Before diving in, it's worth distinguishing between two terms that are often used interchangeably. Misinformation is false information shared without the intent to deceive, while disinformation is intentionally created or spread to manipulate, mislead, or influence behavior. As AI generated content and deepfakes become increasingly convincing, the line between the two is becoming harder to detect. This creates new risks for governments, businesses, and national security.

Emerging Market Quadrant for Deepfake Detection — Startup Vendors

Gartner frames deepfake detection as an emerging but fast maturing cybersecurity discipline. It is the ability to detect, analyze, and forensically examine fabricated or AI manipulated images, audio, video, and live interactions meant to deceive or disinform. The report urges C-level executives to treat deepfakes as a major cybersecurity risk and evaluates startups on their ability to deliver continuous, cryptographic, forensic grade detection. It splits the vendor landscape into four groups plotted on “Potential to Execute” and “Potential for Market Disruption”: Market Shapers (Reality Defender, GetReal Security, and identifAI), Pace Setters (Resemble AI and Clarity), Pioneers (Netarx, DeepTrust, and Deep Media), and Specialists (pi-labs, Truepic, DuckDuckGoose AI, DeepXL, and Truly).

On strategy, the report identifies three distinct commercialization approaches vendors are pursuing. The first is an ecosystem embedded strategy that weaves multimodal forensic detection directly into clients’ infrastructure via free API access (though this risks commoditization as larger cybersecurity suites absorb baseline detection). The second is a hardware anchored strategy that anchors cryptographic provenance at the physical sensor level for verifiable, tamper proof truth. The final is domain specific interception approach, building highly targeted defenses for specific channels like remote hiring pipelines or live synthetic audio at the endpoint. Looking forward, Gartner expects disinformation security standards (akin to MITRE ATT&CK, via frameworks like DISARM) to emerge, and predicts organizations will build dedicated “digital trust and authenticity platforms” (DTAPs) run by new “TrustOps” teams.

Reality Defender, a New North Ventures portfolio company, is named a Market Shaper, Gartner’s top-tier category for vendors combining the strongest disruptive technology with the strongest go-to-market execution. Market Shapers are distinguished by multimodal ensemble models that scrutinize audio, video, image, and text simultaneously, paired with forensic signals intelligence and threat propagation graphs, embedded into continuous operational workflows. A case example in this quadrant, closely mirroring the executive-impersonation fraud scenario Reality Defender itself has publicized, describes a multinational enterprise targeted by real-time video/audio deepfakes on a live executive videoconference to authorize a fraudulent transfer, resolved by natively embedding multimodal detection into the conferencing platform to catch pixel and audio inconsistencies and block the transaction before execution. Gartner does flag risks even for top-quadrant vendors, though: buyers should watch for platform commoditization, ensure vendors offer genuine proprietary forensic depth rather than easily bypassed pattern recognition, and avoid over-relying on a horizontal, generalized platform if their organization has specialized vulnerabilities better served by domain specific vendors elsewhere in the quadrant.

Aging Pipes, Cyber Threats, and Disinformation: The Battle for America’s Water Security

America’s aging, underfunded water infrastructure, over 2 million miles of pipes, 9-12+ million lead service lines, and widespread PFAS contamination, has become a national security vulnerability, not just an environmental one. Using Jackson, Mississippi’s recurring water crises as a case study, it shows how deferred maintenance, funding gaps, and environmental justice disputes create the kind of divisive, emotionally charged conditions adversaries like China, Russia, and Iran can exploit. The EPA has also documented rising cyberattacks on water systems from actors including Iran’s IRGC, pro Russia hacktivists, and Chinese state sponsored groups like Volt Typhoon, with over 70% of inspected systems found in violation of basic cyber hygiene standards.

The disinformation angle is central: adversaries don’t need sophisticated hacking to cause damage, they can simply amplify real grievances or fabricate false ones about negligence or contamination to erode trust and trigger panic. The article cites a January 2024 incident where a false social media claim that Jackson’s treatment plant had shut down triggered a run on water that overwhelmed the system’s pressure, forcing a boil water notice for 12,000+ residents. That was a single fake post causing real physical strain with no hacking involved. Since water systems are widespread, locally run (93% serve fewer than 10,000 people), and already burdened by real problems tied to race and poverty, they offer a low cost way for adversaries to sow distrust and destabilize communities. The author’s recommendations tie funding, cybersecurity, and information security together, calling for federal agencies to work with state, local, and utility partners on counter disinformation strategies alongside infrastructure investment.

US and South Korea launch first wartime fake news drill

The US and South Korea held their first ever joint tabletop exercise focused specifically on countering foreign disinformation in a wartime scenario. Hosted at the South Korean Joint Chiefs of Staff headquarters in Yongsan, Seoul, the drill brought together the JCS and U.S. Forces Korea, along with personnel from the United Nations Command and the South Korea U.S. Combined Forces Command. Notably, it was the first time military commands partnered with a broad range of civilian government sectors for a unified “whole-of-government” response, with South Korea’s defense, foreign, and culture ministries all helping shape strategies against “cognitive warfare.”

The training centered on three main areas: countering foreign disinformation by identifying and dismantling hostile propaganda in real time; synchronizing allied defenses across cyber, space, and electromagnetic domains; and aligning strategic communications to keep public messaging consistent between allies. Military leaders framed control of the information environment as a top strategic priority for the alliance going forward, and officials are now looking at incorporating these communication and defense strategies into larger live action joint military exercises planned later this year.

More links to explore:

• Marine Corps drafting new strategic vision for its information warfare arm

• Pentagon announces ‘immediate suspension’ of CMMC Phase II mandates

Hubble Pushes Satellite Network For Long-Range Bluetooth

New North Ventures invested in Hubble Network in 2023. Recently Co-Founder and CEO Alex Haro joined Bloomberg Businessweek to discuss the future of Bluetooth and the space economy.

Alex Haro explained how the company has overcome one of the biggest limitations of Bluetooth, its traditionally short range, to enable direct communication with satellites in orbit. Rather than transmitting large amounts of data like headphones or speakers, Hubble optimized Bluetooth for small, high value data packets, such as asset location and status updates, and paired it with proprietary, highly sensitive space based antennas capable of detecting these weak signals from Earth. The result is a network that allows existing Bluetooth devices to connect to satellites without any hardware modifications, dramatically expanding connectivity for Internet of Things (IoT) applications. Haro highlighted commercial use cases across fleet management, construction, mining, oil and gas, and defense, noting that customers like Samsara can enable satellite connectivity through a simple software update. As Hubble continues building out its satellite constellation following launches with SpaceX and other providers, the dual-use company has raised more than $100 million in venture funding and is currently raising additional capital to expand its global network.

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DARPA's biological aperture question and the emerging stack for living, programmable RF infrastructure

Aperture is Density

Radio frequency systems are usually described as radios, antennas, radars, and arrays, but the underlying economic variable is aperture. A larger effective aperture can capture more electromagnetic energy, improve directivity, sharpen spatial discrimination, and provide greater control over where a signal is received or projected. Today, that aperture is normally manufactured from metal, dielectric materials, semiconductors, cabling, and precision electronics. The cost and complexity of assembling those components help explain why high performance RF systems remain expensive, power intensive, and difficult to deploy at scale.

DARPA is now asking a question that recasts the problem. On its Ideas Under Incubation page, the agency asks, “Can we create functional bio-apertures with tunable properties?” (Defense Advanced Research Projects Agency [DARPA], n.d., “Biological apertures” section, para. 1). The same prompt asks how biochemical and microbial interventions might enhance metal uptake and sequestration in selected plant species, then connects that biological process to microsystem design. DARPA explicitly labels the page as exploratory rather than a formal solicitation, which makes the idea less a program announcement than an invitation to assemble a new technical field (DARPA, n.d.).

Taken literally, a biological aperture sounds like science fiction. A more disciplined interpretation is a hybrid RF structure in which biology supplies area, growth, morphology, material transport, and some capacity for repair, while engineered materials and conventional electronics provide conductivity, switching, sensing, calibration, and control. No cited experiment demonstrates a field-ready biological radar or phased array. The significance is that several enabling components already exist independently, and their convergence creates a credible research and venture frontier.

The Aperture Is Moving Into the Environment

The first enabling trend is the relocation of RF function from a discrete radio into the surrounding environment. MIT researchers Venkat Arun and Hari Balakrishnan developed RFocus, a six-square-meter surface containing 3,720 inexpensive elements that either transmit or reflect an incident signal. Their central move was conceptual as much as technical: RFocus “moves beamforming functions from the radio endpoints to the environment” (Arun & Balakrishnan, 2019, p. 1). A software controller configured the surface using receiver signal strength measurements, producing a 10.5-fold improvement in median signal strength and a 2.1-fold improvement in median channel capacity in the prototype (Arun & Balakrishnan, 2019).

RFocus was not biological, but it established an important architecture. A small device does not need to carry the entire aperture if the environment can supply area and a controller can organize the resulting electromagnetic behavior. This shifts the commercial question from building a better radio alone to building surfaces, materials, and control systems that make the environment part of the radio. Biological apertures extend that logic by asking whether a portion of the physical surface can be grown, modified, and maintained through living processes.

Plants Already Receive RF Energy

The second enabling trend is direct evidence that living plants can participate in RF systems. Researchers at the Istituto Italiano di Tecnologia modified leaves with a thin elastomeric coating and combined wind-driven contact electrification with radio-frequency energy harvesting. In the paper’s abstract, Meder et al. (2022) report that “the same plant is used as an unmatched Marconi-antenna.” The plant functioned as an ionic receiving antenna for multiband RF energy, and the combined wind and RF harvesting system accumulated enough energy to operate a commercial temperature and humidity sensor that transmitted environmental data wirelessly (Meder et al., 2022).

This experiment should not be confused with a high-gain antenna array. It demonstrated low-power energy conversion, not coherent radar, precision beamforming, or high-rate communications. Its importance lies elsewhere. A common living plant acted as a functional electrical structure across multiple RF bands, integrated with conventional circuitry, and continued to provide biological attributes such as growth and self-repair. That is a foundational proof point for any thesis in which living matter contributes to the physical layer of a sensing or communications system.

Living Systems Can Sense and Report

A third line of research shows that plants can do more than passively interact with electromagnetic energy. Wong et al. embedded carbon-nanotube nanosensors into spinach leaves so that the plants could detect nitroaromatic compounds transported from groundwater into leaf tissue. The researchers described the engineered plants as “infrared communication platforms that can send information to a smartphone” (Wong et al., 2017, Abstract, para. 1). In effect, the plant served as a self-powered sampler, biological transport system, sensor host, and communications interface (Wong et al., 2017).

The relevance to biological apertures is architectural rather than frequency specific. The nanobionic spinach did not transmit conventional RF signals, but it demonstrated that a living organism can gather materials from its environment, concentrate them through its vascular system, host engineered nanoscale components, and communicate a resulting measurement to external electronics. DARPA’s interest in enhancing metal uptake and sequestration suggests a related systems logic: use biological transport and accumulation to place electromagnetically useful material inside or along a living structure, then connect that structure to microsystems that make the material operational.

RF Materials No Longer Need to Look Like RF Hardware

A fourth enabling trend comes from additive manufacturing and conductive polymers. Yurduseven et al. built a holographic metasurface antenna for 10 GHz operation using a biodegradable conductive polymer for the conducting regions and polylactic acid for the dielectric substrate. The authors emphasize that “The entire metasurface antenna is 3D printed at once” (Yurduseven et al., 2018, p. 1). Their experiments demonstrated high-fidelity focusing in the antenna’s Fresnel region, while also showing that material conductivity remained a critical determinant of radiation performance (Yurduseven et al., 2018).

The result matters because it separates RF function from the assumption that every aperture must be machined from conventional metal assemblies. Conductive polymers, printed structures, embedded nanoparticles, and biologically accumulated metals offer a wider material design space. Biology will not eliminate the conductivity requirement, and low-conductivity materials impose real efficiency penalties. It may, however, supply inexpensive, conformal, and spatially distributed scaffolding onto which electromagnetically functional materials can be deposited, transported, or organized.

Growth Can Become a Fabrication Process

The fifth enabling trend is partial control over biological growth. The flora robotica project combined natural plants, robotic scaffolds, sensors, light, and hormones to explore living architectural systems with continuous growth and self-repair. Hamann et al. (2017) explain that “User-defined design objectives help to steer the directional growth of the plants” (p. 1). The project used phototropic and shade-avoidance responses to guide climbing plants through mechanical structures, demonstrating that growth can be influenced toward desired geometries even when the process remains slower and less deterministic than industrial fabrication (Hamann et al., 2017).

That distinction is essential. A future biological aperture would not emerge from the ground with the precision of a lithographically produced array. The more realistic model is guided growth around a scaffold, followed by measurement, functionalization, and computational calibration. The biological structure would provide area and evolving geometry. Conventional engineering would impose enough order to make that imperfect structure useful.

What the First Biological Aperture Would Probably Look Like

A plausible first-generation bio-aperture, inferred from these research lines, would be hybrid at every layer. A plant, fungal network, or engineered living material could provide a large and conformal substrate. Biochemical interventions could increase the uptake or localization of selected metals. Conductive polymers, coatings, or nanoparticles could create more reliable current paths. Small conventional nodes could provide impedance matching, switching, sensing, telemetry, and power management. A software controller could maintain a digital model of the structure and compensate for changes in geometry, hydration, temperature, growth, or material distribution (DARPA, n.d.; Hamann et al., 2017; Meder et al., 2022; Yurduseven et al., 2018).

The first useful products would probably be passive or low power. Candidate functions include environmental spectrum monitoring, RF energy harvesting, frequency-selective surfaces, low-power reflectors, conformal receiving structures, or distributed sensing around farms, forests, buildings, borders, and critical infrastructure. Coherent transmission, high-power operation, and precision radar would require much tighter control over conductivity, phase, element spacing, feed networks, heat, and calibration. The near-term opportunity is therefore not a tree that replaces an exquisite radar. It is a new class of living or bio-derived surfaces that contribute useful area and electromagnetic function to a conventional system.

Where the Venture Stack Could Form

The biological layer offers one potential company-formation point. Tools that control metal uptake, transport, localization, and sequestration could become enabling platforms for more than RF, including environmental remediation, biomining, sensors, and advanced materials. The investable moat would likely reside in repeatable control over where functional material accumulates, how concentrations are measured, and how the process performs across species and field conditions. DARPA’s framing suggests that biology is not merely a substrate; it may be part of the manufacturing process itself (DARPA, n.d.).

The materials and interface layer offers a second opportunity. Tissue compatible conductive polymers, nanoparticles, coatings, electrodes, and low-power microsystems will be required to bridge wet, variable biological matter with dry, precision electronics. The winning architecture may be modular: biology supplies area and material transport, while standardized interface nodes supply switching, matching, calibration, and secure communications. This layer could mature before a complete biological aperture because each component also serves adjacent markets in wearables, agriculture, environmental sensing, soft robotics, and distributed infrastructure.

The computational layer may be the most leveraged. A biological aperture would be a moving, wet, heterogeneous RF object whose geometry and material properties change over time. Each deployed system could be slightly different. That complexity increases the value of electromagnetic simulation, inverse design, digital twins, synthetic RF data, adaptive calibration, and control software. RFocus showed that software can organize thousands of simple environmental elements without requiring each element to be an exquisite RF component (Arun & Balakrishnan, 2019). A biological system would push that principle further: imperfections would not be removed entirely through manufacturing, but measured and compensated for computationally.

