They Predicted Apollo 11 in 1865: The Wild True Story of Space Fiction That Became Space Fact

Here's a question that'll break your brain a little. What if some of the greatest engineers of the Space Age didn't get their best ideas from a physics textbook? What if they got them from novels? What if a French playwright who died in 1655 accidentally invented the rocket? What if a guy who lived in the second century — long before telescopes, long before electricity, long before basically everything — sat down and wrote the world's first science fiction story about going to the Moon?

That's not a hypothetical. That actually happened. The history of science fiction and space exploration is tangled together in the most spectacular, stranger-than-fiction way imaginable. Long before NASA existed, before liquid fuel was a thing, before anyone had ever heard the word "astronaut," a series of brilliant, slightly unhinged writers were mapping out the physics, the logistics, and even the exact geographic location of a Moon mission. And the wildest part? They got so much of it right. We're talking same launch state, same material for the hull, same crew size, same name for the spacecraft, same Pacific Ocean splashdown. Jules Verne wrote that in 1865. Apollo 11 happened in 1969. Let that sit for a second.

This isn't just a fun historical coincidence to drop at a dinner party (though it absolutely is that too). This is the story of how human imagination literally engineered the future of spaceflight. Robert Goddard — the man who built the world's first liquid-fueled rocket — said his obsession started from reading Jules Verne as a kid. Wernher von Braun, the architect of the Saturn V rocket that shot Apollo 11 to the Moon, said the same thing. These weren't just fun books. They were, in a very real sense, the first technical manuals for leaving Earth. Check out our previous post on revolutionary space travel concepts for more mind-expanding context — then come back, because this history goes even deeper.

The World's First Sci-Fi Story Had Space Wars, Giant Spider-Webs, and Aliens With Cabbage Tails

Meet Lucian of Samosata. Second century CE. Syrian-Greek. Massive troublemaker. In an era when most writers were busy copying Homer or praising emperors, Lucian sat down and wrote a story called A True Story (Vera Historia) — a satirical account of a ship getting swept into space by a giant whirlwind and landing on the Moon, where an all-out interplanetary war is raging over the colonization rights to Venus. Carl Sagan himself identified this as the earliest known work of science fiction. That's right. The genre that gave us Star Trek and Star Wars started with a guy in the Roman Empire making stuff up to mock bad historians.

But Lucian wasn't just goofing around. Hidden inside the absurdity is a truly revolutionary idea: outer space needs physical infrastructure to be used as a battlefield. Since troops can't march on nothing, the Moon King hires giant space spiders to spin a colossal web across the void between the Moon and Venus — creating an artificial floor for infantry combat. That's not just weird. That's a conceptual leap. Recognizing that the vacuum of space requires manufactured structure? That's the same logic behind today's space stations.

Street-smart analogy time. Imagine you want to play a soccer match, but instead of a field, there's just an open swimming pool. You'd need to build a platform first, right? That's exactly what Lucian's Moon King did — except the "swimming pool" was the infinite vacuum of space, and the "platform" was a web spun by cosmic arachnids. Wild? Yes. Conceptually sound? Also yes.

Here's the misconception most people have: they assume early fiction about space was purely magical, with zero logic behind it. Not true. Lucian built an internally consistent alien ecosystem. The Moon-dwellers (Selenites) had no navels — their bellies were openable pouches lined with shaggy hair, used to store weapons and shelter their children from the cold. Their ears were made of plane-tree leaves. They had detachable, removable eyes they could swap out or lend to friends. When they sweat from fighting, it came out as thick, curdleable milk. Their noses ran with honey. Their shields? Giant mushrooms. Their spears? Hardened asparagus stalks. Their cavalry rode birds with wings made of lettuce leaves.

Bizarre? Sure. But Lucian gave every detail its own biological logic. That matters enormously in the history of science fiction. He established the template that alien life should operate by its own consistent rules, not just be a human in a costume. That philosophical framework — build the world, then follow its rules — is the core DNA of every serious sci-fi universe ever created since.

