Stow Opens U.S. Plant for Roll-Formed Racking

Coil-fed roll forming is worth evaluating for long, repeated steel profiles when the material, cross-section, punching, cutoff, and outfeed fit the planned production route. Stow’s first U.S. plant, inaugurated October 15, 2026, produces punched and roll-formed teardrop racking; the opening is a current application example, not a machine specification.

What the Stow opening establishes

Production at the plant began in May 2026, ahead of its October inauguration. The facility produces punched and roll-formed teardrop racking systems. It is also described as having automated production lines and robotic precision welding, but those details do not identify the roll-former’s make, model, station sequence, or performance.

The available reporting does not specify the roll-forming line’s material envelope, speed, tooling, cutoff method, or punching sequence. Treat the plant as evidence that roll-formed racking is a real production application—not as a capacity benchmark or proof that a particular line fits another OEM’s work.

Where roll forming earns consideration

Roll forming progressively bends continuous metal strip through successive roll sets at room temperature to create a repeated cross-section. A line can sometimes integrate secondary operations such as punching and cutting, reducing separate processing or handling when the part requirements and line design support that arrangement.

This process is most relevant to buyers evaluating recurring profiles and production mixes that can justify profile-specific tooling and setup. The useful strength is progressive forming of a repeated section; the trade-off is that material, geometry, feature placement, and changeover needs must be addressed for the actual work. Do not assume a line configured for one profile family will suit another just because both are roll-formed.

Match the line to the part and production mix

Start with approved profile drawings, cross-section tolerances, feature locations, and finished lengths. Pair them with the actual coil range: width, thickness, grade, strength, coating, and expected material variation. Those inputs shape the forming and tooling discussion and help determine whether punching belongs in the line or in a separate operation.

Then consider the punch pattern, feature-location requirements, cutoff method, and length tolerance alongside typical run sizes, annual demand, profile mix, and changeover frequency. A line decision based on a single headline speed misses the production questions that determine whether the whole route suits the work.

Finished-part flow matters as well. Assess profile support, stacking, packaging, and downstream welding or assembly, along with coil staging, floor space, operator access, guarding, and material movement. The equipment discussion should account for how parts leave the line and move through the facility, not just how strip passes through the forming stands.

Keep rack engineering separate from equipment selection

ANSI MH16.1-2023 specifies minimum requirements for the structural design, testing, and utilization of industrial steel storage racks. Selecting a roll-forming line does not establish that a finished rack system meets those requirements; keep structural design and validation with the responsible rack engineering team.

I’m Jon Williams, a Mac-Tech Sales Executive covering the Western and Central United States, with northern Wisconsin overflow. I can help assess forming-line fit across coil input, punching and cutoff, changeovers, pacing, outfeed, and layout. Bring representative profile drawings, coil specifications, feature patterns, part lengths, run sizes, and a floor or downstream-handling plan so I can help frame the equipment discussion; rack structural validation remains with the responsible engineering team.