In early December â cold, wet, and stormy in the UK â I traded my drizzle-drenched overcoat for a flight to Lisbon, Portugal. It was sunny. It was mild. It was, frankly, a welcome reprieve. But I wasnât there just to escape the weather: I was attending the Space Economy Summit hosted by The Economist Impact Events on the 4th and 5th of December, to see where the future of âup thereâ might take us.
The summit took place at Nova School of Business and Economics, by the beach in Carcavelos, a setting where students slip into wetsuits for a quick surf between lectures. On one side, a sandy beach, wetsuits hanging to dry; on the other, a modern auditorium packed with hundreds of delegates in business attire, all discussing the cosmic economy. If nothing else, it was a stylish contrast.
Over two days, I took in lots of knowledge. Dozens of panels, talks, and fireside chats, guided by Oliver Morton (sporting possibly the coolest facial hair Iâve seen in real life), Senior Briefings Editor, and Alok Jha, Science and Technology Editor â both from The Economist magazine â took us through an intense crash course in spaceâs evolving role in the global economy.
A particular highlight was mingling with a new generation of space movers and shakers â under-40-ish founders, investors, and technologists Iâve started calling the âSpace Millennial Mastersâ crew. We networked across the days and into late-night gatherings. Thanks to Bruno Carvalho, Director at ilex space and the Atlantic Spaceport Consortium, we enjoyed authentic Portuguese hospitality: drinks, laughter, big ideas flowing as freely as the Vinho Verde. Keep an eye on the Millennial Masters podcast in the coming months â Iâll feature some of these up-and-coming entrepreneurs who plan to reshape our cosmic future.
So whatâs the big story from the 2nd Space Economy Summit? Itâs that space is no longer an isolated industry. Instead, itâs an âeighth continentâ where all current industries will carve out their own presence. As barriers fall â launch costs drop, satellite constellations grow â sectors from manufacturing to data analytics, arts to education, will find value off-world. If you think digitising supply chains or adding IoT sensors was transformative, imagine the next wave of space-driven innovation.
Daniel Fox from Future of Space captured the spirit in his fireside chat: âWhat seems impossible to us today will be possible in the future. The only thing we can be sure of is that we will figure things out.â Fox framed our current predicament like a historical expedition, recalling the time when crossing oceans was the ultimate risk. Now we stand on a cosmic shoreline, ready to step beyond Earth, knowing danger and difficulty are part of the deal.
As Fox observed, weâve always responded to challenges â on Earth, seas, or skies â by forging new tools and tactics. Off-world settlements could rearrange civilisation in unimaginable ways. Not a âspace fanâ? No worries. Fox insisted the knock-on benefits for technology, problem-solving, and future generations will make everyone care.
Anousheh Ansari of XPRIZE Foundation added a unifying perspective: âWhen we go to space⌠we truly understand how interconnected we are, that this is one planet we all live on.â As she put it, you canât predict every application. Just as no one foresaw the million ways weâd use the internet, space will unleash unforeseeable opportunities, âdriven by innovative, imaginative minds.â
In the next 4,000+ words of this special feature (yes, itâs a long one, but so worth it!) Iâm exploring that evolving landscape: how cost-cutting rocket reusability is reshaping access, how commercial stations plan to scale from lab experiments to orbital assembly lines, how satellite intelligence redefines âground truthâ for businesses and nations, and how tapping asteroid resources might go from fantasy to feasible. Weâll see how Europe grapples with autonomy when SpaceX dominates, how new spaceports rise in unexpected places, and how data-driven insights trickle down into decisions at your local vineyard or your cityâs energy grid.
Strap in. This is the story of an industry no longer content with postcards from the Moon. Now, itâs Mars and beyond â and if the voices I met in Lisbon are right, itâs going to be a transformative ride.