Ouch. Even the Moon didn't see that coming. Georges Méliès' 1902 masterpiece A Trip to the Moon — the movie that proved space travel was cool before NASA made it real.

The Cyrano de Bergerac Rocket Invention History Nobody Talks About (And Poe's Pressurized Spacecraft Design)

Fast-forward about fifteen hundred years. The year is 1657. A French philosopher-playwright named Savinien de Cyrano de Bergerac publishes a posthumous novel called The Comical History of the States and Empires of the Moon. And in it, he accidentally invents the rocket. No, really. The Cyrano de Bergerac rocket invention history is one of the most underrated stories in all of science.

Cyrano proposes two methods of getting to the Moon. The first: strap bottles of morning dew to your body. His logic was that the sun draws dew upward through evaporation every morning — so if you concentrate enough dew, you get pulled skyward too. It's a genuine attempt to apply natural physics to flight. It just doesn't have quite enough oomph for a lunar transit; it only gets him as far as Canada. Solid effort, Cyrano.

His second method is the one that changed history. Stranded in Canada, Cyrano builds a catapult-launched vehicle. Soldiers find it and, thinking it's a strange effigy, strap fireworks to it as a prank. Cyrano jumps in to save his invention. The fuses are lit. And then — "tier upon tier of explosives ignited like rockets," blasting the craft off the Earth and toward the Moon. That's it. That right there is the world's first literary description of staged, sequential rocket thrust for spaceflight. Sir Isaac Newton wouldn't formally describe his Third Law of Motion (every action has an equal and opposite reaction) until 1687 — thirty years later. Cyrano got there first. By accident. In a comedy novel.

Think of it like a giant Roman candle. You know how fireworks launch in stages — pop, pop, POP — each burst pushing higher than the last? That's staged rocketry. That's how the Saturn V works. That's how the Falcon 9 works. And Cyrano described the core concept in 1657, simply by writing "tier upon tier." The man was centuries ahead of his time.

The common misconception is that Cyrano's work was pure comedy with no scientific value. Wrong. He was a student of the French atomist Pierre Gassendi and was secretly pushing Copernican sun-centered cosmology in a Catholic country that could get you in serious trouble for that. The comedy was a disguise. The science was real.

Then comes Edgar Allan Poe. His 1835 story, The Unparalleled Adventure of One Hans Pfaall, tackles a problem the earlier writers completely ignored: what happens to your body in the vacuum of space? The Edgar Allan Poe pressurized spacecraft design in this story is stunning in its detail. His hero builds a sealed wicker basket encased in a "very strong, perfectly air-tight, but flexible gum-elastic bag" — essentially a rubber spacecraft capsule. He then invents a mechanical air condenser: a pump that sucks in the thin vacuum outside, compresses it into breathable air, and pushes it inside the sealed cabin. He also installs an exhaust valve at the bottom to dump toxic carbon dioxide. This is a closed-loop life support system. In 1835. Before anyone had ever been to space.

Poe even tested his system on a cat. He suspended a smaller external basket with a cat and kittens from the balloon, observing their physiological distress as the air thinned. That's animal testing for spacecraft life support — in a short story written in the 1830s. The guy was relentless.

"Ow, my eye!" — The Moon, 1902. Cinema's greatest drama, still unmatched. Le Voyage dans la lune proved the Moon had feelings long before NASA went to check.

Jules Verne Apollo 11 Predictions: The Most Accurate Guess in Human History (And What It Means for Artemis II)

And then there's Jules Verne. From the Earth to the Moon, 1865. This is where things stop being "interesting historical trivia" and start being genuinely eerie. The Jules Verne Apollo 11 predictions accuracy is so specific, so detailed, and so correct that aerospace historians still shake their heads about it. Let's go through the list.

