“In terms of expertise, no one today can help the way Ukraine can.” That line from Volodymyr Zelensky is not about diplomacy. It is about industrial transformation. Ukraine is no longer just fighting a war. It is converting that war into a defense industrial model that is now scaling across the Middle East, Europe, and increasingly the United States. What began as improvised drone workshops and battlefield adaptation is evolving into a distributed manufacturing network tied directly into Western supply chains.

What Ukraine is exporting is not just capability. It is a different model of how military systems are built. The innovation cycle is no longer tied to the industrial base. Design and iteration happen under combat conditions in Ukraine, while production is increasingly distributed across Europe, the United States, and partner states. That separation between where systems are developed and where they are manufactured is new, and it is beginning to reshape how defense capability is scaled. The shift is happening faster than most expected.

Zelensky’s recent agreements with Saudi Arabia, Qatar, and the United Arab Emirates mark Ukraine’s emergence as a security provider in the Gulf. These ten year partnerships focus on counter drone expertise, joint production, and technology transfer. More than 200 Ukrainian specialists have already deployed to the region, with additional negotiations underway across Oman, Kuwait, and Bahrain. What is being exported is not just equipment. It is a way of fighting. At the same time, Ukraine is embedding itself into European and American industrial systems at a structural level. This is not export in the traditional sense. It is integration.

From Battlefield Innovation to Industrial System

The foundation of this transformation is Ukraine’s experience with mass drone warfare. Since 2022, Ukrainian forces have defended against continuous waves of Iranian designed Shahed drones used by Russia. These systems are cheap, numerous, and designed to overwhelm high end air defenses. Western systems such as Patriot and THAAD remain effective against advanced threats, but they are not economically viable against saturation at scale. Ukraine was forced to solve that problem.

What emerged is a layered approach built around cost discipline. Electronic warfare, decentralized interception, and increasingly, low cost interceptor drones designed specifically to neutralize expendable threats. The objective is not technological superiority in isolation. It is sustainability under pressure. This model is now being exported and, more importantly, produced abroad.

Ukrainian interceptor drone company General Cherry has signed a production agreement with Wilcox Industries in New Hampshire to manufacture its systems in the United States. Parallel agreements in Croatia and Ukraine create a distributed production base that mirrors how these systems are actually deployed. The structure is deliberate. Ukrainian firms retain core intellectual property while leveraging NATO country manufacturing to scale output and meet procurement requirements.

At the center of this effort is the Bullet interceptor. It is engineered for a single purpose. Destroy Shahed class drones at a cost that does not break the defender. With speeds exceeding 300 kilometers per hour and a unit cost of roughly two thousand dollars, it represents a different category of air defense entirely. Not exquisite, but scalable. That distinction is now driving procurement decisions.

The United States Is Pulling Ukraine Into Its Industrial Base

This is no longer a peripheral trend. It is being formalized inside the U.S. defense system. Multiple Ukrainian companies are now competing for or have secured positions within Pentagon programs focused on low cost autonomous systems. SkyFall’s fiber guided drone outperformed all competitors in early testing under the Drone Dominance Program, while Ukrainian Defense Drones Tech was selected among the winners for its strike systems. Other firms are entering through partnerships, including agreements to bring Ukrainian robotic systems into U.S. production and procurement pipelines.

The pattern is consistent. Battlefield validated systems are being pulled into the U.S. industrial base because they solve a problem American programs have struggled with. Cost effective scale.

This is also tied to supply chain policy. Systems that eliminate Chinese components are structurally advantaged in U.S. procurement. Ukrainian firms that can re engineer or already operate without those dependencies are moving faster into contracts and partnerships. What is emerging is not just collaboration. It is selective absorption.

Europe Moves From Buyer to Co Producer

The same shift is unfolding in Europe, but at a larger industrial scale. Ukraine’s relationship with the European Union has moved beyond trade under the Association Agreement and into direct industrial integration. Ukrainian manufacturing is being aligned with European rearmament plans, with increasing access to parts of the EU single market even before formal accession.

Major defense firms are now building inside Ukraine. Rheinmetall is establishing multiple facilities, including ammunition and air defense production. KNDS has created a Ukrainian entity to maintain and eventually produce artillery systems locally. BAE Systems is working on domestic artillery production and sustainment.

At the same time, a second layer of partnerships is forming around unmanned systems and advanced technologies. Ukrainian companies are collaborating with firms across Finland, Denmark, and Croatia to scale drone production and remove reliance on Chinese components. European primes such as Saab and Thales are integrating Ukrainian battlefield data into next generation surveillance, air defense, and electronic warfare systems. What Europe is effectively doing is importing Ukraine’s wartime innovation cycle into its own industrial base.

This Does Not Scale Cleanly

What makes this story more significant is that it is not frictionless. These partnerships sit at the intersection of intellectual property ambiguity, export controls, and wartime risk. Many Ukrainian companies developed technology under state funding or informal battlefield conditions, which complicates ownership and licensing. Export regimes differ across NATO countries, and systems that are effective in Ukraine often require redesign to meet Western certification standards.

There are also supply chain realities. Many early Ukrainian drone systems relied on commercially available components, including Chinese electronics. Re engineering these designs for Western markets is possible, but it takes time and changes cost structures.

Even more fundamentally, Ukraine’s innovation model is built on speed and iteration under combat conditions. Western procurement systems are built on standardization and compliance. Bridging that gap is not trivial. And yet, it is happening.

The Economics Are Driving the Outcome

This entire shift is being accelerated by policy. In February 2026, Ukraine formally opened its defense export market, allowing controlled sales and licensing of military technologies for the first time since the full scale invasion. The decision reflects a basic constraint. Ukraine’s defense industry now has production capacity that exceeds what the state can procure domestically. Rather than reduce output, Kyiv is exporting that capacity.

The strategy operates across three models. Build in Ukraine, where foreign partners invest locally. Build with Ukraine, where Ukrainian technology is produced abroad. Buy from Ukraine, where finished systems are exported directly. Each is now visible in active deals across Europe, the United States, and the Middle East. European funding mechanisms are reinforcing this shift by financing joint production and modernization. This is not aid. It is industrial scaling.

A Distributed Arsenal

What is emerging is a new kind of defense industrial base. It is not centralized within a single country. It is distributed across Ukraine, Europe, the United States, and increasingly the Gulf. Production is geographically dispersed. Technology flows across partners. Systems are continuously adapted based on battlefield feedback. This model is more resilient and more responsive than traditional defense production. It also changes Ukraine’s role within the Western system. Ukraine is no longer just dependent on external supply. It is becoming a contributor to the overall defense architecture. In the Gulf, it provides the missing layer of cost effective drone defense. In Europe, it provides innovation and production capacity. In the United States, it is entering procurement pipelines through competition and partnership.

At the same time, Russia’s alignment with Iran has linked the drone threat across regions. The same systems used against Ukraine are now targeting Gulf infrastructure. Ukraine’s ability to counter them is therefore directly relevant beyond its own battlefield. This creates a feedback loop. Battlefield experience drives industrial production. Industrial production feeds into alliances. Alliances reinforce Ukraine’s position in the war.

From Improvisation to Industry

What Ukraine is building is not just a successful defense sector. It is a new model for how defense innovation scales. The traditional system relies on long development cycles, centralized production, and high cost platforms. Ukraine’s model is the opposite. Rapid iteration, distributed manufacturing, and systems designed for affordability at scale.

That model is now being adopted by others because it works. Yet, there are constraints: regulatory friction, supply chain re-engineering, and political balancing will shape how fast this expands. But these are secondary to the core shift. Ukraine has separated innovation from production geography, compressed the development cycle, and aligned it with allied industrial capacity. That is a structural change and it is already underway.

Huntington Ingalls Industries (HII) is bringing a new set of tools into the shipyard. This week, the company announced a partnership with GrayMatter Robotics to introduce AI-enabled robotic systems into parts of the shipbuilding process that are typically manual, including surface preparation, grinding, coating, and inspection.

The focus is not on new platforms or advanced systems, but on the slower, labor-intensive steps that shape how long it takes to build and maintain ships. GrayMatter’s technology combines machine learning with robotic execution, allowing operators to present a part to the system, generate a model using 3D sensing, and carry out tasks without extensive programming. The aim is to reduce the time required for processes that are precise, repetitive, and difficult to staff.

HII has already taken a similar approach in other areas. Earlier this year, the company partnered with Path Robotics to introduce automated welding into shipbuilding operations. Together, these efforts point to a broader attempt to improve throughput by targeting specific steps in production and maintenance.

That focus reflects a wider set of challenges. The Navy continues to face delays in both ship construction and repair, with maintenance periods frequently extending beyond planned timelines. Submarines and surface ships alike spend longer in yards than expected, reducing the number of vessels available for deployment at any given time.

Much of the delay originates in the shipyard itself. Facilities are being modernized and funding for infrastructure has increased in recent budgets, but many yards remain constrained by layout, equipment, and the complexity of the work being performed. These constraints show up not in a single failure point, but across multiple stages of the process.

At the same time, shipbuilding and repair depend on skilled workers performing physically demanding and highly precise tasks. These roles are difficult to fill and take time to train, which makes it challenging to expand capacity quickly even as demand increases.

The result is a mismatch between strategic intent and industrial output. The Navy is moving toward a more distributed force structure, combining large platforms with smaller and increasingly unmanned systems, shaped by operational demands from regions like the Indo-Pacific and the Middle East. But these concepts depend on the ability to generate and sustain ships at a consistent pace.

Partnerships like HII’s with GrayMatter Robotics sit within that gap. The value is in reducing the time required for specific tasks that sit on the critical path of production and maintenance. Processes like grinding, coating, welding, and inspection are not peripheral - they influence how long ships remain in construction or overhaul.

GrayMatter Robotics, founded in 2020, focuses on applying AI to these kinds of environments, where variability and precision have historically limited automation. Its systems are designed to adapt to the part in front of them rather than rely on fixed programming, making them more applicable to shipyard conditions.

Other companies are approaching similar problems from different angles. Gecko Robotics, for example, is working on inspection and maintenance systems, while other firms are focused on fabrication and production workflows. What is emerging is not a single solution, but a set of incremental improvements across different parts of the shipyard.

The significance of these efforts is cumulative. Shipbuilding and repair timelines are shaped by many small steps, each of which can introduce delay. Improving throughput depends on reducing friction across those steps rather than solving for one constraint in isolation.

The broader implication is straightforward. The effectiveness of the Navy’s evolving force structure will depend not only on what is procured, but also on how quickly ships can be built, repaired, and returned to service. As long as timelines remain extended, fleet size will not translate directly into operational availability. To this end, the HII and GrayMatter Robotics partnership reflects a more practical shift in defense innovation. Rather than focusing only on new platforms, it targets the processes that determine how the existing system performs.

One of the most consequential shifts in modern warfare is not just the proliferation of drones, but the quieting of their signatures. On the battlefields of Ukraine, fiber optic FPV drones have exposed a growing vulnerability in Western detection architectures. These systems, long reliant on radio frequency sensing and high end radar, are increasingly ineffective against platforms that emit no detectable signal and fly beneath conventional thresholds.

This is the gap that Reconnaissance and Detection Device Company (RADD) is aiming to fill. Emerging from stealth as a TurbineOne spinout, the company is building a new category of drone detection centered on acoustic sensing. Its premise is simple but difficult to ignore. As adversaries eliminate electronic signatures, sound remains one of the last unavoidable emissions. Unlike RF signals, it cannot be switched off. Unlike radar returns, it cannot easily be minimized without sacrificing performance. In an environment where detection is becoming optional for the attacker, acoustic sensing offers a rare constant.

