SatNews

SmallSat Symposium 2026

The New Orbital Guard: Commercial Tech Steps Up as the Pentagon’s Watchtower

By Abbey White, Staff Writer, SatNews

Dispatch from SmallSat Symposium. Coverage and analysis from across the conference, tracking the forces shaping the next phase of the SmallSat market.

MOUNTAIN VIEW. The mood at the SmallSat Symposium has shifted from anxiety to resolve. While previous years were defined by fear of orbital overcrowding, this year marks the moment the industry decided to act. Experts at the Space Domain Awareness panel officially retired the “Big Sky” theory, the old assumption that space is too vast for collisions to matter. Yet panic did not replace this outdated concept. Instead, a sophisticated, militarized professionalism has taken command.

The narrative is no longer about dodging debris but establishing a chain of custody. The Strategic Edge has moved from a theoretical concept to a contracted reality where commercial innovators act as the primary eyes and ears for national defense.

Clarifying the Mission

A critical development involves a clear separation of church and state, or rather, safety and security. Dr. Ed Lu, CTO of LeoLabs, brought necessary precision to the room by arguing that we must stop conflating civil traffic management with defense requirements.

“We have to make a clear distinction between Space Safety/Commercial uses and Defense/Intel/Military usages,” Lu told the audience. While civil safety is about coordination, the military mission relies on transparency in a contested domain. “Adversary satellites that are trying to not be tracked well, that are trying to show up at times when you don’t expect them . . . that’s going to happen.”

That assertion is not a warning of impending doom but a statement of market opportunity. While the Department of Commerce handles civil air traffic control, the Pentagon and its commercial partners are free to focus on the high-fidelity tracking required to monitor these complex and sometimes contentious maneuvers.

Demanding Accountability

Moving toward defense-grade awareness drives a new culture of accountability, ending the days of ambiguous anomalies. Nicol Verheem, CEO of TRL11, argued that the industry is ready to move from probability to visual proof.

“There should be attribution of guilt,” Verheem asserted. “If I cause debris and it damages your spacecraft, right now insurance pays for your damage, but I won’t pay for it.”

Verheem’s company is deploying on-orbit video sensors to close this loop. This technology signals market maturation. Just as dashcams brought clarity to insurance claims on Earth, visual sensors are bringing attribution to orbit, signaling a sector ready to police itself.

Closing the Data Gap

The technology on display proves the commercial sector is moving faster than the government. While legacy systems rely on ground-based radar, startups are launching sensors directly into the environment they need to monitor.

Dan Terrett, co-founder of Odin Space, outlined a grid of sub-millimeter sensors that will finally illuminate the blind spots in our orbital maps. He described the tech as “effectively little weather stations dotted all over space monitoring rates of impact.”

This capability sparked a lively debate on terminology, a sure sign that the industry is taking its engineering standards seriously. When Terrett used the common phrase “lethal non-trackable debris,” Lu pushed back by rejecting the idea that anything is inherently impossible to track.

“Anyone who uses that acronym should go to jail,” Lu declared, drawing a laugh but making a serious point. “It is not a physical limit. The current limit is just the limit at which the Space Surveillance Network run by the Department of Defense [is able to] catalog and track.”

The implication is empowering. The limit is merely a legacy hardware problem, and commercial companies like LeoLabs and Odin Space are already solving it.

Agility is Security

Maneuverability serves as the final piece of this new security architecture. Dr. Brad King, CEO of Orbion Space Technology, highlighted that better eyes are only useful if you have the legs to move.

“If you need to get out of the way, you’re going to need us to move out of the way,” King said.

King noted that propulsion creates a constructive feedback loop. As satellites become more agile, they become harder to predict, which drives demand for even better tracking data. “Every time one of our customers uses one of our propulsion systems, the satellite gets harder to track and harder to predict,” King observed. This is not a flaw but the engine of a healthy, competitive ecosystem whose evolving capabilities constantly sharpen each other.