• Launch Location: Verne correctly deduced you need to launch as close to the equator as possible in the United States to use Earth's rotational momentum. His fictional site: Stone's Hill, near Tampa, Florida, on the 28th parallel. NASA's actual site: Kennedy Space Center, Merritt Island, Florida, also on the 28th parallel. Distance apart: less than 130 miles.
• Rejected Launch Site: In the novel, Brownsville, Texas is explicitly considered and rejected. NASA also considered and rejected Brownsville, Texas. In 1865. One hundred years early.
• Spacecraft Name: Verne named his giant space cannon the Columbiad. NASA named the Apollo 11 command module Columbia, at the direct suggestion of NASA's assistant administrator of public affairs — as a literary homage.
• Crew Size: Verne: 3 men. Apollo 11: 3 men (Armstrong, Aldrin, Collins).
• Hull Material: In 1865, aluminum was so rare it was nearly as expensive as gold. Verne predicted it would be the metal of choice for a spacecraft, citing its high tensile strength and low weight. Apollo command modules: aluminum-honeycomb alloy.
• Splashdown Recovery: In Verne's 1870 sequel, the crew splashes down in the Pacific Ocean and is picked up by a US Navy ship (the USS Susquehanna). Apollo 11 splashed down in the North Pacific and was recovered by the USS Hornet.

Street-smart analogy. Imagine writing down every detail of a sports championship in 1865 — the city, the team name, the player count, the stadium location, who wins — and then in 1969 your notebook is found and every single detail matches. That's what Verne did. Not with sports. With rocket science.

The misconception here is that these parallels are vague coincidences — like horoscopes that are broad enough to apply to anything. They're not. The Florida location, the Texas rejection, the aluminum metallurgy, the Navy recovery, the crew of three — these are extremely specific data points that all line up simultaneously. That's not luck. That's what happens when you do rigorous scientific homework inside a novel.

And it doesn't stop at Apollo. The Artemis II mission free-return trajectory is straight out of Verne's 1870 sequel, Around the Moon. In that book, Verne's crew fails to land because a gravitational disturbance alters their path. Instead, they loop around the dark side of the Moon in a free-return trajectory — using the Moon's gravity as a slingshot to come back to Earth — and splash down in the Pacific. NASA's Artemis II mission (the first crewed Artemis flight) will fly four astronauts on the exact same orbital architecture: translunar injection, a flyby at approximately 120 kilometers above the lunar surface, a gravitational slingshot home, Pacific Ocean splashdown. No surface landing. Verne wrote that narrative in 1870. NASA is flying it today.

Isaac Asimov called Verne "the first futurist in the modern sense" — the first person to seriously ask what might be achieved with continued technological advancement and then apply historical data and contemporary physics to build a credible answer. Robert Goddard, who launched the world's first liquid-fueled rocket in 1926, traced his lifelong obsession to an afternoon in October 1899 when he was pruning a cherry tree on his Aunt Effie's farm, daydreaming about building a device to reach Mars — a dream planted directly by reading Verne. Wernher von Braun, the man who designed the Saturn V, said he taught himself calculus and trigonometry as a teenager specifically so he could understand the physics in Verne's novels well enough to one day actually build the rockets.

Frequently Asked Questions

What was the interior of Jules Verne's fictional spacecraft actually like?

Think less NASA control panel, more Parisian gentleman's club — in space. Verne's projectile was a massive hollow metallic shell, 108 inches in diameter with 12-inch-thick reinforced walls, fired from a 900-foot underground cannon using 122 metric tons of guncotton as propellant. Inside, the three astronauts lounged on a circular velvet couch. One of them, the flamboyant French poet Michel Ardan, wore a loose velvet suit and casually smoked a cigar mid-flight. The cabin was lit not by electricity but by warm, flickering gas lamps fed from a pressurized reservoir under the floor. The walls were leather-padded (for G-force protection) and decorated with Victorian scientific instruments behind glass and brass fittings. For life support, the ship used the Reiset and Regnaut apparatus — a chemical device that heated potassium chlorate above 400 degrees to generate fresh oxygen and scrub out carbon dioxide. It was brutalist aerospace engineering wrapped in Victorian luxury. Utterly magnificent.

What did Isaac Asimov say science fiction writers got completely WRONG about the Moon landing?