RADD’s leadership reflects a blend of operational experience and defense technology development. CEO Court Vanzant, a former TurbineOne Chief Growth Officer and Army Reserve officer, partnered with Dave Lucas, a veteran Special Forces officer with nearly three decades of service. The company’s flagship system, GLADIUS, builds on an earlier TurbineOne prototype that was set aside as the company focused on software. Rather than letting the concept fade, Vanzant saw an opportunity to refine and operationalize it.

The result is a soldier borne acoustic detection system designed to operate at the tactical edge. GLADIUS consists of two components. The first is a lightweight, dismounted sensor carried by individual operators. The second is a command node that aggregates detections and integrates them into a broader command and control architecture. Together, they form a distributed sensing network capable of identifying aerial threats and relaying them across a unit in real time.

What distinguishes GLADIUS is not just its form factor, but its approach to detection. The system relies on machine learning models trained to recognize the acoustic signatures of drone propulsion systems, particularly rotor blades. These signatures are difficult to mask and vary in predictable ways across drone types. By focusing on waveform recognition rather than emissions or reflections, RADD is targeting a layer of the problem that has remained largely underexploited.

The operational logic is already validated by the battlefield. Fiber optic guided drones, increasingly visible in Ukraine, bypass RF detection entirely. Their control signals travel through physical cables, rendering electronic surveillance irrelevant. At the same time, their low altitude flight profiles reduce radar visibility. In such an environment, acoustic detection may not be an alternative. It may be the only viable option.

Early testing suggests the concept has traction. During a recent Army Transformation in Contact exercise in New Mexico, GLADIUS demonstrated the ability to detect a range of drone types, including quadcopters and multi rotor systems, at distances approaching 500 meters. Evaluators reported strong interest in rapid deployment, indicating that the demand signal for such capability is already present within operational units.

The system itself is designed with scalability in mind. The current prototype is roughly the size of a tissue box, but the company is working toward a form factor comparable to a standard personal radio. Weight targets are equally ambitious, with the goal of keeping the device lighter than a typical rifle magazine while maintaining a battery life measured in days rather than hours. These constraints are not incidental. They reflect a broader shift toward distributed, soldier level sensing rather than reliance on centralized platforms.

RADD is now moving toward low rate initial production while building partnerships to integrate its system into existing command and control environments. The ambition extends beyond a single product. The company is positioning itself within a larger system of systems approach, where acoustic sensing becomes one layer in a multi modal detection architecture.

The significance of this shift should not be understated. For decades, advances in sensing have been driven by more powerful radars and more sensitive electronic surveillance. But the battlefield is adapting. As drones become cheaper, quieter in the electromagnetic spectrum, and more numerous, detection is no longer a question of capability alone. It is a question of economics and resilience.

Acoustic sensing does not replace radar or RF systems. It complements them by covering a gap that is widening with each iteration of drone design. In doing so, it highlights a broader trend. The future of defense technology will not be defined by singular breakthroughs, but by the ability to integrate overlooked signals into coherent and scalable systems. RADD’s emergence is an early indicator of that shift.

The recent partnership between Estonia’s Frankenburg Technologies and Poland’s state owned defense group PGZ is easy to read as a standard industrial agreement. A startup develops a counter drone interceptor and a larger manufacturer provides the capacity to produce it at scale. But the significance of the deal lies less in the system itself and more in what it reveals about the direction of defense innovation in Europe.

Over the past two years, European defense leaders have been forced to confront a shift in the character of warfare. The conflict in Ukraine has made clear that the challenge is not simply one of technological sophistication, but of scale, cost, and speed. Low cost drones and loitering munitions have proven capable of generating outsized effects, while traditional air defense systems often remain too expensive to deploy in large numbers against such threats. While technical limitations remain, the more immediate problem is that existing systems cannot be produced or deployed at the scale the battlefield now requires

Frankenburg’s interceptor is designed to address that mismatch. Yet, the important development is the structure behind it. The company retains control over core technology, including guidance and system design, while PGZ provides manufacturing capacity, local integration, and access to the Polish defense establishment. This division of labor is becoming a defining feature of the European ecosystem. Startups move quickly and iterate on real world problems, while established industrial actors enable scale and deployment.

This model has been shaped by both necessity and experience. Ukraine has demonstrated the value of rapid innovation driven by battlefield feedback, but it has also highlighted the limits of innovation without industrial depth. Systems that cannot be produced in volume cannot shape outcomes over time. Countries like Poland are increasingly stepping into this role, expanding their defense industrial base and positioning themselves as key nodes in a more distributed European production network.

At the same time, the broader ecosystem remains fragmented. Across Europe and the United States, there is no shortage of new technologies. Startups are building drones, sensors, interceptors, and software at a rapid pace. What is often missing is the ability to combine these elements into coherent systems that can be deployed quickly and sustained under operational pressure. Integration is frequently deferred, handled late in the process, or left to institutions that are not structured for speed.

This is not simply a technical problem. It is also a leadership problem. It reflects how defense organizations are structured, how procurement is conducted, and how responsibility is distributed across public and private actors. The result is a landscape in which capable components exist, but the systems they are meant to form remain incomplete or slow to materialize.

There are emerging alternatives. In parts of Northern Europe, closer coordination between governments, industry, and academic institutions has produced more cohesive innovation environments. These ecosystems emphasize practical deployment and system level thinking from the outset. Universities and research centers are not only generating new ideas, but also shaping how those ideas are integrated into operational frameworks. This creates a tighter feedback loop between design, production, and use.

The lesson is becoming increasingly clear. The West does not face an innovation deficit. It faces an integration deficit. The critical challenge is no longer whether new technologies can be developed, but whether they can be assembled into systems that are deployable at scale and aligned with the realities of modern conflict.

Partnerships like Frankenburg and PGZ point toward one possible path forward. They link speed with scale, innovation with production, and startups with state backed industry. But they also raise a broader question for defense leaders and the wider community. Who is responsible for integration, and how should it be organized?

The answer to that question will shape the next phase of defense innovation. The most important actors may not be those who build the most advanced individual systems, but those who can connect them across institutional and national boundaries. In an environment defined by volume, speed, and adaptation, the decisive advantage may belong not to the best technology, but to the best integrated system.

This week, a German startup’s attempt to change that was delayed by something mundane: an unauthorized boat drifting into a maritime safety zone. Isar Aerospace scrubbed its planned launch of the Spectrum rocket from Andøya Spaceport in northern Norway after the range violation forced a reset beyond the available launch window. On the surface, it was a minor operational disruption. But the episode points to something larger. Europe is still struggling to reliably launch its own rockets and the consequences of that gap are becoming harder to ignore.

For much of the past decade, Europe maintained independent access to space through a combination of Ariane 5 heavy-lift launches, Vega rockets, and Russian Soyuz vehicles launched from French Guiana. That system has since fractured. Ariane 5 was retired in 2023, Ariane 6 has faced repeated delays, Vega C was grounded after a 2022 failure, and access to Soyuz ended following Russia’s invasion of Ukraine. The result was a period in which Europe, for the first time in decades, lacked reliable sovereign launch capability, forcing governments and institutions to turn to external providers, most notably SpaceX. Even as Ariane 6 and Vega C return to flight, capacity remains constrained at a time when demand is rising sharply across civil, commercial, and military missions.

A striking detail underscores the depth of the problem: no rocket has ever reached orbit from continental European soil. European launch capability has historically depended on French Guiana, a geographically advantageous but politically distant location. What Isar is attempting at Andøya is not just another test flight. It is part of a broader effort to bring launch capability back onto the continent itself, under conditions that are far less forgiving than in the past.

Isar’s Spectrum is not a heavy-lift system, but that is precisely the point. It is designed as a small-to-medium launch vehicle capable of more frequent, flexible missions. Traditional European launch systems were built for scale and reliability, but not for speed. Newer commercial providers are pursuing a different model, one based on rapid iteration, shorter development cycles, and more responsive launch timelines. For civil and commercial users, that means faster access to orbit. For defense, it means something more consequential: the ability to replace satellites quickly.

That capability is becoming increasingly important as space transitions into a contested domain. Satellites underpin modern military operations, from communications and navigation to intelligence and targeting. At the same time, they are increasingly vulnerable to anti-satellite weapons, electronic warfare, and cyber disruption. In this environment, resilience depends not just on protecting assets in orbit, but on the ability to reconstitute them. That, in turn, depends on launch systems that are available, flexible, and fast - capabilities Europe does not yet have at scale.

Microlaunchers like Spectrum are an attempt to address that gap. They are not a replacement for heavy-lift systems, but a complement that prioritizes responsiveness over payload mass. In a conflict scenario, that distinction could matter more than raw capacity.

Isar’s choice of Andøya reflects both geography and policy. Located above the Arctic Circle, the spaceport offers direct access to polar and high-inclination orbits, which are particularly valuable for Earth observation, reconnaissance, and weather monitoring. The region’s sparse population and large maritime safety corridors simplify launch operations compared with much of mainland Europe. Just as importantly, Norway has moved quickly to establish a clear regulatory framework for commercial orbital launches under a single national authority, enabling faster iteration than Europe’s more fragmented regulatory environment. In effect, Europe’s push for more agile launch capability is being driven at its edges by startups and by countries willing to move faster.

Spectrum’s upcoming mission is officially a test flight, but it carries real payloads: five cubesats and a scientific experiment. Its first flight last year ended in failure less than a minute after liftoff, an outcome that, while dramatic, is typical for new orbital launch systems. This is how launch capability is built - through iteration, failure, and incremental progress. The company has already faced multiple delays leading up to this attempt, from technical issues to weather. The latest scrub, caused by a range violation rather than a system fault, is another reminder of how many variables must align for even a single launch to succeed.

The significance of Spectrum is not whether this particular launch succeeds or fails. It is that Europe is trying to rebuild a capability it once took for granted, at a time when demand is higher, threats are more complex, and dependence on external providers carries greater risk. The systems being developed to close that gap - commercial, iterative, and still unproven - look very different from the legacy architecture they are meant to complement.

Isar Aerospace is one of several companies attempting to establish a new layer of European launch capability. Whether Spectrum ultimately reaches orbit or not, it will not be the last attempt. The broader question is whether these efforts can scale fast enough to meet Europe’s needs. Access to space is no longer just an industrial capability. It underpins economic systems, military operations, and political autonomy. Without it, sovereignty is incomplete. Europe is moving to close that gap; however, for now, even a single launch remains a challenge.

For most of the past decade, competition in satellite connectivity was defined by deployment. The central question was who could build and launch large constellations. That phase is largely settled. Thousands of satellites are already in orbit, and multiple companies have demonstrated the ability to finance and deploy global systems. The constraint has moved down the stack, into the layer that determines whether these systems can operate at all.

Today, the decisive factor is the ability to secure, coordinate, and defend access to spectrum within a regulatory system that was not designed for this level of scale or complexity. In practice, this means the market is no longer constrained by the ability to deploy satellites, but by the ability to operate them without interfering with everyone else.

How Spectrum Is Allocated Today

Spectrum is governed through a layered system that blends international coordination with national control. The International Telecommunication Union defines global allocations, but in practice, access is determined by national regulators such as the FCC.

Satellite operators enter this system through a process that is both technical and strategic. Companies file for specific frequency bands, orbital parameters, and system configurations. These filings are grouped into processing rounds, which determine priority. Earlier entrants receive protection from harmful interference, while later systems must demonstrate that their operations will not degrade existing networks beyond defined thresholds.

Those thresholds are not theoretical. In current FCC rules, later systems must limit interference to small, measurable impacts on throughput and availability. These protections create a meaningful advantage for early entrants, even if they are not yet fully deployed.

Coordination is where these rules are enforced. Operators are required to negotiate with one another to ensure compatibility. In practice, this process has become a central arena of competition. Technical objections, alternative configurations, and procedural challenges can all influence whether a system moves forward or is delayed.

These protections are also temporary. After a defined period, priority rights sunset and operators are required to share spectrum on more equal terms. Until then, however, early positioning can shape the market.

