3006-624-73-G100

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Introduction to Temperature Sensors - NTC Thermistors

Temperature sensors come in various forms, such as thermocouples, thermistors, thermopiles, and thermistors. Depending on the application, one or more of thesesensor technologies can be used to measure temperature accurately. Thermistor technology is one option that offers flexibility, accuracy, and affordability. NTC thermistor temperature sensors are among the most popular devices for sensing temperature.

NTC Thermistor

An NTC thermistor (also known as a negative temperature coefficient thermistor) is a semiconductor composed of metal oxides such as titanium, nickel, manganese, and copper. NTC thermistors are temperature-sensitive resistors with a negative temperature coefficient. This means that as the temperature increases, the resistance of the NTC thermistor decreases. Conversely, as the temperature decreases, the resistance increases. The changing resistance of an NTC thermistor can be used to measure temperature.

The unique structure of NTC thermistors gives them distinct advantages over other temperature sensing technologies. NTC thermistors are extremely sensitive and accurate up to high temperatures. They also have excellent linearity, fast response time, and low cost. For these reasons, NTC thermistors are used in a wide variety of temperature measurement applications.

3006-624-73-G100 Application Field and Working Principle

The 3006-624-73-G100 is an NTC thermistor specifically designed for temperature sensing. This new thermistor from Sensor Company is suitable for a wide range of temperature sensing applications and is engineered to perform accurately and consistently in industrial environments. The 3006-624-73-G100 features a 100K ohm resistance at 25°C and has a B value of 3577K.

The working principle of the 3006-624-73-G100 thermistor is similar to other NTC thermistors. The temperature-dependent resistance of the thermistor allows for precise temperature measurement. The resistance of the thermistor decreases as the temperature increases and increases as the temperature decreases. The resistance of the thermistor is measured by passing a current through the device and measuring the voltage drop. The resistance can then be calculated from Ohm’s law.

The 3006-624-73-G100 is an ideal choice for a variety of temperature sensing applications including automotive, medical, industrial, and home appliance applications. The thermistor can be used to measure temperatures from -60°C to 150°C and is designed to operate without interference from ambient light and other environmental factors. The 3006-624-73-G100 thermistor is extremely reliable and can be counted on to provide accurate and consistent temperature readings no matter the environment.

Conclusion

The 3006-624-73-G100 thermistor is an ideal choice for temperature sensing applications due to its accuracy, linearity, fast response time, and affordability. The device is engineered to perform accurately in a wide range of temperatures from -60°C to 150°C. The thermistor’s resistance changes with temperature, which allows for precise temperature measurement. The 3006-624-73-G100 is a reliable and affordable option for temperature measurement and is widely used in automotive, medical, industrial, and home appliance applications.

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