摘要:
PROBLEM TO BE SOLVED: To provide a temperature sensor that has high accuracy and excellent responsiveness and hardly causes damage to an object to be measured, when pressing against a heating roller or the like to detect temperature.SOLUTION: A temperature sensor comprises a pair of lead frames 2, a sensor part 3 connected to the pair of lead frames, and an insulating holding part 4 for holding the lead frames. The sensor part includes: a band-like insulating film 6; a thin film thermistor part 7 pattern-formed at the central part of the surface of the insulating film; a pair of interdigital electrodes, having a plurality of interdigital parts on the thin film thermistor part, pattern-formed facing each other; and a pair of pattern electrodes 9, whose one end is connected to the pair of interdigital electrodes and whose other end is connected to the pair of lead frames at the end of the insulating film, pattern-formed on the surface of the insulating film. The insulating film has the thin film thermistor part arranged at its tip part, in a state of being bent substantially in a U shape, and has its both ends fixed to the pair of lead frames.
摘要:
PROBLEM TO BE SOLVED: To provide a metal nitride material for a thermistor, capable of directly depositing on a film or the like without calcination, having high heat resistance, and reliable, and a method for manufacturing the same, and a film type thermistor sensor.SOLUTION: The metal nitride material used for a thermistor composed of metal nitride represented by a general formula: CrAl(NO)(0.70≤y/(x+y)≤0.95, 0.45≤z≤0.55, 0
摘要翻译:要解决的问题:提供一种用于热敏电阻的金属氮化物材料,其能够直接在不煅烧的膜等上沉积,具有高耐热性和可靠性,及其制造方法,以及膜型热敏电阻传感器 解决方案:用于由通式CrAl(NO)(0.70≤y/(x + y)≤0.95,0.45≤z≤0.55,0≤w≤0.35)表示的由金属氮化物组成的热敏电阻的金属氮化物材料, x + y + z = 1)具有六方晶系纤锌矿型单相的晶体结构。
摘要:
PROBLEM TO BE SOLVED: To provide a method of fabricating vertical devices using a metal support layer.SOLUTION: A vertical light-emitting device comprises: a conductive support structure; a semiconductor structure having a first surface, a second surface, and side surfaces and including a first-type semiconductor layer 128, an active layer 126, and a second-type layer 124, where the first surface, relative to the second surface, is most proximate to the conductive support structure; a first electrode 150 electrically connected to the first-type layer 128; a second electrode 160 electrically connected to the second-type layer 124; and a passivation layer 162 on the side surfaces of the semiconductor structure. The passivation layer 162 is further arranged on the second surface of the semiconductor structure to partially cover the second-type layer 124 on the second surface. The passivation layer 162 is arranged partially between the semiconductor structure and the conductive support structure to partially cover the first surface of the semiconductor structure. The portion of the passivation layer 162 over the second surface of the semiconductor structure is larger than the portion of the passivation layer 162 over the first surface of the semiconductor structure.