The Spectrum Wars in Practice

The disputes between Amazon and SpaceX are best understood in this context. Amazon has repeatedly challenged aspects of SpaceX’s Starlink network, arguing that proposed changes would increase interference and complicate coordination. It has also pushed back against expansive filings, including proposals for very large future constellations, framing them as attempts to reserve spectrum without a clear deployment plan.

SpaceX, for its part, has continued to expand aggressively, leveraging earlier approvals and existing deployments to strengthen its position. By combining early filings with rapid execution, it has been able to translate regulatory priority into operational scale.

These disputes are not incidental. They are a mechanism through which companies shape the competitive landscape. Filing early, deploying quickly, and contesting rivals’ applications are all part of a broader strategy to secure durable operating rights. These filings are not just objections. They are attempts to shape the rules of access before the market fully forms.

Where the Bottlenecks Are Emerging

The pressure on the system is concentrated in a small number of critical frequency bands. The 12 GHz band has become the primary workhorse for satellite broadband and the focal point of ongoing disputes. It is where current services operate and where interference concerns are most immediate.

The 17 GHz band represents newly opened capacity structured for shared use. Both incumbent and emerging operators are moving to deploy hardware that can take advantage of this additional bandwidth.

At higher frequencies, including the V band and E band, companies are pushing toward significantly greater capacity. These bands offer the potential for much higher data throughput but introduce new technical and regulatory challenges.

At lower frequencies, the situation is different. Bands used for mobile satellite services are already fragmented across multiple operators, with overlapping claims and a mix of granted and pending licenses. This fragmentation is particularly relevant for direct to device services, which depend on compatibility with terrestrial mobile spectrum.

The result is not a simple shortage of spectrum. It is a fragmented and contested environment in which access is uneven and coordination is increasingly difficult.

Direct to Device Raises the Stakes

The move toward direct to device connectivity has intensified these dynamics. Unlike traditional satellite broadband, which operates in dedicated frequency ranges, direct to device systems must coexist with terrestrial mobile networks. This requires access to spectrum that is already licensed, tightly managed, and politically sensitive. It also requires coordination across multiple jurisdictions. Each country controls its own spectrum rights, meaning that global service depends on a patchwork of approvals.

This introduces a new layer of constraint. Even when technology is viable, deployment can be slowed or blocked by regulatory decisions. Spectrum access becomes not just a technical issue, but a function of policy and market structure. This is why direct to device is not simply a new product category. It is a direct collision with the most constrained and politically sensitive parts of the spectrum.

A System Under Strain

What is striking is how manual this system remains. Despite governing tens of thousands of satellites and increasingly complex interference environments, spectrum coordination still relies on static filings, fragmented databases, and slow negotiation processes. These mechanisms were designed for a smaller and more predictable industry. They are now being applied to a dynamic environment in which conditions change continuously and the number of interacting systems is growing rapidly.

This mismatch is beginning to produce a new category of solution. Companies such as New York-based startup Airbase are working to automate spectrum allocation and coordination, using software to model interference, resolve conflicts, and manage licensing workflows more efficiently.

The significance of this shift is easy to overlook. Airbase is not building satellites or launching rockets. It is operating at the layer that determines whether those systems can function together at scale. That makes spectrum coordination itself a new category of infrastructure, one that sits between operators and regulators and increasingly determines how efficiently the system as a whole can function.

If that layer becomes more dynamic and software driven, the structure of the market changes. Spectrum is no longer just something that is granted and defended through filings. It becomes something that can be actively managed and optimized in response to real world conditions.

Who Is Ahead

In this environment, early positioning matters. SpaceX currently holds the strongest position. It combined early spectrum filings with rapid deployment, allowing it to translate regulatory approvals into operational scale. Its network is already embedded across a range of commercial and government use cases.

Amazon remains a credible challenger but is operating from a different starting point. Its success will depend not only on execution, but on how effectively it navigates coordination constraints and licensing timelines.

Companies pursuing direct to device connectivity, including AST SpaceMobile and Lynk Global, are advancing new models but remain highly exposed to regulatory friction.

The Strategic Implication

The satellite internet market is no longer defined primarily by who can deploy infrastructure. It is defined by who can operate within a constrained and contested electromagnetic environment - an environment shaped through filings, disputes, coordination outcomes, and increasingly, the ability to manage spectrum more intelligently. The next phase of competition will not be decided solely by satellites in orbit. It will be decided by how effectively companies operate within the constraints that govern them. In that sense, the spectrum fight is not a side story. It is the market. Increasingly, the companies that win will not just be those that launch the most satellites, but those that can navigate, shape, and ultimately manage the spectrum environment those satellites depend on.

The United States military has long relied on fixed infrastructure to project and sustain force. Airfields, ports, and logistics hubs remain indispensable to modern operations, enabling the movement of personnel and materiel at scale. Runways, in particular, are central to this system. They are not going away. No plausible future force can operate without them.

However, recent conflicts have underscored a persistent reality. In Ukraine, both sides have systematically targeted logistics infrastructure, striking fuel depots, ammunition storage, and transportation networks. In a potential Indo-Pacific conflict, the same dynamic would apply at greater scale. U.S. operations depend on a relatively small number of forward bases, many of which fall within range of adversary long-range strike systems. These installations are essential, but they are also exposed. The problem, therefore, is not how to replace traditional logistics, but how to operate when it is disrupted.

This is the problem that aerospace startup Enigma is attempting to address. Founded by a team with prior experience building and scaling autonomous systems, the company is developing a logistics platform centered on long-range, runway-independent delivery. Its primary system, known as Phoenix, is an autonomous, fixed-wing vehicle designed to carry payloads of up to approximately 1,000 pounds over distances approaching 2,000 nautical miles, depending on configuration. Rather than functioning as a traditional aircraft, Phoenix operates as a deployable delivery system capable of transporting supplies directly to austere environments.

This hardware is paired with Strata, Enigma’s logistics-focused command-and-control software, which is designed to coordinate distributed delivery operations at scale. Strata provides visibility into supply requirements, routes, and available assets, enabling operators to manage logistics flows dynamically rather than through pre-planned schedules. Together, these systems are intended to function as a network, not a single platform.

The distinction is important. Enigma’s system is not designed to replace traditional airlift or move bulk supply into theater. That role will remain with conventional aircraft such as the C-17 and C-130, which provide unmatched capacity and efficiency. Instead, Enigma is focused on what is often the most difficult phase of logistics under contested conditions: the distribution of supplies from secure hubs to dispersed units once the network begins to degrade.

This “last-mile” problem is where traditional systems are most vulnerable. Forward operating bases can be targeted, runways rendered unusable, and ground lines of communication interdicted. When that occurs, the ability to sustain forces depends on alternative delivery methods that do not rely on fixed infrastructure or predictable routes.

Enigma’s approach is to provide that alternative. By enabling delivery without runways and without the need for prepared landing zones, it reduces dependence on high-value nodes and creates additional pathways for sustainment. Supplies can be delivered directly to units operating in austere or contested environments, including locations where communications may be limited or absent.

This reflects a broader shift in how military logistics is being understood. For decades, efficiency has been the dominant organizing principle. Centralized systems maximize throughput and minimize redundancy, but they also concentrate risk. As long as infrastructure remains secure, this tradeoff is acceptable. When it does not, the system becomes fragile.

Distributed logistics offers a different balance. It accepts some loss of efficiency in exchange for resilience. Systems like Enigma’s introduce additional nodes into the network, increasing redundancy and complicating an adversary’s targeting problem. Instead of relying on a small number of critical points, logistics becomes more diffuse and harder to disrupt.

Enigma’s command-and-control architecture reinforces this shift. By integrating real-time data on supply, demand, and asset availability, it allows logistics to be managed as a continuous, adaptive system. This is particularly important in contested environments, where conditions change rapidly and disruption is expected. The ability to reroute, reprioritize, and adapt in real time becomes as important as the ability to deliver at scale.

The implications extend beyond logistics itself. Concepts such as distributed operations and expeditionary advanced basing depend on the ability to sustain forces across wider areas with reduced reliance on fixed infrastructure. Enigma’s model directly supports this approach by enabling resupply to units that may not have access to traditional logistics networks. Without such capabilities, dispersion risks becoming operationally unsustainable.

None of this eliminates the need for runways or centralized logistics. Large-scale operations will continue to depend on them. What is changing is their role. Rather than serving as the sole backbone of sustainment, they are becoming part of a broader system that incorporates distributed, lower-signature alternatives.

In this context, Enigma is best understood not as a standalone solution, but as an indicator of a broader shift in how military logistics is conceived. Its combination of long-range autonomous delivery and software-defined coordination is explicitly designed to sustain forces when traditional infrastructure is unavailable or unusable. By targeting the most vulnerable segment of the logistics chain, distribution under contested conditions, it addresses a problem that conventional systems are not designed to solve. The challenge is no longer optimizing efficiency under permissive conditions, but ensuring continuity under disruption. Fixed infrastructure will remain essential, but it can no longer be assumed to function. The ability to maintain supply flows despite its degradation will be a defining factor in operational effectiveness, and systems like Enigma’s represent a concrete step toward meeting that requirement.

The US Army quietly announced on Friday, March 13th, that it has awarded Anduril a contract worth up to $20 billion over ten years, aimed at consolidating the procurement and deployment of the company’s technologies across the service.

While the headline number reflects the maximum potential value rather than guaranteed spending, the agreement signals how quickly Anduril has moved from startup to major defense contractor. It also highlights a broader shift inside the Pentagon toward software driven military systems built around integrated networks of sensors, autonomy, and command platforms. The contract begins with a five year base term and can be extended for another five years at the Army’s discretion.

Over the past several years, Anduril has steadily expanded its presence inside the Army’s technology stack. Data from Obviant suggests the company already holds hundreds of millions of dollars in Army contracts. These include $159 million for the Soldier Borne Mission Command program, which followed the Army’s Integrated Visual Augmentation System effort, as well as a $99.6 million Other Transaction Agreement to prototype the next generation command and control system known as NGC2.

Beyond software, Anduril is also producing large quantities of 4.75 inch solid rocket motors for the Army. At the same time, its Lattice platform has been selected as a next generation fire control solution for the Integrated Battle Command System Maneuver program, which focuses on countering unmanned aerial threats.

Taken together, these projects show how Anduril’s role inside the Army is expanding across multiple domains. The company now provides hardware, software, sensors, and command systems that increasingly sit at the center of how the service plans to operate in future conflicts.

The new agreement appears designed to bring many of those capabilities under a single enterprise framework. Rather than managing separate contracts for individual technologies, the Army will now be able to access Anduril’s systems through one umbrella agreement. According to the Pentagon, the contract integrates the company’s AI enabled Lattice software, hardware platforms, data infrastructure, and support services into a unified capability that can be deployed across Army missions.

Officials say the goal is to simplify procurement and reduce costs. “Enterprise contracts help modernize our approach by consolidating software agreements, reducing overlap, and speeding up access to essential tools,” said Gabe Chiulli, chief technology officer in the Office of the Army Chief Information Officer. Another objective is to eliminate the layers of subcontracting that often add cost and complexity to defense acquisition. By contracting more directly with technology providers, the Army hopes to shorten procurement timelines and reduce pass through charges.

The deal also reflects a deeper change in how the Pentagon is approaching military capability. For decades, defense procurement revolved around large standalone platforms such as aircraft, ships, and armored vehicles. Increasingly, however, military advantage is being shaped by software, sensors, autonomy, and the networks that connect them. Companies like Anduril are positioning themselves at the center of that shift. Its Lattice platform functions as a software layer that integrates sensors, autonomous systems, and command networks into a shared operational picture.

If the Pentagon continues moving toward software defined military architectures, companies that control these integration layers could become far more influential within the defense industrial base. The Army’s new agreement suggests Anduril intends to be one of them.