The Investment Takeaway

DARPA’s biological-aperture question matters because it is an integration roadmap disguised as a speculative prompt. Researchers have already shown that beamforming can move into the environment, that plants can receive multiband RF energy, that living plants can host engineered sensors and communicate externally, that conductive polymers can form working microwave apertures, and that biological growth can be guided toward designed structures. None of these results proves that a useful biological aperture exists today. Together, they show that the category is no longer pre-science.

The first venture-scale winner may not market a biological antenna. It may sell the metal-uptake control system, the conductive biointerface, the embedded microsystem, the electromagnetic digital twin, or the calibration software that makes irregular living materials reliable. The enduring investment question is therefore not whether a tree can replace a radar. It is whether biology can become a programmable manufacturing and deployment layer for RF infrastructure, and which company will own the control point that makes that transition repeatable.

References

Arun, V., & Balakrishnan, H. (2019). RFocus: Practical beamforming for small devices. arXiv. https://doi.org/10.48550/arXiv.1905.05130

Defense Advanced Research Projects Agency. (n.d.). Ideas under incubation. Retrieved June 21, 2026, from https://www.darpa.mil/research/ideas

Hamann, H., Divband Soorati, M., Heinrich, M. K., Hofstadler, D. N., Kuksin, I., Veenstra, F., Wahby, M., Nielsen, S. A., Risi, S., Skrzypczak, T., Zahadat, P., Wojtaszek, P., Støy, K., Schmickl, T., Kernbach, S., & Ayres, P. (2017). Flora robotica: An architectural system combining living natural plants and distributed robots. arXiv. https://doi.org/10.48550/arXiv.1709.04291

Meder, F., Mondini, A., Visentin, F., Zini, G., Crepaldi, M., & Mazzolai, B. (2022). Multisource energy conversion in plants with soft epicuticular coatings. Energy & Environmental Science, 15, 2545-2556. https://doi.org/10.1039/D2EE00405D

Wong, M. H., Giraldo, J. P., Kwak, S.-Y., Koman, V. B., Sinclair, R., Lew, T. T. S., Bisker, G., Liu, P., & Strano, M. S. (2017). Nitroaromatic detection and infrared communication from wild-type plants using plant nanobionics. Nature Materials, 16, 264-272. https://doi.org/10.1038/nmat4771

Yurduseven, O., Ye, S., Fromenteze, T., Marks, D. L., Wiley, B. J., & Smith, D. R. (2018). 3D conductive polymer printed metasurface antenna for Fresnel focusing. arXiv. https://doi.org/10.48550/arXiv.1806.00394

More links to explore:

• Ranked: Countries Building the Most Small Modular Nuclear Reactors

• Freedom Summit August 21-21 (Manchester, NH)

Exclusive: Auriga Launches Hypersonic Weather Testing Chamber

New North Ventures portfolio company Auriga Space has launched a specialized hypersonic weather testing chamber designed to accelerate the development and validation of materials and coatings used in hypersonic weapons systems. The chamber replicates extreme environmental conditions, including temperature, humidity, pressure, and atmospheric composition, that hypersonic systems encounter during flight.

As the government pushes to field hypersonic capabilities at speed, testing infrastructure has become a critical bottleneck, particularly for unsexy but mission critical components like thermal protection systems, sensor windows, and structural coatings. Auriga's facility addresses that gap by providing rapid, repeatable testing that can validate designs earlier in the development cycle, reducing risk and compressing timelines for programs under intense pressure to deliver operational capability.

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Orbital files plans for 100,000 orbital data centers

Five-month-old startup Orbital has asked the Federal Communications Commission for permission to deploy up to 100,000 data center satellites, aiming to bring 10 gigawatts of computing power from space to meet rising artificial intelligence demand. The filing represents one of the most ambitious orbital infrastructure proposals to date and signals a fundamental shift in how the defense and commercial sectors are thinking about compute infrastructure. Rather than viewing satellites as communications or sensing platforms, Orbital is positioning space as the next frontier for raw computational capacity, particularly for power intensive AI workloads that are increasingly constrained by terrestrial energy, cooling, and regulatory limitations.

The scale is striking. At 100,000 satellites and 10 gigawatts of power, Orbital is proposing an orbital compute constellation that rivals the entire terrestrial hyperscale data center footprint of a major cloud provider. The company is betting that space offers unique advantages for AI training and inference: near unlimited solar power, natural thermal management through radiative cooling, reduced latency for globally distributed workloads, and insulation from terrestrial infrastructure vulnerabilities. This is not incremental optimization. Orbital compute is being designed explicitly to serve AI workloads, which are the single largest driver of infrastructure demand in both commercial and defense contexts today.

The broader implication for defense investing is that the boundary between space infrastructure, AI, and national security is collapsing. Orbital compute constellations will be attractive to defense and intelligence users for workloads that require airgapped processing, sovereign compute isolation, or persistent overhead presence. They also introduce new categories of vulnerability and resilience, from space based cyber defense to on-orbit fault tolerance. For early stage investors, the signal is clear: the next generation of defense infrastructure will not be built on the ground, it will be built in orbit. The companies enabling that shift, whether through launch, power systems, thermal management, networking, or the compute platforms themselves, represent the infrastructure layer beneath every future defense AI capability.

Buckle Up: The Bad Guys Now Have A Model As Powerful As Mythos

A significant shift has occurred in AI powered cybersecurity: China has released an open weight AI model with offensive cyber capabilities comparable to Anthropic’s restricted Mythos model. Unlike Mythos, which remains tightly controlled because of its ability to autonomously discover software vulnerabilities and generate exploits, the Chinese model is publicly available. This means nation states, cybercriminals, and other malicious actors can freely access advanced offensive cyber capabilities. This could dramatically lowers the barrier to conducting sophisticated cyberattacks and marks a new phase in the AI arms race, where powerful cyber tools are no longer confined to a handful of leading AI labs.

The article also highlights the growing geopolitical implications of frontier AI. While U.S. companies have emphasized strict safeguards around their most capable models, China’s decision to openly release a similarly powerful system underscores the tension between AI safety and strategic competition. Restricting access to advanced models in democratic countries may no longer prevent misuse if comparable capabilities are readily available elsewhere. As a result, governments, critical infrastructure operators, and enterprises will need to accelerate investments in AI enabled cyber defense, assuming that attackers now have access to tools capable of discovering and exploiting vulnerabilities at unprecedented speed and scale.

NASA races to save Swift telescope from falling back to Earth with daring rescue mission

NASA is launching a first-of-its-kind $30 million robotic satellite servicing mission to rescue its aging Neil Gehrels Swift Observatory, which has been in orbit since 2004. Increased solar activity has expanded Earth’s upper atmosphere, creating more drag and causing Swift’s orbit to decay much faster than expected. To prevent the telescope from reentering the atmosphere, startup Katalyst Space Technologies will launch its LINK servicing spacecraft aboard a Northrop Grumman Pegasus XL rocket. LINK will autonomously rendezvous with Swift, capture it using robotic arms, and gradually raise its orbit from roughly 224 miles to 373 miles, extending the observatory’s operational life by several years.

Beyond saving a scientifically valuable telescope, the mission represents a major milestone for the emerging on-orbit servicing industry. Rather than replacing expensive space assets, operators may soon be able to repair, refuel, or reposition satellites already in orbit. If successful, the Swift rescue would move orbital servicing beyond one time demonstrations into a practical commercial capability, paving the way for future life extension missions for satellites.

More links to explore:

• NASA, SBA Announce New Initiative to Scale American Space Economy

• Google’s VC arm backs ex-Axiom Space CEO’s $30M bet to build a stock exchange for space

Psionic Selected by NASA Under the 2025 Announcement of Collaboration Opportunity (ACO)

Psionic has been selected by NASA as one of 37 U.S. companies participating in the agency’s 2025 Announcement of Collaboration Opportunity (ACO), a program that gives innovative commercial companies access to NASA’s facilities, hardware, software, and technical expertise to accelerate technologies for future lunar and Mars missions. The collaboration underscores NASA’s continued investment in next generation commercial space capabilities.

Through the partnership, Psionic will work with NASA’s Armstrong Flight Research Center to flight test its Navigation Doppler Lidar (NDL) technology, which enables precise navigation in GPS denied environments by measuring velocity and range. Successful validation could help advance autonomous navigation systems for future lunar landers and human exploration missions to the Moon and Mars.

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Critical minerals have moved from the margins of industrial policy to the center of national strategy, and for good reason. From the lithium powering electric vehicle batteries to the rare earth elements embedded in fighter jet components and semiconductor manufacturing, these materials underpin virtually every sector that defines modern technological and military power. As artificial intelligence, clean energy, and advanced defense systems continue to scale, the demand for minerals like manganese, nickel, cobalt, copper, and rare earths is accelerating and the nations that control their supply are gaining enormous geopolitical leverage. For the United States, the stakes are stark: over reliance on foreign sources, particularly China, which dominates global rare earth processing, has exposed critical vulnerabilities in domestic supply chains that touch everything from consumer electronics to missile guidance systems. Securing a stable, domestic supply of critical minerals is now a matter of national security, technological sovereignty, and the country’s ability to compete and innovate.

Trump Administration Advances Offshore Critical Minerals Development Off Virginia

The U.S. Bureau of Ocean Energy Management (BOEM) is advancing its evaluation of offshore critical mineral development off the coast of Virginia by issuing a Request for Information and Interest (RFI) to gauge industry appetite and gather public input on potential leasing areas. The notice opens a 30 day public comment period and is an early step in BOEM’s planning process.

The initiative is part of the Trump administration’s broader effort to expand domestic production of critical minerals used in manufacturing, defense systems, and emerging technologies, with the goal of reducing dependence on foreign supply chains. BOEM Acting Director Matt Giacona framed it as a way to strengthen America’s strategic position through secure domestic supply chains.

The effort follows BOEM’s December 2025 announcement that it was considering offshore mineral leasing off Virginia after receiving an unsolicited lease sale request from Florida based Odyssey Marine Exploration, which has expressed interest in developing heavy mineral sands and phosphorite deposits on the U.S. Outer Continental Shelf. That announcement was only the third offshore minerals leasing action of its kind in more than three decades, and came after President Trump’s executive order directing federal agencies to accelerate domestic development of strategic mineral resources. Public comments on the RFI will be accepted through July 23 via Regulations.gov.

DOD commits $1.2B in conditional loans to Phoenix Tailings, Energy Fuels

Phoenix Tailings, a Massachusetts based rare earth processing company with an operational facility in Exeter, New Hampshire, received a conditional $500 million loan commitment from the Department of Defense’s Office of Strategic Capital (OSC). The financing, combined with additional private capital, is expected to support an approximately $1 billion effort to expand domestic rare earth processing capacity and build the company’s planned “Freedom Facility.” This will be a large scale separation and metallization plant designed to strengthen the U.S. critical minerals supply chain.

The investment highlights growing federal urgency around re-shoring critical mineral and rare earth processing capabilities that are currently dominated by China. Phoenix Tailings has developed technology to process rare earth materials from mined, recycled, and secondary feedstocks. The expansion is intended to support U.S. defense, energy, advanced manufacturing, and permanent magnet supply chains while reducing dependence on foreign processing infrastructure.

China Targets US Rare Earth Firms in Response to Pentagon

China escalated its rare earth supply chain response to ongoing U.S.-China trade and national security tensions by adding two leading American rare earth companies, MP Materials and USA Rare Earth, to its export control list. The move restricts Chinese companies from exporting dual-use goods to the affected firms and underscores Beijing’s willingness to leverage its dominance in rare earth processing as a geopolitical tool. While the immediate operational impact may be limited, the action highlights the strategic importance of building domestic mine-to-magnet supply chains and reducing U.S. dependence on Chinese rare earth materials and processing capacity.

The inclusion of MP Materials, which operates the only active rare earth mine in the United States, and USA Rare Earth, which is building an integrated domestic rare earth and magnet manufacturing platform, reinforces the growing significance of rare earths as a national security priority.

More links to explore:

• University of Utah to launch groundbreaking DARPA-backed critical minerals testbed

• G7 Countries Commit to Diversifying Critical Minerals Supply Without Deciding Who Bears the Cost

HawkEye 360 Looks Overseas For Its Next Growth Leg

HawkEye 360 is increasingly looking beyond the U.S. government market for its next phase of growth, expanding sales to allied nations that are seeking sovereign space based intelligence capabilities. The company’s radio frequency (RF) intelligence platform enables customers to detect and geolocate signals from ships, aircraft, GPS jammers, and other emitters worldwide, providing critical situational awareness without relying on traditional intelligence infrastructure. International demand has accelerated amid rising geopolitical tensions and growing defense spending across Europe, the Indo-Pacific, and other allied regions.

The strategy appears to be gaining traction, with HawkEye 360 reporting more than $100 million in new international contract awards this year, including a significant electronic warfare program with a European Ministry of Defense. As governments increasingly prioritize space based ISR, electronic warfare, and spectrum intelligence capabilities, HawkEye 360 is positioning itself as a key provider of commercial signals intelligence to both U.S. and allied defense customers worldwide.

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Defensibility in Defense Tech: What Actually Counts as a Moat

The question to ask nearly every founder, and if you’re a founder, ask yourself, is this: “if this works, what stops the next ten teams, and the primes, from doing the exact same thing in eighteen months?”

If the honest answer is “nothing but execution,” you’re looking at a feature, not a company. If the answer is “years of qualification, a proprietary process, a supply chokepoint, or physics most teams simply can’t replicate,” then we can start talking about a moat.

So what is a moat? Warren Buffett’s framing still holds: the business is a castle, and the moat is what keeps attackers out. In venture, you’re not underwriting whether something is good today, you’re underwriting whether returns survive once the market realizes it’s a good market. Without a moat, margins collapse as competition floods in. A moat is what prevents capital and talent from simply taking your customers.

The classic sources still apply such as IP, switching costs, network effects, scale advantages, regulatory barriers. However, defense bends them and adds a few that the commercial world rarely has:

Accreditation – One of the most underrated barriers in the sector. Clearances, FedRAMP High, DoD IL5/IL6, ATOs, weapons qualification. These take years and millions in “paperwork” that is actually infrastructure. You cannot fake a cleared workforce or accredited facility; it is a decade long build. Palantir is one of only a handful of companies, alongside Microsoft and AWS, cleared at DoD IL6. That’s not a feature; it’s a locked gate.

Programs of Record – Defense procurement is sticky in a way commercial markets aren’t. Win a program of record and you become the baseline for 10–20 years. Switching costs aren’t churn, they’re full system re-architecture.

Physics and production – If you can deliver something cheaper than anyone else, competition doesn’t erode you, it breaks everyone else. This is the SpaceX story, and increasingly true in maritime and munitions.

Data – Whoever becomes the system of record owns the workflow. Once you define the data model, ripping it out means rebuilding the entire operating picture.

Capital – Cost-plus primes have little incentive to move fast. Startups that fund R&D on their own balance sheet can out-iterate incumbents, until that speed is either converted into a structural moat or it disappears.

Now let’s look at a few winners, because each illustrates a different moat and most stack multiple.

SpaceX

The lazy take is that SpaceX’s moat is reusable rockets. It isn’t anymore. Blue Origin landed an orbital class booster in 2025, and others are close, proving the physics is replicable. The real moat is compounded operational learning that only cadence can create.

