Camplex 250' opticalCON DUO SMPTE 311 Singlemode Fiber Optic Cable

Take your professional audio and video applications to the next level with the 250' opticalCON DUO SMPTE 311 Singlemode Fiber Optic Cable. This high-quality, durable cable is designed by Camplex, a reputable brand known for its reliable and long-lasting products.

This Singlemode Fiber Optic Cable is specifically engineered for outside broadcasts and field deployments in commercial and professional broadcast AV applications. It's constructed with SMPTE 311M cable, rated for ruggedized applications, ensuring it can withstand the demands of challenging environments.

The opticalCON DUO NO2SX to NO2SX Singlemode Hybrid Cable is factory terminated and machine polished in a state-of-the-art Fiber Optic Lab, ensuring exceptionally low return loss and insertion loss. It features a ruggedized connector body, common LC contacts, and a mechanical shutter system to shield against end-face contamination.

The cable is composed of 2 singlemode fiber UPC, 2 x AWG24, and 2 x AWG16 or (2x17AWG) stranded copper power conductors, an overall copper braided shield, and a stainless steel strength member. Please note, this cable is not compatible with the SMPTE 304M standard.

Designed for both indoor (studio) and outdoor applications, the opticalCON DUO SMPTE 311 Singlemode Fiber Optic Cable is equipped with lockable and waterproof metal caps and rubber guards, ensuring robustness and long-term water resistance. The ergonomically designed cable strain relief further enhances cable protection.

This cable is easy to clean and requires no tools, thanks to its reliable push-pull locking mechanism. It's also color-coded for custom-built coding, making it a versatile choice for various applications including digital audio and video, digital signage, data and networking, lighting control, and more.

Experience superior performance with the 250' opticalCON DUO SMPTE 311 Singlemode Fiber Optic Cable, your ideal solution for transmitting signals over long distances with minimal signal loss.