Silicon carbide thin-film thermocouples deliver 180 μV/°C output to measure temperatures up to 1600°C while resisting chemical reactions with unreacted silicon.
A thin film temperature sensor uses a TiAlN thermistor layer and pattern electrodes made of conductive resin for precise thermal detection.
A thermopile sensor uses a metal interconnect crossing a widened gap between polySi segments to enable thicker film deposition.
Post-processing system computes correction coefficients to average sensor outputs and reduce statistical spread errors in temperature measurements.
Integrated conductive element measures electrical resistance changes to detect laser beam position relative to an optical component.
Segmenting the sensor into two thermally coupled detectors compensates for ambient heat, reducing measurement errors below 0.2 K.
Adjustable current sources and resistor strings compensate for reference voltage offsets, improving temperature detection accuracy in integrated circuits.
A temperature monitoring system uses independent power domains to isolate sensors from controller heat during calibration.
A mask structure integrates microlens arrays to form concaves of varying depths in a single exposure step.
Back-gate bias control in CMOS sensors compensates for process variations, enabling precise temperature measurement while reducing power consumption.
A trimming circuit determines a correction function from high and low temperature codes to compensate for slope errors in analog sensors.
A temperature sensor uses distributed thermocouples to detect local thermal changes with high accuracy.
A sensor clock signal acquisition method uses delayed signals to correct timing errors in electronic circuits.
A thermometer uses a thermocouple formed by connection lines to detect temperature gradients at the sensor location.
An inductive position sensor integrates a microbolometer element on the circuit carrier to detect rotational properties and temperature.
Alloying platinum with a sacrificial aluminum layer enables precise pattern transfer through selective etching.
A microfluidic chip temperature detection unit uses a light-shielding layer to protect the sensor from external interference.
A controller calculates wire temperature from current values to adjust voltage and prevent overheating.
Dynamic duty cycle control limits conductor heating during short circuits, preventing oversized wiring and ignition risks without relying on static fuses.
Decoupling adjustment voltage during charging isolates leakage current from threshold voltage shifts, maintaining temperature measurement accuracy.
A sample clock signal synchronizes measurements of power converter operating parameters for accurate condition analysis.