SpaceX flew ~170 times in 2025 across nearly 500 total missions, driving cost per kilogram down more than 95%. Every flight improves refurbishment, reliability, and mission design in ways competitors can’t replicate without the same flight volume. The flywheel reinforces itself: cheap launch enables Starlink, Starlink fills the manifest, and a full manifest funds more cadence.

On top of that sits Starlink: ~10 million subscribers and $10B+ in 2025 revenue, with improving margins. That creates a network and capital moat layered on launch dominance. Then comes government entrenchment: NSSL backlog, NASA contracts, and Starshield positioning it as default infrastructure for national security space access.

As SpaceX approaches a ~$1.77T valuation in private markets, the signal is clear: these moats compound.

Lesson: durable advantage isn’t a feature, it’s a loop that gets stronger every time it runs.

Palantir

Palantir is often misread as an AI company. It isn’t. It uses other people’s models such as OpenAI, Anthropic, and others.

The real moat is the data integration layer: Foundry and Gotham. It is a semantic ontology that maps how an organization’s fragmented data actually fits together. Building it takes 6–18 months. Once it exists, switching AI vendors is trivial but rebuilding the ontology elsewhere is a multi-year reintegration effort most organizations won’t attempt.

That layer becomes embedded in daily operations. Removing it would break the system.

Wrapped around it is accreditation: FedRAMP High, IL5/IL6, and a cleared workforce. Palantir turned that burden into a product with FedStart, letting others operate inside its accredited environment instead of rebuilding their own ATO path. That converts compliance into a platform advantage.

The moat is the integration layer and it outlives whatever model sits on top of it.

Lesson: be the system of record, not the application. Apps get replaced. Data models do not.

Anduril

Anduril is often described as a modern prime, but it is structurally anti-prime. Traditional primes rely on cost-plus contracts that reward neither speed nor efficiency. Anduril flipped the model: hardware is the delivery mechanism for a software platform.

Lattice is the core: it fuses sensors, drones, towers, and effectors into a unified operating system. The result is a vertically integrated system with a horizontal software engine, one backbone across many hardware classes.

The second moat is speed-as-capital. By funding R&D privately, Anduril reaches deployment years ahead of traditional procurement cycles. That’s how it secured a $20B Army enterprise deal consolidating 120+ procurement pathways around Lattice.

The third moat is emerging: Lattice as a standard. As it becomes the integration layer, competitors either plug in or get excluded from systems built around it.

Lesson: if you sell hardware, find the recurring software layer or become the standard others must integrate with.

How to build real moats

Start the boring barriers early. Clearances, ATOs, accreditation, qualification. Build them before you need them. They look like cost today and a moat tomorrow.

Use capital and speed deliberately. Outspend incumbents on R&D and convert that speed into structural advantage before the capital edge fades. Speed is a moat with an expiration date.

Don’t confuse contracts with moats. A contract is an outcome. A moat is what ensures the next one.

The defense boom is real, and it’s producing winners faster than ever. But the companies pulling away all share the same pattern: compounding cadence, integration layers others can’t unwind, and standards everyone else must adopt.

Everyone has a contract. The question is: who has a castle.

Anthropic Disabled Fable 5 And Mythos 5 After A U.S. Export-Control Order. Here What Happened

Anthropic, one of the leading frontier AI labs, has disabled access to its most advanced models, Fable 5 and Mythos 5, following a new U.S. export control order that restricts foreign access to cutting edge artificial intelligence systems. The company is now engaged in ongoing negotiations with the Trump administration to restore access, but so far no breakthrough has been reached. The move represents one of the most significant exercises of AI export restrictions to date, affecting not only international users but also raising questions about how compute thresholds, model capabilities, and national security considerations will intersect as the technology continues to advance.

The timing and scope of the restrictions are notable. Anthropic’s Fable 5 and Mythos 5 are widely considered to be among the most capable large language models available, used across enterprise, research, and government applications. By targeting these specific systems, the U.S. government is signaling that it views advanced AI as dual-use infrastructure requiring the same kind of strategic export discipline traditionally applied to semiconductor manufacturing equipment, cryptography, or missile technology. This is no longer theoretical policy. It is operational doctrine, and it marks a shift from voluntary corporate governance to direct state intervention in the AI supply chain.

More links to explore:

• AI is taking background checks from ‘months to hours,’ clearance agency says

• Defense Tech Funding Smashes Records: Autonomous Weapons Startups Raise $14.6B

Hubble Network, InPlay Partner to Bring Sub-$1 Global Tracking

Hubble Network and InPlay have partnered to make global, item level asset tracking as inexpensive as passive RFID by combining InPlay’s sub $1 NanoBeacon chip with Hubble’s satellite powered Bluetooth network. The solution allows smart labels, wearables, and IoT sensors to transmit location and condition data worldwide without requiring companies to deploy readers, scanners, cellular modems, or other tracking infrastructure. The partnership is aimed at supply chain visibility, cold chain monitoring, returnable transport assets, and other use cases where traditional RFID lacks range and cellular tracking is too expensive, potentially enabling low cost tracking of billions of everyday items.

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The Venture Capital Case for Maritime Autonomy

When we look at the maritime industry, we like to break it down into two main categories: unmanned undersea and unmanned surface maritime technology, where both categories include hardware and software solutions. What has changed over the last several years is that maritime autonomy has evolved from a niche defense market into a venture scale investment category. Growing geopolitical competition, particularly in the Indo-Pacific, the Red Sea, and other contested waterways, has transformed both the ocean surface and undersea environment into critical zones of military competition. As a result, governments are allocating significantly more resources and capital toward autonomous maritime capabilities that can provide persistent surveillance, logistics, mine countermeasures, anti-submarine warfare, and distributed lethality at a fraction of the cost of traditional crewed platforms. The U.S. Navy alone continues to expand investments in unmanned maritime systems and broader fleet modernization efforts.

The buyer universe has also expanded considerably. In addition to traditional defense customers such as the U.S. Navy, SOCOM, and allied maritime forces, strategic acquirers now include large defense primes, shipbuilders, autonomy software providers, and dual-use technology companies seeking to operate across land, air, sea, and undersea domains. This is creating a much more active merger and acquisition environment as companies race to build all-domain autonomous capabilities rather than develop every component internally. Recent examples include Havoc AI’s expansion of its maritime autonomy platform to land, sea and air, reflecting a broader industry trend toward acquiring or integrating technologies that enable cross-domain operations.

Capital formation is accelerating alongside acquisition activity. Havoc AI recently raised $85 million, bringing total funding to nearly $100 million in less than two years, while Blue Water Autonomy raised a $50 million Series A after an earlier $14 million seed round. Booz Allen recently invested in maritime company Ulysses as part of their recent Series A round. Other strategic investors such as Lockheed Martin, Hanwha, and In-Q-Tel are increasingly investing directly into maritime autonomy companies, signaling both customer demand and future acquisition interest. As autonomous maritime systems prove operationally effective and become programs of record, we expect acquisition timelines to compress, strategic premiums to increase, and consolidation to accelerate. Similar to what occurred in the drone and defense software markets over the past decade, maritime autonomy is rapidly becoming a core layer of future military capability and one of the most attractive emerging categories for venture backed defense technology.

We have recently seen several interesting companies and wanted to highlight some companies that are building in the maritime space below. If you are a pre-seed or seed company building in this domain, reach out! We would like to learn more.

Op-Ed: Maritime Cybersecurity is a Financial Investment

The article frames maritime cybersecurity as a core financial investment rather than a discretionary IT cost. Modern shipping and port operations are deeply digitized, with vessels relying on interconnected systems for navigation, engine control, cargo handling, communications, and port coordination. This connectivity expands the attack surface, making ships and maritime infrastructure increasingly attractive targets for cybercriminals and state actors. The author emphasizes that even relatively simple intrusions, such as tampering with AIS data or accessing onboard systems, can create real operational disruption and expose sensitive commercial and security information.

The central argument is that the economics of cyber risk in maritime are now impossible to ignore. A single cyber incident can lead to costly vessel downtime, delayed cargo, supply chain disruption, and reputational damage that cascades across global logistics networks. Yet many operators still underinvest in cybersecurity relative to the scale of exposure. The piece contends that treating cybersecurity as a line item operating expense underestimates its return profile: modest, consistent investment in cyber defenses can prevent disproportionately large losses, reduce operational risk, and strengthen resilience across increasingly software-driven maritime systems.

More links to explore:

• NSWC Port Hueneme Taps ATI to Manage New Maritime Tech Consortium

• Embry-Riddle Dives Deeper Into Uncrewed Maritime Tech

ZeroFox and Reality Defender Partner to Close the Synthetic Media Gap in External Threat Protection

ZeroFox and Reality Defender have formed a partnership to address the growing risk of AI generated “synthetic media” being used in cyberattacks. The integration embeds Reality Defender’s deepfake detection capabilities directly into the ZeroFox external threat protection platform, allowing security teams to identify whether images, audio, or video content used in impersonation and social engineering campaigns has been artificially generated. The goal is to close a gap in traditional external threat workflows, which can detect malicious infrastructure but often cannot verify the authenticity of media itself. By adding real time multimodal detection inside ZeroFox’s existing “Discover, Validate, Disrupt” workflow, analysts can more quickly confirm and respond to impersonation attempts involving executives, brands, or other high value targets. The companies argue this will improve accuracy, reduce time to takedown, and help organizations better defend against increasingly realistic AI driven fraud and misinformation campaigns.

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As Pentagon pushes for battlefield AI, some military leaders urge caution

The Pentagon’s aggressive push toward battlefield AI is meeting resistance from within its own ranks, creating a significant doctrinal divide over the role of autonomous decision making in combat operations. While the Department of War continues to accelerate AI integration across targeting, reconnaissance, and command systems, a growing faction of senior military leaders is publicly urging restraint, particularly around lethal autonomous weapons and AI driven strike decisions. The tension reflects a broader uncertainty about the operational, ethical, and strategic implications of delegating life and death choices to algorithmic systems in high stakes environments.

What makes this moment notable is not the presence of skepticism, which has always existed around emerging military technologies, but rather the timing and seniority of those voicing concern. This is active duty and recently retired flag officers questioning whether the current pace of AI deployment is outstripping the military’s ability to validate performance, understand failure modes, or maintain meaningful human control in dynamic combat scenarios. The concerns span technical reliability, adversarial manipulation, escalation risks, and the erosion of human judgment in contexts where context, culture, and proportionality matter as much as precision.

The broader implication for defense technology investors is that the pathway from prototype to production is becoming more contested, even within the customer base. Autonomous systems companies can not assume that capability demonstrations alone will unlock procurement at scale. There is a widening gap between what the technology can do and what military institutions are organizationally, legally, and culturally prepared to adopt. The winners in this market will be companies that build not just performance, but verifiability, explainability, and graduated autonomy into their systems. Those that can help the Defense Department navigate the gap between ambition and doctrine will capture the long term value, while those that push purely on capability may find themselves technically impressive but operationally sidelined.

US, UK, Australia launch joint underwater drone project by 2027

The United States, United Kingdom, and Australia have announced a joint initiative to develop and field underwater autonomous systems by 2027 under the AUKUS security framework. The program aims to accelerate the deployment of unmanned undersea vehicles for intelligence, surveillance, reconnaissance, and potentially offensive missions across contested maritime domains. The collaboration will focus on interoperability, shared development timelines, and coordinated procurement pathways. This signals that underwater autonomy is becoming a trilateral strategic priority rather than a series of parallel national programs.

The move reflects growing recognition that the subsurface domain is becoming as contested and technologically dynamic as airspace. Undersea drones offer persistent monitoring of critical infrastructure, submarine tracking, mine countermeasures, and distributed naval presence without the cost, risk, or manpower requirements of crewed platforms. For dual use investors, the signal is clear: underwater autonomy is transitioning from experimental capability to core defense infrastructure, with allied interoperability as a forcing function for standardization and scale. Companies building modular, software defined underwater platforms with open architectures stand to benefit as AUKUS procurement accelerates over the next 24 months.

America’s Next Arsenal Will Be Built by Startups

A new narrative is solidifying in Washington and across defense policy circles: the next generation of American military capability will not come primarily from traditional primes, but from venture backed startups building software driven, modular, and rapidly iterating platforms. The argument centers on speed, cost, and adaptability. Startups are fielding drones, AI targeting systems, counter UAS platforms, and autonomous vehicles in months rather than years, at unit costs orders of magnitude below legacy programs. Lessons from Ukraine, where commercial and startup built systems have defined battlefield outcomes, are accelerating this shift in procurement philosophy.

What matters here is not just the technology, but the industrial and cultural transformation this represents. Defense startups are forcing the Pentagon to rethink how it buys, tests, and integrates new capabilities. Companies like Anduril, Shield AI, and dozens of others are building not just products but entirely new models of defense production, ones rooted in continuous software updates, modular hardware, and venture scale rather than cost plus contracting. For investors, this is the industrial base thesis playing out in real time. The companies that can combine technical performance with the operational maturity to navigate government bureaucracy, security requirements, and allied interoperability will define the next decade of defense innovation. Those that cannot will remain impressive demos without pathways to production.

More links to explore:

• Pentagon’s 300,000 Drone Plan Hits Supply Wall, China Controls 98% of Magnets

• 2026 Northeast National Security Conference | June 3

Auriga Space | California firm rethinks missile defense without rocket motors

Auriga Space is developing a novel missile defense concept that replaces traditional rocket powered interceptors with electromagnetic launch systems capable of accelerating projectiles to hypersonic speeds using electricity. The approach aims to address a growing challenge in U.S. air and missile defense: interceptor production is constrained by reliance on solid rocket motors and a fragile domestic supply chain for key propellants. Backed by contracts from the Missile Defense Agency and AFWERX, Auriga argues that reusable electromagnetic launchers could dramatically lower the cost per interception while reducing dependence on scarce rocket components. The company plans to begin hypersonic testing in 2026, with the long term vision of deployable, containerized launch systems that could provide more scalable and affordable missile defense against drones, missiles, and other emerging threats.

HawkEye 360 draws broad Wall Street support following IPO debut

Space based signals intelligence company HawkEye 360 is receiving strong attention from Wall Street following its recent IPO, with several major banks initiating coverage and most assigning Buy, Outperform, or Overweight ratings. Investors are drawn to the company’s unique position as a commercial provider of radio frequency (RF) geospatial intelligence, using a constellation of more than 30 satellites to detect and analyze signals from radar systems, communications networks, maritime vessels, and GPS jammers. Analysts see HawkEye as a beneficiary of rising global defense spending, growing demand for space based intelligence, and the shift of ISR missions from traditional airborne platforms to satellites. While some firms caution that the stock’s valuation already reflects much of its growth potential, the broader consensus is that HawkEye is well positioned to capitalize on an expanding national security space market expected to grow significantly over the coming decade.

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It’s Boston Tech Week, which means hundreds of founders, investors, operators, and researchers are gathering across the city to talk about what’s next. But beyond the noise, the real opportunity is finding the signal and increasingly that signal is defense tech, dual-use innovation, and the builders creating companies in Boston. Few ecosystems combine the same density of world class labs, research universities, engineering talent, maritime testing grounds, early stage accelerators, and government connected innovation networks. Boston has become a place where companies can go from breakthrough research to deployment-ready technology faster than almost anywhere else.

