Speed to Field Starts Below the Prime

Speed to Field Starts Below the Prime

Speed to Field isn’t born on the final assembly line. It’s forged months earlier, inside the quieter tiers of the defense supply chain, where specialized components and long qualification cycles can quietly throttle an entire program. That’s the argument from Dr. James Mitch Stevison, CEO of Frontgrade Technologies, a company whose electronics sit deep inside many systems the military ultimately delivers. His career spans warfighter, prime contractor, and now supplier, and that range of vantage points has produced a blunt warning: the Pentagon can push primes to move faster, but the system underneath them won’t automatically keep pace.

The urgency is real. Recent conflicts have shown both the remarkable power of U.S. systems and how quickly operational requirements can shift, and that tension is now forcing a hard look at what we've built. Space architectures are becoming more proliferated, distributed, and technologically restless. But a single spacecraft, radar, or interceptor can contain thousands of specialized parts produced across multiple industrial tiers, each with its own timeline and fragility. Some need bespoke manufacturing. Others require lengthy qualification. Electronics can go obsolete long before the platform they support retires, which means we're often chasing ghosts while the hardware still flies. Stevison’s core message: you cannot accelerate the top of the supply chain without understanding what sits beneath it. That's the whole game.

Push the demand signal deeper

The first fix is visibility. That's the whole game. Critical suppliers can't justify big investments in facilities, automation, or workforce based on a maybe, and too often, meaningful demand signals fade as they travel down the chain, dissolving into static. A prime sees where a program is headed. A supplier several tiers below might only see purchase orders, not the multi-year production requirement those orders represent. So that disconnect matters, and it matters a lot, because industrial capacity doesn't switch on overnight, and you can't flip a switch when the fog finally clears.

The stakes are climbing fast. It matters even more as space programs pivot from a handful of exquisite spacecraft to larger, proliferated architectures demanding repeatability and supply continuity across multiple production tranches. The supply base must scale with the architecture, not react after demand has already arrived. That's a dangerous lag. So if government expects production to jump materially in the next few years, the suppliers holding critical technologies need enough foresight to invest their own capital ahead of that curve, and they can't do it on guesswork alone. Greater transparency isn't about guaranteeing every forecast. It's about treating critical suppliers as part of the production strategy from the start. That changes everything.

Build second sources before they’re needed

Discover you need a second source only after the first one becomes a constraint, and that's the absolute worst timing imaginable. Terrible timing. For specialized defense tech, second sourcing isn't a simple procurement exercise; products may need redesign, integration, testing, and qualification before they can even enter production, which is a heavy lift that compounds the delay. That takes time. Stevison argues that government and industry should flag critical single-source dependencies earlier, especially when the same underlying technology supports multiple priority programs, because waiting only tightens the bottleneck. So act early.

Second sourcing won't make sense everywhere. The economics or technical complexity might not support it, and pushing redundancy into every corner of the supply chain would be a waste of time and money. But where a component poses a meaningful production risk, treat redundancy as an investment in readiness, not a reaction to shortage. That's the real shift. For space systems, that resilience must also account for technology refresh, since processing, RF, and other critical electronics evolve faster than the missions they support, so you can't just stockpile today's parts and call it done. So plan for the upgrade, not just the backup.

Invest before the constraint appears

Raising defense production also demands capital. It's a hard truth. New equipment, automation, tooling, and workforce development all require money well before extra units roll off the line, and that upfront burden doesn't disappear just because the mission feels urgent. Government has a role where constraints matter strategically, and targeted investment can speed up capacity that would otherwise be held back by the usual annual procurement cycle. But industry can't ask government to assume all the risk. When the mission requirement is clear and the demand signal is credible, suppliers should be willing to put their own capital to work on automation, productivity, and manufacturing infrastructure. That's their part of the bargain.

The most effective model isn't government investment or private investment. So don't mistake it for a simple either-or choice. It's a shared commitment around a clearly understood mission requirement, one that binds both sectors to the same outcome rather than letting each pursue its own separate agenda. That's a subtle but key change in how we think. And it changes everything.

Design for production and change

Production readiness begins during design. It's a simple truth. For decades, engineering teams have optimized for performance, understandably, but now they must increasingly ask how design decisions affect producibility, supply resilience, and future technology insertion, questions that once felt secondary. Can a critical electronics component be replaced without redesigning an entire subsystem? And can new processing or RF technology be inserted as threats evolve? So can production ramp up without hitting a supplier or qualification constraint that could have been anticipated years earlier? That's the real test.

Open, modular, and standards-based approaches won't solve every production challenge; that's a fact we've all learned the hard way. But thoughtful architectures and stable interfaces can help contain change rather than letting it propagate through the whole system, so the blast radius stays small and the core keeps humming. The goal should be designing for performance, production, and evolution at the same time. It's a tall order. And it's the only one worth having.

“Speed to field isn’t a production metric. It’s the outcome of thousands of decisions made across the industrial base long before final assembly begins.”

That quote cuts to the heart of it. Speed to Field is a system property, not a stopwatch reading, and it's the product of countless decisions made long before the final test. Government can provide clearer, earlier demand signals, so primes can bring critical suppliers into planning sooner, and the broader industrial base can invest ahead of demand, boost automation, and identify second-source opportunities. Engineering teams can make choices today that make tomorrow's systems easier to produce and evolve, even if those choices don't pay off for years. It's a chain reaction. But it starts with a single, simple question.

At Frontgrade, Stevison says the company is asking these questions itself. Where can additional automation accelerate critical electronics production? Where does second sourcing strengthen resilience? Where can reusable, standards-based tech speed deployment? And where should they put their own capital behind national priorities, a calculation that demands honesty about which investments yield the fastest return for the warfighter's timeline. Every company in the industrial base should be asking similar questions. That's the hard part. The current focus on defense production is a chance to rethink more than just manufacturing rates, but it's also a chance to rebuild the entire chain's capacity for speed. That work starts well below the prime.