ROX2SJ47R

Through Hole resistors, such as the ROX2SJ47R, are a type of resistors used to reduce electric current flow in an electrical circuit. The resistor\'s value is determined by the amount of resistance present in the circuit, which can be determined by the resistance of each component and the voltage of the circuit.

The ROX2SJ47R through hole resistor is a non-inductive wirewound type, designed for high voltage applications. The resistor features a lead frame design, which enables the lead to be connected directly to the winding, providing excellent electrical and thermal performance. The resistor is constructed with a precision jig and adjustable resistivity, to optimize performance in high-voltage applications.

The operating voltage range of the ROX2SJ47R is as high as 1,800V DC, making it ideal for a variety of applications, such as protection against overvoltage, attenuation of radio frequency noise, as well as other applications requiring a high resistance in order to reduce current flow. As a through hole resistor, the ROX2SJ47R is also suitable for hermetically sealed, vibration-proof, and heat-resistant applications due to its robust design.

The working principle of the ROX2SJ47R is quite simple. When electricity passes through the resistor, it produces heat due to the resistance of the material, or in this case, the wirewound construction. The resistor works by reducing the flow of current, which allows the voltage level in the circuit to remain stabilized and not exceed certain levels. This allows for more control over the power supply, and therefore, the performance of the device.

In conclusion, the ROX2SJ47R through hole resistor is designed specifically for high voltage applications, and has an operating voltage range of up to 1,800V DC. The resistor is constructed with a precision jig that enables easy installation, and its adjustable resistivity enables high performance levels. The resistor functions by reducing the current flow in the electric circuit, allowing the voltage in the system to remain stable and not exceed certain thresholds. This provides a high degree of control over the power supply, and consequently, the performance of the device.