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Boca Chica to Azores: The cost of leaving Earth
Getting a rocket off the planet isnât just about strapping some boosters together and lighting a fuse. Often, itâs about the hard slog of laying tarmac, haggling over licences, and navigating a maze of rules and red tape. Donât believe it? Just ask Kathryn Lueders, the General Manager of Starbase, home of the SpaceX Starship transportation system. Sheâs been deep in the reality of building a major spaceport in Boca Chica, Texas, hardly a traditional aerospace hub, and yes, the biggest obstacle wasnât a top-secret rival or some espionage drama. It was something far more mundane.
âWeâre a premium space company⌠and weâre struggling with a road,â Lueders said. Commercial spaceâs pioneers fretting over a two-lane highway in Texas. Thatâs the state of play. As she puts it, âthink about the non-exciting things like licensing, permits, and bringing materials in and out⌠Have it be as smooth as possible.â
As if local infrastructure wasnât enough, launch sites near international borders add to the complexity â clearing beaches during certain launches requires friendly chats with your neighbours abroad. For instance, negotiating with Mexico to keep everyone safe and happy. In short, ensuring that rockets can slip Earthâs gravity gracefully involves a whole lot of paper-pushing and people skills down here on the ground.
Then thereâs Europe, which is wrestling with its own cosmic growing pains. Over on this side of the Atlantic, if the EU doesnât step up its access to space, it risks trailing behind strategically and economically. Cheap rides to orbit courtesy of the usual suspects (hello SpaceX) might be tempting, but it leaves Europeâs freedom of action tied to someone elseâs launch pad.
Thatâs why Europe faces a tough love moment. The Ariane 6? Delayed. Production capacity? Already booked out. Competing with cheaper outfits in the US, India, and China? Letâs just say you wonât see a European Falcon 9 rival selling cut-price orbital hops next year.
Former and current MEPs were blunt: âWe wonât be cheaper than SpaceX or Indian launchers. If we value independence, we must accept paying more.â Autonomy has its price. So whatâs the fix? Invest, subsidise if necessary, and accept that sovereignty in orbit means putting money where your political mouth is.
A few big players dominate now, but adding more competitors could spark innovation and trim costs, giving European launches a fighting chance. Think of it as shifting from a comfy, if slow, national monopoly to a leaner, hungrier market that actually encourages clever engineering.
The European Space Agency and national governments must also sort out the intricate governance that tangles 27 member statesâ interests. Without clearer frameworks, a stable EU-level space law, or at least coherent procurement strategies, building a robust, sovereign launch ecosystem is like herding cats in a vacuum.
While Europe frets over who builds what rocket and at what price, one corner of the continent is quietly eyeing an Atlantic advantage: Portugal. As Ricardo Conde of the Portuguese Space Agency suggested, the Azores might just become Europeâs flexible go-to launch hub. Think micro-launchers and rapid-response capabilities â less pomp, more practicality. The charm here is geography and infrastructure rolled into a neat Atlantic package.
Plans for a spaceport in the Azores could provide âfaster, more flexible access to spaceâ than Europeâs current line-up. Imagine shaving days, maybe weeks, off convoluted logistics. Now add the ability to support micro-launches, serving smaller satellites and offering niche services that the big players canât be bothered with. Itâs not about beating SpaceX at price wars â this is about carving out a sovereign corner where Europe can call the shots.
Of course, the Azores wonât single-handedly solve Europeâs broader sovereignty puzzle. But establishing a launch pad in Portugalâs Atlantic outpost might just give the EU a clever card to play. And in a world where strategic autonomy matters, that might be worth more than discount launch tickets.
And letâs not forget the final complicating factor: orbital crowd control. As thousands of satellites pack into Low Earth Orbit (LEO), âorbital real estateâ starts to feel like prime beachfront property before zoning laws. Without global coordination, everything gets messier. Space traffic management, secure comms, and reliable hardware become sovereignty essentials â less about price tags and more about ensuring your nationâs spacecraft donât get elbowed out of orbit by someone elseâs mega-constellation (notwithstanding hostile nations).
