With global connectivity and data consumption rising at an exponential rate every year, the need for robust, faster, and more reliable data transmission is at its peak. Supporting this demand, fiber optic technology is fundamental and critical to delivering high-speed communication services and supporting the modern economy. 

Cloud computing is a trending technology driven by the concept of utilizing internet-based, managed IT resources instead of maintaining the hardware and software components locally or on-site. A cloud computing infrastructure essentially creates a virtual enterprise IT environment consisting of software-defined components and computing power, storage, and network capabilities. This virtual infrastructure does what a physical infrastructure does and more, as it helps reduce costs and complexity while optimizing and centralizing data storage, management, and processing.

With the rapid evolution of technology, high-speed communications systems are essential for enabling telecom service providers to deliver large amounts of content around the world. The demand for faster speeds and more bandwidth is rising and optical fiber cables, which allow for the transfer of data using light signals, serve as the primary medium in these networks.

From the planet's largest machine to the latest quantum encryption, optical fibers play a key role in technology innovation as they enable phenomenally high data rates. Installed at the depths of the oceans, throughout cities, and in the most hostile environments on earth, optical fibers serve as the backbone for connecting global communications systems and delivering massive amounts of data every day.

In addition to serving as an important workspace, today’s fiber optic testing labs often host visitors like potential customers or technology partners for demonstrations. As a result, the appearance of the lab is important and can influence a visitor’s perception of the company. A crowded or disorganized lab is not only challenging for engineers to use, but it can also result in a negative impression or leave questions in one’s mind: If things are this disorganized, can I trust the results I’m seeing? Are projects completely efficient? This is especially the case if a visitor was recently at a competitor’s lab that spared no expense in terms of making an effort to maintain a top-notch lab space.

Interested in learning more about remote fiber test systems and how they work? Intended for those seeking a better understanding of solutions for successfully maintaining fiber optic networks, this article focuses on remote fiber testing systems, which are a valuable tool for network operations teams.

When fiber optic field technicians need to test the integrity of a fiber optic cable, they use an Optical Time Domain Reflectometer (OTDR) device that identifies and pinpoints issues like breaks/faults and poor splices, while also certifying the cable length.  To find and resolve issues in the fiber cable quickly and efficiently, it’s critical that they not only have a reliable OTDR device, but just as importantly know how to use it properly in terms of selecting the necessary settings and interpreting the results correctly.  This is achieved by receiving thorough training in the classroom prior to heading out into the field.

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.