The Pentagon’s $96 million agreement with Lynas Rare Earths is one step in a broader effort to rebuild the supply chain behind modern weapons systems.

Rare earths sit inside everything from missile guidance systems and radar arrays to fighter aircraft and drones. For decades, however, the United States allowed the industrial ecosystem that processes these materials to consolidate in China. Today Beijing controls the majority of global rare earth processing and magnet manufacturing, creating a structural vulnerability for the US defense industrial base.

Washington is now trying to reverse that reality. The Lynas deal is one of several recent moves that show how the US government is beginning to rebuild critical mineral supply chains through a mix of investment, allied partnerships, and long term demand support.

The contract itself is straightforward. Lynas, the largest rare earth producer outside China, will supply the US Department of Defense with light and heavy rare earth oxides under a four year agreement reportedly worth $96 million. The deal also reportedly includes a price floor for neodymium praseodymium, one of the most important rare earth materials used in defense applications.

On its own, the agreement does not transform the global rare earth market. What it reveals instead is how Washington’s approach to critical minerals is changing. For years the United States recognized that rare earth supply chains posed a strategic risk, but policy responses were limited and fragmented. Over the past several years, that has begun to change. Washington is increasingly treating critical minerals as a core element of defense industrial policy.

The Lynas agreement follows another major intervention involving MP Materials, which operates the Mountain Pass rare earth mine in California. The Pentagon supported a large scale effort to expand rare earth magnet manufacturing in the United States, including long term offtake commitments and price guarantees intended to stabilize investment in domestic production.

Both deals reflect a similar strategy. The United States is attempting to build an alternative rare earth supply ecosystem outside China by supporting producers that can operate at industrial scale. Rather than relying solely on private markets, Washington is beginning to use tools such as investment, price floors, and guaranteed demand to anchor that ecosystem.

Several federal institutions are involved in this effort. The Department of Defense has taken the lead, particularly through its industrial base authorities and the Defense Production Act. Federal financing institutions are also increasingly involved. The Export Import Bank has begun supporting critical mineral supply chains through its supply chain resilience programs, while the US International Development Finance Corporation has been positioned to support projects in allied countries. The Department of Energy has also funded research and demonstration projects aimed at expanding rare earth processing and manufacturing capacity.

A newer initiative illustrates how this strategy is expanding beyond individual supply contracts. Washington has begun developing what is known as Project Vault, a proposed strategic reserve for critical minerals intended to support the defense industrial base. The program is expected to combine private capital with federal financing support and could mobilize large scale investment into the sector. The Export Import Bank is expected to play a central role through financing mechanisms designed to strengthen supply chain resilience. The goal is not only to stockpile materials but also to stabilize markets and support long term production capacity outside China.

This broader policy architecture reflects the real nature of the rare earth problem. The core vulnerability is not simply mining. The real choke points sit further downstream. China’s dominance comes primarily from its control of processing, separation, metal making, alloy production, and magnet manufacturing. Even when rare earth minerals are mined outside China, they are often sent there for refining before entering global supply chains.

Rare earth elements are essential to many advanced defense systems. Neodymium and praseodymium are used to produce powerful permanent magnets that drive electric motors and guidance systems in missiles, drones, and radar arrays. Dysprosium and terbium allow those magnets to operate at high temperatures, which is critical for aircraft and other demanding environments. Yttrium is used in night vision devices, targeting lasers, and thermal coatings that protect aircraft engines.

Beyond rare earths themselves, the broader category of critical minerals includes materials such as gallium and germanium for electronics and infrared systems, antimony for munitions and alloys, tungsten for armor piercing ammunition, and lithium, nickel, cobalt, and graphite for advanced battery systems. These materials form the industrial foundation of many modern military technologies.

Despite recent progress, the United States remains far behind China across much of this supply chain. China still dominates rare earth processing and magnet manufacturing, and it maintains significant leverage over global supply. Rebuilding alternative production capacity will take years of investment in processing plants, metallurgical facilities, magnet manufacturing, and skilled workforce development.

This is why agreements like the Lynas deal matter. They help anchor the early stages of a new supply network built around allied producers and domestic manufacturing capacity. But they also illustrate how much work remains. One Australian supplier and one American rare earth company do not yet constitute a resilient supply chain. Closing the gap with China will require sustained policy support, large scale industrial investment, and deeper cooperation between the United States and its allies.

Rare earths are not the only industrial vulnerability in US competition with China. Semiconductors, batteries, shipbuilding inputs, and munitions production all present major challenges. What makes rare earths distinctive is how concentrated the supply chain has become and how difficult it is to rebuild once it disappears.

One reason Washington is moving more aggressively on critical minerals is the concern that supply chain dependence could become a geopolitical lever in a crisis with China. Beijing has already shown a willingness to impose export restrictions on several strategic minerals and related materials, and it continues to dominate much of the rare earth processing and magnet manufacturing ecosystem. In response, the United States has begun supporting alternative supply chains through investments, financing tools, and long term procurement commitments with companies such as MP Materials and Lynas, as well as initiatives like Project Vault. These efforts remain in their early stages and the structural gap with China is still significant. But the direction of policy is becoming clearer: Washington is beginning to rebuild critical mineral capacity with allies rather than relying on a supply chain dominated by China.

Future wars in the Pacific will be fought across vast distances, under constant surveillance, and within range of long range missiles. For the United States and its allies, the most difficult challenge may not be striking targets but sustaining forces. In this environment, the decisive question may not be how forces fight, but how they are supplied.

The Pentagon is beginning to adapt. One of the more unusual examples is a recent effort by the Defense Innovation Unit (DIU) to solicit industry proposals for an autonomous low profile vessel capable of transporting large quantities of cargo across contested maritime environments. The concept is simple but revealing. The vessel must carry roughly 18,000 pounds of cargo over distances approaching 2,000 nautical miles while operating autonomously and maintaining a low observable profile.

The inspiration is not a traditional naval platform. It comes from drug traffickers.

For years, narcotics smuggling networks in the Americas have built low profile semi submersible vessels designed to evade surveillance while traveling long distances at sea. These craft are cheap, difficult to detect on radar, and capable of carrying significant payloads. The Marine Corps has taken notice. Brigadier General Simon Doran described the concept bluntly: the military essentially copied the narco boat.

The appeal is clear. In a future conflict with China, large logistics ships and traditional supply routes would be extremely vulnerable. The People’s Liberation Army has invested heavily in long range anti ship missiles, satellite surveillance, and maritime patrol systems designed to target precisely these kinds of assets. A small fleet of stealthy, autonomous cargo vessels offers an alternative approach to sustainment.

The problem this effort is trying to solve is rooted in a broader shift in American military strategy.

The Pacific Pivot and Distributed Forces

Over the past decade, the U.S. military has increasingly oriented its planning toward a potential conflict in the Indo Pacific. Unlike operations in the Middle East or Europe, the Pacific theater presents enormous geographic challenges. Forces must operate across thousands of miles of ocean, often from remote islands with limited infrastructure.

The Marine Corps has responded with a concept known as “stand in forces.” Instead of concentrating large units on major bases, smaller and highly mobile formations would disperse across island chains within the Western Pacific. These units would operate inside contested zones, conducting reconnaissance, targeting, and anti ship operations against adversary naval forces.

Such a model requires logistics systems that can function under persistent threat. Aircraft, large supply ships, and even traditional amphibious vessels could be easily detected and targeted. Resupply must therefore become smaller, more distributed, and far less visible.

Autonomous low profile vessels are one possible solution. If a cargo vessel can operate without a crew, the risk to personnel is reduced. If it has a low radar and visual signature, it becomes harder to detect. And if many such vessels are deployed simultaneously, the logistics network becomes more resilient through redundancy.

This reflects a broader shift in military thinking: sustainment systems must become as distributed and survivable as the combat units they support.

The Rise of Autonomous Maritime Systems

The narco boat inspired resupply platform also fits within a larger trend across naval warfare. The U.S. Navy and Marine Corps are increasingly exploring autonomous and uncrewed systems in every domain.

Much of the attention has focused on unmanned aerial systems and autonomous surface vessels. However, underwater systems may ultimately become even more important.

Uncrewed underwater vehicles, or UUVs, are particularly attractive in contested environments. Operating beneath the surface dramatically reduces exposure to radar, optical sensors, and many surveillance systems. These vehicles can conduct reconnaissance, mine warfare, and infrastructure monitoring with a level of stealth that surface platforms cannot easily match.

The Navy has invested heavily in this area, developing systems such as the Orca extra large unmanned undersea vehicle and a range of smaller autonomous underwater platforms. These systems are designed to extend the reach of naval forces while reducing reliance on crewed submarines and surface ships.

Autonomous logistics vessels on the surface represent a complementary capability. Together with UUVs and unmanned aerial systems, they form part of a broader architecture of distributed, autonomous platforms that can operate across contested maritime spaces.

In effect, the U.S. military is gradually building an ecosystem of robotic systems designed to move information, sensors, and supplies across the battlespace without exposing large numbers of personnel or high value assets.

Learning from the Irregular World

Another notable aspect of the narco boat concept is where it originated. Rather than emerging from a major defense contractor or a naval research laboratory, the design inspiration came from the tactics of criminal organizations.

Drug traffickers have spent decades refining low profile vessels that can travel long distances while avoiding detection by coast guards and naval patrols. These craft are built for stealth, endurance, and affordability. Many are low-profile vessels that ride close to the waterline, dramatically reducing radar and visual signatures.

For military planners, the lesson is straightforward. Sometimes the most effective designs emerge outside traditional defense ecosystems.

This dynamic is becoming more common. Commercial drones, satellite imagery, gaming engines, and consumer electronics have all found their way into military applications. Defense innovation increasingly involves adapting technologies developed for entirely different purposes.

The narco boat is simply another example of this cross pollination.

DIU and the Push for Speed

The Defense Innovation Unit plays a central role in accelerating such ideas. Created to bridge the gap between the Pentagon and commercial technology firms, DIU focuses on rapidly prototyping solutions to operational challenges.

In the case of the autonomous logistics vessel, DIU is asking industry to deliver working demonstrations within months rather than years. Proposals are evaluated not only on technical merit but also on how quickly they can transition into operational use.

This approach reflects a growing recognition that traditional procurement cycles are poorly suited for emerging technologies, particularly in areas such as autonomy and robotics where commercial innovation moves rapidly.

By tapping nontraditional suppliers and accelerating testing cycles, the Pentagon hopes to field useful capabilities much faster than conventional acquisition programs allow.

Logistics as the Decisive Factor

Ultimately, the narco boat inspired resupply vessel highlights a fundamental reality of modern warfare. Advanced weapons systems often receive the most attention, but wars are frequently decided by the ability to sustain forces over time.

In a conflict across the Pacific, the United States would need to move fuel, ammunition, sensors, spare parts, and food across enormous distances while operating under constant surveillance and threat.

Autonomous, low profile logistics platforms could become an essential component of that effort. They would not replace traditional supply ships or aircraft. Instead, they would add a layer of resilience, allowing dispersed units to receive supplies even in heavily contested environments.

In that sense, the narco boat may offer an unexpected glimpse of the future of naval logistics. Not large supply ships moving safely across open seas, but small autonomous vessels quietly sustaining forces inside contested waters.

Croatian drone company Orqa has raised €12.7 million ($14.7 million) in a Series A round led by Expeditions Ventures. At the same time, the company has signed a teaming agreement with Texas-based Red River Army Depot to expand its presence in the United States.

The move signals a transition for the company. Since its founding in 2018, Orqa has largely grown through sales rather than venture capital. CEO Srdjan Kovacevic said the funding is meant to accelerate expansion. “You can only grow so much organically,” he said. “We wanted to break new ground regarding valuation and top up our war chest so we can be bolder and more aggressive, whether through direct investment or acquisitions.”