This Thursday, May 28, New North Ventures Co-Founder & GP Jeremy Hitchcock will be speaking at Boston Tech Week on the panel “Future of Dual-Use: What’s Pacing Human-Out-Of-The-Loop Autonomy?” As more founders realize Boston is one of the best places in the country to start and scale frontier technology companies, conversations around autonomy, defense innovation, and national security are becoming central to the region’s next chapter of growth. We hope to see you around Boston this week and reach out if you are a founder building in defense tech.

Where to Build A Defense Start Up

Most founders default to Washington, DC as the place they need to be to build their tech. They think about proximity to Congress, to lobbyists, to the prime contractors with the long institutional foundations. They’re not wrong that DC matters. They’re wrong about how much it matters and when it matters.

Where you build a defense startup is a capital allocation decision. It shapes who you can hire, how fast you can iterate, who will fund you, and how quickly you can get in front of the operators who will actually use what you build. Getting it wrong doesn’t kill you outright, it just adds drag, at every stage, compounding over time.

Here’s our perceived map of where we think are some hubs, while keeping in mind that in today’s day and age, if your technology is great, you can be anywhere and investors will find you.

Los Angeles, CA:

This is where a defense tech renaissance was, over the past two decades, born and where it remains densest in raw industrial terms. Anduril (Costa Mesa), SpaceX (Hawthorne), Impulse Space (Redondo Beach) among others.

The clear connection here is manufacturing gravitas. At least half of all space vehicles and satellites are currently manufactured in El Segundo. The Los Angeles area has decades of aerospace talent, which includes propulsion engineers, systems integrators, manufacturing workers who have seen generations of defense tech pass by before their eyes. They’ve been building defense tech for Northrop, Raytheon and Boeing for years. The result of this is a talent density that’s nearly impossible to replicate.

For founders building in hardware intensive defense domains, to include autonomous systems, propulsion, weapons systems and spacecraft, there is probably no better place. The ecosystem has also produced a network of ex-SpaceX, ex-Palantir, ex-Anduril engineers who are now founders themselves, creating a secondary talent gravity that accelerates startup formation.

NOVA/DC:

Sure, we mentioned DC earlier, and it might’ve felt like we were tossing shade at it but in all realities, it’s the oldest answer in the define startup playbook. For the right type of company, it’s definitely still the answer, it’s just not the only answer anymore. Companies in the NCR have proximity to the Pentagon, the intelligence community, and the defense contracting ecosystem, making it the rational choice when your go-to-market depends on deep government relationships, classified environments, and long acquisition cycles.

The structural advantage is customer density. In DC/NOVA, the program offices that typically decide whether to buy your technology, the contracting officers who execute the deals, and the end users who will actually operate your system can all be reached within a 30 minute drive. That’s a meaningful friction reduction when you’re navigating SBIR applications, STRATFI transitions, or Other Transaction Authority contracts.

What DC does fundamentally lack though is a startup culture. There’s a reluctance to move fast, accept the unknowns and frankly, fail at all. The region’s talent has historically been socialized into the contractor mindset: stable, process-driven, security-conscious. We believe that’s changing, the Pentagon has issued statements saying, in fact, that that must change, but it’s been relatively slow thus far.

Austin, TX:

Austin’s defense tech story runs through one building. Here’s a list of defense acquisition arms that maintain a presence there.

T2COM (formerly known as Army Futures Command), Army Applications Laboratory, AFWERX, NavalX, Defense Innovation Unit, National Security Innovation Network and Joint Defense Innovation Unit.

This is the result of a deliberate DoD strategy, beginning when DIU established its first Austin outpost in 2016, to build a front door to the commercial tech ecosystem outside the Beltway. The primes are now following, hoping to keep their eyes on some of the novel technologies that the defense ecosystem has been boasting about down in Austin. In 2025, BAE Systems announced a $150 million campus expansion in Austin, adding 500 jobs. Oracle launched a defense ecosystem offering cloud infrastructure. The primes are there and there are sure to be more on their way.

Founders here are not socialized into the contractor mindset. The tech ecosystem is populated by builders who want to move fast, and the DoD innovation units that chose Austin specifically want to work with them. Austin’s strength is increasingly in AI, autonomous systems, cybersecurity, and drone technology.

San Diego, CA:

The maritime industry. Look, it’s being talked about daily.

The hubs above have legible narratives and established gravity. But the next tier is worth understanding and in some cases, there’s a structural tailwind that the broader market hasn’t fully priced in yet.

The Navy and Marine Corps have massive installations in San Diego, and that proximity shapes everything from who you can hire (veteran naval officers with domain expertise) to who will take your first meeting (program managers who work a few miles from your office).

The broader ecosystem includes legacy primes like General Atomics and Northrop, which have both been a significant employer of defense engineers in the region for decades, and a growing venture infrastructure that reflects the defense tech boom. Maritime defense, ocean tech, and unmanned surface and undersea vehicle development have found a natural home here.

Boston, MA:

What Boston has is something harder to replicate than the other hubs, and more durable in the long run: the deepest concentration of defense-relevant research institutions in the United States, generating a continuous supply of foundational IP and PhDs that the rest of the places listed in this article cannot match.

MIT Lincoln Laboratory has been the operational core since 1951. It is one of the most productive federally funded defense research institutions and has been the talent factory for the Boston defense ecosystem for seven decades. Since its founding, MIT/LL has spun off more than 100 startup companies.

Boston has become the center of gravity for autonomous maritime defense startups and it’s not just because of the robotics talent pool, though that matters. It’s physical access to operational testing water combined with the proximity to the Navy’s most important undersea warfare institution (NUWC Newport) in the country. HavocAI, a New North Ventures portfolio company currently has three vessel classes in active water testing in Rhode Island: the 38-foot Seahound, the 42-foot Kaikoa, and the 100-foot Atlas multi-mission vessel, all in the waters adjacent to NUWC Newport. That’s not coincidence, it’s deliberate proximity to the customer who will certify and procure the systems.

For founders seeking talent from the most legitimate research institutions in the country, or to partner with some of the most advanced laboratories in the country, there’s no better place. For founders seeking exposure to maritime testing infrastructure, there also may be no better place.

Here are a couple more that could be considered:

Huntsville, Alabama

This defense ecosystem was built up around the redstone arsenal and for decades it operated accordingly, anchoring itself in missile defense and operations. The current administration just announced plans for US Space Command to be headquartered there. That moves a ton of jobs and a Space focus over to Huntsville.

For a defense startup building in missile defense, directed energy, space domain awareness, or any other advanced missile technology, one could argue that there is now no better place in the country to be proximate to the customer.

Colorado Springs, CO

Known as a hub for military operations for some time now, Colorado Springs boasts itself with some serious hubs. USNORTHCOM, NORAD, Ft. Carson, US Space Combat Forces Command, USAFA, just to name a few highly regarded military entities in the Springs. Losing the US Space Command to Huntsville certainly stings but with the deep history that the Colorado Springs corridor has, defense tech, and the need for it aren’t going anywhere.

The Catalyst Campus operates as an accelerator with a direct pipeline to Space Force procurement. Between the young officers coming out of the Air Force Academy with real, genuinely innovative ideas, to the satellite operators and space domain awareness SMEs, this is an excellent opportunity to hire some real defense talent. Companies have and will continue to take advantage of that. The primes are there, with Northrop, Lockheed and L3Harris boasting massive operations but also, you’ve seen companies such as Parsons and Kratos beginning to thrive there as well, leading us to believe the smaller fish will and should be attracted to this area.

So here are a few aspects to consider when you’re looking at places to found your company… and of course whether you have the freedom and resources to relocate should be a primary consideration. But after that, what are you building? Who are you selling to? What stage are you at? Is there a way to similarly scale your technology to the commercial sector in these locations?

Exclusive-Pentagon spars with SpaceX over Starlink price hike during Iran war

The Pentagon and SpaceX are reportedly locked in a dispute over pricing for Starlink satellite communications services supporting U.S. military operations against Iran. SpaceX has sought higher pricing for bandwidth and terminal services being used in the Middle East, arguing that wartime operations create extraordinary demands on the constellation, including unpredictable bandwidth spikes, contested electromagnetic environments, and heightened risks to the satellites themselves. The Pentagon, meanwhile, argues that existing contracts should already account for surge military usage. The dispute highlights a growing tension in modern defense procurement: commercial infrastructure built for civilian markets is increasingly being relied upon for frontline military operations under active conflict conditions.

The broader implication extends far beyond Starlink. For years, the Pentagon embraced commercial technology providers to move faster and reduce costs compared to traditional defense contractors. That model works well in peacetime, but modern conflicts increasingly target the infrastructure layer itself, from satellites and cloud networks to GPS and subsea cables. For venture investors and defense startups, the lesson is becoming clearer: dual-use business models built around shared commercial infrastructure may struggle when national security missions require sovereign control, surge capacity, and resilience under attack. The companies most likely to win long-term defense contracts will be those architected from the start for contested operational environments where the infrastructure itself becomes part of the battle space.

More links to explore:

• Drone Dominance: The Road to the Gauntlet: Phase 2 Qualifier Invitees Announced

• Royal Navy Deploys Mine Hunting Mothership for Potential Hormuz Mission

StarCube: New England Conference of Public Utilities Commissioners

Advanced nuclear is re-entering the New England energy conversation, and at the New England Conference of Public Utilities Commissioners, New North Ventures portfolio company StarCube represented the growing momentum behind small modular reactors and next-generation nuclear innovation in the region. Jeremy Hitchcock joined leaders from NextEra Energy Resources, GE Vernova Hitachi Nuclear Energy, Nuclear Innovation Alliance, and the Massachusetts Executive Office of Energy and Environmental Affairs to discuss how New England will need firm, scalable, carbon-free power to support electrification, AI infrastructure, and industrial growth. The discussion highlighted that SMRs and microreactors are rapidly moving from concept to deployable infrastructure, and that states creating clear regulatory pathways and long-term procurement certainty will be best positioned to attract capital, talent, and energy deployment.

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A blue ocean is forming in RF native infrastructure. The market is stepping down cleanly from institutional validation into early stage opportunity: Hidden Level has become the Series C anchor for passive RF airspace intelligence with its $65M Series C; MatrixSpace and Fortem define the Series B layer with deployable AI radar and counter-UAS infrastructure; and the Series A layer is filling in with companies like AnySignal, Distributed Spectrum, and CX2 across RF infrastructure, signal intelligence, and electronic warfare. The map below lays out that funding stage progression, from Series C validation down to seed stage wedges.

What makes the category interesting is that this is not just “counter-drone.” It is the emergence of a broader RF stack for sensing, spectrum awareness, airspace security, electronic warfare, satellite communications, and critical infrastructure protection. Passive RF collection and airspace awareness are becoming the arteries of modern dual-use infrastructure, with applications across defense, airports, stadiums, power grids, ports, autonomous systems, and space. The deal activity reflects that shift: $20M into MatrixSpace, $25M from Lockheed Martin into Fortem, $24M into AnySignal, $25M into Distributed Spectrum, and $31M into CX2 all point toward a market that is moving from point sensors toward programmable electromagnetic infrastructure.

The company that stands out at the seed layer is Nullspace. Unlike many companies on the map, Nullspace is not another passive RF collector or counter UAS platform. It is building the simulation and design software layer that could sit underneath the entire category. If Hidden Level and its peers represent the visible arteries of RF awareness, Nullspace is closer to the veins and design tissue that let future RF systems be modeled, optimized, programmed, and projected into complex electromagnetic environments. That makes Nullspace interesting as a potential “RF design foundry” for the next generation of antennas, arrays, radar systems, EW payloads, communications networks, and quantum hardware.

NY Firm Opens RF Testing Chamber to Boost Airspace Solutions Production

RF sensing company Hidden Level opened a new state-of-the-art anechoic chamber at its manufacturing campus in East Syracuse, New York, to accelerate the testing and production of its airspace security and counter drone systems. The chamber creates a shielded environment that blocks outside electromagnetic interference and absorbs internal signal reflections, allowing engineers to conduct highly precise, repeatable testing of RF sensing systems used for low-altitude awareness and C-UAS missions. By bringing testing capabilities fully in house, Hidden Level says it can move faster on product development, reduce reliance on third party facilities, and more quickly deliver validated systems to the US military and allied partners. The expansion also reflects broader investment in domestic defense manufacturing and RF infrastructure in Central New York, supported by partnerships with state economic development organizations and manufacturing programs, as the company continues scaling production to meet rising global demand for drone detection and airspace security technologies.

More links to explore:

• Distributed autonomous platform for RF sensing expanded by Aerovironment

Quantum Systems acquires Estonia’s SensusQ

German drone manufacturer Quantum Systems has acquired Estonian AI driven intelligence platform SensusQ, bringing together advanced drone hardware and battlefield intelligence software into a more integrated defense technology stack. SensusQ’s team and operations in Estonia will remain in place, with plans to continue hiring engineers locally. The acquisition follows Quantum Systems’ broader expansion strategy after its major Series C raise in late 2025 and reflects growing demand for combining autonomous ISR platforms with AI powered intelligence analysis tools.

SensusQ, founded in 2020, developed software that fuses data from drones, cyber events, OSINT, sensors, and human intelligence into a unified operational picture for defense and security users. In 2024, New North Ventures participated in SensusQ’s seed financing round, helping support the company’s international growth and product expansion. The company had recently gone through financial restructuring in Estonia before the acquisition, but emerged with renewed momentum as demand for AI-enabled defense software continues to accelerate across Europe and NATO-aligned markets

As Deepfake Content Increases, Companies Fight Back

As deepfake content becomes more sophisticated and widespread, companies are racing to develop tools that can detect and defend against AI generated misinformation, impersonation, and fraud. Deepfakes have exploded from roughly 500,000 examples in 2023 to an estimated 8 million in 2025, creating growing risks for enterprises, governments, and online platforms. Modern deepfake detection now goes beyond text analysis and instead relies on multimodal systems that analyze inconsistencies across video, audio, images, metadata, and behavioral patterns to identify manipulated content.

One of the companies featured is Reality Defender, a New York based deepfake detection platform and portfolio company of New North Ventures. Founded in 2021, the company provides enterprise grade tools to identify synthetic media across audio, video, images, and text through APIs and web applications designed for governments, financial institutions, and large enterprises. Reality Defender previously raised significant venture funding and has continued expanding partnerships and deployments as demand for AI-driven fraud prevention accelerates globally.

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Increased Demand For Innovation In Cislunar Capabilities

Last month, a crew of four astronauts successfully completed a historic journey around the Moon and back. Marking the first time humans have ventured that deep into space since 1972’s Apollo 17 mission, the flight was a true demonstration of America’s bold Space program. On April 1, Reid Wiseman, Victor Glover, Christina Koch, and Jeremy Hansen of the CSA launched from Kennedy Space Center, eventually reaching a record breaking distance of 252,756 miles from Earth and passing within 4,067 miles of the lunar surface. By April 10, they safely splashed down in the Pacific, returning in such great health that all four were able to walk off the recovery ship unassisted.

This was amazing for so many reasons, 54 years later “Still got it” America’s Space Program says like a former college basketball player says when draining a 3. From a defense lens, what’s so interesting is that the U.S. Space Force announced it was standing up a dedicated office to figure out how the military fits into whatever comes next in the Earth-Moon system. The juxtaposition between NASA proving humans can survive the journey, and the Space Force immediately asking who secures it is the story of cislunar right now.