So, on one hand, youâve got Americans wrestling with roads and beach closures in Texas. On the other, Europeans grappling with a multi-country patchwork trying to hold onto independent access to space. Both sides show that even the grand ambition of the cosmos depends heavily on how we solve infrastructure bottlenecks, negotiate regulatory minefields, and find the will to pay for it all. The rocket fuel might be high-tech, but the launchpad often rests on old-fashioned rules, money, and a whole lot of patience.
Orbit on a budget: Satellites go agile
Not long ago, sending a kilo into orbit meant parting with big cash. In the late â90s, it was about $25,000 per kilogram. Today, itâs nearer $2,500, and if next-gen rockets deliver, we might be talking around $250. Thatâs a tenth of the current rate, a staggering drop that doesnât just knock a few digits off the bill; it opens the gates for a commercial free-for-all. Weâre talking about everything from orbital data centres to resource extraction hubs floating above Earth.
Thatâs why some firms are targeting the once-static geostationary satellite world with a new, cheaper twist. SWISSto12âs âHummingSatâ concept, as explained by CTO Michael Kaliski, aims to hit the sweet spot between bulky, legacy GEO satellites and the newest crop of nanosats. Theyâre pushing âmedium-sized, agile platformsâ that deliver GEO-quality performance with fewer channels and more accessible pricing. As Kaliski put it, âItâs really hard today to make that the baseline because it hasnât been demonstrated on orbit yet⌠We need to evolve with technology as it matures.â Thatâs the point â no oneâs pretending this is done and dusted, but the direction of travel is clear.
With HummingSat or similar platforms, the idea is that smaller countries, niche operators, and fresh entrants can finally afford their own piece of orbital real estate. Over time, these modular satellites might host not just telecom but imaging or specialised sensors, broadening the range of players and diversifying the services on offer.
Meanwhile, BlackSky is flipping how we think about satellite data entirely. They own their own satellites, sure, but see themselves as software-first. According to Lyn Chassagne, SVP of Marketing at BlackSky, some customers âdonât even want the imagery. They just want to know what changed, when it changed, and what it was.â Forget sifting through raw pixels, BlackSkyâs platform serves up pure intel. And because BlackSky is âdata-agnostic,â they can rope in third-party satellites, integrate terrestrial feeds, and construct a virtual constellation to supply exactly whatâs needed, on demand.
But letâs not celebrate too soon. More satellites mean more junk, and weâve seen this film before: Earthâs oceans choked with plastic, now orbital highways risk the same fate. Moriba Jah, Co-founder and Chief Scientist of GaiaVerse, made it plain: âWe have abandoned our intergenerational contract of stewardship for the planet in lieu of ownership.â Heâs talking about the sky, but the analogy stings. With some 90% of orbiting objects now just debris, we risk turning low Earth orbit into a cosmic junkyard. âThe sky is falling,â he warned multiple times on stage.
So the outlookâs complex. On one hand, plunging costs and smarter software promise a revolution in satellite services. On the other, unchecked expansion risks destroying orbital commons before we fully profit from it. The future rests on balancing this innovation and affordability with real sustainability. After all, whatâs the point of opening space to everyone if we just recreate the same mess weâve left on Earthâs surface? Thatâs the new frontier: not just putting stuff up there, but ensuring it stays viable for the next generation, interstellar neighbours included.
