When the Heavens Went on Sale cover

When the Heavens Went on Sale

by Ashlee Vance

When the Heavens Went on Sale dives into the new era of space exploration, led by Silicon Valley''s bold innovators. Discover how private companies are revolutionizing the space industry, making it accessible and impactful for our world.

The Rise of New Space

How did spaceflight shift from the domain of governments to the ambition of startups? This book traces the birth of the New Space movement—a wave of engineers, entrepreneurs, and investors who transformed rocketry from national prestige projects into iterative, private ventures. Its thesis is that space innovation no longer depends on billion-dollar bureaucracies but on small teams who learn fast, take calculated risks, and treat hardware like agile software.

From Falcon 1 to a global ecosystem

The modern era began with SpaceX’s Falcon 1—a makeshift rocket built on the coral island of Omelek. After three explosive attempts, its fourth flight in 2008 proved that a private company could reach orbit. That moment converted speculation into inevitability. Engineers realized that success was possible without the traditional state machinery. Falcon 1’s crude logistics—frozen oxygen tanks, corroded nuts, and improvised repairs—became the template: solve problems relentlessly, accept failure as feedback, and iterate until orbit. (Note: the 2008 success was as psychological as it was technical.)

The cultural pivot

In California, Brigadier General Pete Worden transformed NASA’s Ames Research Center into a creative hub aligned with Silicon Valley culture. His motto—"Proceed until apprehended"—gave engineers permission to experiment within a government framework. There, projects like PhoneSat and partnerships with Google birthed a generation of innovators known as “Pete’s Kids,” who later founded Planet Labs and similar ventures. Ames was proof that bureaucracy could incubate rebellion if led by the right contrarian.

From hacker houses to orbital startups

The book connects policy change to social culture—houses like the Rainbow Mansion in Cupertino became real incubators where young engineers mixed communal living, nightly brainstorming, and experimental idealism. Within that microcosm, Will Marshall, Robbie Schingler, and Chris Boshuizen evolved ideas from Android phone satellites into the Planet Labs constellation. Their shared ethos—change the world by democratizing space—turned informal gatherings into corporate missions. The mix of vision, friction, and shared meals created lasting companies.

A new model of speed and iteration

Unlike NASA’s ten-year timelines, New Space firms compressed development cycles. Rocket Lab in New Zealand, Astra in Alameda, and Firefly in Texas built, tested, and relaunched within months. They accepted early explosions as tuition, not tragedy. Companies learned that moving fast in hardware requires balancing physics and process: you can blow up rockets to learn, but you must capture that data to improve. Astra’s clock counting down 239 days embodied the belief that iteration beats perfection.

The revolution’s ripple effect

Planet Labs turned space imagery into a daily data stream, reshaping transparency and intelligence. Orbital Insight and other firms added AI, turning pixels into actionable insights—whether counting vehicles at factories or exposing missile silos in China. Meanwhile, Rocket Lab proved that small nations could build orbital capability without superpower budgets, and Firefly revealed the entanglement of aerospace ambition with geopolitics. Together, these stories illustrate how access to orbit became decentralized, how private data redefined intelligence, and how startup culture reimagined space as a frontier open to millions rather than a few space agencies.

Central insight

The new generation combined technical literacy, venture capital, and moral purpose—believing that speed and openness, not secrecy and bureaucracy, would transform human spaceflight and global observation.

Ultimately, this book tells you that space’s future belongs to those who treat rockets as software, satellites as data nodes, and communities as laboratories. The chain from Falcon 1 to Planet Labs to Astra maps the moral and practical rebirth of exploration—one startup, one experiment, one shared hallucination at a time.


Falcon 1 and the Proof of Possibility

Falcon 1’s journey on Omelek Atoll was both an engineering saga and a cultural awakening. You see a team facing humidity, corroding nuts, and evaporating oxygen with improvised fixes and sleepless determination. Each failed flight was a trial by physics—until September 2008, when the fourth attempt succeeded and extended a lifeline to Elon Musk's company.

Iteration over reputation

SpaceX’s persistence turned embarrassment into data. The failures revealed the logistics hell beneath aerospace glamour, and the final success proved that iteration could beat experience. The event didn’t just rescue SpaceX—it altered the global psychological map of what private space could be. Engineers realized that a private firm could survive repeated disasters and still orbit.

Symbolism beyond the launch

Falcon 1’s importance lies in what it validated: small budgets and fast cycles could challenge state monopolies. Its technical triumph also served as cultural proof: complex aerospace could be conquered through relentless experimentation, not bureaucratic caution. Its ripple encouraged entrepreneurs worldwide—Rocket Lab, Astra, Firefly, and countless CubeSat makers—to envision doing the impossible at garage scale.

