses, while retaining acceptable hardness and other useful mechanical properties. Also described are methods of making composite coatings, materials for making the coatings and substrates coated therewith. Specifically, a method of applying a coating to a substrate using a cathode arc source, comprises generating an arc between a cathode target and an anode of the source and depositing positive target ions on the substrate to form the coating, wherein the coating is a composite of at least first and second elements and the target comprises said at least first and second elements.

Abstract: A method for manufacturing a sensor, the sensor including a three-dimensional interdigital electrode arrangement positioned on a substrate, comprising applying a temperature sensing resistor onto the substrate by sputtering a first adhesion layer and a first metallic layer onto the substrate, applying a first resist layer to the first metallic layer, applying and structuring a first resist material on the first metallic layer, and after structuring, etching the first metallic layer in resist free areas; and applying a three-dimensional interdigital electrode arrangement onto the substrate by sputtering a second adhesion layer and a second metallic layer onto the substrate, applying and structuring a second resist material only to second metal layer, after the structuring, etching the second metallic layer in resist free areas to form valleys, and after etching the second metallic layer, applying an electroplating layer.

Abstract: A method of making a magnetoresistance sensor which detects stored information from a medium and which provides an output voltage to a auxiliary circuitry is disclosed. The method comprises sputtering a bias layer in a sputtering gas mixture of nitrogen and argon. A spacer layer is also formed in a sputtering gas mixture of nitrogen and argon. Finally, an MR magnetic layer is formed. The spacer layer is positioned between the bias layer and the magnetic layer. The output voltage is provided to auxiliary circuitry when a current flows through the MR magnetic layer.

Abstract: First, a sputtering process is performed in a chamber using a target containing a plurality of elements to form at a sputtering surface of the target an erosion area different from that formed under a predetermined deposition condition for depositing a desired sputtered film. Next, the sputtered film is deposited on a surface of a sample under the predetermined deposition condition.

Abstract: A conductive composition of titanium boronitride (TiBxNy) is disclosed for use as a conductive material. The titanium boronitride is used as conductive material in the testing and fabrication of integrated circuits. For example, the titanium boronitride is used to construct contact pads such as inline pads, backend pads, sensors or probes. Advantages of embodiments of the titanium boronitride include reduced scratching, increased hardness, finer granularity, thermal stability, good adhesion, and low bulk resistivity. Exemplary methods of creating the titanium boronitride include a sputtering process and a plasma anneal process.

Abstract: A coated article that can be used in applications such as insulating glass (IG) units, so that resulting IG units can achieve high visible transmission of at least 70% (e.g., when using clear glass substrates from 1.0 to 3.5 mm thick), combined with at least one of: (a) SHGC no greater than about 0.45, more preferably no greater than about 0.40; (b) SC no greater than about 0.49, more preferably no greater than about 0.46; (c) chemical and/or mechanical durability; (d) neutral transmissive color such that transmissive a* is from −5.0 to 0 (more preferably from −3.5 to −1.5), and transmissive b* is from −2.0 to 4.0 (more preferably from 1.0 to 3.0); and (e) neutral reflective color from the exterior of the IG unit (i.e., Rg/Rout) such that reflective a* is from −3.0 to 2.0 (more preferably from −2.0 to 0.5), and reflective b* is from −5.0 to 1.0 (more preferably from −4.0 to −1.0).

Abstract: Sputter target, method of manufacture of same and sputter coating process using the target as a sputtering source are disclosed. The sputter target comprises an Me/Si multi-phase, consolidated blend wherein the Si component is present in a very small amount of about trace—0.99 mole Si:1 mole Me. Preferably, Me comprises one or more of Ta, Ti, Mo, or W. The targets are made from the requisite powders via HIP consolidation to provide densities of greater than 98 % of the theoretical density. The targets are especially useful in reactive cathodic sputtering systems employing N2 as the reactive gas to form amorphous Me/Si/N layers.

Abstract: A system and method for sputter depositing a protective coating on a surface. The system includes a coating device, a first material for coating, a second material for coating and a surface to be coated. Preferably, the first material and the second material are sputter deposited on the surface in a predetermined proportion to yield a coating having tailored thermophysical and surface resistance properties. The proportion may be controlled by controlling exposed surface area of the first material and exposed surface area of the second material, as well as a magnetic field applied to the first and second materials.

