The MF72-080D11 belongs to the category of thermistors, specifically a type of NTC (Negative Temperature Coefficient) thermistor.
It is commonly used for temperature sensing and compensation in various electronic circuits and devices.
The MF72-080D11 is typically packaged in a small, cylindrical form factor with lead wires for easy integration into electronic circuits.
The essence of the MF72-080D11 lies in its ability to accurately sense and respond to changes in temperature, making it an essential component in temperature control systems.
The MF72-080D11 is usually available in bulk packaging, with quantities varying based on the supplier and customer requirements.
The MF72-080D11 features two lead wires for connection to the circuit. The pin configuration is as follows: - Pin 1: Positive lead - Pin 2: Negative lead
The MF72-080D11 operates based on the principle of the negative temperature coefficient, where its resistance decreases as the temperature increases. This property allows it to be used for temperature measurement and compensation in electronic systems.
The MF72-080D11 finds extensive use in the following applications: - Temperature monitoring and control in consumer electronics - Over-temperature protection in power supplies - Temperature compensation in battery charging circuits - Thermal management in automotive electronics
In conclusion, the MF72-080D11 NTC thermistor offers a compact and reliable solution for temperature sensing and compensation in various electronic applications, despite its non-linear characteristics and limited precision. Its high sensitivity, rapid response time, and wide operating temperature range make it a valuable component in temperature control systems across different industries.
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What is MF72-080D11?
What are the typical applications of MF72-080D11?
What is the resistance value of MF72-080D11 at room temperature?
How does MF72-080D11 provide overcurrent protection?
Can MF72-080D11 be used for inrush current limiting?
What is the temperature range within which MF72-080D11 operates effectively?
How can MF72-080D11 be integrated into temperature compensation circuits?
Is MF72-080D11 suitable for battery pack protection?
What are the key considerations when designing with MF72-080D11?
Where can MF72-080D11 be sourced from?