Practical lesson

Breakthroughs in complex systems emerge when you treat setbacks as design inputs. SpaceX taught future founders that failure isn’t fatal if you learn faster than you burn.

If you trace every small launch or micro-satellite today, the line eventually reaches back to Omelek. Falcon 1 was the ignition point that changed who could go to space, how they could work, and what kinds of risks were worth taking.


Pete Worden and the Silicon Valley Mindset

Worden’s tenure at NASA Ames blended military precision with startup speed. He redirected a bureaucratic outpost into a creative lab for computing, biology, and low-cost space experiments. His philosophy—experiment first, apologize later—bridged federal rigidity with entrepreneurial chaos.

Reprogramming institutions

Under Worden, Ames became a gateway between NASA and Silicon Valley. Projects like Google Moon, Singularity University, and the PhoneSat experiments transformed skepticism into proof. By encouraging engineers like Will Marshall and Chris Boshuizen to explore hardware using smartphones and consumer sensors, Ames incubated what became modern commercial Earth imaging.

The network effect of rebellion

Worden’s recruits—“Pete’s Kids”—carried his ethos into industry. Their later startups embodied his contrarian instruction: move faster than bureaucracy allows. The result wasn’t just invention but mindset propagation. Even as NASA investigated him and Congress questioned his management, Worden kept the center fertile for spinoffs, launching an enduring model for innovation inside rigid institutions.

What you can learn

Institutional change doesn’t start with structure—it starts with people who are willing to defy procedure, hire for curiosity, and tolerate temporary chaos in exchange for long-term creativity.

Worden reframed government participation in the space revolution. Instead of opposing the private wave, he made NASA Ames its launching pad—showing you how even bureaucracies can seed radical innovation through permission, people, and persistence.


Planet Labs and the Era of Open Space

Planet Labs turned the notion of one perfect satellite on its head. Instead of multibillion-dollar spacecraft, its founders launched hundreds of compact, cost-effective Doves that photographed Earth daily. This inversion—many cheap for one exquisite—changed how humanity observes itself.

From phones to fleets

The company’s origin at NASA Ames began with PhoneSat—smartphones used as satellite brains. When Will Marshall, Chris Boshuizen, and Robbie Schingler realized consumer chips and sensors could survive orbit, they saw an opportunity: make imaging continuous and accessible. Launches piggybacked on ISS deliveries and foreign rockets until the 2017 PSLV flight deployed 88 Doves, creating an unprecedented data stream.

From pixels to accountability

Planet’s daily imagery provided more than pictures; it provided evidence. Governments, journalists, and NGOs could verify environmental change, factory activity, or military construction without official permission. Commercial clients tracked crops, insurance risk, and logistics patterns. You could say Planet made the Earth self-aware—turning global activity into visual data.

A paradigm shift

By democratizing space imagery, Planet triggered the rise of open source intelligence (OSINT). Reed College student Decker Eveleth’s discovery of Chinese missile silos from Planet data proved that transparency isn’t a government monopoly. The firm’s approach—mass imagery plus AI analysis—reorganized political truth itself.

Key takeaway

Frequency and coverage can be more powerful than precision. When imagery becomes ubiquitous, truth becomes harder to hide, but privacy becomes harder to protect.

Planet Labs shows you that consumer-grade technology and idealistic intentions can combine to create planetary-scale infrastructure—a living data archive visible to everyone and accountable to all.


Rocket Lab and New Zealand’s Pragmatic Revolution

Peter Beck’s Rocket Lab illustrated that space access doesn’t require superpower status. His company built reliable small rockets from carbon fiber in New Zealand—a country with no prior launch laws—and proved that national identity could be an engineering advantage, not a limitation.

Craftsmanship over pedigree

Beck’s path was unconventional: a tool-and-die technician turned rocket designer who made propellants in his shed. His Electron vehicle used innovative electric turbopumps and 3D-printed parts. By focusing on beauty, manufacturability, and speed, he turned small-satellite launches into a routine business, with a private site at Māhia Peninsula allowing frequent flights.

Cultural and diplomatic innovation

Rocket Lab’s triumph required legal engineering as well as mechanical. Beck worked with New Zealand’s government to invent launch regulation from scratch and align with U.S. safety rules. In doing so, he built not only rockets but civic frameworks for private space activity. His hiring philosophy—make clever people build clever machines—cemented a practical, tight-knit culture.

