Vacuum Gauge Using Heat Conductivity Variation TRIZ Cases
- Thermoelectric Vacuum Sensor Integration for High-Temperature Arc Chambers
A ring-mounted thermoelectric sensor survives chamber baking to deliver accurate real-time vacuum monitoring inside vacuum arc-extinguishing chambers.
- Vacuum Gauge Wall-Embedded Thermal Compensation for Accurate Sensing
Embedding the thermal compensation element inside the gauge wall improves pressure measurement accuracy while protecting it from ambient and process gas damage.
- Wall-Embedded Thermal Compensation in Vacuum Gauges
A wall-enclosed thermal compensation element improves vacuum gauge pressure accuracy while resisting ambient damage and process gas corrosion.
- Vacuum Gauge Assembly With Thermal Equalisation for Pressure Accuracy
A high-conductivity equalisation element speeds heat transfer across the gauge body, reducing temperature gradients and improving pressure accuracy.
- Thermal Conductivity Vacuum Gauge Assembly With Faster Heat Equalization
Compact vacuum gauges use a high-conductivity equalization element to reduce body temperature gradients and improve pressure accuracy.
- Heat Conducting Gas Pressure Sensor with Protective Cover
A gas-tight protective cover made of glass or ceramic encases the heating element, resolving chemical resistance and heat transfer trade-offs.
- SAW Microsystem for Low-Pressure Gas Measurement
A surface acoustic wave microsystem uses a heating resistor to modify device temperature and enhance sensitivity.
- Thin-Film Thermistor Atmospheric Pressure Sensor
Segmented detection and compensation thermistors resolve accuracy trade-offs to measure pressures beyond barometric levels.
- Micromachined Vacuum Gauge Thermal Time-of-Flight Sensor
A micromachined silicon vacuum sensor measures pressure using thermal time-of-flight principles across a wide dynamic range.
- Thermal Conductivity Gauge Chamber Wall Temperature Control
A thermal conductivity gauge uses a heated chamber wall to stabilize sensor temperature differences.