On April 15, at the annual Space Symposium in Colorado Springs, Maj. Gen. Stephen Purdy, the senior advisor to the Secretary of the Air Force for space acquisition, announced the creation of the Cislunar Coordination Office, an acquisition task force whose mission will be to build the roadmaps for acquiring cislunar capabilities. Purdy made explicitly clear that this wouldn’t be an exploratory working group, this would be a collaborative effort to ensure we build out a roadmap for cislunar activity and then begin coordinating with industry.

It’s not surprising that we hear the Department of War going in this direction after President Trump’s executive order Ensuring American Space Superiority in December of 2025. The direction from this executive order establishes that America will have begun constructing the “initial elements of a lunar outpost by 2030” and thereby extends the DOW’s defined area of responsibility through to lunar space.

Although the executive order does not explicitly call for a military base on or around the Moon. What it does is mandate a sustained U.S. architecture, to include transportation, communications, and navigation, which by our estimation, inherently carries security implications.

Here is what most coverage of the Space Force’s cislunar ambitions breezes past: cislunar space is technically challenging in ways that GEO (Geosynchronous Orbit) and LEO (Lower Earth Orbit) are not, and the gap between the Space Force’s current toolset and what cislunar demands is significant. The fundamental issue lies in that the traditional orbital mechanics and toolsets can’t be used in cislunar like they can be in GEO and below. The moon’s gravitational influence starts to play a role once you get to the cislunar regime. The commercial space industry will be needed, and just like the Defense Industrial Base has been tasked with in so many ways before, a new blueprint will need to be created. What companies will dare to be part of such a challenging problem? What companies will dare to deal with such a vast area of responsibility?

Although Artemis II wasn’t a military mission, it changed the overarching strategic calculus by the DOW and specifically the USSF. For five decades, the Moon was inert from a national security standpoint, sure it was scientifically interesting, but militarily, it was irrelevant. As habitats start to form, infrastructure starts to be built, communication and power systems start to exist on or near the moon, there will become a need to monitor, protect, and in a contested scenario, defend them, and that is inherently a Space Force problem.

The Cislunar Coordination Office’s stated intent to partner with industry is significant, and the timing, coming immediately after Artemis II and within months of the December executive order, suggests the government is serious about moving from planning to procurement. They’ll define the capability gaps. They likely won’t be abstract impossibilities, but rather, well-defined and acquirable technology areas.

For investors paying attention to the defense-space intersection, the pattern here rhymes strongly with how SDA developed at proliferated LEO. Early government investment in domain awareness created the acquisition architecture that commercial operators eventually fed into. The companies building cislunar relevant capabilities now are positioning early for what will likely become a meaningful acquisition category by the late 2020s.

The Space Force has 9,000 Guardians. The entire organization could fit in a high school football stadium. It cannot build cislunar alone. The question is not whether the Space Force will be in the Earth-Moon theater, it will, it’s surely established that. The question is whether the companies of the current Defense Industrial Base will move fast enough to matter, because others will and we’ll be on the lookout for them!

Amazon vs. SpaceX: The High-Stakes Battle for Space Internet | WSJ

The race to dominate low Earth orbit (LEO) satellite internet is accelerating, with Amazon attempting to close the massive gap between its satellite initiative and SpaceX’s rapidly expanding Starlink network. Amazon has launched roughly 300 satellites so far for its LEO business, despite being authorized to deploy more than 7,000, while SpaceX has already launched approximately 12,000 Starlink satellites into orbit. LEO satellites, generally operating between about 100 and 1,200 miles above Earth, offer major performance advantages because signals travel shorter distances, resulting in faster internet connectivity for users on the ground. The video also notes that major space assets including the International Space Station and the Hubble Space Telescope operate in LEO, underscoring how strategically important this orbital region has become for both commercial and government activity.

The market opportunity for global broadband connectivity is enormous, with a SpaceX executive previously estimating the addressable market at roughly $1 trillion annually. Still, scaling a LEO network comes with major challenges. Unlike traditional geostationary satellites positioned more than 22,000 miles from Earth, LEO systems require thousands of satellites to provide comparable global coverage. Another challenge is that much of the Earth’s surface is ocean, limiting the number of traditional household customers directly beneath satellites at any given time. As a result, operators are aggressively targeting maritime and aviation customers including container ships, cruise lines, and airlines to maximize network utilization. Investors continue to see strong upside in the sector, with Goldman Sachs projecting the LEO satellite market could grow to approximately $108 billion by 2035, while Starlink is expected to become a major driver of SpaceX’s valuation and anticipated IPO plans.

Tech giants race to build space data centers to power AI boom

As AI demand pushes terrestrial power grids to their limits, major technology companies are increasingly looking to space as the next frontier for compute infrastructure. The article highlights how SpaceX, Google, Nvidia, Amazon, and Meta are exploring space based data centers powered by solar energy. Elon Musk recently predicted orbital data centers could become viable within “two to three years,” using networks of low Earth orbit satellites equipped with GPUs and connected via laser communications to operate as one massive AI compute cluster. The appeal is compelling: solar generation in space can be five to eight times more efficient than on Earth, while the near freezing conditions of space could dramatically reduce cooling costs for energy intensive AI servers.

Early efforts are already underway. Nvidia backed startup Starcloud successfully launched a satellite carrying Nvidia H100 GPUs that is already running Google’s Gemma AI model in orbit, and the company now plans to build a massive 5 gigawatt orbital data center. Meanwhile, Google is developing its “Project SunCatcher” satellite compute network, while Meta recently signed a deal to source up to 1 gigawatt of space generated solar power for AI infrastructure. The urgency is clear: the International Energy Agency projects global data center electricity consumption could reach 950 terawatt hours annually by 2030, equivalent to the output of roughly 120 nuclear power plants. While launch costs, radiation exposure, and space debris remain major hurdles, the article frames orbital compute infrastructure as a serious long term solution to the growing AI energy crisis.

More links to explore:

• The Space Economy: Mapping 86 Companies Across 11 Subsectors

• DIU Projects | Project TitanCore - Modular Data Centers for AI Compute

Havoc Raises $100M Series A to Power the Future of All-Domain Collaborative Autonomy

Havoc AI, a portfolio company of New North Ventures, announced a $100 million Series A round to accelerate the development of its all domain collaborative autonomy platform across maritime, air, and ground systems. The raise brings the company’s total funding to roughly $200 million since 2024 and included participation from major defense and technology investors including Lockheed Martin and SAIC. Havoc’s software enables a single operator to coordinate large fleets of autonomous systems operating together in contested environments, reflecting the growing defense focus on scalable, software defined autonomy.

The company says its autonomy stack already operates across more than 100 platforms and has accumulated over 25,000 hours of autonomous testing and deployments, generating more than 200 billion data points in the process. Havoc has gained particular traction in maritime autonomy through its Rampage autonomous surface vessels, while expanding into broader all domain operations spanning sea, air, and land. The funding comes amid rapidly growing investor and government interest in collaborative autonomy technologies designed to support distributed military operations and resilient logistics in contested environments.

HawkEye 360 Raises $416M in IPO (NYSE: HAWK)

HawkEye 360 raised $416 million in its IPO after pricing 16 million shares at $26 each, the top end of its expected range, giving the company an initial valuation of roughly $2.4 billion. The Virginia based company, which trades under the ticker HAWK, operates more than 30 satellites that collect and analyze radio frequency emissions globally for defense, intelligence, and national security customers. The IPO reflects growing investor appetite for space and defense technology companies, particularly those tied to signals intelligence and geopolitical monitoring.

The company’s stock surged roughly 30% on its NYSE debut, pushing its market value above $3 billion and signaling strong momentum for the broader defense tech and commercial space sectors. HawkEye reported approximately $118 million in 2025 revenue, achieved profitability for the first time, and disclosed a backlog of more than $300 million. Much of its business comes from U.S. government and allied nation contracts, including work supporting maritime tracking, GPS jamming detection, and RF intelligence collection in contested environments. The successful offering is also being viewed as an important bellwether ahead of the highly anticipated SpaceX IPO expected later this year.

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The Strongest Demand Signal in Defense: Inside the Pentagon’s $54B Autonomous Push

Every defense budget cycle has a headline number, some big round figure that gets quoted in press releases and argued over in appropriations hearings. The FY27 budget has one too: $1.5 trillion in total proposed defense spending. Buried inside that number is a single line item that deserves far more attention than it feels like it’s getting. The Defense Autonomous Warfare Group, or better known as DAWG, was allocated $226 million in FY26. In the FY27 request, that number becomes $54.6 billion.

That is a 24,167% increase in a single fiscal year. Not a rounding error. Not a spreadsheet anomaly. A deliberate, historic, structural shift in how the Pentagon intends to fight wars going forward.

For a bit more context: the entire FY25 budget request for the United States Marine Corps was $53.7 billion. DAWG, a program office that stood up less than two years ago, was requested more funding than it costs to run an entire military service for a year. The broader Pentagon drone budget for FY27 is approximately $74 billion, DAWG accounts for roughly 73 cents of every dollar in that envelope.

The budget architecture is worth understanding. Of the $54.6 billion, only $1 billion sits in the standard base defense budget. The remaining $53.6 billion comes from the proposed $350 billion defense reconciliation package, making DAWG alone approximately 15 percent of that entire legislative vehicle. That structure is both a feature (bypassing the slow onboarding of normal appropriations) and a political variable (reconciliation has to pass).

Budget requests are not appropriations, and a number this large, concentrated in a single relatively new program office, will attract scrutiny, if it hasn’t already. This scrutiny will come both from members who think it’s necessary and from those who view it as a politically convenient way to run defense spending outside normal oversight.

The budget numbers are unprecedented. What’s equally significant is the conceptual shift driving them.

In a previous article, we described Army Secretary Dan Driscoll outlining an ambitious vision for rapidly expanding America’s drone capabilities. Central to that goal is a fundamental cultural shift, drones should no longer be treated as accountable equipment signed out of an arms room, but as expendable ammunition consumed in the field. For investors and founders, that reclassification matters: it signals a move toward high volume, low cost, attritable systems rather than expensive long lifecycle platforms.

What this means for the DIB: the DAWG allocation is a flashing green light.

The Pentagon has effectively pre-announced its largest technology priority for the next several budget cycles. The funding request creates a demand signal of extraordinary scale for companies operating in the autonomous systems stack. From airframes and propulsion to the sensors, communications, edge computing, and software layers that make machine swarms militarily effective, the time is now for the DIB to show how we can absorb and distribute such a demand signal.

Here’s the bottom line, this doesn’t just seem like a line item in another tedious bill, this seems more doctrinal. A 24,167% investment increase in one particular capability (or set of capabilities) is how the world’s largest investor signals a strategic pivot that they believe is irreversible.

Whether that bet is right, whether the execution of the DIB can match the ambition of the DOW, and whether Congress will ultimately authorize the full scope of what’s been requested are all legitimate open questions. But the direction that they’d like to head isn’t ambiguous. Whether you are building or investing in autonomous systems, now is the time and the demand is here.

Autonomy To Rule The Seas? Retired Admiral Provides Analysis

In this Defense News interview from the 2026 Sierra Space Conference, retired Admiral James Foggo discusses how autonomy is fundamentally reshaping naval warfare. He argues that unmanned systems, spanning surface vessels, undersea platforms, and aerial assets, are becoming central to how modern navies achieve awareness, deterrence, and operational reach. These systems allow forces to extend sensing and presence across vast maritime areas while reducing risk to sailors in highly contested environments.

Foggo emphasizes that autonomy is no longer experimental or niche, but is actively being integrated into real fleet concepts and operational planning. Advances in artificial intelligence, sensor fusion, and secure communications are accelerating this shift, enabling autonomous platforms to operate with greater independence and coordination. He frames this as a transition from isolated unmanned experimentation to distributed, networked maritime systems that can scale across theaters.

He also highlights that future maritime dominance will depend on a hybrid force structure, where crewed ships and autonomous systems operate together as a cohesive network. In this model, speed of decision making, data advantage, and the ability to deploy large numbers of low cost autonomous assets will matter as much as traditional platform capability. Foggo suggests that navies that fail to adapt to this shift risk losing both operational tempo and strategic advantage in future conflicts.

Eyewitness to war: Ukraine’s DIY drones defy Russian jamming

Ukraine’s war effort has rapidly turned into a large scale experiment in decentralized, “DIY” drone warfare, where inexpensive, rapidly assembled systems are reshaping frontline combat. The article highlights how Ukraine’s ecosystem blends civilian engineers, small workshops, and commercial components to build FPV and reconnaissance drones at scale, enabling continuous adaptation under battlefield pressure. These systems are widely used for surveillance, artillery spotting, and direct strikes, giving Ukrainian forces persistent visibility over Russian positions while keeping costs extremely low.

A key theme is that Ukraine’s advantage comes less from any single platform and more from its speed of iteration. Because components are widely available and production is distributed, designs can be modified and re-deployed quickly in response to Russian electronic warfare and jamming. This creates a constant cycle of adaptation on both sides, with each new countermeasure quickly followed by a workaround, especially in areas like frequency hopping, fiber optic links, and low cost FPV deployments.

Overall, the conflict is an accelerating technological arms race in which electronic warfare and drone innovation are tightly intertwined. Rather than a decisive breakthrough in autonomy or mass production, the battlefield is defined by continuous improvisation, with Ukraine’s open, flexible production model allowing it to sustain rapid innovation even under intense attrition and pressure.

More links to explore:

• Working To Automate Nuclear Plant Operations

• US Partnership Aligns Drone Innovation for National Security

Reality Defender Targets Enterprise Demand for Deepfake Incident Response Framework

Reality Defender is positioning itself as an early leader in enterprise deepfake security by launching a Deepfake Incident Response Playbook, a structured, four tier framework that helps organizations detect, contain, and respond to synthetic media threats embedded in everyday workflows. The company is moving beyond pure detection to operationalizing deepfake risk inside security teams, particularly around high risk vectors like identity verification and executive impersonation.

This highlights the growing enterprise demand for these capabilities as deepfakes increasingly target core business processes. For investors, this positions Reality Defender to benefit from rising cybersecurity spend in AI-driven threats, with potential upside from deeper integration into security stacks, stronger enterprise adoption, and pricing power in a rapidly emerging category.

The American Hawkeye 360 intends to increase its value to $2.4 billion as part of the IPO

HawkEye 360 is preparing for an IPO that could value the company at up to $2.4 billion, with plans to raise around $400 million by offering shares expected to be priced at $24–$26 per share. The company operates a constellation of satellites that collect and analyze radio frequency data, serving U.S. government and allied defense customers.

The planned listing reflects strong growth and rising demand for space based intelligence, as governments increase investment in defense and monitoring capabilities. HawkEye 360 is aiming to capitalize on improving IPO market conditions and growing investor interest in national security and space tech companies.

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How New North Ventures Builds Companies from Zero to One

Some companies start with an idea.
Others start with a founder.
The best ones start with both — and the right environment to grow.

At New North Ventures, company incubation is not a formula. It is a craft.

Every company we build begins differently. Sometimes we identify a problem set with clear commercial and government scale and then go find the right entrepreneurial talent to tackle it. Other times, a uniquely qualified founder comes to us with an insight born from years of experience inside government, the intelligence community, or a deeply specialized industry. From there, we help shape the founding team, pressure test the approach, and build the roots of the business from the ground up.

What remains constant is our conviction around three things: talent, approach, and support.

