When most people think of 3D printing, they picture desktop machines churning out chess pieces or replacement parts. But a California-based company called Divergent Technologies is using additive manufacturing to build something far more consequential: cruise missiles for the United States military. And they’re doing it at speeds that would have seemed impossible just a few years ago.
From Supercars to Supersonic Weapons
Divergent Technologies didn’t start in defense. The company, founded by Kevin Czinger, originally made its name 3D-printing structural components for high-end automakers like Bugatti and McLaren. Their Divergent Adaptive Production System (DAPS) combined AI-driven design with industrial additive manufacturing and robotic assembly to produce complex automotive structures faster and lighter than traditional methods allowed.
But the same capabilities that attracted supercar manufacturers — rapid design iteration, weight optimization, and scalable production — turned out to be exactly what the Pentagon needed. Under the leadership of CEO Lukas Czinger, who took over from his father in 2025, Divergent pivoted hard into defense.
In September 2025, the company raised $290 million at a $2.3 billion valuation, led by Rochefort Asset Management. The funding round signaled a clear strategic shift: Divergent was going all-in on supplying 3D-printed missile airframes and key components to defense primes including Lockheed Martin, RTX (Raytheon), General Atomics, and Triumph Group.
The RAACM Missile: From Concept to Flight in 16 Weeks
Divergent’s first major defense milestone came through a partnership with CoAspire Systems, a U.S. defense contractor. Together, they developed the Rapidly Adaptable Affordable Cruise Missile (RAACM) — a weapon designed from the ground up for additive manufacturing.
The results were striking. Divergent took CoAspire’s clean-sheet missile design from requirements to first flight in just 16 weeks. The DAPS system allowed the team to digitally engineer the missile’s fuselage, optimizing for fuel tank capacity while meeting all structural performance requirements. Production-ready hardware was delivered within 10 weeks of design finalization.
“Our strength is this next-generation capability to digitally engineer and manufacture to deliver first-time-right, production-ready hardware within 10 weeks,” said Lukas Czinger. “RAACM is a case study in what’s possible when adaptability is built into every phase of development.”
CoAspire built a supply chain spanning 26 U.S. See also: The Current State of Metal 3D Printing in 2020. states and two European countries for RAACM, with Divergent responsible for the missile’s 3D-printed structural components. The affordability of RAACM comes largely from this additive manufacturing approach — complex geometries that would require expensive tooling and months of lead time with traditional methods can be printed directly.
Venom: 71 Days From Whiteboard to First Flight
Then came an even more dramatic demonstration. In February 2026, Divergent partnered with Mach Industries to unveil Venom, an autonomous strike aircraft prototype. The jaw-dropping stat: Venom went from concept to first flight in just 71 days.
On February 17, 2026, the aircraft completed its maiden flight in Los Angeles. “Going from inception to flight in 71 days is a clear demonstration of what’s possible when Divergent’s Adaptive Production System is utilized from day one,” Czinger stated. “This is what production at the speed of relevance looks like.”
For context, traditional defense acquisition programs often take years — sometimes decades — to move from requirements documents to flying hardware. The F-35 program, for example, took over 15 years from contract award to initial operational capability. Venom compressed that entire cycle into barely two months.
How DAPS Actually Works
The secret behind these timelines is Divergent’s end-to-end manufacturing system. DAPS isn’t just a 3D printer — it’s an integrated pipeline that combines:
- AI-driven generative design — Algorithms optimize structures for weight, strength, and manufacturability simultaneously
- Industrial metal additive manufacturing — Large-format metal 3D printers produce structural components directly from digital designs
- Universal robotic assembly — Automated systems handle joining and final assembly without custom tooling
- Digital thread continuity — The entire process, from initial concept through production, lives in a unified digital environment
This integrated approach eliminates the traditional bottlenecks of defense manufacturing: custom tooling (which can take months to produce), long supply chains with dozens of intermediaries, and sequential design-build-test cycles. DAPS enables parallel development — designing, testing, and manufacturing simultaneously.
Scaling to 10,000 Units
According to Aviation Week, Divergent is positioning itself to 3D print and robotically assemble up to 10,000 units across multiple UAV and cruise missile programs. The company finds itself at the center of multiple Pentagon initiatives, serving as the manufacturing backbone for several defense primes simultaneously.
This scale matters. See also: Best 3D Printer Upgrades That Actually Improve Pri…. The war in Ukraine has demonstrated that modern conflicts consume precision munitions at rates far exceeding peacetime production capacity. The U.S. and its allies have struggled to replenish stocks of weapons like the Javelin anti-tank missile and HIMARS rockets. Divergent’s approach — rapid design, digital manufacturing, no custom tooling — could fundamentally change how quickly the industrial base can respond to surges in demand.
What This Means for 3D Printing
Divergent’s defense contracts represent a watershed moment for additive manufacturing as an industry. While 3D printing has been used in aerospace for decades (mostly for non-critical components and prototyping), Divergent is producing flight-critical structural components for weapons systems at scale.
This validates several long-promised benefits of additive manufacturing:
- Speed — Weeks instead of years from concept to hardware
- Flexibility — Design changes don’t require new tooling; just update the digital file
- Complexity at no extra cost — Organic, optimized geometries that are impossible with traditional manufacturing cost no more to print than simple shapes
- Distributed production potential — With the right digital files, production could theoretically happen at any DAPS-equipped facility
The Bigger Picture
Divergent’s rise reflects a broader shift in how the U.S. approaches defense manufacturing. The Pentagon has been pushing for more agile, software-defined weapons systems through initiatives like the Replicator program, which aims to field thousands of autonomous systems quickly. Companies like Divergent, Anduril, and Mach Industries represent a new breed of defense contractor — one that operates more like a tech company than a traditional arms manufacturer.
The $2.3 billion valuation suggests investors believe this model has legs. And with active contracts across multiple defense primes, Divergent isn’t just pitching a concept — they’re delivering hardware that flies.
For the 3D printing industry, the message is clear: additive manufacturing has graduated from prototyping to mission-critical production. If it’s good enough for cruise missiles, the technology’s reliability and scalability are no longer in question.
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Sources: Axios, PR Newswire, Aviation Week, 3D Adept, Interesting Engineering, VoxelMatters
Frequently Asked Questions
What is the best 3D printing filament for beginners?
PLA is the best starting filament — it prints easily at 190-220°C without an enclosure and produces good results. Once comfortable, PETG offers better strength and temperature resistance for functional parts.
How do I choose the right filament?
Consider the application: PLA for display models, PETG for functional parts, ABS/ASA for heat/sunlight exposure, TPU for flexible parts, and specialty filaments for engineering applications. Each has specific printer requirements.
What temperature should I print different filaments at?
PLA: 190-220°C nozzle / 50-60°C bed. PETG: 220-250°C / 70-80°C. ABS: 230-260°C / 100-110°C (enclosure needed). Nylon: 240-270°C / 70-90°C. Always check manufacturer recommendations for specific brands.