Kongsberg Satellite Services, a premier global provider of integrated mission operations, and the Institute for Q-shu Pioneers of Space, an innovative Japanese aerospace company, have officially announced a significant expansion of their long-term strategic partnership.

Advancing Near-Real-Time Earth Observation

Revealed on June 3, 2026, this deepened alliance is strictly focused on accelerating the development and deployment of the ambitious QPS-SAR project. The ultimate goal of this comprehensive collaboration is to establish a massive, high-resolution Synthetic Aperture Radar small satellite constellation that will deliver near-real-time Earth observation data services to commercial and government customers worldwide. Unlike traditional optical sensors that are often hindered by nighttime conditions or thick cloud cover, synthetic aperture radar technology provides persistent, all-weather visibility, making it an indispensable tool for time-critical remote sensing operations.

Scaling the QPS-SAR Constellation

The Institute for Q-shu Pioneers of Space, commonly known as iQPS, has been systematically expanding its orbital footprint, with nine commercial satellites currently operational. The aggressive expansion plan targets scaling the active constellation to 24 satellites by late May 2028, ultimately culminating in a fully realized 36-satellite constellation by the year 2030.

Once fully deployed across multiple orbital planes, the comprehensive 36-satellite architecture will effectively allow the company to observe almost any selected location on the Earth’s surface at an unprecedented average interval of just ten minutes. This incredible revisit rate is designed to track rapidly evolving scenarios on the ground, allowing operators to monitor moving objects such as vehicles and maritime vessels with exceptional precision.

Leveraging Automated Ground Segment Infrastructure

To ensure the successful operational deployment of this massive scaling effort, iQPS has selected KSATlite to serve as the backbone for its future constellation expansion. Developed by Kongsberg Satellite Services, KSATlite is a fully automated Ground Segment-as-a-Service infrastructure specifically designed to accommodate the unique logistical demands of small satellites and sprawling mega-constellations.

Since the successful deployment of iQPS’s second satellite, KSAT has provided crucial Launch and Early Orbit Phase support alongside resilient global ground network coverage for mission-critical operations. Kenneth Olafsson, Head of KSAT Asia, emphasized that KSAT is deeply honored to continue supporting this rapidly scaling project, highlighting the shared vision of providing purpose-driven space capabilities that offer practical societal and strategic value.

Driving Data Convergence and Economic Value

This expanded partnership perfectly encapsulates the broader commercial space industry’s ongoing shift toward ground segment cloudification and information technology convergence. By relying on an established Ground Segment-as-a-Service model, iQPS can seamlessly scale its operations and reduce operational overhead, bypassing the enormous capital expenditures associated with building and maintaining proprietary global antenna networks.

The high-frequency data gathered by the QPS-SAR constellation possesses the potential to fundamentally revolutionize multiple industries. By efficiently delivering ultra-low-latency geospatial intelligence through KSAT’s global network, iQPS aims to unlock entirely new economic value streams. The resulting data will directly enhance urban safety, streamline global disaster response, and provide predictive analytics for agriculture and regional markets when intelligently integrated with overarching weather and economic datasets.

Instant Insight: SAR Satellites for Near Real-Time Disaster Monitoring

This above link to the video offers an excellent overview of how iQPS utilizes small SAR satellites to provide near-real-time monitoring for disaster mitigation and rapid response operations.

Beyond Gravity has introduced a new two-axis electric propulsion pointing mechanism, designated as the APPMAX2-XS, designed specifically to meet the rigorous demands of the small satellite market operating in Low Earth Orbit.

Targeting the Small Satellite Market

Unveiled on June 3 at the Space Tech Expo USA in Anaheim, California, this latest addition to the company’s proven Advanced Electric Propulsion Pointing Mechanism family directly addresses critical industry needs for reduced mass, cost efficiency, and accelerated delivery timelines for constellation operators.

Key Technical and Operational Advantages

The APPMAX2-XS delivers several distinct operational advantages by utilizing commercial off-the-shelf components and highly industrialized production processes to ensure scalability, which guarantees a remarkably short lead time from order to delivery of less than six months. Weighing less than seven kilograms, this ultra-lightweight mechanism allows for precise two-axis thrust vectoring of small spacecraft and optical payload pointing.

This dynamic maneuverability significantly minimizes the amount of propellant wasted during attitude control maneuvers when compared to traditional fixed-mounted thrusters, ultimately optimizing fuel consumption and extending a satellite’s operational lifetime by up to two years.