A Mature Domain

The Wild West days are fading. In their place, a structured, defensible domain is emerging. The Department of Defense is no longer just a regulator. It is a customer buying data from companies that have solved problems the government has only recently acknowledged.

As the session closed, the focus shifted from the fragility of space to the robustness of the new business models supporting it.

“Nobody’s going to spend enough money to do it unless there’s enough money to be made in selling the product,” King reminded the room.

Fortunately for the industry, the business of national security is booming.

The New Space Playbook Faces a Physics Cliff at the Moon

By Abbey White, Staff Writer, SatNews

Dispatch from SmallSat Symposium. Coverage and analysis from across the conference, tracking the forces shaping the next phase of the SmallSat market.

MOUNTAIN VIEW, Calif. — For the past decade, the commercial space sector has benefited from a benign era defined by a quiescent sun and the protective magnetosphere of Low Earth Orbit (LEO). This stability allowed companies to prioritize speed and commercial off-the-shelf (COTS) components over traditional radiation hardening. Yet, as the industry pivots toward sustained lunar operations under the Artemis program, engineers face a steep physics cliff. The fail-operational strategies that built the LEO economy simply cannot withstand the harsh radiation environment of deep space.

Merek Chertkow, CEO of The Radiation Team, outlined this structural disconnect at the symposium’s recent technical session, From LEO to Lunar. Mega-constellations like Starlink normalized use of automotive-grade electronics through redundancy and rapid replacement. In contrast, lunar infrastructure (gateways, rovers, and habitats) must operate for years without de-orbiting options or easy repairs. This shift coincides with the peak of Solar Cycle 25. Industry analysis suggests recent solar storms exposed significant margins of error in radiation resilience among many operators, effectively auditing the actuarial tables of the commercial sector.

Moving Beyond Component Testing

Chertkow identified a fundamental flaw in the mission lifecycle rather than just component selection. Traditional workflows treat radiation as a final verification step where parts are tested for survival. A global shortage of heavy-ion testing facilities is causing this model to collapse. The industry currently faces a 5,000-hour annual deficit in beam-time at premier labs such as the NASA Space Radiation Laboratory and CERN.

Relying solely on testing creates a bottleneck that current schedules cannot accommodate. Chertkow noted that waiting until part selection to address radiation forfeits valuable business optimization trades. “If you wait until you’re selecting parts in a design to start working on radiation problems, you’ve already forgone a ton of trades that you could do to optimize your business model,” he said. He advocated for shifting radiation engineering to the concept and design phase. Here, system-level mitigations, including circuit modifications, software error correction, or orbital timing adjustments can solve problems that component selection cannot.

System-Level Hardening Strategies

Transitioning to the lunar surface exposes electronics to Galactic Cosmic Rays (GCRs) and Solar Particle Events (SPEs), threats largely deflected by Earth’s magnetic field in LEO. The Radiation Team proposes a middle-ground approach called System-Level Hardening to bridge this gap without reverting to the prohibitive costs of fully rad-hard military-grade components.

This methodology accepts that individual silicon gates will fail but designs architectures to tolerate these failures without ending the mission. For instance, one mission faced a critical failure mode in an engine controller due to radiation exposure in the Van Allen Belts. Instead of a costly hardware redesign, engineers adjusted the Guidance, Navigation, and Control (GNC) profile. By executing the engine burn five minutes earlier, they statistically reduced the radiation exposure to an acceptable level.

The Economic Reality of Deep Space

The economic divergence between the volume market of LEO constellations and the value market of deep space assets drives the push for modernization in radiation hardening. LEO operators can accept a fail-operational model where the system works even if nodes fail, but lunar missions often require a fail-safe reliability standard closer to heritage specifications.

Demand for high-performance computing on the Moon forces designers to use modern process nodes (7nm, 5nm) that are inherently soft to radiation. Chertkow emphasized that radiation must be treated as a core design parameter (like mass, power, or thermal budgets) rather than a risk to be eliminated entirely. “Radiation engineering should be thought of as what trades can be made to optimize and meet mission success,” he stated.

