Rapid 2026 Shows Pragmatic & Practical Side of AM Industry

Walking into the Rapid + TCT exhibition halls in Boston felt like a shock of energy, the hum of conversation, the clack of demos, and the unmistakable jolt you only get when an entire industry is gathered in one place. Exhibition booths were steadily busy, sessions were informative, and the floor was a constant negotiation between scheduled meetings and spontaneous, high-value conversations. There was a real sense of momentum, not just new hardware announcements, but an appetite for the next phase of additive manufacturing qualification and pragmatic adoption. Below are the key themes I walked away with: affordability and accessibility, maturity, familiarity, and scalability.

Affordability & accessibility lead to democratizing capability

A running theme at Rapid was how industrial technologies are becoming meaningfully more affordable. That’s not just pricing theater; it’s lowering the barrier to entry for real production use-cases.

Prepare to see a lot more about Mastrex and the MX100, a desktop LPBF system advertised at roughly $39,000. Positioned as the affordable alternative to legacy LPBF systems, Mastrex offers the same quality and performance without the price tag. How is that even possible?

For the past twelve years, Mastrex has honed its laser technology and is now entering the market with a range of platforms that are roughly 50% more cost-effective and compatible with stainless steel, titanium, cobalt chrome, aluminum, and Inconel. By leveraging decades of technological advancements, Mastrex is poised to enable broader adoption and access across academia, research, machine shop manufacturing, and critical part development.

The pitch is about enabling new design-to-part loops, shortening iteration cycles, and making metal AM a practical option for smaller teams.

On the polymer production side, HP introduced the MJF 1200, a sub $60,000 desktop-class production workhorse. Those familiar with multi-jet fusion technology are aware of its strong build economics and high-quality output, which have made it a major market leader in additive manufacturing.

HP’s quality pedigree and print ecosystem meeting a price point under sixty grand is significant. Historically, “HP-quality” meant enterprise dollars; now it signals a viable bridge between bench-level experimentation and scaled production, particularly for companies chasing consistent surface finish, tight tolerances, and materials breadth without the large capital outlay.

Maturity with sinter-based additive manufacturing

Sinter-based AM, or SBAM, had a notable presence at Rapid, and the conversations were less speculative and more tactical. This is the domain where debinding and densification realities meet supply-chain and qualification pressures. We seem to be advancing beyond the exaggeration of market dominance and entering more practical approaches. A common thread is the qualification of new materials and the importance of green part production & sintering operations.

I heard MAR247 multiple times throughout the event, and several contract manufacturers are successfully producing it at scale. Characterized as a high-performance, nickel-based superalloy, MAR247 is an excellent material for gas turbines for energy and aerospace applications. There are several suppliers of MAR247, including Continuum Powders, which announced the commercial availability of Mar-M247 for binder jetting and non-LPBF additive manufacturing platforms in August 2025.

Pure Copper is another major metal milestone, introduced on the HP S100 platform and available through GKN in Auburn Hills, MI. Copper has excellent mechanical properties related to thermal control applications, and its timely introduction aligns perfectly with the AI data center and semiconductor booms.

However, all the major SBAM technology leaders acknowledge that printing is only half of the equation. Debinding and sintering experts Elnik Systems and DSH Technologies continue to offer their guidance and solutions to better support the additive manufacturing opportunity.

Elnik System President, Stefan Joens, emphasized that printing a green part is the first step. Turning that green part into a high-density, reliable production component requires furnace know-how, debind chemistry control, fixturing strategy, and a deep lens on shrinkage and distortion control.

These are lessons that AM users must internalize if Sinter-based processes are going to graduate from prototyping to production. New entrants are pushing the envelope of capability, while traditional sintering experts remind everyone that process discipline is non-negotiable.

Scalability flying high with drone manufacturing

Unmanned systems were everywhere at Rapid, and there’s a clear industry pivot from prototyping to production scaling. If you are unfamiliar with the US Department of War Drone Dominance program, it offers a precise outline and timeline of where the military is heading. I recommend taking a look at it.

Stratasys, as expected, positioned its portfolio as a toolkit for unmanned system manufacturers across groups 1–5. From jigs and fixtures to end-use housings and thermal tooling to serial production, their message was that additive can insert value across the lifecycle.