Market Availability and Strategic Impact

Wolfgang Pawlinetz, Vice President of Thermal & Mechanisms at Beyond Gravity, emphasized that this low-cost, short-lead-time solution maintains full flexibility across a wide range of electric propulsion systems while delivering an exceptionally compact design. Scheduled to become available for delivery in 2027, the APPMAX2-XS is well-positioned to support the surging demand for agile, highly maneuverable small satellite constellations across both European and United States markets.

In a statement, Dominik Inschlag, director of Marketing & Sales for Beyond Gravity, said, “Our new mechanism is true a New Space enabler. We see a lot of potential for our new mechanism especially in Europe and the United States. Fast availability, low mass, and competitive cost are critical factors for constellation operators. This mechanism directly addresses those priorities,”

By Nick David, Editorial Lead, SatNews

The label the European Commission and EUSPA have spent two budget cycles building procurement policy around got taken apart on Day 3 of SmallSat Europe 2026 by the people it is supposed to help. The dismantling came from the operators themselves. The resilience panel on the Defense Stage, moderated by Hogan Lovells partner Peter Watts, turned what was billed as a doctrine conversation into the most candid public takedown of the “dual-use” frame this funding cycle has produced. The through-line is that dual-use was supposed to unlock procurement and is now creating friction at both ends of the contract.

That is a more pointed argument than anyone on the European institutional side has been willing to make at this conference, and it is the argument the funding side has not yet engaged.

What “dual-use” actually means in EU procurement language now

Dual-use started as a regulatory term for technologies with both civil and military application. Inside the EU’s current funding logic it has become the deciding category for who gets paid. Alam laid out the mechanic in two sentences. The European institutions, she said, “are really focused on this concept of dual use, meaning that we don’t want anything as pure war, but if you can prove a commercial value to it as well, then we’ll fund you.”

That is the funding word doing its work. Pure-defence applications are politically harder to justify under EU treaty constraints, and pure-civil applications do not access the post-Niinistö-era defence envelope. Dual-use threads the gap. The Commission and EUSPA route capital to companies that can plausibly claim both, so every European space company that wants the money has learned to claim both.

Public institutions become “the funders and the customers” at the same time, Alam said. The label meant to broaden the supplier base ends up narrowing what suppliers will publicly say their products do.

The targeting argument the agencies have not engaged

Dr. Michael “Mick” Gleason, Senior Policy Analyst at the Center for Space Policy and Strategy at The Aerospace Corporation, gave the panel its hardest single moment. The audience asked the panel directly whether dual-use assets become legitimate military targets, given that most insurance policies disclaim war risk. Gleason did not soften the answer.

That is the targeting word arriving where the funding word started. The EC tells a commercial operator that what gets it paid is the defence-relevant utility of its product, and international law tells the same operator that the defence-relevant utility is precisely what makes its satellite, its ground station, and the personnel inside a legitimate object of attack. The label that opens the budget line is the label that complicates the sanctuary.

Gert Villemos, CISO and CTO of Leanspace, sharpened the point. Twenty-five years building ground segment systems, and he said what most ground-segment operators in the room already knew and had not said publicly.

The dual-use debate is downstream of the actual operating condition. The civil-only sanctuary the European industry has been assuming is narrower than it used to be, and the legal regime that should follow from the targeting reality has not been written.

Two separate regimes are using the same word to mean opposite things. The procurement officer hears “commercial-grade product with a defence application,” while the international lawyer hears “civilian object that has lost protected status.” Both are correct about the word, and neither is talking to the other.

The missing legal regime

James Black, Deputy Director of Defence and Security and European Lead for Space at RAND Europe, supplied the structural piece. Of the diagnoses on the panel, Black’s is the one that should register with the Commission most.

“Lots of countries in Europe do not have the emergency legal powers in place for wartime to deal with the space of their fighting force, or to deal with space industry,” Black said. “The reality is in the military, you have this conceptual unlimited liability. You can be sent into danger because that is a national requirement. There is no such thing in the industry.”

That asymmetry is the architecture problem. The defence customer has bought a capability the supplier cannot legally operate. Health and safety law, employment law, insurance contracts: none of it lets the commercial operator keep its people in a building that is a known target. The military has unlimited liability built in, and industry has the opposite.