Future Outlook

As the industry prepares for the sustained lunar presence required by Artemis III and beyond, reliance on automotive-grade parts remains a point of contention. Proponents argue that automotive standards like AEC-Q100 provide high reliability against wear-out, but critics note these standards do not require radiation testing. This leaves components vulnerable to the stochastic nature of heavy ion strikes.

Chertkow suggested the path forward involves a nuanced strategy of necessary and sufficient assurance. This means testing only to the specific limits required by the mission’s environment rather than to arbitrary standards. Such a data-driven approach enables use of modern processors in deep space by quantifying risk rather than attempting to eliminate it. This capability is critical as the sector faces the ongoing intensity of the current solar maximum.

The Commercial Mask Slips: Space is Now a Sovereign Arms Race

By Abbey White, Staff Writer, SatNews

Dispatch from SmallSat Symposium. Coverage and analysis from across the conference, tracking the forces shaping the next phase of the SmallSat market.

MOUNTAIN VIEW. The polite fiction that the commercial space industry exists primarily for crop yields and climate monitoring has ended. During the symposium’s Future of Geospatial Intelligence session, industry titans stopped pretending their product is intended for sale to NGOs, admitting they are instead building a new global backbone for national defense.

For years, the future of Earth observation was said to lie in commoditized data for hedge funds and farmers. That thesis is disproven. The real money ($10.4 billion flooding into the sector over the last year) is chasing hardware-heavy infrastructure designed for Great Power Competition. The session’s panelists made it clear we are no longer discussing a commercial marketplace. We are looking instead at a militarized mesh network where latency or time-lag is the enemy and the customer is almost exclusively the state.

The 99% Reality

Dr. Marino Fragnito, Senior Vice President at Thales Alenia Space, minced no words concerning revenue’s true source. Though his company builds massive Copernicus sentinels for European science, he was blunt about the infrastructure they deliver to export clients.

“When we deliver our space infrastructure to a customer, I have to say that 99% of the need comes from a defense application,” Fragnito told the audience. “All the rest is collateral.”

Fragnito is saying the quiet part said out loud. The dual-use narrative has collapsed into a single-use reality with commercial benefits serving merely as a side dish. Anxiety, not curiosity drives the market. Nations no longer want to buy subscriptions to American commercial constellations. They want what the industry calls sovereign capabilities: the ability to own the satellite, control the shutter, and keep their data off the cloud.

The Rise of the Middle Powers

The most striking takeaway from the session was the fragmentation of the global commons. The world where everyone shares the same commercial picture of Earth is giving place to another world where every middle-tier power demands its own private glass in orbit.

Fragnito noted that this trend is sweeping across Europe and Asia.

“We recently signed a contract with Indonesia,” he said. “In Asia Pacific all the countries around Indonesia are looking for sovereign capabilities in Earth observation now.”

These customers, he explained, explicitly reject the shared-infrastructure models that defined the last decade.

“They don’t want a cloud-based system. They don’t want to rely on somebody else. They want their own ground infrastructure.”

This shift to sovereignty complicates the business model for pure-play analytics firms. If every nation builds its own vertical stack to avoid reliance on the US, the global market fractures. For hardware primes like Thales, however, the shift is a bonanza of opportunities.

The Trust Gap in the Kill Chain

While hardware manufacturers sell sovereignty, analytics providers are attempting to sell speed without sacrificing trust. The conference buzzword is tipping and cueing, the automated process by which a wide-area sensor detects a target and instantly triggers a high-resolution camera to identify it.

Automation, however, brings a new terror: AI hallucination. A false positive in a kinetic kill chain isn’t just a glitch; it turns into wasted munition or, far worse, a diplomatic fiasco. Peter Kant, CEO of Enabled Intelligence, argued that human analysts are not going extinct but their role is shifting—from counting cars to policing algorithms.

“One of the added features of a human analyst is, typically, when you got a picture, an EO picture or a SAR picture, you weren’t worried it was lying to you,” Kant said. “Now the human analyst, because they’re using AI tools, is trying to understand, okay, what did the AI tool tell me and where is it wrong?”