The earliest days of a company are often the most fragile. There is no roadmap, no operating manual, and no guarantee that the first version of the idea is the one that ultimately scales. That is where incubation matters most.

At New North, being the first institutional check is only the beginning. We work closely with founders every week, advising on strategy, opening our network, making introductions to early customers, investors, and partners, and helping them navigate the zero-to-one journey with momentum.

The art is not in building companies the same way.
The art is knowing how each company needs to be built differently.

The New North Incubation Philosophy

The core of incubation is not capital. It is conviction.

We believe that the best businesses often emerge from people who have lived the problem firsthand, operators who have spent years inside critical systems, mission environments, and complex industries.

Most often, these founders are former intelligence community leaders, government operators, or experts who have built experience over decades in highly niche sectors. They see a demand inside government that also has the ability to scale commercially. This intersection is where extraordinary companies can be born.

Our role is to help turn expertise into enterprise.

That means:

• finding exceptional talent

• pairing founders with complementary teammates

• refining the approach to solving the problem

• helping create the first support network around the company

• bringing the first customers, capital, and strategic partners to the table

No two formation stories look the same and that is exactly the point.

From Zero to One: Three Incubation Stories

Across two funds, New North Ventures has incubated companies that span cyber defense, critical infrastructure, and founder ecosystem enablement.

Below is a deeper look at three of those journeys.

1) CrunchAtlas

From elite cyber operators to autonomous defense at scale

Founded: 2024

CrunchAtlas began with talent.

New North first met the founding team through a SkillBridge program, where it quickly became clear that they were not just technologists, they were operators.

Former cyber professionals from the U.S. government, the team had spent their careers working at the front lines of real world cyber threats. Their expertise had been developed in mission critical environments where speed, accuracy, and resilience were non-negotiable.

The insight was immediate: this capability needed to exist at commercial scale. That realization became CrunchAtlas.

The company is building an AI-native autonomous cyber defense platform designed to detect, hunt, triage, and remediate threats in air-gapped and critical infrastructure environments.

What makes this incubation story compelling is the clarity of founder market fit.

The founders had lived the problem for years. They understood how adversaries were evolving faster than traditional enterprise defense systems and saw firsthand that human speed workflows were no longer enough.

New North helped support:

• early company formation

• go-to-market strategy

• first customer introductions

• first institutional capital pathways

• ecosystem partnerships across defense and infrastructure

This is incubation at its best: operator insight transformed into venture scale opportunity.

2) StarCube

MODULAR, FACTORY BUILT MICROREACTORS PROVIDING POWER AT THE EDGE

Founded: 2023

Some companies are built to improve markets. Others are built to reshape them.

StarCube was founded with a vision to solve one of the most pressing global challenges: energy scarcity and resilient power generation.

The company is developing agile nuclear microreactors that are modular, factory built systems designed to deliver reliable energy at the edge.

This is the kind of company that requires an unusual appetite for risk.

Massive upside.

Massive complexity.

Massive regulatory burden.

And yet, these are often the companies that define decades.

The thesis is straightforward: the world is entering an era where power demand, driven by AI, data centers, industrial infrastructure, and defense systems is accelerating faster than legacy energy systems can respond.

StarCube is pursuing a solution built for scale.

This incubation process has required:

• long-horizon strategic thinking

• regulatory navigation

• financing and infrastructure planning

• ecosystem credibility building

• founder support through a deeply technical build cycle

Great incubation requires the willingness to underwrite hard things.

StarCube represents exactly that.

3) Pitchfire

Building the connective tissue between founders and capital

Founded: 2025

Pitchfire’s story starts with people.

The CEO came from the General Partner’s prior company building network, a reminder that talent networks are often the single greatest asset in incubation.

Here, the conviction was centered on the founder.

The belief was simple: the right leader with the right network could build a platform that meaningfully improves how founders connect with investors.

In venture, access compounds.

The ability to create trusted pathways between builders and capital providers can dramatically accelerate adoption and scale.

Pitchfire was incubated around that belief.

New North helped the company shape:

• its initial market positioning

• early network effects

• strategic partnerships

• first investor and founder relationships

• GTM traction

This is a company built around the power of relationships and trust at scale.

What Makes Great Incubation

At its core, great incubation is about people and patience.

It is the ability to recognize exceptional talent early.

It is the willingness to take risks before consensus forms.

It is the flexibility to allow each company to grow organically in its own way.

And most importantly, it is the commitment to stay alongside the founder.

We meet with our incubated companies every week.

We advise them.

We share networks.

We help them find first customers, first partners, and first believers.

Because the earliest stage is rarely linear.

The companies that endure are not always the ones with the perfect first idea.

They are the ones with the right people, the right support system, and the conviction to keep building.

At New North Ventures, that is what we aim to provide.

Capital is the first check.
Conviction is everything that comes after.

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Ukraine Moves to Replace Frontline Soldiers With 25,000 Ground Robots

Ukraine is rapidly scaling the automation of frontline operations, announcing plans to contract 25,000 ground robotic systems in the first half of 2026 alone. This is more than double the total procured in all of 2025. The stated goal from Defense Minister Mykhailo Fedorov is striking: 100% of frontline logistics to be handled by robotic systems, replacing soldiers in some of the most dangerous battlefield tasks.

The pace of adoption is already accelerating. Ukrainian forces executed more than 9,000 logistics and evacuation missions using ground robots in March alone, bringing the Q1 total to roughly 21,500 missions. These unmanned ground systems are now being used for supply transport, casualty evacuation, mine clearing, and combat support, helping reduce troop exposure amid continued manpower constraints. The ecosystem behind this shift has also expanded rapidly, with more than 280 companies and over 550 active robotic solutions supporting the effort.

This is no longer experimental technology, it is becoming operational doctrine. Ukraine has already reported what it describes as the first confirmed capture of a Russian position using only unmanned systems, without infantry involvement or losses, underscoring how quickly autonomous systems are moving from support roles into direct battlefield execution. The broader implication is clear: modern warfare is increasingly being defined by scalable, low cost autonomous systems that preserve human capital while expanding operational reach.

Terra Industries to build Africa’s largest drone factory in Ghana

Terra Industries is making a major bet on sovereign defense manufacturing in Africa, announcing plans to build the continent’s largest drone factory in Accra, Ghana. The new 34,000 sqft facility, Pax-2, is more than double the size of its existing Abuja plant and is expected to be operational by June 2026. Backed by a recent $34M capital raise, the factory is projected to scale to 50,000 aerial systems annually by 2028, spanning surveillance drones, tactical UAVs, and high speed interceptor systems designed for counter drone defense.

The bigger signal is strategic: autonomous systems manufacturing is becoming a regional industrial priority, not just a startup milestone. Terra’s expansion reflects growing demand for locally produced defense and security infrastructure across the continent, particularly as drone warfare and infrastructure protection become more urgent across the Sahel and sub-Saharan Africa. The company says the new site will create 120 engineering jobs in Ghana, reinforcing that this is as much an industrial capacity story as it is a defense tech story. For investors and operators, the takeaway is clear: the global momentum behind scalable autonomous systems is no longer concentrated in the U.S., Europe, and Ukraine. New regional defense primes are emerging with manufacturing scale.

Introducing Saildrone Spectre: Next-generation USV for Anti-submarine Warfare and VLS Strike

Saildrone’s unveiling of Spectre, a 170ft unmanned surface vessel, marks a major leap in the militarization of autonomous maritime systems. Built for anti-submarine warfare, persistent ISR, and vertical launch strike missions, Spectre is the company’s largest and most capable platform to date, capable of speeds up to 30 knots, a range of 3,280 nautical miles, and payload capacity of roughly 55,000 pounds. Two variants underscore the flexibility of autonomy at sea: Silent Endurance, optimized for ultra quiet anti-submarine missions, and Stealth Strike, designed for higher speed, low profile kinetic operations.

The strategic significance is far bigger than a single platform. This is a clear signal that persistent unmanned autonomy is becoming core naval doctrine, not an experimental edge capability. Traditional warships are capital intensive, manpower heavy, and episodic in presence; autonomous vessels like Spectre enable continuous, distributed maritime operations at scale, keeping sensors, weapons, and decision support systems on station for far longer and with far less risk to personnel. In an era increasingly defined by contested waterways, submarine threats, and undersea infrastructure protection, unmanned maritime autonomy is emerging as one of the most important force multipliers in modern defense.

More links to explore:

• US firm’s autonomous electronic warfare tech can detect, neutralize threats in real time

• American shipyard moves to become seapower integrator

Beacon AI Snags $50M USSOCOM Aviation AI Contract

New North Ventures portfolio company Beacon AI secured a roughly $50M, four year contract with U.S. Special Operations Command to deploy its aviation AI pilot assistance platform across SOCOM and Air Force Special Operations Command aircraft fleets. The system acts as an in-cockpit AI assistant that ingests real time data like weather, routing, and mission inputs to reduce pilot workload, improve decision making, and enhance safety during high stress operations. The deal also includes a pathway to production deployment if performance targets are met and will initially focus on large mobility and transport aircraft such as tankers and cargo planes.

Leidos, Havoc integrate capabilities to advance maritime and air autonomy

Havoc AI, a New North Ventures portfolio company recently announced a partnership with Leidos to integrate their unmanned systems and collaborative autonomy software across maritime and air platforms, starting with Leidos’ Sea Archer vessel. The goal is to enable a single operator to coordinate fleets of autonomous surface and aerial systems acting together across contested, communications degraded environments. The companies plan a large scale operational demonstration in Q4 2026, showcasing how tightly integrated AI driven autonomy can accelerate deployment timelines, improve coordination, and support multi-domain missions spanning air, surface, and sub surface operations.

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HawkEye 360 Files for IPO

New North Ventures portfolio company HawkEye 360 has officially filed its S-1, marking a major milestone not just for the company, but for the broader defense tech ecosystem. The company, a pioneer in RF geospatial intelligence, has built a category defining platform that tracks and analyzes radio frequency signals from space, serving both government and commercial customers. This filing represents one of the clearest signals yet that dual-use companies can scale into public market ready businesses while maintaining deep ties to national security missions.

From an early-stage investor standpoint, this moment matters. For years, the biggest question around defense tech has been: what are the exits? HawkEye 360’s IPO trajectory helps answer that. It demonstrates that companies rooted in government demand, historically seen as slow, bureaucratic, or non-scalable, can in fact build durable, high growth businesses with diversified revenue streams. It also reinforces that technical moats in areas like space based sensing and data analytics are both defensible and valuable in public markets.

More broadly, this fits into a growing trend. Over the past few years, we’ve seen a steady drumbeat of defense and dual-use companies access the public markets, either through traditional IPOs or alternative paths. The signal to founders and investors is clear: the pathway from early stage innovation to liquidity is becoming more defined. This has the potential to unlock more capital and talent in the sector.

HawkEye 360

| Founded 2015 | Space Based RF Geospatial Intelligence | ~200+ Employees |

What they do

• Operates 30+ satellites that detect and geolocate radio frequency signals such as radars, jammers, satellite phones and ship transponders

• First commercialized space based SIGINT platform; meaningfully differentiated from imagery focused players like Planet or BlackSky

• Business model: data-as-a-service (subscriptions + analytics) with high gross margins on unclassified work products

• Capex intensity is decreasing as the constellation matures; targeting 30–40% YoY growth while maintaining profitability

Revenue mix:

U.S. Government (~50%)

• Customers include NGA, NRO, CIA, and combatant commands

• Short sales cycles, sometimes hours to get on contract

• Shorter contract terms; high volume of engagements

International (~50%)

• Allied nations across dozens of countries

• Longer sales cycles due to ITAR/FMS process, but stickier relationships and premium pricing

• $131M FMS deal with India for maritime domain awareness is a flagship example

Financing

• Series E at ~$2B valuation - $150M+ round co-led by NightDragon and Center15 Capital

• $173M total raised

• Revenue trajectory: $30.5M (2022) → $67.6M (2024) → $117.7M (2025)
  

  Sources: Pitchbook, S-1

Why it matters

• First company to operationalize large scale RF signal mapping from space at commercial scale

• Addresses a capability gap no imagery satellite can fill: signal detection vs. visual observation

• Crossed into profitability with a $303M backlog representing 6× growth

SBIR & STTR Reauthorization

Momentum is building around the signed reauthorization of the SBIR/STTR programs, one of the most important funding pipelines for early stage deep tech and defense startups. The program, which allocates billions annually across federal agencies, has long served as a non-dilutive bridge between research and commercialization. Recent commentary from policymakers emphasizes not just renewal, but modernization to ensure the program remains competitive in a rapidly evolving innovation landscape.

The data underscores its importance: SBIR/STTR collectively deploys over $4 billion per year into small businesses, often serving as the first institutional capital a startup receives. Increasingly, these dollars are flowing into dual-use technologies in AI, autonomy, space, advanced manufacturing that align with national security priorities. Reauthorization provides continuity, but the real opportunity lies in improving transition rates from Phase I/II funding into procurement and scaled deployment.

The Evolution of Modern Weapon Systems

The timeline of modern military systems highlights both strength and inertia. Many of today’s core platforms such as bombers, fighters, and transport aircraft were originally designed decades ago and have been continuously upgraded to stay relevant. That longevity speaks to incredible engineering, but it also masks how slowly entirely new systems have been fielded.

Recent commentary from defense leaders underscores a growing realization: in a world of peer competition, electronic warfare and autonomous systems, iteration speed matters as much as capability. The challenge isn’t that the U.S. lacks advanced tech, it’s that adversaries are moving faster, deploying newer systems, with compressed timelines and in ways that traditional acquisition hasn’t kept pace with.

What’s changing now is the shift toward speed as a core advantage. Autonomous systems, software defined platforms, and modular architectures are enabling faster deployment and continuous upgrades. The future isn’t about replacing every legacy system overnight, it’s about building a force that can adapt in real time, with innovation cycles measured in months, not decades (Timeline by Pete Modigliani).

More links to explore:

• SpaceX isn’t the only defense tech IPO that VCs should care about

• After Swarmer’s Soaring Debut, Here Are 12 Other Potential Defense Tech IPOs

Auriga Space charges up the launch game

Auriga Space is pushing forward on a critical bottleneck in the space economy: responsive and flexible launch infrastructure. The company is developing mobile launch capabilities designed to increase cadence and reduce dependency on fixed launch sites. This is an increasingly important factor as demand for satellite deployment continues to rise.

Recent progress highlights growing momentum behind this model. As governments and commercial players alike seek more resilient space architectures, the ability to launch quickly, from multiple locations, becomes a strategic advantage. Auriga is positioning itself squarely at that intersection, helping enable a more dynamic and responsive space ecosystem.

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The special edition of this weeks newsletter dives into New England and why it is a hidden gem for dual-use investing, company building and early stage innovation. Elite universities like MIT, Harvard, and WPI are churning out talent and spinning out companies, while accelerators and defense focused investors are ready to back them. The coastline and maritime testing grounds, anchored by assets like NUWC Newport, give hardware heavy technologies a rare place to prove themselves in real operational environments. Nowhere else can you go from lab bench to open water prototype with this much infrastructure, talent, and institutional firepower packed into one region.

MIT Lincoln Laboratory laser communications terminal launches on historic Artemis II Moon mission

NASA’s Artemis II mission is pushing the boundaries of how we communicate in space, this time with cutting edge laser technology designed to transmit data faster and more efficiently than ever before. At the center of this breakthrough is research coming out of Massachusetts Institute of Technology (MIT), where engineers are developing advanced optical communication systems that could dramatically improve how spacecraft send information back to Earth. Compared to traditional radio signals, laser based systems offer significantly higher data rates, enabling clearer images, faster transmission, and more robust deep space connectivity.