Ground stations, Villemos said, “are going to be taken out in day one of a major war.” Operations centre first, backup second, and Europe has built no wartime legal framework that lets industry function during that interval. Several countries have no emergency powers at all. Others have powers written in the 1940s and 1950s “when nobody had really heard of satellites.”

The counter-frame from the agency tier

One floor up, the same word is doing very different work. Juan Carlos Cortés Pulido, Director of the Spanish Space Agency, used his closing keynote to make the institutional case for the exact label the resilience panel was examining. The Spanish Space Agency reports to both the Ministry of Science, Innovation and Universities and the Ministry of Defence, and that dual reporting line, Cortés Pulido said, “is a key element in the sense that space is by definition a dual activity.”

For a civil-tier agency head, that line reads as a feature. It lets one institution coordinate procurement across two ministries with separate budgets. Col. Marcin Mazur, Vice President of the Polish Space Agency, framed the same logic from Warsaw. Asked about Poland’s sovereign capability, Mazur defined it as “the diversity of resources.” National plus “bilateral, federated or commercial sources, which supplement the information for our needs.”

Mazur and Cortés Pulido are reading the frame from where it works for them. It works at the institutional layer, where the procurement gets routed and the public-versus-defence split is the legal-political problem they are paid to solve. The disconnect is that the same word is the operating problem at the company layer, where the kill-chain question lives.

A third constituency adds a fourth reading. Sabrina Andiappane, Luxembourg Managing Director of ClearSpace, was asked on the on-orbit servicing panel whether her servicer was dual-use. Her answer was the cleanest version of the commercial side’s instinct.

Andiappane’s frame, that dual-use is the operating baseline in space, full stop, collapses the question entirely. Every rendezvous capability is targeting capability. Every robotic arm is a grappler. Where the Spanish-Polish frame celebrates dual-use as a procurement bridge, the Aerospace-Corp frame describes it as a kill-chain trap, and the ClearSpace frame treats it as a category that has stopped doing useful work. Three constituencies, three operating definitions, one EUSPA funding stream.

The verdict

The label is doing too much work. The convergence of commercial and military capability in space is accelerating and the label points to something real, yet it is straining under three incompatible jobs at once. It routes EC funding. It narrows commercial legal sanctuary. It gets celebrated by civil agencies as a coordination bridge.

The work for the next eighteen months is the work the resilience panel was sketching. Separate what the label funds from what the label describes. Write the wartime legal regime for the companies the funding has now drawn into the kill chain. Stop asking commercial operators to self-label into a status that narrows their insurance, indemnities, and personnel protections without giving them the legal scaffolding the military operators next to them have by default.

Alam’s closing diagnosis was the one to register. Europe is “seeing a lot of fragmentation today because we’re seeing a lot of lack of understanding of this concept.” The concept gets cleaned up next, or the procurement question gets harder, the legal exposure gets greater, and the industry gets less candid about what its products do.

What the panel surfaced is that operators are asking what the label still describes. The next phase of European institutional work, including the Commission’s consultations on the EU Space Act, the post-Niinistö readiness file, and the secure-waveform programme already underway across twenty-two companies and twelve member states, is where the label gets reconciled with the law it operates under.

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About the Author

A storyteller at heart, Nick David covers space policy, satellite markets, defense, and the technologies reshaping how humanity operates beyond Earth. With a background in creative direction, brand strategy, and editorial storytelling, he brings a modern lens to complex subjects and a relentless curiosity about what comes next.

By Nick David, Editorial Lead, SatNews

Day 1 of SmallSat Europe 2026 left the sovereignty debate exactly where European procurement had left it: four definitions chasing one budget line. Day 3 was the venue that gave the debate working answers, and they came from three different rooms. Spain produced one from the closing keynote, Poland produced a different one from the interview stage, and the on-orbit servicing panel produced a third, a commercial veto that says the sovereign-only frame runs into structural limits at the European liability-regime level no matter which national agency picks it up.

Three operating answers, and they do not converge on the same thing. What Day 3 surfaced was which definitions of sovereignty got operationalised by which constituency, and which got left on the floor.

The Spanish answer: capability ownership

Juan Carlos Cortés Pulido, Director of the Spanish Space Agency, delivered the conference’s closing keynote on the SpaceNews Defense Stage. Sovereignty in his frame reads as capability ownership.