Other investors include Lightspeed Venture Partners, Taiwania Capital, Aymo, and Radius Capital.

Much of the new capital will fund Orqa’s Global Manufacturing Program, an effort to build an international network of production partners manufacturing standardized systems based on Orqa designs. The strategy reflects a broader shift in the drone industry: moving from small production runs toward globally distributed manufacturing capable of scaling quickly.

A quiet player in the FPV ecosystem

Orqa has become an important supplier in the FPV drone ecosystem, particularly since the start of the war in Ukraine. The company initially gained recognition for high performance FPV goggles and avionics before expanding into full drone systems. It now offers three primary platforms: the MRM1-5 training drone, the NDAA compliant and electronic warfare resilient MRM2-10, and the commercially oriented Dream X.

Unlike many drone companies that rely heavily on external suppliers, Orqa manufactures most core components internally, including goggles, flight controllers, motors, cameras, radios, PCBs, and mechanical drone components.

Equally important for Western defense buyers, the systems are built without Chinese components. That manufacturing approach has allowed the company to scale production rapidly. By late 2024, Orqa reported capacity of roughly 280,000 drones per year.

Entering the U.S. defense ecosystem

Despite its operational traction, Orqa has raised relatively little venture capital until now. The company secured €5.8 million ($6.7 million) in seed funding led by Lightspeed Venture Partners in December 2024.

Its defense relationships, however, have grown rapidly. Orqa has secured a €10 million contract with the Croatian military, supplied drones to Ukraine, and engaged with U.S. defense programs. Through a collaboration with Firestorm, the company helped introduce FPV platforms to the U.S. ecosystem and participated in the Drone Dominance Program’s first gauntlet.

The new partnership with Red River Army Depot represents a deeper step into the American defense industrial base. Red River, established in 1941, is a major U.S. Army depot responsible for maintenance, repair, and manufacturing. The agreement is intended to help scale domestic production of Orqa drones for Pentagon demand. “We’re proud to support companies competing in this space,” Kovacevic said. “Our partnership with Red River strengthens our capacity to build technology in the United States.”

A distributed drone manufacturing model

For Orqa, the U.S. partnership is only one node in a broader strategy. Through its Global Manufacturing Program, the company plans to establish regional production hubs capable of building Orqa designed systems while maintaining standardized designs and components. “This is us staking our claim to start developing a U.S. supply chain for drone technologies,” Kovacevic said. “It’s the framework for meaningful technology transfer.” Initially, partners would produce Orqa designed FPV drones. Over time, the network could expand toward more advanced robotic platforms. “The global manufacturing program is about planting seeds and letting ecosystems develop around those nodes,” Kovacevic said.

Taiwan and the semiconductor angle

One of the more notable investors in the round is Taiwania Capital, a public private venture fund connected to Taiwan’s government. For Orqa, the partnership provides access to semiconductor supply chains that will increasingly shape drone development. “Taiwan remains the hub for semiconductors,” Kovacevic said. “I believe aerial robots’ future advancements come from this sector. Our partnership with Taiwan goes beyond financial considerations.” As drones rely more heavily on advanced compute, sensors, and communications hardware, semiconductor access is becoming a strategic consideration.

Acquisitions may follow

“Our focus is on acquiring capabilities,” Kovacevic said, though he noted acquisitions could also provide access to new markets. For companies like Orqa, the opportunity is becoming clearer. Demand for small military drones is rising rapidly across NATO militaries, and governments are increasingly looking for suppliers that can produce them at scale without relying on Chinese components. The next phase of the drone industry will not be defined by prototypes or battlefield experimentation. It will be defined by manufacturing capacity.

Nominal, a hardware testing startup emerging from the Anduril ecosystem, has raised an $80 million acceleration round led by Founders Fund at a $1 billion valuation. The funding is notable, but the more important signal is what Nominal represents: the emergence of a software infrastructure layer for defense hardware development.

Modern defense systems generate enormous amounts of telemetry during development and testing. Autonomous drones, hypersonic vehicles, satellites, and advanced sensors all produce streams of data across flight tests, simulations, and laboratory environments. Yet the tools used to capture and analyze this information remain fragmented, often built internally by engineering teams using scripts, spreadsheets, and custom dashboards.

Nominal is attempting to standardize that process. Its platform aggregates telemetry, logs, video, and sensor outputs into a single environment where engineers can observe, analyze, and debug hardware systems in real time. The company does not build hardware itself. Instead, it is positioning itself as the data infrastructure layer behind hardware development.

In the software industry, entire categories of companies emerged to solve similar problems. Platforms like Datadog, Splunk, and GitHub became essential tools for developers because they standardized workflows and made complex systems observable. Defense hardware has historically lacked an equivalent stack. Nominal’s rise suggests that this gap is beginning to close.

Hardware iteration speed is becoming decisive

In modern technology industries, iteration speed determines success. The faster teams can test, learn, and refine systems, the faster those systems improve. This dynamic increasingly applies to defense hardware.

Companies building autonomous aircraft, orbital systems, or electronic warfare platforms conduct thousands of tests across development cycles. Each test generates complex data streams from sensors, control systems, propulsion units, and communication links.

Traditionally, much of this information has been difficult to organize or analyze across large programs. Engineers often rely on internally built tools that are difficult to scale and rarely standardized across teams. As defense startups grow larger and systems become more complex, this approach becomes a bottleneck. If telemetry data cannot be easily captured, searched, and correlated across tests, iteration slows. Failures become harder to diagnose. Lessons from one test may not carry forward efficiently into the next.

A unified testing platform changes that dynamic. By centralizing telemetry and making it searchable, observable, and persistent, development cycles can accelerate significantly. For companies competing to deliver new defense capabilities, that acceleration can be strategically meaningful.

The emergence of a defense engineering stack

Nominal’s positioning reflects a broader structural change in defense technology. Over the past decade, a new generation of companies has begun building the software infrastructure required to support modern defense systems.

Different companies are occupying different layers of what increasingly resembles a defense engineering stack. At the operational data layer, platforms such as Palantir integrate and analyze information from sensors, platforms, and military networks. At the systems layer, companies like Anduril are developing integrated defense platforms that combine sensors, autonomy, and command software. At the simulation layer, firms such as Applied Intuition provide tools for training and validating autonomous systems in synthetic environments. Nominal sits further upstream. It focuses on the engineering and testing process itself, where hardware systems generate the data that informs design decisions and system improvements. Together, these layers suggest that defense technology is beginning to replicate a pattern seen earlier in the software industry: the emergence of specialized infrastructure companies that enable faster development across an entire ecosystem.

The Anduril ecosystem effect

Nominal’s founding team illustrates another important development within defense technology. The company was founded by engineers and operators who previously worked at organizations including Anduril, Palantir, Lockheed Martin, and Lux Capital. This mix of defense contractors, technology firms, and venture investors reflects the increasingly hybrid nature of the defense startup ecosystem.

More importantly, companies like Anduril are beginning to generate networks of alumni who go on to build new companies themselves. In Silicon Valley, similar dynamics produced clusters of startups around companies such as PayPal or Palantir. These alumni networks often become powerful drivers of innovation because founders share technical frameworks, relationships, and operational experience. The early signs suggest that a comparable ecosystem may be forming around modern defense technology companies. Nominal appears to be part of that emerging second generation.

A global market for defense development tools

Another notable aspect of Nominal’s strategy is its early focus on international expansion. The company recently opened an office in London and plans to expand further across Europe. This reflects a broader shift within defense technology. The market for advanced military systems is no longer confined to a single national ecosystem. Across Europe, new defense startups are emerging in areas such as autonomous systems, satellite infrastructure, and electronic warfare. Many of these companies face development challenges similar to those confronting American startups.

The physics and engineering constraints underlying modern defense systems are largely universal. Testing infrastructure that works for one aerospace company can often be applied to many others. If Nominal succeeds in standardizing telemetry and testing workflows, its platform could become relevant across a wide international base of defense technology companies.

Consolidating the testing software landscape

Nominal has also signaled that acquisitions may play a role in its strategy. The company has indicated that part of its new capital will be used to acquire smaller companies with capabilities in areas such as telemetry capture, data management, and testing infrastructure. These acquisitions could allow Nominal to integrate specialized technologies into a broader platform.

The testing software landscape remains fragmented, with many niche tools addressing narrow engineering problems. A platform that consolidates these tools could provide a more comprehensive environment for hardware development teams.

Infrastructure companies often benefit from strong lock in effects. Once an engineering organization standardizes on a particular platform for data capture and analysis, switching becomes difficult. Over time, the platform accumulates historical data, workflows, and integrations that deepen its importance. In the software world, companies such as Atlassian and Datadog built durable businesses around this dynamic. Nominal appears to be attempting something similar within the defense engineering ecosystem.

Why investors are paying attention

Infrastructure layers often become some of the most valuable companies within technology ecosystems. They sit upstream of multiple product companies and therefore capture value across entire industries rather than within a single product category. Nominal reports that its platform is already used by dozens of organizations, including several large defense primes and a growing number of venture backed defense startups. This mix of customers suggests that the company’s tools may become relevant across the broader defense industrial base.

For investors, that possibility is attractive. If a platform becomes the standard environment for testing and analyzing hardware systems, it can become deeply embedded within the workflows of an entire sector. Nominal’s latest funding round suggests that some investors believe the company could occupy that position.

A sign of a maturing ecosystem

The deeper significance of Nominal’s rise is not the funding itself. It is what the company represents. Defense technology is evolving from a collection of individual startups into a structured ecosystem with its own infrastructure layers. As that ecosystem matures, it will require standardized tools for development, simulation, testing, and deployment. Software companies built this infrastructure decades ago. Defense hardware companies are only beginning to do the same. Nominal is attempting to build one of those foundational layers. If it succeeds, the company could help define how the next generation of defense systems are engineered.

Ukraine’s naval drones have done something few military planners expected: they have forced one of the world’s largest naval fleets to retreat.

Over the past two years, remotely operated explosive boats have repeatedly struck Russian warships, patrol vessels, and infrastructure across the Black Sea. The attacks have damaged or sunk multiple ships and forced the Russian Black Sea Fleet to relocate much of its presence away from Crimea. What began as improvised wartime innovation has quickly evolved into one of the most consequential demonstrations of maritime autonomy in modern warfare.

Now a new company is attempting to industrialize that capability.

UFORCE, a defense technology firm built from a group of Ukrainian unmanned systems developers, has emerged from stealth with a valuation exceeding $1 billion following a funding round of more than $50 million led by Shield Capital and Lakestar. The company aims to scale battlefield proven Ukrainian drone technologies into systems that can be produced for Ukraine and, eventually, allied militaries.

The emergence of UFORCE highlights a broader shift underway in defense technology. For decades, military innovation largely flowed from established defense contractors or research programs in the United States and Europe. Ukraine’s war has produced a parallel ecosystem where engineers iterate directly against battlefield feedback, producing new systems at a pace rarely seen in traditional defense procurement.

Consolidating Ukraine’s Wartime Drone Ecosystem

UFORCE was created through the merger of nine Ukrainian defense companies that had already been collaborating closely during the war. The consolidation brought together teams developing unmanned aerial systems, robotic ground vehicles, counter drone technologies, and maritime drones.

The company is led by Oleg Rogynskyy, the founder of enterprise software company People.ai, which became the first Silicon Valley unicorn founded by a Ukrainian entrepreneur. Under his leadership, UFORCE is positioning itself as a bridge between Ukraine’s wartime engineering ecosystem and Western capital.

Since launching last year, the company says it has secured orders worth hundreds of millions of dollars and expanded operations across fifteen locations in six allied countries, including Ukraine and the United Kingdom.

The core of its portfolio consists of systems already widely used on the battlefield.