What makes this even more compelling is how close to home this innovation really is. With NASA partnering alongside leading institutions in New England, the region continues to cement itself as a hub for frontier technology with real national and global impact. From space exploration to dual-use innovation, the same ecosystem driving breakthroughs in orbit is also shaping the next generation of defense and commercial technologies right here in our backyard.

MRECo Develops Two Marine Energy Test Sites in Massachusetts

The Marine Renewable Energy Collaborative of New England is expanding critical infrastructure to accelerate the development of ocean based energy technologies, with two new testing sites in Massachusetts. Located in the Cape Cod Canal and off Cuttyhunk Island, these sites are designed to give startups and researchers a real world environment to test tidal, wave, and marine sensor technologies. With built in access to power, data, and monitoring systems, the facilities aim to make testing faster, safer, and more commercially viable.

What stands out is that this innovation ecosystem is being built right here in New England. Backed by initiatives like the Massachusetts Clean Energy Center’s Ocean Innovation Network, these efforts are positioning the region as a national leader in ocean tech and clean energy commercialization. For founders and investors alike, it’s another example of how New England continues to turn deep technical research into real world deployment opportunities.

New England governors announce joint support for nuclear energy

Governors across all six New England states have announced a coordinated push to support the future of nuclear energy, signaling a major regional shift in how the grid will be powered over the coming decades. In a bipartisan agreement, state leaders committed to both maintaining existing nuclear facilities, like Seabrook in New Hampshire, and exploring next generation reactor technologies to meet rising electricity demand, which is projected to grow more than 40% in the region.

The effort goes beyond policy signaling, it lays the groundwork for deployment. Governors are directing state energy agencies to evaluate advanced nuclear technologies, financing models, and public-private partnerships, while ensuring local communities play a central role in siting decisions. For New England, this is happening right in our backyard: a coordinated, multi-state approach to energy resilience that positions the region as a leader in next generation nuclear, grid reliability, and long term economic growth.

More links to explore:

• 2026 Northeast National Security Conference

• BasisTech Demo Day April 2026

• MassChallenge NATO DIANA Cohort - Boston MA

• Shout out to the team behind the Harvard / MIT 2026 Technology and National Security Conference for putting on another incredible event last weekend!

Pitchfire, based in New Hampshire and incubated within New North Ventures, has now launched into market! The team is in the process of onboarding investors that are looking to streamline their workflow from deal intake through investment. This platform allows VC funds to automate their deck ingest, analysis and decision making for due diligence on companies. Reach out if you would like to set up a demo and explore the platform!

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NASA is set to launch Artemis II on April 1, marking the first crewed mission to the Moon’s vicinity in over 50 years and a defining moment in the next era of space exploration. The mission will send four astronauts aboard the Orion spacecraft on a ~10 day journey, launching atop the Space Launch System (SLS) from Kennedy Space Center. This milestone builds on the successful uncrewed Artemis I test and represents a major validation of deep space human flight capabilities at a time when geopolitical competition in space is accelerating.

Unlike the Apollo-era landings, Artemis II is designed as a systems validation mission. Rather than a touchdown it will execute a lunar flyby using a “free-return” trajectory around the Moon before returning to Earth. The mission will test critical infrastructure including life support, propulsion, communications, and heat shield performance during high speed reentry. These capabilities are essential for sustained lunar operations and future Mars missions. It also carries symbolic weight, with the first woman, first Black astronaut, and first Canadian traveling this far into deep space.

For defense tech investors, Artemis II underscores the growing strategic importance of space as both a commercial frontier and a national security domain. The program is catalyzing investment across launch systems, in-space logistics, communications, and dual-use infrastructure, while reinforcing public-private partnerships with primes. As the U.S. pushes toward a sustained lunar presence and cislunar economy, Artemis is not just a scientific mission, it’s a signal that space is rapidly becoming a core theater for technological advantage and geopolitical competition.

Seattle startup Starcloud hits $1.1B valuation to build space-based data centers

A couple weeks ago, we highlighted the rise of defense tech unicorns. Now, as space takes center stage, it’s worth adding a new name to that list that could serve both private and public customers: Starcloud.

The Seattle area startup has rapidly reached a $1.1B valuation after raising $170M, becoming one of the fastest companies in Y Combinator history to hit unicorn status. Its core thesis is bold: build solar powered data centers in orbit to meet the explosive demand for AI compute, leveraging abundant energy in space and avoiding terrestrial constraints like power, land, and cooling. Early demonstrations, including launching satellites equipped with advanced GPUs, signal that in-space computing is moving from concept to reality.

For investors, Starcloud reflects a broader shift where AI infrastructure, energy, and space are converging into a new strategic frontier. With plans for massive satellite constellations and partnerships across major tech players, orbital compute could redefine how and where data is processed, especially for defense, intelligence, and latency sensitive applications. While technical and cost hurdles remain, the speed of capital formation and ambition in this category suggest that space-based infrastructure is quickly moving from edge case to core investment theme.

China Advances Space Servicing with Robotic Refueling Breakthrough

China’s recent progress in orbital servicing highlights a rapidly maturing capability that could reshape how space assets are operated and sustained. Chinese researchers have tested robotic systems designed for on-orbit refueling, using flexible robotic arms and autonomous docking techniques to simulate fuel transfer and spacecraft servicing in orbit. These systems are aimed at extending satellite lifespans, reducing replacement costs, and enabling more persistent infrastructure in space, from navigation and communications satellites to potential deep space assets.

The strategic significance of this development goes well beyond engineering. On orbit refueling and servicing are foundational to building a truly scalable space economy, where spacecraft can be repaired, upgraded, and refueled rather than discarded. If China operationalizes these capabilities at scale, it would materially shift the balance of endurance, cost efficiency, and operational tempo in space. That is why continued U.S. leadership in space innovation is critical: control over in orbit servicing, logistics, and infrastructure will define not just commercial advantage, but also military and intelligence superiority in an era where space is becoming a contested domain alongside land, sea, air, and cyber.

More links to explore:

• Navy creating new marketplace for maritime drones as it looks to ‘surge capacity’ for Golden Fleet

• Air Force Seeks Suppliers to Deliver on Nuclear Micro-Reactor Goals

Psionic and Gambit have announced a strategic partnership to advance resilient collaborative autonomy. This capability is aimed at enabling groups of autonomous systems, such as drones, ground vehicles, and distributed sensors, to operate together as coordinated, intelligent networks. The collaboration focuses on integrating Psionic’s precision sensing and timing technologies with Gambit’s multi-agent autonomy software to improve how machines perceive, communicate, and execute missions in contested or degraded environments. The goal is to reduce reliance on constant human control by enabling systems to self-coordinate in real time while maintaining reliability, security, and mission resilience.

For defense and dual-use markets, the partnership reflects a broader shift toward networked autonomy as a force multiplier, where individual platforms are less important than the collective behavior of systems working together. By improving synchronization and decision making across distributed assets, the technology supports applications ranging from contested logistics and ISR (intelligence, surveillance, reconnaissance) to first responder and defense operations. The emphasis on resilience is especially important in environments where electronic warfare, jamming, or communications disruption can degrade traditional command-and-control structures.

HawkEye 360 has announced the formation of its first International Advisory Board, designed to deepen its engagement with allied governments and strengthen its role in supporting global security missions. The board will provide strategic insight into regional defense priorities and operational needs across key international theaters, helping the company better align its commercial signals intelligence capabilities with the requirements of U.S. allies. It will be chaired by veteran national security leader Richard A. Clarke and include senior figures such as Kurt M. Campbell and Rear Admiral Mark Montgomery (ret.), reflecting a strong focus on diplomacy, defense strategy, and intelligence cooperation.

More broadly, the move underscores HawkEye 360’s positioning as a key provider of space based RF intelligence used for maritime, air, and land domain awareness. Company leadership emphasized that the advisory board will help strengthen collaboration with allied partners as demand grows for persistent, space enabled monitoring of the electromagnetic spectrum. The initiative reflects a wider industry trend. As geopolitical competition intensifies, commercial space sensing and intelligence firms are increasingly being integrated into national security architectures to improve decision making speed and situational awareness.

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FAA seeks input on drone integration at airports

The Federal Aviation Administration is stepping up efforts to integrate drones (unmanned aircraft systems, or UAS) into airport environments, one of the most complex and high stakes areas of the national airspace.

At a high level, the FAA is actively gathering input from airports, drone operators, manufacturers, and other stakeholders to better understand how drones are currently being used in and around airports, as well as what infrastructure and standards are still needed. This includes exploring concepts like “droneports” (dedicated areas for drone operations), new design requirements, and how existing airport layouts may need to evolve to safely accommodate both manned and unmanned aircraft.

A central challenge is safety and coordination. Airports are already tightly managed environments, and introducing drones adds complexity around collision avoidance, airspace management, and operational procedures. The FAA is using this research to inform future policy, guidance, and potentially formal standards to ensure drones can operate alongside traditional aviation without increasing risk.

Zooming out, this effort reflects a broader push by the FAA to modernize the airspace system and enable more advanced drone operations, including beyond visual line of sight flights and scaled commercial use. But progress remains iterative: the agency is balancing innovation with its core mandate of safety, meaning integration will likely continue to roll out gradually as technologies, regulations, and infrastructure mature.

Are you an aviation stakeholder? ( e.g., airport/droneport operator, private entity, original equipment manufacturer, unmanned aircraft system (UAS) industry vendor, academia, representatives of the military, etc.) You can send written comments and recommendations for the proposed information collection. More information on where to address your comments to HERE.

No Magnets, No Drones: China’s Strategy for Shaping Tomorrow’s Battlefield

Modern warfare is increasingly defined by drones, but beneath that shift lies a largely overlooked dependency: rare earth magnets. These components are essential for drone motors, missile guidance systems, and other advanced defense technologies, yet roughly 90–95% of global processing capacity is controlled by China. As a result, even Western and Ukrainian defense systems rely heavily on Chinese sourced materials, creating a critical supply chain vulnerability that could be exploited geopolitically.

This dependency is becoming more urgent as drone usage scales rapidly. Ukraine alone has produced over a million drones annually, with drones accounting for the majority of frontline strikes. In response, the U.S. is moving to ban Chinese origin rare earth materials in defense systems by 2027, accelerating the need for domestic alternatives. Companies like REalloys are positioning themselves to fill this gap by building end t -end, China independent supply chains for rare earth processing and magnet production. The broader takeaway: control over upstream materials may ultimately determine military advantage in the next generation of conflict.

Inside the high-stakes US defence system tracking Iran missiles and drones

The U.S. Department of Defense is relying on a highly coordinated, multi layered defense network to detect and track Iranian missiles and drones in real time, reflecting the growing intensity of threats across the Middle East. The system begins in space, where infrared satellites identify missile launches within seconds, before handing off to ground based radars that track trajectories and predict impact points. This data is then shared across a distributed network that includes naval vessels, airborne surveillance platforms, and regional command centers, creating a continuous, integrated picture of the battlespace designed to enable rapid interception and response.

However, this system is under increasing strain as threats evolve particularly from low cost Iranian drones, which are harder to detect due to their low heat signatures, small size, and ability to fly at low altitudes. Recent strikes on key radar infrastructure have further exposed vulnerabilities, forcing the U.S. to shift and reinforce coverage with mobile assets like ships and aircraft. The broader takeaway: while the U.S. maintains a technological edge in missile detection and tracking, the rise of cheaper, harder to detect drone swarms is challenging traditional defense architectures and forcing a rapid adaptation toward more flexible, resilient systems.

More links to explore:

• Jeff Bezos reportedly wants $100 billion to buy and transform old manufacturing firms with AI

• Companies Set to Win as States Vie to Host Nuclear Campuses

Link Labs Assets Now Tracked Globally Through Hubble Network

Hubble Network announced it can now track Link Labs’ assets globally using its Bluetooth-based network. It leverages over 90 million terrestrial Bluetooth gateways plus emerging satellite connectivity to extend coverage into remote areas.

Together, this enables near-global tracking of Bluetooth-enabled devices without relying on GPS or cellular service, improving visibility for logistics and asset monitoring worldwide.

Founded in 2021, Hubble Network operates a global network of more than 90 million terrestrial Bluetooth® gateways, with satellite connectivity expanding coverage to remote and off-grid environments. For more information, visit hubble.com.

UND Signs Memo of Understanding to Advance Hypersonics, other Technologies

University of North Dakota has signed a Memorandum of Understanding (MOU) with Auriga Space to collaborate on advancing electromagnetic launch technologies for national security applications. The partnership focuses on using Auriga’s electric, magnetically driven launch system, an alternative to chemical rockets, to support research and development in hypersonics, counter unmanned aerial systems (counter-UAS), and space related missions.

Auriga Space develops electromagnetic launch systems that accelerate payloads using linear electric motor technology rather than traditional rocket propulsion. The company’s approach enables low cost, repeatable, high cadence launch capabilities that could improve hypersonic testing and enable more rapid space access. Through the MOU, UND and Auriga will explore how this technology can be integrated into broader defense and research efforts, leveraging UND’s existing strengths in aerospace and national security programs.

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The defense tech ecosystem continues to mature and we developed this chart to make it clear just how far it’s come. With the most recent addition of Defense Unicorns to the list in January 2026, the U.S. now has a deep and diverse bench of $1B+ defense companies spanning AI, autonomy, manufacturing, and space. What was once a fragmented category is now a real market with density, repeat founders, and increasingly clear platform winners.

What’s notable isn’t just the number of companies, it’s the convergence. Players like Palantir Technologies and Scale AI define the AI/data layer, while Anduril Industries, Shield AI, and Skydio push autonomy forward. Meanwhile, companies like SpaceX and HawkEye 360 anchor the space and intel layer. This stack is starting to look less like a collection of startups and more like the foundation of a new defense industrial base.

For early stage investors, this landscape is more than a scoreboard, it’s a signal map. These unicorns show where real demand exists inside the Department of War and where budgets are actually getting deployed. Just as importantly, they represent the next generation of acquirers. Tracking what these companies prioritize, whether it’s AI infrastructure, edge compute, autonomy, or manufacturing, offers a forward looking view into M&A pathways and platform consolidation.

The takeaway: pay attention to this layer. Founders should build toward it. Investors should underwrite against it. And as each new company crosses the $1B threshold, it’s worth recognizing, not just as a milestone, but as another node strengthening the defense innovation ecosystem.

Nvidia announces Vera Rubin Space-1 chip system for orbital AI data centers

Nvidia’s latest push into orbital computing signals that space is no longer just a sensing layer, it’s becoming a compute layer. At its GTC event, CEO Jensen Huang unveiled space ready AI chips and systems designed to power data centers in orbit, with dramatically higher performance for in space inference and autonomous operations. The move builds on early proof points already happening: Nvidia powered satellites have successfully run and even trained AI models in orbit, demonstrating that “data center class” compute can operate off world. Together, this marks a shift from simply collecting data in space and sending it to Earth, to processing it directly in orbit.