This creates a paradox. The speed of war demands automation, but the risk of war demands verification. Kant emphasized that while the industry is awash in bounding boxes, the need for trusted, human-verified labels has only grown. His firm’s recent $708 million contract with the NGA [National Geospatial-Intelligence Agency] confirms this sentiment.

Latency is the Enemy

The final nail in the coffin for the commercial narrative is the industry’s obsession with speed. A farmer does not need to know the health of their corn within five minutes. A theater commander, however, needs to know a mobile missile launcher’s location in seconds.

Dan Adams, Head of KSAT USA, when asked about the biggest unmet need in imaging, didn’t request better resolution or more spectral bands. Rather, he summarized the entire technical roadmap in one word. 

“Latency. Just latency,” Adams said. “A lot of data needs to come down faster. Move faster.”

This drive for speed is pushing compute to the edge. The days of downloading terabytes of raw data to a ground station in Svalbard to be processed days later are ending. The future requires processing on the satellite itself, filtering out the clouds, and sending only the answer down.

The Verdict

The industry gathering in Mountain View this week is healthier than it has been in years, but it is also harder. The speculative capital that chased balloon internet and asteroid mining has dried up, replaced by defense dollars demanding hardware that works, answers that are verified, and data that stays inside sovereign borders.

As James Crawford of Privateer noted during the panel, the geopolitical reality has forced the industry’s hand.

“The amount of their revenue that’s coming from sales of hardware—you know, entire satellites—indicates the trend very clearly.”

Now grown up, the space industry has enlisted. The end of the commercial revolution in orbit marks the start of its strategic industrialization.

From Sandbox to Shield: The SmallSat Industry Grows Up

By Abbey White, Staff Writer, SatNews

Dispatch from SmallSat Symposium. Coverage and analysis from across the conference, tracking the forces shaping the next phase of the SmallSat market.

From Sandbox to Shield: The SmallSat Industry Grows Up

MOUNTAIN VIEW. If the mood at past SmallSat Symposiums was defined by exuberant experimentation, this year feels different. The energy has not vanished, but it has matured. During the session Engineering the Future Spacecraft, a clear signal emerged from the noise: the industry is graduating. Focus has shifted from the novelty of New Space to the serious, high-stakes business of national infrastructure and defense.

The practice of launching science projects to see what sticks is fading. In its place rises a drive for reliability, scale, and sovereign capability. As Peter Krauss, CEO of Terran Orbital, noted, “The days of flying things that are TRL 0… are over.”

The Bar Has Been Raised

This transition is not about shutting out innovation but professionalizing it. The customers driving the market today, primarily major defense primes and government agencies, demand a rigor that early startups often overlooked.

Krauss illustrated this shift by describing the industry’s talent gap. “You’re interviewing a 25-year-old, you want them to have a master’s degree and 10 years of work experience,” he said. His humorous exaggeration underscored a serious point regarding the expectation for day-one competence. Jan Smolders of Space Inventor captured this evolution perfectly, arguing, “It’s not a tech market anymore. It’s a delivery market.”

Engineering hurdles are no longer about just making something work in a vacuum. They are about manufacturing a product repeatedly, reliably, on time. The Golden Dome missile defense initiative referenced in the research serves as prime example, demanding an industrial base capable of churning out assets at a pace that boutique manufacturing simply cannot match.

Sovereignty Over Hype

While the conference floor still buzzes with talk of orbital data centers and edge computing, the panelists brought the conversation back to geopolitical realities. When asked about near-term value drivers, Rusty Thomas, CEO of EnduroSat USA, steered the room away from speculation, stating, “What’s not going to unlock value in the next three years for any of us is data centers in space.”

Instead, Thomas highlighted the urgent need for resilient communications in an unstable world. “Sovereigns who want to have a resilient communication capability—countries in the Pacific who might get their cable undersea cables cut on a bad day—are still going to need to talk,” he explained. As global supply chains fracture, the ability to control one’s own communications infrastructure is becoming a critical asset.