Among the most prominent is MAGURA, a family of unmanned surface vessels that have become central to Ukraine’s naval drone campaign in the Black Sea. These remotely controlled boats, typically packed with explosive payloads, can travel long distances at high speed and strike warships or port infrastructure. Their relatively low cost compared with traditional naval platforms allows them to be deployed in large numbers.

UFORCE’s portfolio also includes Nemesis, a series of heavy multirotor bomber drones that carry explosive payloads to front line targets. Russian forces have reportedly nicknamed the drones “Baba Yaga,” referencing a mythical figure from Slavic folklore. The nickname reflects the distinctive sound of large multirotor aircraft operating at night as well as their reputation among Russian troops.

In the ground domain, the company includes Lyut 2, an unmanned combat vehicle equipped with a turret capable of engaging both stationary and moving targets. Robotic ground vehicles remain an emerging category in warfare, but Ukraine has increasingly experimented with them for reconnaissance, logistics, and direct fire missions.

Another component of the portfolio is Sunray, a directed energy system designed to counter drones. Counter UAS capabilities have become one of the fastest growing segments of the defense market as inexpensive quadcopters and loitering munitions proliferate across modern battlefields.

Taken together, these systems reflect the increasing centrality of autonomy across every domain of warfare.

The Naval Drone Revolution

Among all these technologies, maritime drones may prove the most strategically disruptive. For centuries, naval power has been defined by large and expensive ships. Destroyers, frigates, and submarines represent some of the most costly assets in any military. Naval drones challenge that model by introducing platforms that cost a tiny fraction of traditional warships but can still threaten them.

Ukraine’s naval drone operations have demonstrated how these systems can be used to conduct long range strikes, swarm attacks, and maritime denial operations. Small autonomous vessels can be launched from dispersed coastal locations, navigate hundreds of kilometers, and strike ships or infrastructure with little warning.

The strategic implication is significant: relatively inexpensive autonomous systems can now impose real costs on large naval fleets. This dynamic is particularly relevant in contested maritime regions such as the Black Sea, the Persian Gulf, and the South China Sea, where smaller states may use autonomous systems to offset traditional naval disadvantages.

Surface vs Underwater Autonomy

The maritime autonomy sector is evolving across two distinct categories: unmanned surface vessels (USVs) and unmanned underwater vehicles (UUVs).

Surface drones like MAGURA are typically optimized for speed, payload delivery, and remote control operations. They are relatively inexpensive to produce and can be deployed in large numbers. Their main missions include strike operations, maritime denial, reconnaissance, and port attacks.

Underwater systems operate very differently. Because radio communication is extremely limited underwater, UUVs must operate with greater autonomy and sophisticated navigation systems. These platforms are often used for mine countermeasures, seabed mapping, infrastructure protection, and anti submarine missions.

Interest in underwater autonomy has grown rapidly in recent years, particularly after several incidents involving suspected sabotage of subsea pipelines and communications cables. NATO countries have begun investing heavily in unmanned underwater systems to monitor and protect critical infrastructure. Many defense companies are now attempting to build integrated maritime autonomy fleets that combine both surface and underwater vehicles.

A Growing Global Market

Demand for autonomous maritime systems is rising quickly. Analysts estimate that the global market for unmanned maritime platforms could reach tens of billions of dollars over the next decade. Several factors are driving this growth.

Naval fleets are becoming increasingly expensive to build and maintain, forcing governments to search for more cost effective alternatives. At the same time, modern naval strategy increasingly emphasizes distributed operations and large numbers of smaller platforms rather than a few large ships. Autonomous vessels can also operate for extended periods performing surveillance or patrol missions without putting crews at risk. This makes them attractive for tasks such as maritime domain awareness, infrastructure monitoring, and border security. As a result, maritime autonomy has become one of the most active areas of defense technology investment.

A Competitive Landscape

UFORCE enters a field that is rapidly attracting startups and defense contractors.

In the United States, companies such as Saildrone have focused on long endurance autonomous surface vessels for surveillance and maritime domain awareness. Saronic Technologies has raised significant venture capital to develop autonomous ships for the U.S. Navy. Defense technology firm, Anduril, has also expanded into maritime autonomy as part of its broader portfolio of autonomous systems.

Europe has seen increasing activity as well. Several defense contractors are developing robotic mine countermeasure fleets, while companies such as, Helsing, are expanding their work in AI driven defense systems into maritime applications.

Ukraine itself has become a major source of innovation in the sector. The war has forced Ukrainian engineers to develop and deploy naval drones at scale, creating operational experience that few Western companies possess. This battlefield experience may prove to be one of UFORCE’s most important advantages.

Why Western Militaries Are Watching

The interest from Western governments in Ukrainian drone technology reflects a broader shift in military thinking. Navies around the world are facing three structural challenges. First, shipbuilding capacity is limited and construction timelines are long. Second, the cost of modern warships continues to rise. Third, many militaries are seeking new ways to operate in contested maritime environments without exposing large crews to risk. Autonomous vessels offer potential solutions to all three problems. They can be produced faster, deployed in larger numbers, and used for missions that would otherwise require crewed platforms. For NATO countries confronting growing naval competition from Russia and China, these capabilities are increasingly attractive.

A Wartime Innovation Ecosystem

The emergence of UFORCE illustrates how Ukraine’s war has reshaped the global defense technology landscape. The country has effectively become one of the world’s most active laboratories for autonomous warfare. Engineers, startups, and volunteer teams have developed thousands of drones and robotic systems in response to rapidly changing battlefield conditions. Many of these innovations were initially built in small workshops or improvised production lines.

Companies like UFORCE represent the next phase of that ecosystem: the effort to consolidate wartime innovation into scalable defense technology firms. If that effort succeeds, Ukraine’s battlefield engineering culture could evolve into a new generation of globally competitive defense companies. And in the emerging world of maritime autonomy, some of the most important innovations may no longer originate in traditional defense laboratories, but in a war fought along the shores of the Black Sea.

Key Takeaways

• FPV drones are evolving beyond strike roles. Integrating RF detection technology allows low-cost drones to locate and target enemy operators, expanding their tactical value.

• Electronic warfare is moving down to the edge. Compact RF sensing modules like CX2’s Vadris enable distributed sensing across large numbers of small drones.

• The sensor to shooter loop is compressing. Platforms that can both detect RF emissions and conduct strikes shorten targeting timelines significantly.

• Venture-backed defense startups are moving into operational programs. Neros and CX2 illustrate how new entrants are transitioning from prototypes to real military deployments.

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On modern battlefields, the hardest target to find is often not the drone, but the person flying it. As FPV drones proliferate across conflicts from Ukraine to the Middle East, both sides have learned the same lesson: eliminating the operator can be more decisive than destroying the drone. The challenge is locating those operators quickly, especially when they are hidden in buildings, tree lines, or urban clutter.

A new collaboration between Neros and CX2 aims to solve that problem by transforming low-cost strike drones into airborne RF detection platforms. The two Los Angeles based defense startups have announced a strategic partnership to integrate CX2’s Vadris RF-seeking pilot locator into Neros’ Archer FPV drone, creating a platform capable of detecting, identifying, and targeting adversarial drones and their operators. The partnership reflects a broader shift in drone warfare: pairing inexpensive attritable systems with increasingly sophisticated sensing and electronic warfare capabilities.

The war in Ukraine has demonstrated that inexpensive FPV drones can destroy equipment worth hundreds of thousands or even millions of dollars, but locating the operators behind those systems remains a persistent challenge.

Two Venture-Backed Defense Startups

Both companies operate out of El Segundo, California, which has rapidly become a hub for venture-backed defense technology firms.

CX2, founded in 2024, specializes in compact electronic warfare systems designed for drone detection and mitigation. The company is led by CEO Nathan Mintz, President Mark Trefgarne, Head of Warfare Porter Smith, and Head of Hardware Lee Thompson. The startup has raised approximately $46 million from investors including Andreessen Horowitz (a16z), 8VC, and Point72 Ventures.

Neros, meanwhile, focuses on domestically manufactured small-and medium-sized drones. The company was co founded by CEO Soren Monroe-Anderson and CTO Olaf Hichwa, and has raised $120 million, including a $75 million Series B led by Sequoia.

Together, the two firms represent a growing wave of venture funded defense startups focused on autonomy, attritable systems, and battlefield electronic warfare.

CX2’s Electronic Warfare Approach

CX2’s core mission is improving battlefield awareness by locating radio frequency emissions from adversarial systems. Two key products anchor the company’s portfolio:

• Vadris is a compact RF seeker module designed to be mounted on FPV drones. The system detects and geolocates radio signals from enemy drone control links, allowing operators to identify the location of opposing drone pilots.

• Wraith, another CX2 platform, is a sensor equipped drone designed to detect GPS jammers, control links, and other RF emitters across the battlespace.

The underlying concept is straightforward: in modern conflicts, nearly every system emits signals. Detecting and locating those emissions can provide decisive targeting intelligence.

Neros and the Archer FPV

Neros focuses on producing low-cost drones built entirely without Chinese components, a feature that has become increasingly important for U.S. defense procurement. Its flagship system, the Archer FPV, costs roughly $2,000 per unit and comes in several configurations:

• Five inch FPV

• Eight inch FPV

• Ten inch FPV

• Fiber optic variants developed with Kela Technologies

The company has already secured significant operational demand. Neros has contracts to deliver 6,000 drones to Ukraine and 8,000 Archer Strike drones to the U.S. Marine Corps. The startup is also participating in the U.S. Army’s Purpose Built Attritable System (PBAS) program and was recently selected for the Pentagon’s Drone Dominance “Gauntlet” competition, part of the Department of Defense effort to accelerate low-cost autonomous systems.

Turning FPV Drones into RF Hunters

Integrating Vadris onto the Archer FPV effectively converts the drone into an airborne RF detection and targeting platform. According to Neros Head of Growth Ross Pederson, the addition significantly expands the mission profile of FPV drones. While these systems are typically associated with strike missions, RF detection capabilities enable operators to identify emitting targets before engaging them. CX2 Head of Growth Scott Zolendziewski described scenarios where detecting the control signal of an enemy drone allows friendly operators to quickly locate and neutralize the opposing pilot.

The companies have already conducted demonstration tests with the 75th Ranger Regiment during Project GI, with further evaluations planned with U.S. Special Operations Command (SOCOM). According to CX2, testing has shown strong results in urban environments and dense vegetation, where adversarial operators often conceal themselves. The system has successfully located hidden drone pilots during both day and night operations. The next step is scaling deployment across special operations units, with plans to pursue combat validation in Ukraine later this year.

Why This Matters

For defense planners, the integration highlights a critical shift in the drone warfare ecosystem. FPV drones have proven highly effective as low-cost strike platforms, but their effectiveness depends heavily on target acquisition. Adding RF detection capabilities shortens the sensor to shooter cycle, allowing operators to rapidly identify emitting threats. This type of capability is particularly important in environments where adversaries rely heavily on drones and electronic warfare.

For investors, the collaboration reflects several structural trends in the defense technology market:

1. The convergence of drones and electronic warfare

Future unmanned systems are increasingly expected to carry sensing payloads, not just munitions. Integrating RF detection directly onto small drones is a step toward distributed electronic warfare.

2. The rise of attritable sensing networks

Low-cost drones equipped with RF sensors could be deployed in large numbers, creating distributed sensing networks that map emissions across the battlefield.

3. Venture-backed defense innovation scaling into programs of record

Both companies are moving beyond prototypes into real defense procurement pipelines, including Marine Corps contracts, Army programs, and SOCOM evaluations.

The Bigger Picture

Modern drone warfare is evolving rapidly toward sensor-driven targeting loops. The side that can detect emitters first, identify threats faster, and close the sensor-to-shooter loop more quickly gains a decisive advantage.

