It's easy to measure the cost of a cable. What’s much harder to measure, though, is the cost of that 2 a.m. call that ruins your most valuable employee’s sleep.

Facilities across the world are increasingly investing in variable frequency drives (VFDs). And why wouldn’t they invest in something that can improve efficiency, control, and overall system performance while also reducing energy consumption? It’s a no-brainer for many savvy plants, factories, and production facilities. But there is one issue with this change, however... As many plants invest in VFD technology, one critical component is often overlooked in that harsher environment: the cable connecting the drive to the motor.

For utility providers, contractors, and emergency power teams, the most difficult projects often require more than an off-the-shelf product. At Amphenol TPC Wire & Cable (ATPC), the solution doesn't always start with a product catalog. Sometimes, it starts with a conversation about what needs to be accomplished, what constraints exist, and what components are required to make that solution work.

Continuous-flex applications in steel plants create some of the most punishing operating conditions for industrial cable. Cranes and transfer carts that repeatedly reel and unreel cable subject it to constant flexing, abrasion, and tension — conditions that cause ordinary cable to fail internally before visible jacket damage appears.

One steel manufacturer in India faced this problem on two separate pieces of equipment. After replacing its existing cable with engineered reeling cable from Amphenol ATPC Wire & Cable, the plant conducted an internal cost analysis to measure the operational impact.

In the Roaring Twenties, manufacturing was changing fast, sparking another common nickname for the era: The Prosperity Decade. Many might argue, however, that the 2020s are even more “roaring.” After all, a full century later, innovation is still moving – and faster than ever. As facilities embrace smart manufacturing initiatives, digital transformation, and Industry 4.0 strategies, the amount of real-time data moving across the plant floor continues to grow. That shift demands communication infrastructure that is faster, simpler, and built to survive the realities of industrial environments.

At first glance, cable reel trailers seem fairly straightforward. They're just a way to transport heavy cable reels... Right? Unfortunately, they're not as simple as they seem. Temporary power projects rarely come with a one-size-fits-all set of requirements. That means that whether you're supporting a mobile substation, responding to an emergency outage, or deploying temporary power at an industrial site, the equipment you need depends on the application. Cable length, medium voltage cable size, connection requirements, available space, deployment conditions, and transportation needs can all influence the right solution. That's why Amphenol TPC Wire & Cable (ATPC) designs and builds custom cable reel trailers around the requirements of each project and jobsite.

A variable frequency drive (VFD) is a type of controller that varies the frequency of the signal and voltage to control motor speed. Other common names for VFD include variable speed drive, adjustable speed drive, constant torque drive, inverter drive, and pulse-width modulation (PWM) drive. But what is VFD cable, and why is it important? VFD cable is a specially designed power cable engineered to connect a variable frequency drive to a motor while withstanding the unique electrical stresses created by VFD systems. Unlike standard cable, VFD cable is designed to reduce electrical noise, manage voltage spikes and reflected waves, and help protect motors, drives, and connected equipment from premature failure.

Twenty years ago, Amphenol TPC Wire & Cable (ATPC) acquired Sanco, which would eventually become its Custom Build Shop (CBS). But the story of the CBS began long before the acquisition with a family willing to build something from the ground up. For Diane Anderson, Production Manager of Assembly at ATPC, the journey has been personal from the very beginning.

Una operación minera compró el mismo cable 24 veces en 24 meses. Nosotros hicimos las cuentas de lo que eso le costó — y de lo que dejó de costarle al cambiar de cable. 

Choosing the right welding cable size is critical for safety, performance, and preventing costly downtime. Welding cables carry high currents in demanding environments, and undersized or mismatched cable can overheat, lose efficiency, or fail prematurely.

The best industrial products rarely begin as ideas on a whiteboard. More often, they start with a challenge in the field — a cable that fails too quickly, an environment that existing products can't withstand, or a market need that hasn't been fully addressed. Successful innovation starts with identifying those opportunities and then combining customer insights with engineering expertise to create something better.

When utility companies deploy temporary power systems, mobile substations, or emergency backup infrastructure, the cable used in the process is only part of the equation. And the way those cables are transported, stored, deployed, and protected in the field can have a major impact on both operator safety and system reliability.

Sometimes, the most impactful innovations begin with a challenge. This is especially true when it comes to cable design. Whether it's fitting several lines into a compact composite cable or developing a solution that can withstand the harsh conditions inside a wind turbine, custom-engineered cables often solve problems that off-the-shelf products simply can't address.

Ampacity is crucial in industrial wiring to ensure safe and efficient electrical systems. Let’s explore what ampacity is, how it affects cable selection, and why it matters in industrial settings. 

Industrial cables don't last by accident. Long-term performance comes down to the right combination of material selection, cable construction, and engineering expertise with rigorous design standards. From conductor stranding and lay lengths to high-performance compounds and fluoropolymer insulation, every intentional design choice affects how a cable withstands flexing, abrasion, heat, chemicals, and constant motion in harsh industrial environments.