The Integration Debate

As the industry scales to meet these defense and sovereign needs, a debate is forming around the best path forward. Tina Ghataore of Aerospacelab described a vertical approach born from the need to secure a fragile supply chain. “We’ve had to pay for the roadmap,” she noted, explaining her company’s move to bring component manufacturing in-house.

In contrast, Rusty Thomas advocated for a model where customers leverage existing buses rather than building from scratch. He argued against past inefficiencies, suggesting that “companies don’t need to spend $10-20 billion” to build a constellation when the infrastructure already exists.

A New Era of Seriousness

The mood in Mountain View is not pessimistic but pragmatic. The industry is moving away from the move-fast-and-break-things era and entering a phase of industrial resilience.

The Strategic Edge is no longer just about having the most advanced sensor. It requires a supply chain that can survive geopolitical friction and a production line that can deliver at volume. The romance of the early days has not disappeared, but it has been replaced by the satisfaction of building something that truly works and matters on a global scale.

The Space Data Layer is Coming, Just Not as Fast or as Small as You Think

By Abbey White, Staff Writer, SatNews

Dispatch from SmallSat Symposium. Coverage and analysis from across the conference, tracking the forces shaping the next phase of the SmallSat market.

MOUNTAIN VIEW — Attendees at the SmallSat Symposium might have envisioned a future Space Data Layer as a seamless optical-mesh network capable of near-instant data transmission. During the symposium’s Edge of Orbit session, however, participants scrutinized the mechanics available to make that ideal materialize quickly. Attendees backed off from that theoretical end-state to debate the practical complexities and significant labor required to make this revolution operational.

Industry narratives have long painted low Earth orbit as an extension of the terrestrial internet—a high-speed, interoperable cloud above the clouds. Yet, when pressed on this unified network’s timeline, the panel’s optimism collided with engineering constraints. Carol Craig, CEO of Sidus Space, spoke plainly. While startups pitch immediate real-time capabilities to investors, she argued, “I think it’s still a good 10 years out when you talk about that full space data layer.” That assessment challenges a sector addicted to the concept of now. She attributed the delay to a fragmented landscape where commercial and defense priorities pull companies in different directions, creating what she termed “distractions.”

The Death of the CubeSat

The session also confirmed the demise of the form factor that gave this conference its name: the CubeSat. For a decade, shoebox-sized satellites costing less than a San Francisco condo defined the smallsat revolution. That era is over. The high-power optical terminals and onboard computer of the Space Data Layer simply cannot fit in a 3U box.

Beau Jarvis, Chief Revenue Officer at Kepler Communications, provided tangible evidence of this shift. Kepler, an early darling of the nanosatellite crowd, has radically upsized its architecture. Jarvis detailed their latest deployment: “This past January we launched ten 300-kilogram spacecraft that form the first tranche of our commercial constellation.”

This pivot represents a massive departure from the industry’s roots. As noted in research, Kepler’s shift requires a mass increase of over 2,000% from their original designs to accommodate the power-hungry realities of optical data relays. Building the internet in space cannot happen on disposable hardware, Jarvis posited. Larger satellites are necessary to form an always-on ring of connectivity—a feat impossible with the power budgets of the past.

Thermodynamics vs. The Pitch Deck

The most contentious subtext revolved around orbital data centers. Rob DeMillo, CEO of Sophia Space, pitched a vision where server racks migrate to orbit to escape terrestrial resource constraints. “We consider ourselves an orbital computer company,” DeMillo said, describing a modular tile system for processing data in the vacuum of space.

But this vision faces the elephant in the room: heat. While DeMillo argued that the move to orbit is as inevitable as the transition from dial-up to broadband, the thermal engineering community remains skeptical. On Earth, data centers use massive water loops and airflow to cool high-performance chips. In the vacuum of space, convection does not exist. Heat can only be rejected via radiation, a notoriously inefficient process.