By combining low-cost FPV strike drones with RF detection technology, the Neros–CX2 partnership offers an early glimpse of how that evolution may unfold. Instead of serving purely as flying munitions, drones are increasingly becoming mobile sensors, electronic warfare platforms, and targeting nodes simultaneously. The decisive advantage may ultimately belong to the force that can detect and geolocate the signal first.

From a defense technology perspective, the collaboration reflects a broader shift: inexpensive drones are evolving from expendable strike assets into distributed sensing platforms. As RF detection and targeting software improves, the boundaries between electronic warfare, ISR, and drone operations will continue to blur.

Defense discussions tend to focus on autonomy, AI, and drone swarms. Yet every missile, artillery shell, and precision-guided munition ultimately depends on something more basic: energetics. Explosives and propellants are the chemical foundation of modern warfare. In the United States, that foundation remains concentrated, aging, and difficult to scale.

This week, Texas-based Critical Materials Group (CMG) emerged from stealth with a focused objective: scale production of military-grade energetics such as C-4 using automated manufacturing. The company’s announcement was low profile. The sector it touches is not.

Energetics production in the United States is anchored in a small number of government-owned, contractor-operated facilities, many built during the Second World War.

• Holston Army Ammunition Plant in Tennessee, operated by BAE Systems, is the only domestic source of RDX and HMX. These high explosives are embedded in nearly every missile, torpedo, and precision-guided munition. A prolonged disruption there would ripple across multiple weapons programs simultaneously.

• Radford Army Ammunition Plant in Virginia, also operated by BAE, produces solvent-based propellants for artillery and rocket systems. Its geographic proximity to Holston concentrates risk within a single region.

• Lake City Army Ammunition Plant in Missouri, operated by Northrop Grumman, produces more than a billion rounds of small-arms ammunition annually and anchors another segment of the energetics base.

This concentration has already proven fragile. In 2021, an explosion at the nation’s only domestic black powder facility halted production for nearly two years. Stockpiles were drawn down and deliveries delayed. There was no immediate backup.

When policymakers speak about scaling artillery shells or increasing missile output, the constraint is often assumed to be machining or final assembly. In practice, energetic fill capacity frequently sits upstream as a gating factor.

The vulnerability extends beyond physical plants. Key precursor chemicals, including inputs for nitrocellulose and other propellants, depend on global supply chains. Some materials originate in regions that would be central in any major power conflict. Even when production occurs domestically, upstream inputs may travel long distances before reaching U.S. facilities.

For decades, the system was optimized for cost efficiency rather than resilience. It was not designed for sustained high-tempo conflict. War games modeling a major contingency routinely conclude that certain U.S. precision munition inventories could be depleted quickly. Expanding output after the fact is not straightforward when the chemical base is narrow and heavily regulated.

Technologically, much of the sector still relies on batch processing methods developed generations ago. These systems are labor intensive and safety sensitive. They can produce high-quality material, but scaling them rapidly is difficult. Facilities such as Radford have required extensive modernization simply to replace aging equipment prone to outages.

At the same time, competitors have invested in higher-performance energetic compounds. Materials such as CL-20, long known in research circles, offer greater energy density than legacy RDX or HMX. The United States is now running pilot efforts to integrate such materials into selected systems and evaluate cost and scalability.

Congress has begun to treat energetics as a strategic domain rather than a narrow technical issue. The FY24 National Defense Authorization Act established the Joint Energetics Transition Office to coordinate research, development, and production planning across the services. Subsequent legislation has tightened reporting requirements on foreign sourcing and expanded authorities to mitigate supply chain risk.

The Department of Defense is funding modernization efforts that replace traditional batch processing with continuous-flow systems designed to increase safety and throughput. Additive manufacturing is also entering the field. Companies such as Firehawk Aerospace are applying 3D printing to solid rocket propellants in an effort to compress production timelines and enable more distributed manufacturing models.

It is within this broader shift that CMG’s emergence becomes relevant. Led by Kevin Capozzoli, a former Army Special Forces veteran and former Mach Industries president, the company is attempting to modernize C-4 production through semi-automated processes designed to evolve toward full automation. Automation in energetics manufacturing reduces worker exposure, improves consistency, and increases throughput without proportionally increasing safety risk. More importantly, it opens the possibility of adding incremental capacity outside the legacy facilities that currently dominate the landscape.

Energetics is not an easy sector for new entrants. Compliance burdens are high. Environmental permitting is complex. Margins are thin. Industry consolidation has limited competitive pressure, and long-term government demand signals have historically been inconsistent. For that reason, the significance of companies like CMG lies less in disruption and more in supplementation. Additional, modernized capacity reduces concentration risk and introduces updated production architectures into a sector that has been slow to evolve.

Modernizing energetics will not, by itself, solve the broader munitions scaling challenge. Metal casings, electronics, workforce constraints, environmental approvals, and long lead-time equipment all shape output. The industrial base is a system, not a single chokepoint.

Energetics matters because it sits early in that system and because its capacity remains unusually concentrated. When disruption occurs at that level, effects propagate across multiple weapon categories.

The practical test over the next decade is straightforward: can the United States steadily add safer, more distributed, and technologically current energetic production lines while securing upstream chemical inputs? If it can, resilience improves incrementally. If it cannot, ambitions to scale advanced weapons will continue to encounter limits rooted not in design, but in industrial chemistry.

On a day heavy with symbolism, the fourth anniversary of Russia’s full-scale invasion of Ukraine and Estonia’s Independence Day, Frankenburg Technologies confirmed it has closed a €30 million Series A round led by Plural, with participation from Estonia’s state-backed VC SmartCap.

The timing was not accidental.

Frankenburg is positioning itself not merely as another defense startup, but as part of a broader Baltic-led effort to rebuild Europe’s deterrence capacity through industrial scale. Tytan Technologies, notably, announced its own €30 million raise the same day, underscoring how capital is concentrating around scalable munitions platforms.

The Numbers and the Open Questions

In January, reports indicated that Frankenburg had raised as much as $50 million at a valuation near $400 million, a sharp step-up from its earlier rounds. The officially confirmed €30 million leaves room for interpretation:

• Was the larger figure inclusive of follow-on commitments?

• Is additional capital still pending?

• Or were earlier reports referencing a broader financing package?

Regardless of structure, the implied valuation trajectory suggests investors are pricing in rapid industrial scaling rather than a prolonged R&D cycle.

From Capability to Capacity

Frankenburg’s thesis is blunt: Europe’s missile problem is not technological. It is industrial. The company intends to use the fresh capital to establish manufacturing sites in Germany and the United Kingdom, each targeting output of 100 missiles per day. At that rate, a single facility would produce roughly 30,000 interceptors annually assuming continuous operations, a level of throughput largely absent from Europe’s current air defence industrial base. The credibility of Frankenburg’s thesis will ultimately rest not on design performance, but on whether this manufacturing tempo can be realized under regulatory, supply chain, and energetics constraints.

By adding Germany and the UK, Frankenburg expands its footprint to eight countries: Estonia, Latvia, Lithuania, Denmark, Poland, Ukraine, and two of Europe’s largest defense industrial bases. This distributed architecture matters. The war in Ukraine has exposed how fragile supply chains become under sustained consumption. Stockpiles deplete faster than replenishment cycles can keep up. Frankenburg’s answer is not a more exquisite interceptor but an industrial system designed for repetition.

Cheap, Fast, Abundant

The company’s first product, the Mark I short-range drone interceptor, targets the most immediate battlefield pressure point: mass drone attacks. Rather than compete at the high end of the missile spectrum, Frankenburg is building around a different constraint set:

• Short supply chains

• Modular production lines

• Commercially available components

• Rapid qualification processes

The goal is to compress cost and production timelines simultaneously, making missiles viable for high-volume deployment rather than selective use. CEO Kusti Salm framed the challenge succinctly: “You cannot deter with systems that are too scarce, too slow to replace, or too expensive to use at scale.” This represents a doctrinal shift as much as a manufacturing one. Deterrence, in this framing, is an availability problem.

Networks and Credibility

Frankenburg’s leadership reflects deep institutional connectivity. Salm serves as a director at the NATO Innovation Fund and previously held senior roles in Estonia’s Ministry of Defence. Founder Taavi Madiberk, also CEO of Skeleton Technologies, brings industrial hardware experience from the energy storage sector. Board and advisory members, including Marko Virkebau, Martin Herem, and Kuldar Väärsi, add further defense and entrepreneurial depth.

The Broader Signal

The more important signal is that investors are underwriting production capacity, not incremental performance gains. If Frankenburg achieves even a fraction of its stated output of 100 missiles per day per site, this implies industrial throughput measured in tens of thousands annually. That is a different category of deterrence. The constraint is no longer design sophistication. It is manufacturing velocity. Frankenburg is betting that in modern European warfare, scale is the decisive variable.

Quantum Systems has formally entered the ground autonomy market. At the Enforce Tac trade show in Nuremberg, the Munich-based autonomous systems company unveiled MANDRILL, its first unmanned ground vehicle (UGV), marking a deliberate expansion beyond its established aerial portfolio. Best known for its ISR drone platforms, Quantum Systems described MANDRILL as the first in a planned series of ground systems designed to integrate seamlessly into what it calls an overarching multi-domain strategy.

Over the past year, Quantum Systems has consolidated its position in aerial autonomy through both product development and acquisition. Its portfolio includes the mid-range ISR eVTOL Vector, the mapping-focused Trinity, the short-range ISR Twister, and the long-range ISR platform Reliant. Alongside organic growth, the company pursued a series of targeted acquisitions in 2025: AirRobot in March, Nordic Unmanned UK in September, SpleenLab, an AI software developer for autonomous systems, in October, and German ground-autonomy specialist FERNRIDE in December. These transactions were supported by significant capital inflows, including a €160 million funding round in May, a €180 million Series C extension at a €3 billion valuation in December 2025, and an additional €150 million in financing led by the European Investment Bank earlier this month. Quantum Systems is reportedly preparing another funding round of between €400 million and €600 million and is considering a public listing as early as 2027.

The company has also strengthened its position within Germany’s defense modernization effort. In December, Quantum Systems secured a €210 million contract to supply ISR drones to the Bundeswehr, reinforcing its status as a key domestic supplier at a time when Berlin is expanding defense investment and aiming to build Europe’s most capable conventional army. The acquisition of FERNRIDE signaled a clear intent to extend capabilities from aerial systems and AI-driven intelligence into autonomous ground mobility. Partnerships with ARX Robotics and Ukrainian robotics startup Frontline further underscore this progression into land-domain autonomy.

MANDRILL represents the operational expression of that strategy. The vehicle is built around a modular payload architecture capable of supporting ISR missions with EO/IR systems, logistics and resupply, medical evacuation, towing operations, electronic warfare, and even serving as a launch and recovery platform for aerial drones. It operates on Quantum Systems’ MOSAIC USX battle management and command-and-control software, positioning it as a node within networked, multi-domain operations rather than a standalone platform. The company frames MANDRILL not as a single product but as the foundation of a forthcoming family of interoperable ground systems. As Hendrik Kramer, Head of Ground Robotics at Quantum Systems, stated, the objective is to create a modular, networked ecosystem adaptable to evolving operational requirements, with MANDRILL engineered as a robust base for future land-based developments.

As Germany and other European states accelerate defense spending, Quantum Systems is positioning itself as a vertically integrated autonomy provider spanning air and land domains, with software-defined architecture at the core. The launch of MANDRILL suggests a shift from platform-specific growth to ecosystem-level ambition - an effort to anchor itself in the emerging market for integrated, unmanned multi-domain operations.

Fourteen Days of Darkness

Every lunar mission faces the same constraint: the Sun disappears for fourteen days.

When it does, temperatures plunge below –170°C. Solar panels produce nothing. Batteries become dead weight. Electronics freeze. Most lunar hardware is designed to endure the night, not operate through it. If sustained presence on the Moon is the goal - rovers, resource exploration, scientific stations - then solar power alone is not enough.

