MFR100FTF73-14R

Through Hole Resistors (THRs) are devices that are used to reduce current flow, adjust signal levels, divide voltages, and set a specific static current and power in a circuit. One such THR is the MFR100FTF73-14R. This THR is from the FTC family of Power Metal Strip Resistors. Innovations in this device make it particularly suitable for applications in higher power systems, datasheet specified for up to 14 Watts.

Features and Benefits

The MFR100FTF73-14R has a unique feature that set it apart from other THRs. It has a high surge power rating of up to 30 Watts for 10 seconds, allowing for higher power with less heat loss. Its high power capability is due to the combination of its construction and dielectric which prevent internal arcing. This device is also highly reliable and is capable of handling extreme environmental conditions, including high humidity, vibration, and shock, with an operating temperature range from -55 to +155 Celsius.

Applications

The MFR100FTF73-14R is suitable for a variety of applications due to its versatility and durability. These include automotive applications, industrial and communications equipment, HVAC systems, and more.

Working Principle

When electricity flows through the MFR100FTF73-14R, the resistance within the device causes a drop in the voltage. This drop is used to control the current, divide the voltage, or to set a specific static current and power within a circuit. The higher the resistance, the lower the voltage. The amount of voltage dropped across the resistor is related to the amount of resistance in ohms (Ω), which is specified on the device\'s datasheet.

Conclusion

The MFR100FTF73-14R is a THR designed for high power handling capabilities. Its innovative features and design make it a reliable and dependable component for a variety of applications. Its versatile power handling capabilities and wide operating range make it suitable for many different applications. With its high surge power rating, the MFR100FTF73-14R can provide reliable performance in high power systems.

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