Despite the polite tone of the panel, the gap between DeMillo’s vision of orbital data centers and the current reality of low-power edge processing was palpable. Planet’s David Marvin grounded the discussion in what is currently possible. He advocated using onboard NVIDIA chips, not to replace Amazon Web Services but to act as a filter. He described a scenario where a satellite tips off a wildfire commander with vector data layers rather than raw imagery. “Sending down a few megabyte package . . . is a huge advantage,” Marvin said. Smart filtering, not floating server farms, represents a realistic near-term future.

The Walled Garden Problem

Beyond the physics, the panel highlighted a looming market failure in the lack of a common language. Richard Hadsall of Integrasys, a veteran of the ground segment, warned that without a unified software layer, the industry is just launching expensive, deaf noise. “They’re not talking to one another,” Hadsall noted, estimating that it will take another three to five years just to get constellation-based spectrum data sorted.

The threat of proprietary walled gardens, networks that don’t play nice with others, also loomed large. With Starlink and Amazon Kuiper building closed loops, the rest of the industry is scrambling to survive by banding together under open standards like those set by the Space Development Agency.

Jarvis was explicit about this divide. “Starlink and Amazon are obviously massive companies able to scale quickly,” he said, “but they’re doing it in a proprietary fashion—which is a choice.” European and defense customers are recoiling from that monopoly risk, however, instead seeking interoperability and trust over raw scale.

The Bottom Line

The Edge of Orbit session clarified that the Space Data Layer is inevitable, but not imminent. The technology is transitioning from experimental validation to a messy, capital-intensive operational deployment.

The winners in this next phase won’t be the ones with the best PowerPoint slides about orbital clouds. Instead, success belongs to those who, like Kepler, accept the physical reality that moving data requires power and mass—ones like Planet who focus on delivering trust in the data rather than raw pixels. As the panelists stepped off the stage, the consensus was clear. The days of the cheap, simple CubeSat are behind us. The future is heavy, hot, and expensive.

SDA Acting Chief Sovereign over the Supply Chain

By Abbey White, Staff Writer, SatNews

Dispatch from SmallSat Symposium. Coverage and analysis from across the conference, tracking the forces shaping the next phase of the SmallSat market.

MOUNTAIN VIEW. The age of PowerPoint architecture has passed. For five years, the Space Development Agency operated as the Pentagon’s rebellious startup, promising to deliver a Proliferated Warfighter Space Architecture faster than the establishment could draft a requirements document. At the SmallSat Symposium, however, no celebratory mood pervaded the SDA Vision: Pacing Evolving Threats session. Instead, a sober atmosphere prevailed as SDA’s ambitions met the friction of reality.

Dr. GP Sandhoo, the agency’s Acting Director, took the stage at a precarious moment. He leads an organization recovering from a leadership decapitation following Derek Tournear’s departure and simultaneously facing a blistering Government Accountability Office report released just days ago. The report questioned the agency’s handle on technical risk. Consequently, Sandhoo arrived in Mountain View not to sell a vision, but to explain why the “Fight Tonight” mentality is harder to execute than it looks on a whiteboard.

The End of the Commodity Myth

The morning’s most striking admission was the demise of the easy satellite bus. The core thesis of the New Space revolution and the SDA’s acquisition strategy relied on the assumption that commercial satellite buses were commoditized goods, ready to be bought off the shelf like dependable pickup trucks. Sandhoo dismantled this belief with brutal transparency regarding the agency’s Tranche 0 demonstration.

“The biggest challenge we had with Tranche 0 was the buses—spacecraft buses—which were supposed to be a commodity . . . and none of them were,” Sandhoo admitted.

This represents a stark correction for an industry that prides itself on standardization. The Acting Director noted that while the exotic payloads (optical cross-links and Link-16 terminals) performed well, the basic infrastructure failed. He described the “onesie-twosies” failures that plagued the early deployment: “GNC [Guidance, Navigation, and Control] is not working, the thermal is not right.”

The implications for the supply chain are severe. Instead of theoretical speed, the SDA is enforcing rigor. Sandhoo noted that for the currently launching Tranche 1, the agency is behind schedule on checkouts precisely because they are forcing prime contractors to prove their buses work before they fly. “It’s one thing to launch a couple of satellites and kind of go through the whole checkout, it’s another thing to launch 21 at the same time,” Sandhoo said.