Only a handful of countries have solved this problem in a meaningful way. The United States, Russia, and increasingly China have developed radioisotope power systems that convert the heat from decaying nuclear material into electricity. These systems can run for years without sunlight. They are quiet, compact, and politically sensitive. Europe does not have an equivalent capability at scale.

That is the context in which a small Latvian company, Deep Space Energy, is trying to build something ambitious.

Rethinking the Radioisotope Generator

Deep Space Energy, founded in 2022, is developing a radioisotope power system designed specifically for long-duration space missions. The company recently secured €930K in combined pre-seed funding and public grants from ESA, NATO DIANA, and the Latvian government. The funding is modest. The technical claim is not.

Traditional radioisotope thermoelectric generators (RTGs), like those used on NASA’s Mars rovers, are extremely reliable because they have no moving parts. But they are inefficient. Only a small fraction of the heat produced by the radioactive material is converted into electricity. The rest is lost.

Deep Space Energy is taking a different approach. Instead of a static thermoelectric system, it uses a modified Stirling engine, a dynamic converter that turns heat into mechanical motion and then into electricity.

In theory, Stirling-based systems can be four to five times more efficient than conventional RTGs. That means requiring significantly less radioactive fuel for the same power output. Efficiency matters because radioisotope material is scarce, expensive, and tightly controlled.

NASA itself pursued a similar concept through its Advanced Stirling Radioisotope Generator program in the 2000s. The system performed well in testing but was ultimately cancelled. The concern was not efficiency. It was reliability. Moving parts introduce risk, and deep-space missions cannot tolerate mechanical failure.

Deep Space Energy argues it has addressed that concern by simplifying the architecture to a single piston design, reducing potential failure points. The company says it has validated the system under laboratory conditions and is now working toward integration into spacecraft subsystems. A demonstration flight is planned for 2029, likely using an electric emulator rather than actual nuclear material. The goal is to build flight heritage before navigating the regulatory complexity of launching radioactive payloads.

The Fuel Question

There is another constraint that sits quietly beneath the engineering challenge: supply. There is no large-scale European production pipeline for the radioisotopes typically used in space power systems, such as plutonium-238. The United States has restarted limited production. Russia historically supplied some material. China is investing heavily in its own nuclear space infrastructure.

Europe’s position is more ambiguous. Deep Space Energy’s CEO, Mihailis Ščepanskis, has acknowledged that there is currently no dependable or scalable supply of radioisotope material. Higher efficiency reduces the amount of fuel required, but it does not eliminate the underlying dependency. If Europe intends to operate independently in deep space, power systems and fuel supply eventually have to be addressed together.

A Long Timeline

The company’s immediate focus is engineering development and team expansion. The newly secured funding supports that stage, not full flight qualification or nuclear deployment. Operational missions are projected for the early 2030s, pending regulatory approval and institutional demand. Ščepanskis envisions a lunar surface populated by small, autonomous rovers by 2035, capable of surviving the lunar night without relying on sunlight. That vision assumes technical success, regulatory clearance, and a broader ecosystem willing to fund and deploy nuclear-powered systems beyond Earth orbit.

For now, Deep Space Energy remains an early-stage effort. But it is attempting to tackle one of the hardest constraints in sustained lunar operations: baseload power in a place where the Sun disappears for half the month. In space, energy is persistence. And persistence is presence.

Europe has debated strategic autonomy for years. The constraint has never been intent. It has been industrial capacity.

Defense budgets are rising across the continent, with nearly €800 billion projected by 2030. But sovereignty is not measured in appropriations. It is measured in production depth, supply chain resilience, and the ability to scale output under stress.

Onodrim Industries’ €40 million seed round should be understood in that context.

Headquartered in Amsterdam and backed by Founders Fund, Lakestar, and General Catalyst, Onodrim is not presenting itself as another defense software startup. It is positioning itself as infrastructure - spanning defense manufacturing, multi-domain sensing, and networked systems.

That framing is deliberate. Europe’s recent wave of defense innovation has skewed toward software and autonomy layers. Companies like Helsing have demonstrated that AI-native defense platforms can emerge from Europe. Hardware-focused firms such as Quantum Systems have shown that unmanned systems manufacturing can scale.

But software velocity and hardware ingenuity are not substitutes for industrial coherence.

The war in Ukraine exposed the structural weakness: Europe could finance support rapidly, but scaling ammunition production, replenishing stockpiles, and coordinating cross-border manufacturing proved slower and more fragmented than the geopolitical moment demanded.

Rearmament without synchronized production capacity risks becoming expenditure without leverage.

Onodrim’s founding thesis is that deterrence requires integration across three layers:

• Defense-specific hardware

• Systems-level software

• Scalable manufacturing infrastructure

CEO Aistis Šimaitis, a former Lithuanian government advisor and Palantir technology leader, approaches this from a deterrence lens shaped by Eastern Europe’s security realities. For him, sovereignty is not rhetorical. It is operational. Peace depends on credible capacity.

CTO Alexander Blessing extends that logic into execution: Europe’s engineering talent is not the bottleneck. Converting talent into repeatable, cross-border production is.

This is where the company’s ambition becomes structural rather than incremental. Onodrim is attempting to operate beneath the application layer, reinforcing the connective tissue between design, production, and deployment inside Europe.

The participation of major American venture firms adds another dimension. Strategic autonomy does not require transatlantic decoupling. It requires reducing asymmetry within the alliance. A more industrially capable Europe strengthens NATO’s overall deterrent posture.

But capital alone will not solve Europe’s fragmentation. Procurement remains nationally segmented. Regulatory environments differ. Scaling manufacturing across jurisdictions is politically sensitive and capital-intensive.

€40 million is meaningful seed capital. It is not yet industrial transformation.

The real test for Onodrim, and for Europe’s emerging defense tech cohort, is whether venture-backed firms can embed themselves into procurement systems and build durable production capacity, not just compelling prototypes.

Europe’s rearmament will not be decided by how much it spends. It will be decided by whether it can produce, at speed, at scale, and across borders.

Onodrim’s raise is an early bet that the answer can be yes

For more than half a century, the United States has treated spent nuclear fuel as waste. Today, roughly 100,000 tonnes of used fuel sit in pools and dry casks at more than 100 sites across the country. The stockpile continues to grow. Yet this material retains more than 90 percent of its original energy content.

Project Omega argues that this is not waste at all, but unrealized infrastructure.

Founded in mid-2025 by Dr. Stafford Sheehan and headquartered in Newport, Rhode Island, the company is attempting to build a commercially viable pathway for recycling used nuclear fuel while converting high-value isotopes into compact, long-duration nuclear power sources. Sheehan officially registered the business in the summer of 2025 after departing his previous venture, Air Company, at the end of 2024. Initial core technology demonstrations were conducted at the company’s Rhode Island laboratory.

On 11 February, Project Omega emerged from stealth, announcing an oversubscribed $12 million seed round led by Starship Ventures. Other participants included Mantis Ventures, Buckley Ventures, Decisive Point, and Slow Ventures. The round signals early investor conviction that nuclear waste, long seen as a political and regulatory liability, may instead represent a strategic asset.

Hugo Peterson, Chief Operating Officer at Starship Ventures, framed the thesis directly: “Spent nuclear fuel may be considered trash for some but we believe it is a treasure, and key to unlocking the next century of US energy leadership. Project Omega is the company with the technology and expertise to make that future real.”

Unlike traditional nuclear recycling efforts, which rely on complex aqueous, water-based chemical separation processes, Project Omega employs a molten salt-based approach. Operating at higher temperatures, the system is designed to simplify separation and cleanup relative to legacy reprocessing infrastructure. Rather than building toward a new fleet of advanced reactors, a pathway that typically implies a decade of planning, another decade of certification, and billions in capital, the company is taking what it describes as a more immediate, product-oriented approach.

The core architecture consists of an isotope radiation source paired with a semiconductor conversion layer that absorbs radiation and converts it directly into electricity. By focusing on alpha and beta emitters rather than gamma radiation, shielding requirements are dramatically reduced, enabling compact form factors. The result is not a conventional “nuclear battery” in the consumer sense, but what the company prefers to call a long-duration power source: a device capable of delivering continuous electricity for decades without recharge cycles. In such systems, electronics degrade before the energy supply does.

Although headquartered in Rhode Island, Project Omega relies on national laboratory infrastructure to validate and test its technology. The company is partnering with Pacific Northwest National Laboratory (PNNL), which has begun testing and evaluation of its system using isotopes such as strontium-90. Within months, PNNL produced a working proof of concept. A team led by senior scientist Dr. David Koch has taken a leading role in supporting the effort as part of broader national priorities in space and resilient energy systems.

The company is also supported by the Department of Energy’s Advanced Research Projects Agency–Energy (ARPA-E) under its Nuclear Energy Waste Transmutation Optimized Now (NEWTON) program. NEWTON seeks to make the reprocessing of U.S. commercial used nuclear fuel economically viable within 30 years. Anthony Pugliese, DOE’s Chief Commercialization Officer and Director of the Office of Technology Commercialization, emphasized DOE’s role in connecting emerging companies with national laboratory capabilities when specialized facilities and expertise are required to advance early-stage technologies.

This institutional alignment matters. Earlier this month, DOE awarded $19 million to five companies pursuing nuclear fuel recycling programs. Most of those efforts are vertically integrated with advanced reactor designs that remain in early development. Sean Hoge, founder of Starship Ventures, argues that model implies decades of lead time before commercial impact. Project Omega’s strategy is different: extract usable isotopes now and deploy them in durable power systems that can enter the market on shorter timelines.

The initial market focus is defense. The company is targeting applications such as persistent ISR sensors, distributed radar nodes, unmanned systems, edge AI compute modules, and wearable electronics. The use of alpha and beta radiation allows compact shielding, enabling deployment in proximity to personnel without exceeding typical background exposure levels. Operationally, this could eliminate battery logistics chains, reduce soldier load, and allow sensors or compute modules to operate for years or decades without maintenance.

Project Omega has been awarded a Department of War contract that is currently being finalized. Sheehan has indicated an interest in supporting “dull, dirty or dangerous missions,” including autonomous systems and remote sensing deployments. Broader consumer applications may follow after scaling and regulatory maturation. “Think about what applications could benefit from a battery that never dies,” he noted.

Sheehan situates the company within a broader structural shift in energy demand. “AI acceleration, electrified manufacturing, and new industrial systems are driving energy demand far faster than today’s grid can provide,” he said. “Nuclear energy remains the only power source capable of matching that trajectory, yet the US has never built the ecosystem required to enable its full potential.” In this framing, recycled nuclear fuel serves not only as feedstock for advanced reactors but as a foundation for distributed, resilient power across defense and industrial systems.

Sheehan’s track record is unconventional. He previously appeared on the Forbes 30 Under 30 list at age 27 for Catalytic Innovations, a startup spun out of his Yale PhD work. He later co-founded Air Company, which converts atmospheric carbon dioxide into jet fuel and consumer products and was last reported valued at $436 million in 2024. After seven years, he departed the company at the end of 2024 and subsequently filed a wrongful termination lawsuit alleging protected whistleblower activity. Air Company disputes the allegations; litigation remains ongoing.

None of that resolves the central question facing Project Omega: execution. Nuclear material handling, regulatory pathways, semiconductor durability under sustained radiation exposure, and scalable isotope separation remain formidable challenges. The United States has avoided commercial reprocessing for decades. Building a new ecosystem will not be trivial.

But the strategic logic is clear. The country is sitting on a century-scale energy reserve. Defense logistics are increasingly contested. AI and electrification are driving exponential energy demand. If Project Omega can translate laboratory proof of concept into manufacturable, certifiable systems, spent nuclear fuel may shift from political liability to deployed strategic infrastructure.

That would represent not just a startup success, but a structural shift in how the United States thinks about energy, resilience, and power projection.