By turning the contactor connecting element into a shunt resistor, this case enables precise current sensing with less space and weight.
A low-thermal-mass sensing island with separate heating enables fast dry capacitance calibration and drift compensation in capacitive humidity sensors.
A trough-mounted dual thermistor layout stabilizes ear-canal thermal contact to calculate continuous core body temperature accurately.
Fractional slope adjustment calibrates thermal sensors through BJT and current-mirror tuning, improving accuracy while reducing test cost.
A gate finger is repurposed as a Schottky diode to measure local HEMT temperature accurately without adding sensor area or extra components.
Active thermal pixels with oxide semiconductor heaters and temperature sensors improve fingerprint accuracy and spoof resistance on displays.
A calibrated thermal model estimates hot-spot temperature from electrical parameters, avoiding sensor placement limits while preserving safety margin.
An integrated rectifying-junction sense element measures junction temperature in situ with high precision while avoiding extra chip area and sensing complexity.
Dual analog voltage and current feedback stabilizes APD bias against temperature drift while reducing circuit size and power use.
A positive feedback and current mirror circuit boosts infrared diode sensitivity without adding more series diodes, size, or supply voltage.
Reversed-polarity diode paths cancel interconnect parasitic resistance, enabling more accurate local temperature sensing with adjacent thermistors.
Comparator-based capacitor-bank calibration keeps pulse counting consistent across wafer variation, improving low-temperature accuracy.
A Seebeck-effect thin-film detector measures voltage across metallic contacts to locate single heat spots with high resolution over broad temperature and spectral ranges.
Reverse-current waveform monitoring estimates commutation diode junction temperature more accurately without added sensors.
PWM excitation lets the control unit infer PTC heater temperature from element capacitance, avoiding costly sensors and thermal inertia.
Doped LnAlO3 p- and n-type sensor legs reduce high-temperature reactivity and preserve accurate thermoelectric sensing without platinum or indium tin oxide.
An IR-opaque cavity and thermal coupling structure improve non-invasive core temperature measurement by sensing heat flux through skin.
Simulates radiative and convective heating together to measure foam collapse, heat flux, and re-ignition in storage tank fire tests.
A larger pn junction in the inverse-parallel protective diode raises ESD withstand while preserving temperature sensing precision.
Kinetic inductance in superconducting passive components enables accurate local temperature sensing near qubits without added thermal load.
Photonic multi-die bridges move data directly to compute regions while temperature-matched modulator bias cuts power use and latency.