The Fire Control Pivot

While bus manufacturers face a reckoning, the SDA’s strategic scope has expanded dangerously close to the nuclear threshold. The conversation’s focus has shifted from warning (seeing a missile launch) to fire control (guiding an interceptor to kill it).

Sandhoo detailed the massive Tranche 3 awards made in December, which split the architecture into two distinct classes. The first is standard missile tracking. The second is the Golden Dome fully realized: a sensor specifically designed to close the fire control loop on hypersonic glide vehicles.

The Acting Director explained the distinction with engineer-like precision: “When you see MW/MT/MD, that takes a step further. That is, you can detect the missile, you can track the missile, but you can also come up with a fire control quality solution on board the spacecraft.”

That sequence presents the strategic edge in action, to which the Pentagon has committed roughly $3.5 billion, awarding contracts to Lockheed Martin and, in a major graduation moment, Rocket Lab for high-fidelity sensors. By trusting Rocket Lab with the defense mission rather than just the tracking mission, the SDA has officially elevated the company from a launch provider to a prime defense contractor capable of handling the DoD’s most sensitive data.

The Commercial Reserve Fleet

Sandhoo also addressed a subtle but critical shift: the enclave strategy. The SDA originally envisioned a self-contained intranet in the sky, but such an isolationist model has become defunct. Now the agency is actively looking to route military data through commercial constellations like Amazon’s Kuiper or the optical meshes of Kepler and Telesat, creating a hybrid space architecture that provides resilience through redundancy.

Using a domestic utility analogy to describe this pivot, Sandhoo stated, “When you have Verizon and Xfinity come to your doorstep, you should start using some of that stuff too to make sure you leverage all those things.”

This hybrid enclave architecture effectively deputizes the commercial sector. By publishing optical and networking standards, the SDA has created a market where commercial operators become reserve nodes for the Joint Force. If a Chinese ASAT weapon takes out a Lockheed satellite, the data could theoretically reroute through a commercial bird.

The Shadow of the GAO

Looming over the technical discussion was the shadow of the recent GAO report, which criticized the SDA for schedule optimism and for buying Tranche 3 satellites before Tranche 1 has proven its technology works. Although Sandhoo did not address the report by name, he noted the acting nature of his role and the budget’s palpable uncertainty.

Sandhoo acknowledged that the speed of acquisition is colliding with the reality of production throughput. “It’s one thing to have a technically ready thing; it is another thing to make 150 of those,” he said.

The Gamma variant of Tranche 2, critical for the advanced fire control mission, remains delayed following the Viasat protest and the subsequent leadership turmoil that ousted Dr. Tournear. Sandhoo nonetheless projected confidence in face of the undeniable friction, observing that due to competitive pricing, Tranche 3 proposals allowed SDA to buy 72 satellites instead of the planned 54.

The Verdict

The startup phase is over. The SDA is now a utility provider for the Combatant Commands. As Sandhoo put it, the goal is no longer simply to disrupt, but to pace the threat.

For attendees at the SmallSat Symposium, the message was clear. The government checkbook is still open, but the days of selling beta-test hardware are over. If you cannot build a bus that reliably handles thermal loads, or an optical terminal that instantly locks in a hostile environment, do not bid. The Golden Dome is being built, but the SDA is done laying bricks that crumble under pressure.

From SmallSat Gold Rush to Fortress: The Militarization of Commercial Space

By Abbey White, Staff Writer, SatNews

Dispatch from SmallSat Symposium. Coverage and analysis from across the conference, tracking the forces shaping the next phase of the SmallSat market.

MOUNTAIN VIEW. The era of the slide-deck billionaire is dead. Attendees entering the Small Satellites: Trends and Opportunities session expecting standard futurism about connecting the unconnected or democratizing the stars were likely disappointed. The mood at SmallSat Symposium has shifted from gold-rush optimism to the cold calculus of a fortress under construction.