Engineering in service of elegance

Rocket Lab demonstrates that beauty, efficiency, and pragmatism can coexist in engineering. It’s not about prestige; it’s about repeatable precision done with cultural harmony.

For entrepreneurs, Beck’s story provides a blueprint: pair local resourcefulness with global partnerships, respect bureaucracy without being slowed by it, and prove that even small nations can launch themselves into the sky.


Speed, Factories, and the New Launch Economy

Startup rocketry redefined what it means to build fast. Astra’s plan to turn rocket launches into logistics—standardized, containerized, and repeatable—embodied the ultimate ambition of New Space: making launches occur as frequently as software updates.

Move fast, but measure wisely

At Astra’s Orion and Skyhawk facilities, rockets were built under automotive-style conditions. Aluminum parts, simple wiring, and modular launch containers replaced aerospace opulence. Every test burn generated immediate redesigns. Failure wasn’t scandal—it was telemetry. (Note: The company’s “rocket-a-day” vision is audacious but economically intuitive.)

Factories as the frontier

Skyhawk converted an abandoned Navy building into a production ecosystem with cranes, welding cells, and robotics. This was Tesla logic applied to spaceflight: volume beats perfection. By designing transportable pads and mission control inside shipping containers, Astra aimed to launch anywhere in days instead of months. Hardware became choreography—cranes, tarps, and parking-lot pushes were as crucial as engine design.

Operational truth

Real progress depends not just on elegant physics but on gritty logistics—crane capacity and road turns can stop a launch as easily as a failed valve.

This model teaches you that space hardware innovation now draws equally from aerospace, automotive, and software playbooks. Success isn’t about one perfect rocket—it’s about systems that can adapt, replicate, and roll to the pad again tomorrow.


People, Risk, and the Culture of Persistence

Behind every rocket are personalities—builders who sleep beside test cells and founders who juggle PR, politics, and physics. The book surfaces this human dimension to show that culture determines whether innovation endures or implodes.

The human propellant

Astra’s crew—Ben Brockert, Les Martin, Matt Flanagan, and others—represent a maker class where grit meets exhaustion. Their loyalty lies with the machines, not the headlines. Founders like Chris Kemp, Adam London, Peter Beck, and Tom Markusic embody wildly different temperaments—from Kemp’s showmanship to London’s quiet rigor—but each relies on crews who translate drawings into functioning engines.

Cultural rituals and churn

Astra’s hourglass standups, Rainbow Mansion’s shared meals, and Planet’s 4D accountability sessions illustrate how ritual structures accelerate productivity. Yet pressure and public visibility create burnout—many original shop-floor heroes left as companies scaled and entered SPACs. The balance between velocity and sustainability becomes existential.

Enduring truth

Machines may define milestones, but people define momentum. Retaining tacit knowledge and the ethic of hands-on repair matters more than corporate polish.

If you run any hard-tech startup, this chapter reminds you that the real challenge is not physics—it’s maintaining morale, ritual, and grit long enough to see engines light successfully.


Regulation, Capital, and Geopolitics

No matter how fast you build rockets, government oversight remains the gravitational constant. Ranges, politics, investors, and international security frameworks form the invisible scaffolding of space enterprise.

Navigating rules and risk

Launch ranges like Kodiak or Vandenberg simulate every failure mode before flight. Safety officials train teams to terminate rockets midair if trajectories deviate. Local communities, as in Alameda, respond strongly to tests and public secrecy. Astra’s razor-wire negotiations highlight how civic tolerance must be earned through transparency and trust.

The money boom and its whiplash

SPAC financing gave companies fast capital but also instant exposure. Astra’s merger with Holicity and Planet’s public debut amplified valuations—and scrutiny. Stock volatility, lawsuits, and investor expectations forced startups to act like corporations overnight, often straining cultures built for experimentation, not compliance.

When geopolitics intervenes

Firefly’s Ukrainian partnership under Max Polyakov illuminated how national security can override intent. Despite his anti-Russian stance, U.S. agencies forced divestment over export concerns. The 2022 invasion of Ukraine underscored this tension—satellite imagery and Starlink connectivity became strategic weapons, proving that commercial assets carry geopolitical weight.

Strategic reminder

Space is global in technology but national in regulation. Founders must navigate investors and borders as skillfully as engines and fuel lines.

The regulatory and capital environment defines the speed limits of New Space. Launch ethics, security clearances, and public market pressures ensure that the frontier’s freedom comes bound with hidden gravity.

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