From design freedom for weight reduction to on-demand replacement parts for deployed platforms, or tooling for short-run production. That narrative resonates with primes and tiered suppliers who need responsive supply chains and lightweighting gains without long lead times.

Stratasys is either selling equipment or providing direct manufacturing services to over 75 drone manufacturers and is proud of the defense primes on its customer advisory board, which includes Northrop Grumman, Sikorsky, Lockheed Martin, and General Atomics.

Impossible Objects, with its CBAM (Composite-Based Additive Manufacturing) technology, has long been a champion of drone manufacturing, led by Chief Commercial Officer Jeffrey DeGrange. The CBAM technology combines the lightweight performance of carbon fiber with the speed and precision that the major military branches are embracing.

Impossible Objects has been a longtime collaborative partner with the US Air Force and, most recently, announced a new equipment installation at the US Army Rock Island Arsenal (RIA) intended to support a target of 10,000 drones per month. This is not a pilot; that’s production intent.

Additive manufacturing is being baked into modernization strategies. If additive elements can reduce logistics strain and speed field repairs or localized manufacturing, the operational model for unmanned fleets changes significantly and the implications are massive.

New names, same momentum

Rapid also had a subtle reorientation of familiar labels. Branding changes are more than cosmetic; they mark strategic positions.

Arc Impact, owner of the Desktop Metal portfolio and brand, made a strong North American reentry. CEO, Thomas Nogueira’s bootstrap team is framing Arc not just as a hardware vendor but as a problem-solver, heavy on VOC (voice-of-customer) activities, application development, and hands-on pilot work.

Their message is that adoption doesn’t happen with a single demo; it happens with tooling, process development, and iterative qualification. That posture resonated with attendees who want pragmatic paths to acceptance of parts rather than speculative promises.

ATLIX, formerly TRUMPF additive manufacturing, made its first major appearance in North America, showcasing the next generation in TruPrint 5000 technology. Recently adopted by several major manufacturers, the TruPrint 5000 leverages TRUMPF’s legacy of laser excellence and delivers industry-leading build economics.

Although the new name signifies a new chapter for ATLIX, it’s clear that the foundation of innovation and industrial productivity will remain a bedrock principle to the company’s vision.

These name shifts are worth watching because they reflect where leadership believes the market is headed. Including consolidation, specialization, and clearer narratives about how products integrate into manufacturing ecosystems.

Beyond new machines and material announcements, the meat of Rapid for me was the quality of the conversations. Booth-to-booth and session-to-session, people were talking about the hard stuff:

●      Qualification: What does it mean to qualify an additive part for aerospace, medical, or defense? Which data sets are sufficient? How do you harmonize process windows across machine fleets?

●      Standardization: Who sets the test methods, and how do we scale those test methods to new materials and hybrid workflows? Standards bodies and organizations, such as America Makes, and OEMs are converging on some answers, but the work is far from done.

●      Application development: Everyone wants concrete ROI stories, not vague “lightweighting” promises. Teams are pairing material experts, design engineers, and production planners earlier in the lifecycle to build those case studies.

Those conversations were not abstract debates; they were practical working sessions. I saw partnerships form in real-time, and that is exactly what an industry needs to move from capability demonstrations to repeatable production.

Final thoughts, pragmatic and practical

Rapid + TCT Boston delivered in every sense. It was energetic and packed with optimism, but also grounded in the work of making additive reliable at scale. New, affordable systems like Mastrex’s MX100 and HP’s desktop-class entry are expanding the user base.

Sinter-based workflows, backed by veterans like Elnik and reinvigorated teams like Arc Impact, are moving toward production-readiness. Drone manufacturing emerged as a real, high-throughput application area, with Impossible Objects’ RIA program a powerful indicator that additive manufacturing can support not just prototyping but also serialized production.

Most of all, the event reinforced a simple truth: technologies without process fidelity and meaningful application development will remain novelties. The best conversations at Rapid were those that married bold product announcements with operational rigor, qualification plans, standards discussions, and multi-stakeholder application roadmaps that will turn potential into practice.

If you left Boston skeptical of AM’s trajectory, you probably weren’t listening. If you left wondering how to apply additive in your own line of work, you know now that there are resources available. Rapid didn’t just show us what’s possible; it connected people who can make it reliable, repeatable, and relevant.