Radio Frequency over Fiber (RFoF) is a critical component in industries such as aerospace, radar, broadcasting, satellite and GPS communications, along with weight-sensitive environments such as the space or undersea industries. With RF over fiber, radio communication is consistent and reliable. 

Undersea cabling has connected continents for more than 100 years.  With exponential growth in bandwidth demands, private companies have begun large investments in underwater fiber optic cable to serve their customers’ needs. Because of the unique deployment and additional risks associated with underwater cabling, training and testing with the help of M2 Optics is critical. 

5G, with its promise of lightning-fast speed and response time, is everywhere.  Turn on the TV, listen to the radio, visit your favorite website, drive past a billboard and you’ll likely see or hear some advertisement, banner ad, or commercial about a wireless network’s new 5G infrastructure or phone.  This is the next evolution in mobile technology and is generally considered a leap forward and the doorway to a technology revolution.

The Importance of Reliable Fiber Networks

According to a recent study from the Fiber Broadband Association and RVA, LLC, broadband use during the pandemic became critical as individuals weathered the uncertainty from their homes. One area where broadband saw a significant increase was the use of video conferencing, a technology that requires high levels of reliable bandwidth, as well as online gaming and video streaming.  A Lightwave article notes that in the first quarter of 2020 bandwidth use increased by 47%, with, “the average broadband subscriber consuming a weighted monthly average of 402.5 GB of data.”

Simulating real-world fiber optic links and time delays in the lab environment is both a frequent and necessary task for engineers performing R&D and equipment certification testing processes.  With the evolution to more advanced network architecture, increasing speeds of 400G and beyond, and latency always being a key element, replicating the field network as closely as possible in the lab is critical to ensure systems will perform as expected post-deployment. 

As broadband access expands to more communities and rural areas, the use and deployment of fiber optic networks continues to grow as residents rely heavily on the availability of faster broadband speeds to stay connected and utilize the latest apps and services. As a result, network reliability and availability is more critical than ever making monitoring and support by the service provider all the more important.

This year’s OFC conference in San Diego will be another showcase of innovative new and future technologies.  With fiber optic communication and networking equipment continuing to evolve, testing procedures and setups must also grow and change as part of the process.  Engineers are then often faced with a challenge - how can they continue to add and integrate new systems and the appropriate connectivity infrastructure in a finite amount of lab space?  While some may benefit from new facility expansions, the luxury of additional square footage and rack space isn't often the case for most.

While the adoption and deployment of 100G systems and related devices in data centers has continued to grow at a solid pace the past few years, network equipment manufacturers have started taking the next step for supporting even greater bandwidth demands by developing 400G optics and transmission systems.

The term fiber optic network often conjures up images of Verizon FIOS commercials, Google Fiber, Comcast  Xfinity, or some other multi-billion dollar media and telecommunication company that promotes their reliance on fiber optic infrastructure for their business.

As we enter the last quarter of the year, businesses are starting to or continuing to plan and budget for the upcoming year.  This may mean new investments, new equipment and other upgrades in technology or infrastructure to support and position the company to be competitive and successful in the upcoming year.