WR 137 Waveguide Fixed Attenuator

The WR137 Waveguide Fixed Attenuator, equipped with FDP-70 flanges, is a high-performance component designed for precise signal control in advanced microwave communication and radar systems. The WR137 waveguide size, measuring 4.32 inches by 1.65 inches, supports higher power levels and broader frequency ranges compared to smaller waveguides, making it ideal for applications requiring robust signal handling capabilities.

Featuring FDP-70 flanges, which are specifically designed for this waveguide size, the attenuator ensures a secure and reliable connection within the system. These flanges facilitate easy integration into existing infrastructure while maintaining excellent electrical contact and minimizing reflections, thereby preserving signal integrity.

Constructed from top-grade materials such as aluminum or brass, the WR137 attenuator offers exceptional durability and longevity. It incorporates precision resistive elements that provide fixed attenuation values, typically specified in decibels (dB), over a wide frequency range, usually from 6.5 to 18 GHz. This consistent attenuation helps manage signal strength effectively, preventing interference and protecting sensitive components from potential damage due to excessive power.

One of the standout features of the WR137 Waveguide Fixed Attenuator is its low insertion loss and high power handling capacity, ensuring minimal signal degradation while managing high power levels efficiently. Additionally, its compact design and robust build make it suitable for demanding environments where reliability and performance are paramount.

In summary, the WR137 Waveguide Fixed Attenuator with FDP-70 flanges is an essential tool for engineers and technicians working in telecommunications, defense, satellite communications, and other microwave-based technologies. Its ability to deliver consistent attenuation, coupled with its ease of installation and superior performance, makes it a critical component for maintaining optimal system functionality and signal quality.