Abstract: A method of depositing a thin metal film using photolithography is disclosed. The method includes the deposition of a sacrificial metal layer on a substrate. Photolithography processing forms a pattern on the sacrificial metal layer that is removed prior to sputter deposition of the thin metal film.

Abstract: An object of the present invention is to provide a ferroelectric capacitor which shows excellent ferroelectricity. A silicon oxidation layer 4, a lower electrode 12, a ferroelectric layer 8 and an upper electrode 15 are formed on a silicon substrate 2. The lower electrode 12 is made of palladium oxide. Also, the upper electrode 15 is made by palladium oxide. Since palladium oxide prevents leakage of oxygen contained in the ferroelectric layer 8. So that, a ferroelectric capacitor offers excellent ferroelectricity can be realized.

Abstract: The present invention discloses a method of manufacturing a thin film resistor with a moisture barrier by depositing a metal film layer on a substrate and depositing a layer of tantalum pentoxide film overlaying the metal film layer. The present invention also includes a thin film resistor having a substrate; a metal film layer attached to the substrate; and a tantalum pentoxide layer overlaying the metal film layer, the tantalum pentoxide layer providing a barrier to moisture, the tantalum pentoxide layer not overlaid by an oxidation process.

Abstract: A metal film made of titanium is formed on a surface of a wafer. Then, the metal film is subjected to a patterning process to selectively remove undesired portions to form a metal film on an outer area of the wafer and a lattice-patterned metal film on a pattern area of the wafer. The lattice-patterned metal film is formed on an area corresponding to scribe lines of devices to be arranged in a matrix on the wafer. Then, the metal films are connected to a ground. Subsequently, a vanadium oxide film is formed on the wafer using a sputtering process. Therefore, the vanadium oxide film is prevented from becoming charged at the time of deposition thereof on the wafer to suppress increasing of self bias potential and attain uniformity in resistance value of the vanadium oxide film.

Abstract: Described are a thin-film temperature-sensitive resistor material which comprises, at a temperature-sensitive resistor portion, a mixed crystal of a nitride and oxide of a transition metal such as vanadium [preferably, that represented by the formula: MNxOy wherein 0<x<1, and 2≦y≦13/6], simultaneously exhibits a high temperature coefficient of resistance and a low specific resistance at about room temperature, and has excellent sensitivity at about room temperature; and a process for the production of a thin-film temperature-sensitive resistor material, which comprises forming its temperature-sensitive resistor portion by using a gas-atmosphere composed mainly of a nitrogen gas [preferably, a mixed gas composed of nitrogen, argon and oxygen, and has a flow rate ratio of nitrogen to oxygen (nitrogen/oxygen) of 14/1 to 23/1].

Abstract: The present disclosure pertains to our discovery that the residual stress residing in a tantalum (Ta) film or a tantalum nitride (TaNx, where 0<x≦1.5) film can be controlled (tuned) by controlling particular process variables during deposition of the film. Process variables of particular interest during film deposition, for sputter applied Ta and TaNx films, include the following. The power to the sputtering target; the process chamber pressure (i.e. the concentration of various gases and ions present in the chamber); the substrate DC offset bias voltage (typically an increase in the AC applied substrate bias power); and, the temperature of the substrate upon which the film is being deposited. When the Ta or TaNx film is deposited using IMP sputtering, the power to the ionization coil can be used for stress tuning of the film. Of these variables, the process chamber pressure and the substrate offset bias most significantly affect the tensile and compressive stress components, respectively.

Abstract: The invention provides a thin-film heater having a high heat-resisting property and a high resistivity and suitable for low power consumption and for a compact and fine structure, and a method of manufacturing this thin-film heater. A thin-film heater contains a tungsten film formed on a substrate, and this tungsten film generates heat when a current is supplied to this tungsten film. The tungsten film is formed by an RF sputtering method, and is constructed of tungsten having peaks at approximately 36 degrees, 40 degrees and 44 degrees in Bragg angle 2&thgr; of X-ray diffraction.