2047-35-ALF

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Gas Discharge Tube Arresters (GDT) have been used in a wide variety of applications since its invention in 1887. These devices have become increasingly popular in recent years because of their superior performance and sophisticated design features. The 2047-35-ALF GDT Arresters are designed to specifically protect sensitive electronic equipment from environmental conditions such as lightning, power fluctuation, and static electricity.

The 2047-35-ALF GDT Arresters is unique in that it utilizes a two-part design to increase its electrical insulation. This design consists of a porcelain insulator and an outer gas discharge tube (GDT) structure. The porcelain insulator is designed to act as an electrical insulator, preventing electrical current from entering the GDT. The outer GDT gas discharge tube acts as a semiconductor, allowing small amounts of current to pass through while preventing larger, damaging currents from passing. Thus, the 2047-35-ALF GDT Arresters is able to protect sensitive electronic equipment from lightning, power fluctuation, and static electricity while still allowing normal signals to pass through.

The working principle of the 2047-35-ALF GDT Arresters is relatively simple. When an overvoltage is present within the system, the GDT will discharge the excess energy into the surrounding environment. As the energy is discharged, it causes an ionization in the gas-filled tube. This ionization creates a conductive path for the excess electrical energy, which is then dissipated into the atmosphere. In this way, the GDT Arresters will effectively protect sensitive electronic equipment from overvoltage conditions.

The 2047-35-ALF GDT Arresters is designed for use in a variety of applications, including industrial and commercial power supply systems, telecommunications systems, and computer systems. It is ideal for use in harsh and extreme environmental conditions because of its remarkable ability to withstand high temperature, high voltage arcing, extreme humidity, hot and cool air, and salt-laden air. Furthermore, it is designed for use in hybrid power systems, ensuring that the system has a low probability of fault and maximum protection in the case of an emergency.

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