DC95F302W

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The DC95F302W is a NTC thermistor developed by OMEGA Engineering. It has a wide range of applications in various industrial, medical, and consumer tech products due to its excellent accuracy, reliability, and long-term stability.

NTC thermistors are temperature sensors that measure changes in resistance based on the temperature. The DC95F302W specifically operates in the range from -40°C to 250°C. It has good linearity and low temperature coefficient values, which makes it suitable for measuring temperature changes over a large range. The DC95F302W also features small size, low weight, and extreme sensitivity for accurate and precise temperature measurements. This makes it the ideal choice for accurate measurement in various industries, such as medical, automotive, aerospace, and food service.

The working principle of an NTC thermistor is based on how the resistance of the device changes with temperature changes. As the temperature increases, the resistance of the NTC thermistor decreases. When the temperature decreases, the resistance increases.

The DC95F302W operates in a range of -40°C to 250°C. This temperature range corresponds to a resistance range of 120 kΩ to 294 Ω. The device produces a resistance output that is proportional to the change in temperature. The use of a bridge circuit allows the temperature to be accurately measured.

The DC95F302W is a highly accurate NTC thermistor from OMEGA Engineering. It has a wide range of applications in various industrial, medical and consumer products due to its excellent accuracy, reliability and long-term stability. It features a small size, low weight, and extreme sensitivity for accurate and precise temperature measurements. This makes it the ideal choice for accurate temperature measurements over a wide range.

The working principle of the DC95F302W is based on the change in resistance with changes in temperature. The device produces a resistance output that is proportional to changes in temperature. The application of a bridge circuit allows the temperature to be accurately measured.

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