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Ground truth: Planetary insight at scale
Once upon a time, âground truthâ meant literally standing on a hill, squinting at the horizon. As Will Porteous of RRE Ventures noted, âGround truth was simply what we saw with our eyes and heard with our ears⌠You could only know what was over the next hill if you climbed up to look.â Fast-forward to now, and we have constellations of satellites and droves of data turning blind spots into open books.Â
Weâre moving to a future where overhead imagery and analysis layers are just another everyday input, like a weather app on steroids. âCommercial Earth observation⌠has the potential to enable a widely shared understanding of ground truth that is not restricted to superpowers,â Porteous pointed out. Imagine the next geopolitical conflict or environmental crisis playing out in real-time across social feeds, with near-instant satellite intel. âWe will have whole eyes on it in a way we never have before, and those eyes will not simply be those of major superpowers. They will be in the hands of journalists, NGOs, even concerned citizens.â
This isnât just about politics, war, or news headlines. Itâs about predictive supply chains, ensuring enough cocoa for your next chocolate craving, or verifying that the soy you buy isnât fuelling deforestation. As Rodrigo da Costa at EUSPA (European Union Agency for the Space Programme) pointed out, âOur prediction is that by the early 2030s, the market for space data will double. If you have ideas and youâre interested in using space, now is a great time.â Thatâs his way of saying âget in early!â
Consider AndrĂŠ Campos of Sogrape, whoâs blending satellite data into the age-old art of winemaking. âWeâre using satellite data to predict where the next vineyards can grow because of the global warming that is already impacting a lot of regions,â Campos explained. Itâs a perfect example of how Earth orbit (EO) data can help industries tackle environmental shifts, letting farmers, traders, and insurers see whatâs coming months or even years ahead.
Feroz Sheikh at Syngenta Group drives the point home for agriculture: better predictions and analysis mean we can âscience the hell out ofâ the global food security challenge, as the global population is moving towards 10 billion: âWe have maxed out all agricultural land. The only way, with current practices, is deforestation⌠and that defeats the first challenge [climate mitigation].â
Satellite data, combined with genetic improvements and precision machinery, helps us grow more â no new farmland required. âA drone can see a few kilometres, but a satellite can see 290 kilometres in one go,â underscores the potential scale. With that big-picture vantage, we can do global soil degradation mapping or track anomalies at planetary scale. âBy combining genetics, chemistry, farm machinery with satellite data and AI, we can bring planetary-scale improvements⌠to ensure we have enough food without expanding farmland,â Sheikh explained.
But data alone isnât a silver bullet. Chris Newlands of Space Aye pointed out the gap between data availability and actual usage. People donât just want images; they need actionable insights. And data alone doesnât guarantee transformation. Ryan Ciesielski at National Grid underscored the cultural and organisational barriers. Utilities, historically slow to change and bound by regulations, need compelling evidence before adopting new EO-driven processes. âWe must demonstrate tangible value, ensure data quality, and build internal confidence,â suggested Ciesielski. When one region shows success, like using satellite data to prune vegetation at just the right moment, other units pay attention. Still, alignment isnât trivial, and trust in these systems is earned through repeated proof, not hype.
Still, despite the tangles â interoperability issues, cost, talent shortages â thereâs a sense of inevitability. Data from orbit is becoming democratised, the cost curves are bending downwards, and industry after industry sees a window of opportunity. Jean-Loup Loyer, Data and AI Lead at Eramet, a French mining company, shared that even mining giants harness EO data to monitor ground motion, vegetation, and site productivity. âWe use radar to monitor ground motion at our mines and optical imagery to track vegetation, productivity, and changes around our sites.â Anton Abrarov at Norilsk Nickel similarly uses satellite data, combined with geological intel and AI, to pinpoint resource-rich areas. âWe combine satellite imagery with geological data to find potential areas for new mineral sources.â
The last piece of the puzzle is securing the data revolution, literally. Steve Suarez from HorizonX pointed out the looming quantum computing threat that can break todayâs encryption. âWe must prepare for quantum threats to encryption. Ensuring secure data from satellites is critical, as deep fakes and compromised data can mislead decisions.â If we want reliable supply chains and investment-grade insights, we must defend data authenticity.
In the end, weâre talking about an interconnected, tech-driven global ecosystem, where EO data streams into industries from energy grids to farmland, from supply chains to crisis response centres. The old maps we relied on are long outdated. With the upcoming surge in accessible, secure, and commercial space data, we get the new âground truthâ that can guide a more resilient, informed, and sustainable global economy â if we dare to manage it wisely.