This unlocks space data centers as a fundamentally new domain because it breaks the core bottlenecks of terrestrial AI infrastructure: energy, latency, and scale. Space offers effectively unlimited solar power and natural cooling dynamics, while enabling real time processing of satellite data without the need to downlink massive datasets. Just as importantly, it creates a new layer of infrastructure for autonomous systems where satellites, drones, and other edge assets can plug into orbital compute as part of a distributed “space cloud.” In that sense, Nvidia isn’t just launching chips, it’s helping define a new strategic domain where compute itself becomes geographically decoupled from Earth, with implications across defense, communications, and global AI competition.

New Space Force acquisition portfolios include space control, orbital warfare

The U.S. Space Force has finalized its mission focused acquisition portfolio structure under the Pentagon’s broader acquisition reform initiative, officially establishing offices dedicated to key warfighting domains as part of its acquisition modernization effort. Tom Ainsworth, performing the duties of the Air Force assistant secretary for Space Acquisition and Integration, announced that of the seven planned portfolio acquisition executive (PAE) offices, four are now formally stood up. These PAEs are designed to better align space acquisition with operational priorities, from sensing and targeting to communications and missile tracking. This enables joint data networks, battle management, and integrated cislunar capabilities through close cooperation with agencies like NASA and the Air Force Research Laboratory.

Four established Space Force PAEs:

• Missile Warning and Tracking – manages constellations across all orbital regimes.

• Infrastructure – responsible for data management, training/test capabilities, and personnel systems.

• Battle Management, Command & Control, Communications & Space Intelligence handles networks, intelligence, and space domain awareness.

• Satellite Communication and Position, Navigation & Timing – oversees military and commercial programs for SATCOM and PNT.

More links to explore:

• Robosys launches AI simulator for autonomous vessel testing

• Iran-linked hackers tied to cyberattack on US company Stryker

Havoc Advances All-Domain Collaborative Autonomy Through Acquisitions of Mavrik and Teleo

Havoc is rapidly positioning itself as a leading “all-domain” autonomy platform by expanding beyond its roots in maritime systems into air and ground operations. Through the acquisitions of drone company Mavrik and autonomous heavy machinery firm Teleo, the company is building a unified software stack that allows a single operator to control and coordinate fleets of autonomous systems across sea, air, and land in real time. The goal is to replace siloed, domain specific tools with a single interface where heterogeneous assets can operate as a synchronized, collaborative force.

At the core of this strategy is “supervised autonomy” keeping humans in the loop while enabling one operator to oversee many machines simultaneously. This model addresses both operational efficiency and safety concerns, and has already been demonstrated at scale in maritime environments. Backed by significant venture funding and growing demand from defense and commercial customers, Havoc’s expansion reflects a broader shift toward integrated, AI driven autonomy systems that can deliver coordinated, multi domain capabilities and potentially redefine how both militaries and industrial operators deploy autonomous fleets.

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Pentagon Employees Can Create Their Own Custom AI Assistants

The U.S. Department of War has introduced a new “Agent Designer” capability on its enterprise AI platform, GenAI.mil, allowing personnel across the department to build custom AI assistants tailored to their specific workflows. The tool integrates Google’s Gemini models and is designed to be accessible even to users without coding experience. With it, the Pentagon’s roughly 3 million military and civilian employees can create AI agents capable of performing multi step tasks, ingesting different data sources, and automating complex processes across mission areas. Examples include generating after action reports, turning imagery into analytical memos, or building applications to analyze financial and logistics data.

The rollout is part of a broader push by the Pentagon to accelerate AI adoption across both operational and administrative functions. Since launching in late 2025, GenAI.mil has become the department’s central generative AI platform, incorporating commercial frontier models from companies such as Google, with additional tools from OpenAI and xAI expected to be integrated. The effort underscores the Pentagon’s strategy to rapidly deploy commercial AI capabilities across the force, even as tensions with AI vendor Anthropic have escalated into a legal dispute after the company was designated a supply chain risk and barred from the platform.

Mastercard Brings Agentic Payments to Life in Singapore With DBS and UOB

Mastercard has taken a major step toward “agentic commerce” with the completion of its first live AI initiated payment transaction in Singapore, in partnership with two major banks, DBS Bank and United Overseas Bank (UOB). In the demonstration, an AI agent automatically booked a ride to Singapore’s Changi Airport through a mobility provider, initiating and completing the payment without a human clicking “confirm.” The transaction was enabled by Mastercard’s Agent Pay framework, which uses tokenized credentials, dedicated “agentic tokens,” and passkey authentication to verify identity and ensure that the consumer has explicitly authorized the AI agent to act on their behalf.

The pilot illustrates how AI agents could soon handle routine purchases, such as travel bookings, transportation, or retail transactions, while financial institutions provide the security and authentication layers needed to maintain trust. Mastercard is positioning Singapore as a hub for this shift, launching an AI Centre of Excellence and working with banks and merchants to build infrastructure for AI driven payments across the Asia Pacific region. The move signals a broader trend: as AI systems evolve from assistants into autonomous actors, financial networks are racing to create the rails that allow those agents to safely transact in the real economy.

YouTube expands AI deepfake detection to politicians, government officials etc

YouTube is expanding its AI driven deepfake detection capabilities to a new pilot group that includes government officials, political candidates, and journalists. The platform’s “likeness detection” tool, which functions similarly to its Content ID system but for identifying synthetic media, first rolled out to millions of creators last year. Now, eligible public figures can upload verified identity information and then review videos that the system flags as potentially AI generated impersonations of their likeness, with the option to request removal if the content violates YouTube’s policies.

While the technology aims to help protect individuals from unauthorized AI impersonation and misinformation, YouTube stresses that not all flagged content will be removed. The company is also advocating for broader regulatory frameworks like the NO FAKES Act to establish clearer legal protections against deceptive AI media. This expansion reflects growing industry efforts to address the risks posed by sophisticated AI deepfakes in public discourse and information ecosystems.

More links to explore:

• New England National Security Conference June 3, 2026

• The New White Collar Moat In AI

Trump’s New National Cyber Strategy and the Threat of Inconsistent Defense

New North Ventures portfolio company, CrunchAtlas, is focused on enabling proactive cyber defense for some of the most vulnerable parts of America’s critical infrastructure including small and independently operated utilities. Rather than relying on expensive, outsourced security operations centers, the company is building technology that allows utilities to conduct their own cyber threat hunting and defensive operations in a self contained environment. The platform is designed to make sophisticated cyber capabilities accessible and affordable for organizations that traditionally lack the budget or personnel for enterprise grade security. By giving utilities the tools to detect adversaries, collaborate with peers, and operate independently, CrunchAtlas helps shift cybersecurity from a reactive compliance exercise to an operational capability that can be deployed directly by the organizations responsible for running essential infrastructure.

The direction CrunchAtlas is taking aligns closely with the themes emerging from President Donald Trump’s new national cyber strategy. The strategy emphasizes a more proactive and aggressive cyber posture, including the use of offensive cyber capabilities, stronger public private collaboration, and new technologies to secure critical infrastructure such as energy systems. It also highlights the need to empower industry and deploy advanced tools to detect and disrupt adversaries faster. In that context, solutions that allow infrastructure operators themselves to hunt threats and harden their networks are increasingly important. The challenge with cybersecurity for decentralized utilities has never been awareness, it’s cost, talent, and implementation. By making advanced cyber capabilities accessible and self contained, CrunchAtlas is addressing exactly the gap policymakers are now trying to close: enabling the private sector operators of critical infrastructure to become active participants in defending the nation’s cyber terrain.

How to Evaluate Deepfake Detection for Enterprise Use

Reality Defender, a North Ventures portfolio company, is at the forefront of combating the rising threat of AI generated deepfake media by providing advanced detection tools used in real world production environments. The company’s platform uses a multi model, machine learning approach to analyze audio, video, and images for subtle manipulation signals, allowing enterprises, governments, and critical institutions to identify synthetic or manipulated media before it can influence decisions or be used in fraud and impersonation attacks. Reality Defender’s technology supports real time detection in workflows such as secure communications, contact center authentication, and content verification, routing actionable signals into existing security and operational systems so teams can respond effectively. With offerings that include APIs, SDKs, and scalable deployment options, the company has built solutions designed to integrate directly into business systems where trust and identity verification are essential, helping organizations stay ahead of evolving deepfake threats.

Growth Capital Podcast recently featured New North Ventures Partner Bryan Mabry.
Dual-use isn’t about politics, it’s about optionality. Companies that serve both commercial and government markets often see stronger valuations, more resilience to budget shifts, and less exposure to procurement delays.
The conversation also highlights the risks and benefits of pursuing a dual-use strategy as an early stage founder.

Listen to the full episode here: https://lnkd.in/e5iEjnXY

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New Hampshire Positions Itself as New England’s Nuclear Innovation Hub

A significant opportunity is taking shape in the Northeast and a New North Ventures portfolio company is helping New Hampshire seize it.

StarCube is spearheading an effort to position New Hampshire as a respondent to the Department of Energy’s new Request for Information on nuclear innovation campuses. The DOE is actively soliciting state level interest to identify where the next generation of nuclear development, research, and workforce infrastructure should be anchored and StarCube is making the case that New Hampshire belongs on that shortlist.

To build the broadest possible coalition, StarCube has launched a dedicated hub at newenglandnuclear.org/nh-rfi to connect businesses, organizations, and individuals across the advanced nuclear, legacy nuclear, workforce development, nuclear waste management, and clean energy sectors. The effort reflects a core insight this community understands well: the line between energy security and national security is not a line at all.

The strategic rationale is compelling. New Hampshire is the only state in New England that currently permits new nuclear development, a regulatory posture that makes it uniquely positioned to attract the kind of long horizon investment and federal partnership that advanced nuclear requires. That matters beyond state borders: the ISO NE grid serves all of New England and ranks among the most expensive electricity markets in the United States. New nuclear capacity developed in New Hampshire won’t just serve local ratepayers, it will provide meaningful price relief across the region while strengthening grid resilience at a time when energy reliability has become a serious security consideration.

If your company or organization wants to engage, the call to action is straightforward. Review the DOE RFI directly at sam.gov, and join the coalition StarCube is assembling at newenglandnuclear.org/nh-rfi. The window to shape New England’s energy and security future is open and New Hampshire is moving. Interested in learning more? Reach out!

The Next Theater of Competition Is the Water and the UK Knows It

A development out of the United Kingdom this week deserves more attention than it will likely receive in American defense and technology circles. Babcock has partnered with Tech Southwest to launch a National Marine Autonomy Accelerator, focused specifically on high growth companies working in autonomous marine systems and technologies. oceannews

This is not a generalist startup program with a maritime veneer. It is launching just months after Plymouth was designated as the UK’s National Centre for Marine Autonomy, and the Southwest of England is increasingly being recognized as the UK’s leading hub for advanced marine technologies. The British government and its defense industrial base are deliberately concentrating capability, geographic, institutional, and financial around a domain that is moving faster than most traditional procurement systems can track.

Maritime autonomy sits squarely in the dual-use space this community watches closely. Uncrewed surface vessels, autonomous underwater systems, AI enabled maritime domain awareness are just some technologies that have obvious commercial applications and equally strong national security implications. Babcock’s Global Technology Director stated the intent is to build the accelerator to support and ultimately integrate the most forward thinking SMEs into the wider capabilities delivered for defense customers. oceannews

The program culminates in an Investor Day in October 2026 and is open not only to companies already operating in the marine sector, but also to those looking to move into this high growth area. The UK is not just organizing its existing maritime tech base, it is actively recruiting new entrants into the sector, betting that the opportunity is large enough to expand the talent pool rather than simply sort it.

For American companies and investors operating in maritime autonomy, uncrewed systems, or adjacent dual-use technologies, the implications run in two directions. First, this is a signal worth calibrating against: a close ally is institutionalizing its advantage in a domain where competition, including from near peer adversaries, is intensifying rapidly. Second, it is a partnership opportunity. The accelerator’s structure, its connection to Babcock’s defense relationships, and the University of Plymouth’s research capabilities create genuine transatlantic engagement pathways for U.S. firms thinking seriously about allied market access and co-development.

The details and application information are available at techsouthwest.co.uk/growth-forge. If maritime autonomy is in your portfolio or your strategy, this is one to watch.

Why Iran: The Asymmetric Shield

Iran's military strategy was never about matching the US plane-for-plane. Instead, Tehran built an arsenal of thousands of low cost drones, 3,000+ ballistic missiles, and a regional proxy network, asymmetric capabilities designed to create a conventional shield dense enough to make any strike on its nuclear program too costly to attempt. Cheap drones that overwhelm advanced air defenses through sheer volume, raising the price of intervention while nuclear development proceeds behind the curtain.

The February 2026 US-Israel operations are designed to dismantle that shield and the program behind it simultaneously, without ground forces. The campaign is layered: kinetic strikes against air defenses, missile sites, and command and control, combined with cyber operations and electronic warfare targeting Iran's communications and launch infrastructure. It's a case study in how modern conflict increasingly relies on standoff precision, signals disruption, and domain convergence rather than traditional occupation.

Hamlet Yousef mentioned an often overlooked dimension: a 2022 Middle East Institute paper documents how the IRGC's senior ranks are increasingly shaped by Mahdist ideology, which frames the missile program, militia network, and nuclear pursuit not as separate policy tracks but as pillars of a single mission. Western analysts have largely treated Iran's behavior as rational state interest. The MEI researchers argue that's an incomplete picture and one reason the asymmetric buildup has been so persistent despite decades of sanctions.

Source: MEI "Iran's Revolutionary Guard and the Rising Cult of Mahdism" (Golkar & Aarabi, 2022)

More links to explore:

• [Virtual Event] Shields Up: Key Technologies Reshaping Cybersecurity Defenses Mar 19, 2026

• Why California is Reconsidering Nuclear Energy After 50-Year Ban

• Boston Tech Week is Coming Soon May 26-31

CYBERA’s Recorded Future Partnership

Big news from one of our portfolio companies. Recorded Future has expanded its payment fraud prevention capabilities through a partnership with CYBERA, integrating CYBERA’s Money Mule Intelligence directly into the Recorded Future Platform recordedfuture. This puts CYBERA’s technology in front of one of the most respected names in threat intelligence. The timing couldn’t be better: APP fraud losses in the U.S. are projected to reach nearly $15 billion by 2028, and regulators are increasingly shifting liability to banks that fail to detect mule accounts recordedfuture, creating urgent and growing demand for CYBERA’s technology. Unlike probabilistic risk scoring, CYBERA verifies each account with evidence and contextual metadata, and large financial institutions have already prevented multiple six-figure losses by embedding CYBERA’s intelligence into their transaction monitoring workflows. With a Recorded Future partnership on the books, Mastercard Start Path membership secured, and enterprise wins already on the board, CYBERA is heading into its Series A raise with the kind of proof points that make the conversation very different.

HawkEye 360 Expands Partnership with European MoD Clients

HawkEye 360 has been selected by a European Ministry of Defense for an electronic warfare program valued at up to $75 million. This contract reflects both the company’s deepening international footprint and the broader surge in European defense investment following years of underinvestment in sovereign ISR capability. Under the contract, HawkEye 360 will deliver subscriptions to its Air Defense and GPS Interference Monitoring services, enabling the customer to monitor and assess activity across areas of interest. This win follows a string of recent contract actions including a U.S. Navy renewal focused on Indo-Pacific maritime domain awareness and an NRO selection for tactical RF data and analytics, cementing HawkEye 360’s position as the go-to commercial provider for space based signals intelligence on both sides of the Atlantic.

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