The Spanish agency is overseen by the Ministry of Science, Innovation and Universities and by the Ministry of Defense, and by law it coordinates the space programs of the Ministry of Defense while supporting it on technology evaluation, selection, and program launch. Eighty-five per cent of the investment in the Spanish space domain has a public origin, and that ratio is the operative answer Day 1 left open. Spain is buying the architecture.

The buying covers the full stack. Miura 5, the small launcher, makes its first flight from French Guiana at the end of this year with a 500-kilogram payload. The Atlantic Constellation, launched with Portugal, carries the Earth observation play. Indra Mind, a domestic alternative to Palantir, sits as the AI processing layer. “What we are pursuing with this is two — first of all to achieve a real-time coverage,” Cortés Pulido told the room.

What the Spanish answer requires is that Spain fund its own stack and let partners buy in on Spain’s terms. It sidesteps a single European definition of sovereignty, sidesteps IRIS² classified secure on its first generation, and sidesteps harmonised liability law across member states. The Atlantic Constellation is open, “this program is open to other members to be part of this constellation, providing assets and sharing the data,” and the architecture is Spanish.

The schedule is the closing point. Decisions get made at the ESA Ministerial in December. “We in Europe has a quite relevant sector, but we need to take decision in the coming future in order to maintain our competences and our leadership.” A six-month window.

The Polish answer: diversity of sources

Col. Marcin Mazur, Vice President of the Polish Space Agency (POLSA), sat for an interview with Mark Holmes, Senior Editorial Director at Access Intelligence, the same morning. Mazur is a serving military officer assigned to the civilian agency, and Polish defense spending now runs at almost five per cent of GDP, the highest in NATO. Holmes asked the question Day 1 left open. What does sovereign space actually mean from where Poland sits?

The Polish working definition lands somewhere different from Spain’s. Where Cortés Pulido frames the question as capability ownership, Mazur frames it as portfolio diversification: own the national assets you must own, and supplement them with bilateral, federated, and commercial sources. The CAMILA constellation, five micro-satellites POLSA will operate, with an MoD radar ISR constellation already on orbit and a new electro-optical constellation in procurement, makes up the national-asset layer. Everything else is sourcing.

“We understood that capitals cannot rely on one source of data,” Mazur told Holmes, framing the Ukraine lesson in procurement terms. “It’s important to have access to different solutions… access to different bilateral federated, or commercial sources, which supplement the information for our needs.”

That is the operational answer Day 1 never reached. Mazur is using “sovereignty” to mean single-source dependency is the failure mode, and the fix is a portfolio that survives any one supplier walking away.

The commercial veto: sovereign-only runs into structural limits

Twenty-five minutes into the on-orbit servicing panel on the Defense Stage, moderated by Jeff Foust, Senior Staff Writer at SpaceNews, the word “sovereignty” had not been said once. Chris Blackerby, Chief Operating Officer of Astroscale Holdings, flagged it. “Nobody has said the word sovereignty on this stage. So we’ve got to sovereignty 25 minutes into the presentation. So we have to say sovereignty before we finish any of these panels.”

The moment landed because of what came next. Mariella Graziano, Director of Strategy and BD of Science, Exploration and Transportation at GMV, took the question of European market fragmentation and produced the commercial counterargument the agencies on the other panels never had to address.

GMV is a 41-year-old European mid-cap with offices in twelve countries that built ground segments for the second-largest commercial telco fleet in Europe and has been injecting passive servicing interfaces into Copernicus satellites for fifteen years. When Graziano said the European servicing market cannot accommodate “300 service guys and blah blah blah” because the liability regime makes it impossible, she was describing the operating constraint neither the Spanish nor the Polish answer addresses.

The point is precise. A sovereign-capability stack works at the national level for Earth observation, navigation, and SST. It works less cleanly for in-orbit logistics, where the liability and regulatory regime any servicing operator has to navigate is fragmented at the EU level. The EU Space Act is supposed to consolidate the national regimes, and it has not yet.

The veto is that sovereign-only faces structural limits for any segment of the European industry that depends on cross-border operations, and on-orbit servicing happens to be the segment that exposes the gap fastest.