Space stations 2.0: Building industries in orbit
Remember when the ISS was the only game in town? Those days are fading. The International Space Station, after decades of heroic service, is due to retire by 2030. Enter a new era of private space stations: bigger, bolder, and unapologetically commercial. Cheaper launches, the ISSâ decades of foundational research, and private investment are setting the stage for multiple stations to coexist. These newcomers arenât just scientific outposts, theyâre platforms for commercial R&D and eventually large-scale manufacturing.
For years, the ISS gave us proof-of-concept studies: from protein crystals and stem cells to advanced materials and biotech breakthroughs. Now, commercial stations plan to âscale these findings into regular production, thus delivering tangible benefits on Earth.â Think of it as graduating from hobbyist experiments to full-scale production lines in orbit. And as the ISS bows out, Starlab and others gear up to take over, more efficiently and more flexibly.
Dylan Taylor, CEO of Voyager Space, builders of the upcoming Starlab, slated as a partial ISS successor, put it simply: âI think of space as the eighth continent⌠all industries will have a space component to them, or theyâll be disrupted by space.â Unlike the ISS, which was assembled piece by piece, Starlab and its cohort will launch whole, tested and ready. This approach means astronauts can spend less time on maintenance and more time pushing the boundaries of science and manufacturing.
These new stations wonât just host bespoke experiments for a handful of researchers; theyâll allow scaling up to meet genuine commercial demand. Sierra Spaceâs inflatable habitats promise thousands of cubic metres, enough room for production lines that churn out advanced materials. One star product: improved ZBLAN optical fibres, far superior to Earth-made equivalents, slashing the number of repeater stations needed for terrestrial telecoms. The result would be faster, cheaper data connections at home.
If weâre serious about becoming a multi-planetary species, we must learn to build, fix, and recycle materials off-world.
Then thereâs the big play: multi-planetary autonomy. If weâre going to be living on the Moon, Mars, or beyond, we must learn to do it ourselves, off-world. Manufacturing, repairing, and recycling materials in orbit become essential stepping-stones. Otherwise, youâre locked into a wildly expensive Earth-to-orbit supply chain.
Biological and agricultural research might sound niche, but consider what Barbara Belvisi (Interstellar Lab) and Bianca Cefalo (Space DOTS) are exploring. Microgravity could trigger unique genetic expressions in plants, yielding more potent medicines, food supplements, or drought-resistant crops. Some claim space conditions can turn your average fungus or vine into a superfood factory. The ripple effects on Earthâs agribusiness and health industries could be immense.
No one claims itâll be cheap at first. Yet, as AI-driven design, digital twins for quality control, and standardised parts become routine, costs should drop. Combine that with commercial space stations tailored for production, on-orbit servicing to fix glitches, and more accessible reusability, and youâve got a recipe for a maturing space economy. Itâll take time to build supply chains beyond our atmosphere, but the efficiencies and insights gained along the way may rewrite entire industries.
The insane grind of building a space startup đ | Joshua Western (Space Forge)
Why the next industrial revolution is happening in space
Moonâs done. Letâs aim higher: Mars
We planted flags on the Moon decades ago. Impressive back then, sure, but as Rick Tumlinson (SpaceFund, Earthlight Foundation, Space Frontier Foundation) bluntly argued, governments got their prize and then, well, parked their ambition. âNation-states are really, really bad at original innovation⌠Apollo was about beating the Soviets, and after that, we just stopped.â Thatâs the harsh truth: after Apollo, we coasted. Now, programmes like the Artemis Lunar mission feel like pricey reruns â old-school hardware (SLS, Orion, Gateway) at jaw-dropping costs. Tumlinson suggested we ditch the nostalgia and sprint forward.