For years this industry thrived on the promise of cheap capital and Silicon Valley’s move-fast-and-break-things ethos. That narrative has collapsed as a starker reality has emerged: The U.S. government is no longer just a customer. It has become the market’s anchor tenant, safety net, predominant funder, and primary driver of innovation.

Charlotte Kiang, a principal at Boston Consulting Group, summarized this pivot with the morning’s most critical statistic. By 2034 defense satellites will likely comprise only 9% of orbital volume but will account, Kiang noted, for 48% of the satellite spend.

Nearly half the industry’s revenue, that is, will originate from less than a tenth of the hardware. The message to founders and investors was implicit but deafening: those not building for the Pentagon will be fighting for scraps.

The Dual-Use Mandate

The panel, moderated by Astroscale’s Janna Lewis, confronted this marketplace militarization. “Dual use” was once a convenient buzzword to justify government grants for commercial tech. That script has flipped so that now the business model presupposes defense funding with spillover applications possible for commercial use. 

Brett Loubert, leading U.S. Space practice at Deloitte, highlighted that government no longer wants to build exclusive, exquisite systems but intends instead to consume commercial data to augment classified missions. This integration introduces a terrifying caveat that is largely ignored by the commercial sector: cybersecurity. Terrestrial data centers undergo exhaustive audits, Loubert noted, but satellites fly naked.

“Satellites operate like computers in space and they largely have no cyber protections on orbit,” Loubert said.

This represents the new barrier to entry. Getting to orbit is insufficient. To capture a share of that 48% defense outlay, companies must prove they can survive a cyberwar. Launching a CubeSat with a Raspberry Pi and a prayer is no longer a viable strategy.

The Starlink Shadow

SpaceX loomed over the discussion. The Starlink constellation has achieved a scale and vertical integration that effectively closes the door on copycats. Armand Musey, a valuation expert with Summit Ridge Group, dismissed the notion that the market can support multiple mega-constellations.

“I might take exception with the idea that we have competition,” Musey said.

He noted that insufficient launch capacity exists to support the millions of satellites some engineers project in presentations. Starlink’s hegemony forces the rest of the market into a difficult position. Without the ability to replicate SpaceX, companies must find alternatives. 

Abhishek Tripathi from UC-Berkeley offered the only viable strategy: specialized, high-quality craftsmanship. “Sometimes the best way to make money and develop a business is to zag while everyone else is zigging,” Tripathi said.

Major players focus so heavily on mass production, he argued, that that they lose the ability to service high-priority niche missions. Yet, Musey countered, even this boutique approach faces headwinds: a boutique shop might make a nice little business, but it will not move the needle in a rapidly industrializing sector.

The Industrial Reality

Discussion ultimately returned to survival logistics. The industry faces a manufacturing catch-up crisis. The research brief accompanying the session highlighted an ossified if not obsolescent mid-stream supply chain. Due to Chinese export bans, manufacturers are running out of Hall thrusters and Gallium Arsenide for solar cells.

“You can’t beat a good propulsion system,” Loubert said.

This moment grounded the discussion. Visionaries discuss orbital data centers and lunar economies, but operators worry about sourcing enough krypton or hardened electronics to finish satellites that the Space Development Agency already purchased.

The European Disconnect

The contrast between the U.S. approach and the rest of the world was stark. The U.S. model, driven by the Space Development Agency’s proliferated architecture, forces commercial companies to adapt to military timelines.

Musey contrasted this with European efforts to replicate the model through subsidies rather than contracts. He argued that while commercial procurement in the U.S. has birthed giants like SpaceX, similar efforts in Europe often waste money on systems that are obsolete before their construction begins.

The Verdict

The SmallSat Renaissance is over; the Industrial Revolution has begun. The winners of the next decade will not be the companies with the best slide decks. They will be the companies capable of delivering reliable, cyber-hardened hardware at scale to the U.S. military. As the session closed, the takeaway was clear. The playground represents the past. The fortress represents the future. In Mountain View, the smart money is heading for the bunker.