SS12L RQG

The SS12L RQG is a single rectifier diodes, which has been designed for use in high voltage applications. It consists of a ceramic substrate and two terminal leads. The SS12L RQG is manufactured from silicon and other materials and has a ceramic body which is hermetically sealed. The diode has an anode voltage rating of 200V, a current rating of 0.8A, and a reverse leakage current of 20mA. The SS12L RQG also has an operating temperature range of -40°C to +85°C.

The SS12L RQG is primarily used for AC/DC rectification. This means it can be used to convert alternating current (AC) to direct current (DC). It is often used to build power supplies, such as those used to power computers, as well as automotive alternators, air conditioners and microwaves. When used in these applications, the SS12L RQG’s feature of being able to handle high voltage is particularly advantageous.

The SS12L RQG’s working principle is relatively simple. The device is constructed with two layers. The first layer is an anode, and the second is a cathode. When an electrical current enters the device, it is attracted to the anode and is pulled through the diode. Once the current has gone through the diode, it is blocked from going back the other way due to the formation of a depletion zone.

The SS12L RQG has several advantages compared to other similar diode types. It has a high reverse voltage rating of 200V, which makes it well suited for use in applications that require a large amount of power. It also has a low leakage current and is able to withstand temperatures up to +85°C. Finally, it has a low capacitance, meaning it does not interfere with the flow of current when compared to other diodes.

In conclusion, the SS12L RQG is a single rectifier diode that is well-suited for high voltage applications, such as AC/DC rectification. It has several advantages over other diode types, such as a high reverse voltage rating of 200V, low leakage current, and a low capacitance. The SS12L RQG’s working principle involves the formation of a depletion zone when an electrical current is introduced to the device, which prevents it from going back in the other direction.