âArtemis just repeats Apollo. Itâs too costly, too slow, and stuck in old ways. We need to let these old programmes die.â Ouch, but heâs not all doom and gloom. He sees a path forward: embrace commercial NewSpace and its dynamic, iterative approach â think SpaceXâs Starship, fully reusable, failing fast and cheap, pushing boundaries. âWe now have rocket ships, not throw-away rockets. Companies like SpaceX are doing what governments canât: moving fast, failing fast, and innovating.â
In Tumlinsonâs book, why stop at the Moon? Letâs hit Mars by 2029 â technically feasible with Starship-like capabilities. This isnât another âflag and footprintâ mission, but a permanent foothold to open the frontier. âWe could go to Mars by 2029 using these new rocket ships⌠Letâs make a sprint to Mars, not just to plant a flag, but to start something permanent.â
Yet, even Tumlinson says letâs keep the Moonâs visible face beautiful and unspoiled. Put major facilities on the far side or the poles. âLetâs respect the Moonâs face that we see from Earth. Donât build giant facilities on the Earth-facing side. Keep some class as we expand.â Itâs a reminder that interplanetary growth shouldnât be reckless destruction 2.0.
Ultimately, Tumlinson wants a positive, inclusive frontier. Space isnât just about profit margins; itâs about human dreams, inspiration, and leaving a worthy legacy for future generations. âItâs not just about money. Many great achievements werenât driven by the bottom line. Itâs about human dreams, inspiration, and giving future generations a frontier.â
But governments still have a role, he concluded: set some ground rules, keep the big players talking, maybe host an international lunar base. âGovernments should provide stability, then step back. Let the private sector go for it. Maybe have an international Lunar base to keep big powers talking and cooperating.â After that, the private sector can handle the rest, swarming over the cosmos with the kind of innovative energy and hustle we see in Silicon Valleyâs best moments.
If faster, leaner, cheaper rockets are one step, what about the propulsion tech behind them? Richard Dinan (Pulsar Fusion) believes nuclear fusion propulsion could be a strategic advantage, cutting travel times dramatically. âOn Earth, fusion demands huge vacuum chambers, complex magnetic fields, and heavy infrastructure. In space, the environment is different, but we still must solve immense technical problems.â Achieving fusion on Earth remains tough, but space might offer different conditions.
Fusion engines mean higher exhaust velocities, as in shorter trips to Mars and beyond. Itâs complex, yes, but Dinan reckons with enough engineering bravado and data-driven design, we might overcome these challenges. While fission faces regulatory and radioactive hurdles, fusion could prove cleaner and more efficient. Inspiration from giant terrestrial projects like ITER ("The Way" in Latin) might yield tech we can adapt for spacecraft.
This doesnât mean itâll be simple or cheap â realistically, itâs a far-off goal. But if humanity wants to roam the solar system like a neighbourhood, fusion propulsion is the kind of moonshot (or Mars-shot) worth aiming for. After all, whatâs the point in going slow when you can turbo-charge your cosmic commute?
Beyond Mars: Mining metal worlds for Earth
Weâve got the Moon, Mars, and now⌠metal asteroids. Yes, really. If you think space mining and interplanetary resources are just sci-fi, the NASA Psyche mission might change your mind. Lindy Elkins-Tanton of Arizona State University leads this bold venture, sending a spacecraft to (16) Psyche, a rare hunk of mostly metallic asteroid lurking between Mars and Jupiter. It blasted off in October 2023 (just over a year before this talk), hitching a ride on a SpaceX Falcon Heavy. Think of it as a cosmic trek to inspect what could be the exposed core of a planet that never fully formed. If that doesnât intrigue you, consider the fact that weâve never seen anything like it before.