The IRIS² frame: the S is for security

Koen Willems, VP, EU/NATO Programs & Government Relations at ST Engineering iDirect Europe, gave the conference’s most quotable reframe of what IRIS² is doing inside the sovereignty argument. The IRIS² Ground Game panel, moderated by Ahsun Murad of Optimal Satcom, kept landing on the architecture question, and Domenico Mignolo, Head of the Technology and Products Division at ESA, set up the frame in agency vocabulary, calling IRIS² “a backbone or a data relay to connect with other constellations.”

Willems sharpened it. “In IRIS² it is an S for security. And I think that’s one of the key elements — one is for government purpose, government end users, but given the fact that the geopolitical context and what we see around us, security becomes more important.”

The implication of that one letter doubles as the architectural answer to the sovereignty fight. IRIS² is a government-grade backbone the military community is pushing to make tactical-grade, rather than the closed, classified, secure-by-default constellation the military operators want. The European Defence Fund’s secure waveform program, twenty-two companies across twelve member states, is the workaround that bolts military capability onto IRIS² without classifying the whole constellation. The S is doing the work the four Day-1 definitions were each reaching for, and it is doing it in the procurement language IRIS² was actually written in.

The financial frame and the fragmentation tax

Wim Steenbakkers, Managing Director, Global Lead Technology at ING, sat for a fireside with Dara Panahy, Partner at Milbank LLP, on the Business Stage. The Eutelsat refinancing, five billion euros across a senior facility, export-credit financing for OneWeb satellite procurement, an EIB amendment, and a 1.5-billion-euro dual-tranche unsecured note, closed in March. Panahy asked what changed between the near-distress conversations of sixteen months ago and the deal that closed.

That is the financial frame’s definition of sovereignty: European control. The Eutelsat deal closed because the geopolitical case made the credit case.

Sabrina Alam, Space Lead at the SnT Technology Transfer Office at the University of Luxembourg, sat on the resilience panel and gave the day’s sharpest diagnostic. “We’re seeing a lot of fragmentation today because we’re seeing a lot of lack of understanding of this concept or what the sovereignty actually means.”

For Alam, fragmentation is the cost of letting four definitions of sovereignty share one funding stream. Agencies use the word to mean capability ownership, bankers to mean European control, architects to mean classified-by-default, and operators to mean liability you can carry. When the same word does four jobs, the budget gets allocated against the loudest definition in the room, and the next round of programs inherits the ambiguity. That is the fragmentation tax, and it is what Day 1 said the EU Space Act has roughly eighteen months to address.

The verdict from Day 3

The procurement language is leading the architecture conversation, with IRIS² as what gets built and the secure waveform program as what gets bolted on. The Polish definition is leading the operational conversation: diversity of sources is what every defense ministry in the room is actually buying. The Spanish definition leads the political-funding conversation, because capability ownership is what national parliaments understand and fund. The commercial veto is the constraint that shapes which of the three definitions any cross-border program can actually deliver against.

The through-line Day 3 surfaced is that Europe will settle sovereignty by letting the four definitions operate at four different layers, Spain at the national stack, Poland at the portfolio, IRIS² at the architecture, ING at the finance, and absorbing the cost of the gaps between them. Whether Europe can afford to pay the fragmentation tax is what the December ESA Ministerial decides.

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About the Author

A storyteller at heart, Nick David covers space policy, satellite markets, defense, and the technologies reshaping how humanity operates beyond Earth. With a background in creative direction, brand strategy, and editorial storytelling, he brings a modern lens to complex subjects and a relentless curiosity about what comes next.

By Nick David, Editorial Lead, SatNews

For the last eighteen months, the orbital data centre conversation has been carried more by IPO filings and forward-looking decks than by physics. Day 2 of SmallSat Europe 2026 was the meeting where that stopped. The Business Stage spent the better part of a day pulling the thesis apart on cost, thermal, and capital-allocation grounds. The most important conversation of the morning was a tech brief delivered by a former AMD Corporate Vice President in front of a room of European investors and operators.

Struhsaker’s conclusion was not that orbital data centres are impossible. “Is it possible? Is it within what we can do? Absolutely,” he told the room. “But smart design’s going to be required.” The megawatt-class orbital data centre being financed at scale in 2026, on his read, has three engineering preconditions that have to land before the public-market thesis closes, custom silicon, modular plug-in architecture so a 5-year compute card can swap under a 20-25-year platform, and launch costs below $300 per kilogram. The version of in-orbit computing that does close commercially in the near term is a smaller, sharper, edge-compute play with a defined ROI window.

