FMP-50FTF52-16R5

Through Hole Resistors

Through hole resistors, also known as leaded resistors, are the most common type of resistor used in electronics and electrical systems. They consist of a mass of resistive material encased in a cylindrical enclosure with two leads extending from either end of the body. The resistive material could be a variety of different things, such as wire-wound, carbon composition, or even an oxide material such as cermet. The end leads of a through hole resistor are typically made of copper and are plated with solder, making it easier to mount and secure them into circuit boards.

FMP-50FTF52-16R5 is one such example of a through hole resistor. It is a high-power, high-temperature ceramic wirewound resistor, which are typically used in applications that require higher wattage, such as motor drives, motor starters, and power supplies. Its maximum working power is 50W with 15% tolerance, and it’s rated temperature range is -55°C to +150°C. It is typically rated for a maximum voltage of 500V DC, and the current rating depends on the particular type.

FMP-50FTF52-16R5’s application field typically includes motor drives, motor starters, power supplies and other high power, high-temperature applications. Its working principle is simply that the current flowing through the resistor passes through the wirewound material, which produces heat and resistance. This resistance creates a voltage drop across the resistor, and the voltage drop is equal to the current times the resistance. The amount of wattage produced by the resistor will depend on the amount of current passing through it, and the resistance of the material used.

In summary, through hole resistors are one of the most common types of resistors used in electronics and electrical systems. FMP-50FTF52-16R5 is a high-power, high-temperature ceramic wirewound resistor, which is typically used in applications that require higher wattage. Its application fields primarily include motor drives, motor starters, power supplies and other high power, high-temperature applications. Its working principle is simply that the current passing through the resistor passes through the wirewound material, which produces heat and resistance, creating a voltage drop across the resistor.