âWe have no photo of Psyche,â Elkins-Tanton pointed out. This is uncharted territory. Normally, planetary scientists hedge their bets because space never fails to surprise. Psyche might confirm our best guesses about planetary cores or blow them all to bits. Technically, Psyche is far off: five times farther than Mars at its closest point. The craft relies on solar electric propulsion, a low-thrust, continuous push thatâs great for efficiency, but makes orbital mechanics more like a chess match played over months. Itâll take six years to get there, then orbit for over two years, gathering piles of data. If patience isnât your strong suit, this might test you, but as Elkins-Tanton suggested, waiting is part of the game here.
Whatâs the big deal with a metal asteroid anyway? By studying Psycheâs composition and structure, weâre essentially peeking inside the guts of a planet. Earthâs core, for instance, is buried under thousands of kilometres of rock â no drilling down there. Psyche might be a stripped planetary core, a relic from the solar systemâs earliest days. Understanding it is understanding how planets form and differentiate. âStudying Psyche and other asteroids helps scientists understand planet formation⌠itâs a critical step in understanding Earth and other worlds,â said Elkins-Tanton.
While NASAâs not hauling this metal home â no samples, no buckets of platinum â its findings will intrigue those dreaming of future asteroid mining. Even if Psycheâs mostly iron and nickel, the principle stands: off-world resources are there, and one day, with improved tech, we might exploit them to ease Earthâs environmental stress and support deep space exploration.
For now, Psycheâs real contribution is knowledge. Weâll learn about metals in space, what itâs like to orbit a metal world, and how building blocks of planets came together. In the decades ahead, if humanity sets its sights beyond Mars, building orbital industries and forging interplanetary supply chains, Psycheâs data will be like that first reliable map of a mysterious coast. It wonât give us all the answers, but itâll show us whatâs possible, and whatâs at stake as we cast our ambitions into the asteroid belt and beyond.
Show me the money: Funding space
Space is exciting, sure, but excitement doesnât pay the bills â and this was the Space Economy Summit after all. Investors and insurers insisted that while a zero-gravity breakthrough might dazzle, it must close a real market gap. As Will Porteous of RRE Ventures noted earlier, itâs not enough to ride the hype of plummeting launch costs or cool technology. A good orbit-to-Earth business model matters more. If you canât show a credible path to customers and revenue, good luck persuading a venture capitalist to write that cheque.
The reality is that VCs and insurers each have their own clocks ticking. Venture funds want exit routes within 5â10 years. Insurers, covering shiny payloads or launches, think in even shorter cycles, sometimes just 12 months. For pitching them, youâd better have milestones lined up, a sane fundraising strategy, and a team who can show they understand risks â operational, market, and regulatory. The investors or insurers want confidence that youâre not some starry-eyed inventor who melts at the first delay or budget overrun.
Investors also like to see grown-up governance structures â boards of directors, credible leadership, and thorough risk mitigation measures, including Directors & Officers insurance. As one speaker noted regarding insurance and investors: transparency builds trust. Hiding behind black boxes or not addressing risks head-on is a surefire way to scare off backers. Openly confronting challenges, detailing how youâll manage supply chains, and showing off that you have strong data validation and security (as Steve Suarez of HorizonX stressed, quantum-safe encryption could be critical in future) all reassure funders that you know what youâre doing and can weather the storms ahead.
As the space economy matures, investor appetites shift. Sectors like satellite communications, AI-enhanced data analysis, and integrated Earth observation services attract lots of attention and capital because their markets are closer to immediate payoff. On the other hand, lunar infrastructure or advanced in-orbit manufacturing, while undeniably exciting, remain long bets for patient capital. The money will flow into safer, nearer-term opportunities first, but if your big moon-shot has credible stepping stones, like incremental demos, stable customers, or government contracts, it can still find its angels and VCs.
So, show me the money? Sure, but show me the market, the milestones, and the management mastery to keep it all from falling apart. Survive the regulatory labyrinth, prove your value to early adopters, and then watch the investors, once cautious, come knocking. Space may be the final frontier, but funding it is the oldest story in business: solve problems, show returns, and the capital will follow.