The thermal arithmetic

The brief came from Dr. Paul Struhsaker, CEO of Arrasar Partners. Struhsaker opened with his own background, which was the credential.

The structural argument followed from there. The case for putting compute in orbit, Struhsaker said, rests on the claim that unlimited space and unlimited solar energy will outweigh the launch cost of getting hardware to orbit. The case has a hidden assumption. Today’s GPU and accelerator silicon is designed for terrestrial data centres. It is power hungry by architecture. There are no power limitations or any power savings features whatsoever built in.

Each generation of accelerator chip has roughly doubled in power draw, Struhsaker said, walking the room through the watts-per-card numbers his slides were built around.

The thermal arithmetic alone makes the megawatt orbital data centre a structural-and-radiative design problem on a scale the satellite industry has never built before. Terrestrial GPU thermal envelopes hit the wall on air cooling roughly four years ago and have been moving to liquid cooling since. The orbital equivalent has to dissipate kilowatt-class waste heat across tens of thousands of accelerators by radiation alone. The next speaker on the same stage would put a sharper number against that order of structure.

The capital allocation question

The Market Brief on Orbital Data Centers Economics, delivered an hour later on the same Business Stage by Dr. Oguz Karasu, Postdoctoral Research Fellow at the University of Oxford, made the explicit capital-allocation case. Karasu opened by reframing the problem statement.

“When we delve into the concept of the data centres, actually we see more at digital infrastructure rather than a normal data centre on Earth,” Karasu said. The current terrestrial data centre build-out has, on his read, completed only thirty to thirty-five per cent of its planned infrastructure. Karasu argued the orbital equivalent should be assumed to take longer still.

The physics constraints, Karasu argued, are not optional. “What’s happening in orbit, the heat only released via radiation. So to be able to keep the infrastructure cooled down all the time, for example, for 50 megawatts, big data centre, you need to have an ISS-large infrastructure. So it is technically, like physically, it’s not feasible for now. To be able to do that, you need to send a big launcher. You need to wait for Starship first. So without Starship, even the concept is not feasible for now.”

The capital-allocation case is Karasu’s second-order argument, and it carries into the rest of the day. The structural argument: multi-billion-euro investment in an orbital data centre thesis not yet physics-checked at the megawatt scale displaces investment in the gaps the rest of Day 2 spent unpacking on the same stage. Component supply-chain resilience. Serial production at the smallsat tier. Defence replenishment economics. EO fusion. Optical mesh networks. Each carries a clear customer, a defined product, and a published procurement instrument.

Two theses, same stage

Where in-orbit compute does close

The Latency Arbitrage panel, moderated by Dr. Eric Anderson, President of And One Technologies, did the most useful framing of the day on where in-orbit compute does close commercially. The panel was Johan Åman, CEO of Unibap Space Solutions; Vincenzo Stanzione, CTO of SITAEL; Ryan Conroy, VP of Business Development at Elve; Vincent Gagnon, Chief Revenue Officer at Innoflight; and Viney Dhiri, who runs D-Orbit UK’s space cloud business.

Dhiri, whose company has compute on multiple operational spacecraft, gave the cleanest version of the edge case.

Stanzione made the technical case for federation between satellites rather than monolithic orbital data centres. SITAEL’s edge-compute model, he said, is to keep the inference workload close to the sensor and to share intelligence across satellites in a constellation. “I see as possible scenario for a large orbital data centre only something like Starlink, so managed by the usual guys we know very well. Orbital data centre service, I see it a bit far in terms of technical feasibility, opportunity and security.”

Gagnon made the engineering case for the edge thesis from the Innoflight side. Innoflight’s integrated avionics suite covers processing, networking, encryption, and radio in one architecture designed to minimise latency at the satellite level.

The verdict from Day 2

Day 2 did not end the orbital data centre conversation. It moved the conversation onto more honest ground. The megawatt vision is still on the table, but the table is now in front of a thermal engineer with a calculator and a market analyst with an opportunity-cost spreadsheet. The edge-compute version is in production planning at multiple European companies and was front of mind for several investor and operator conversations on the conference floor.

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About the Author

A storyteller at heart, Nick David covers space policy, satellite markets, defense, and the technologies reshaping how humanity operates beyond Earth. With a background in creative direction, brand strategy, and editorial storytelling, he brings a modern lens to complex subjects and a relentless curiosity about what comes next.