How Three Explosions, a $100 Million Bet, and One Final Launch Created SpaceX

Musk realized the fundamental blocker to space exploration wasn’t technology or will—it was cost. On the flight back to the United States, he did the math and concluded that raw materials represented only about 3% of a rocket’s sales price. The rest was inefficiency. If he could design simpler rockets and manufacture most of the components in-house, he could undercut the entire global launch industry.

SpaceX was officially incorporated on May 6, 2002, in a 75,000-square-foot former warehouse in El Segundo. The company’s vision was set: become the "Southwest Airlines of the space industry," offering low-cost, highly reliable transport to orbit.

Falcon 1 and the brink of extinction (2006–2008)

SpaceX’s first rocket was the Falcon 1, a two-stage vehicle designed to carry small satellites. It was far cheaper than competitors, but the company had to prove it could work. It didn’t.

The three failures

The first Falcon 1 launch, in March 2006, lasted 25 seconds before a fuel leak caused a fire and destroyed the rocket. The cause was later traced to an aluminum fuel-line nut that had corroded because of salty ocean spray at the Kwajalein Atoll launch site.

The second attempt, in March 2007, successfully completed its first-stage burn, but the second stage began oscillating uncontrollably after separation. The rocket’s fuel sloshed and the engine cut out before reaching orbit.

The third launch, in August 2008, was the most gut-wrenching. Just over two minutes into the flight, the first-stage engine exhibited residual thrust after stage separation, causing it to slam back into the second stage. The result was catastrophic damage, and the rocket fell into the ocean.

Three launches. Three explosions. Nearly all of Musk’s initial $100 million investment had been burned through. Both SpaceX and Tesla—which Musk was also keeping on life support during the 2008 financial crisis—were weeks away from bankruptcy.

The fourth launch

SpaceX had just enough parts and money to cobble together one more Falcon 1. The atmosphere in the company was grim. Musk later recalled, “We had the third consecutive failure of the Falcon 1 rocket for SpaceX… If that fourth launch had failed, we would have been dead.”

On September 28, 2008, Falcon 1 lifted off from Omelek Island. This time, the first stage separated cleanly, and the Kestrel engine on the second stage burned perfectly. The rocket reached orbit—the first privately developed, liquid-fueled rocket ever to do so.

The launch was a success. It was also a miracle of timing. In December 2008, just months later, NASA awarded SpaceX a $1.6 billion Commercial Resupply Services contract to deliver cargo to the International Space Station. The company was saved.

The NASA lifeline and Dragon’s arrival (2010–2012)

The NASA contract required a larger, more capable rocket. SpaceX had already begun design work on the Falcon 9, a nine-engine vehicle that could carry cargo—and eventually people—to the ISS.

The Falcon 9 first flew on June 4, 2010, carrying a test version of the Dragon capsule. It was a success. Then, on December 8, 2010, SpaceX launched an operational Dragon spacecraft. It became the first commercially built and operated spacecraft to orbit the Earth and be successfully recovered.

On May 22, 2012, a Falcon 9 launched Dragon from Cape Canaveral. The spacecraft rendezvoused with the ISS, and on May 25, it was captured by the station’s robotic arm—the first private spacecraft ever to dock with the orbiting laboratory. It was a feat previously accomplished only by the governments of the United States, Russia, Japan, and the European Space Agency.

The reusability breakthrough (2013–2016)

Musk’s founding insight was that throwaway rockets make spaceflight impossibly expensive. The solution was obvious, if terrifyingly difficult: land a rocket booster vertically after it has launched a payload into orbit.

SpaceX spent years attempting to land Falcon 9 first stages on drone ships in the ocean. The boosters kept toppling over and exploding on camera, providing one of the most dramatic engineering spectacles of the decade.

Then, on December 21, 2015, everything changed. A Falcon 9 lifted off, delivered 11 satellites to orbit, and its first stage returned to Earth, touching down upright on a landing pad at Cape Canaveral. It was the first-ever landing of an orbital-class rocket booster.

SpaceX has since landed Falcon 9 boosters hundreds of times and reused individual boosters more than 20 times each. The rocket’s success rate now stands at 99.55%.

Crew Dragon and the return of American human spaceflight

While SpaceX was revolutionizing cargo launch, NASA was eager to stop buying seats on Russian Soyuz rockets for its astronauts after the Space Shuttle retired in 2011. The Commercial Crew Program was created to partner with private companies to build crew-capable spacecraft.

On May 30, 2020, a Falcon 9 launched the Crew Dragon spacecraft with NASA astronauts Bob Behnken and Doug Hurley aboard. The Demo-2 mission marked the first crewed orbital spaceflight launched from U.S. soil in nine years, and the first ever operated by a commercial company.

The capsule, named Endeavour by its crew, docked with the ISS and splashed down safely in the Gulf of Mexico on August 2, 2020. For the first time, a private company had taken humans to the space station.

Starship, Starlink, and what comes next

SpaceX’s current projects are divided into two monumental bets: Starship and Starlink.

Starship is a fully reusable, two-stage launch system designed for missions to the Moon, Mars, and beyond. Development began in earnest at Boca Chica, Texas, where SpaceX rapidly built and tested prototypes. Early prototypes (SN1 through SN4) were destroyed in pressure tests, but SN5 successfully flew a 150-meter hop in August 2020. SN8 completed a high-altitude flight to 12.5 km in December 2020, but exploded on landing. The program is designed to learn from these explosions—rapid iteration is the point.

Starlink is a satellite-internet constellation that has turned SpaceX into a vertically integrated telecommunications provider. By launching thousands of its own satellites on its own reusable rockets, SpaceX has created a business model where launch demand is partially self-generated.

What history actually confirms

When journalists and enthusiasts repeat the SpaceX story, a few myths creep in. Here’s what the evidence actually supports:

• The 2008 near-bankruptcy is well-established: Multiple sources describe the Falcon 1 crisis as an existential threat. Exact cash-on-hand figures are difficult to verify since SpaceX is privately held, but the sequence of three failures followed by a make-or-break fourth launch is consistent across credible secondary accounts and Musk’s own statements.
• NASA’s role was structural, not cosmetic: The 2008 CRS contract was awarded after Falcon 1’s success, but it converted SpaceX from a struggling startup into an operational launch provider. The partnership was milestone-driven and fixed-price, which is distinct from traditional cost-plus government contracting.
• Reusability was the second inflection point: The December 2015 landing wasn’t just a stunt; it demonstrated that a core piece of the company’s business case was technically achievable.

What remains uncertain is the total mix of government support versus private investment (definitions of “subsidy” versus “commercial partnership” vary), the full economic viability of Starship, and the precise details of internal company culture during the early years. Multiple sources offer narrative accounts, but these are largely derived from secondary journalism and employee retrospectives rather than primary corporate records.

The story of SpaceX is not yet complete, but its first chapter is one of the most improbable in modern business history: a company that should have died three times but instead learned to land its rockets and launch humanity back into orbit from American soil.