For all of Verne's incredible accuracy, Asimov pointed out one enormous blind spot shared by virtually every early sci-fi author: they never predicted live television or computers. In a 1985 essay, Asimov reflected that science fiction writers correctly predicted ballistic trajectories, hull materials, crew sizes, and even launch coordinates — but nobody foresaw that when humans first landed on the Moon, billions of people on Earth would be watching it happen live on television. And nobody predicted that the spacecraft would be navigated and operated by onboard computers. The entire concept of cybernetics and mass media as central to the space program was a total blind spot. Which is a fascinating reminder: even the most brilliant predictors of the future tend to see the physics coming long before they see the communications technology.

Why did NASA's space program look so much like Jules Verne's plot — even in its political and economic motivations?

This one is genuinely spooky. In Verne's novel, the Baltimore Gun Club is composed of bored, restless post-Civil War military engineers and weapons contractors. They've got massive stockpiles of explosives, huge government budgets, and surplus military infrastructure — and nothing to shoot at anymore. So they redirect it all into a nationalistic, spectacularly expensive moonshot to prove American technological superiority. Sound familiar? NASA historian Roger Launius has documented that the real Apollo program was driven by almost identical forces: Cold War defense spending, surplus ICBM missile technology being converted for civilian spaceflight, and a fierce geopolitical competition to prove national superiority over the Soviet Union. Launius characterized early NASA missions as "Cold War propaganda weapons" designed to sway global opinion — exactly the same nationalistic spectacle and pride that drives Verne's fictional Gun Club over a century earlier. The politics of the space race were already written in 1865.

So What Does It All Mean? The Books That Built the Rockets

Let's pull it all together. Start with Lucian of Samosata in the second century, writing a satirical cosmic war with spider-web battle platforms and aliens whose tears are honey. Jump to Cyrano de Bergerac in 1657, accidentally inventing staged rocket propulsion while trying to write a comedy. Move to Edgar Allan Poe in 1835, engineering a hermetically sealed rubber spacecraft and a mechanical air condenser that reads like a NASA technical report. Then arrive at Jules Verne in 1865, calculating escape velocity, specifying aluminum for the hull, pinpointing Florida on the 28th parallel, naming the craft Columbia, and predicting a Pacific Ocean splashdown — all one full century before Neil Armstrong took that one small step.

None of this is coincidence. This is a feedback loop. The writers imagined it. The scientists read the books. The scientists built the rockets. Carl Sagan recognized that Lucian's satirical skepticism planted the philosophical seeds of the scientific method itself. Robert Goddard got his obsession from Verne's novels while sitting in a cherry tree at age seventeen. Wernher von Braun learned calculus to understand Verne's physics so he could one day actually build what Verne described. The chain is direct and documented.

And it's still going. Right now, as NASA prepares Artemis II — the first crewed mission of the Artemis program — its orbital profile is a free-return circumlunar trajectory with a Pacific splashdown. Verne wrote that in 1870. The dream and the reality are still running on the same track, separated by about 150 years.

Here's the thing that really gets me. These authors weren't engineers. They were storytellers. They had no funding, no laboratories, no government contracts. They had imagination, rigorous curiosity, and the audacity to ask: what if? And that was enough to set the entire trajectory of human space exploration in motion. The next time someone tells you reading fiction is a waste of time, tell them about Jules Verne and the Columbia. Tell them about Cyrano and his firecracker rocket. Tell them about Goddard in the cherry tree.

Want to keep exploring the frontiers where science and imagination collide? Head over to thesecom.com for more stories that will make your brain very happy. Space is weird, history is wild, and the future is already written somewhere in an old book.

Sources & References

• Lucian of Samosata — A True Story (Vera Historia), c. 2nd century CE
• Savinien de Cyrano de Bergerac — L'Autre Monde: les États et Empires de la Lune (The Comical History of the States and Empires of the Moon), 1657 (posthumous)
• Edgar Allan Poe — The Unparalleled Adventure of One Hans Pfaall, 1835
• Jules Verne — De la Terre à la Lune (From the Earth to the Moon), 1865
• Jules Verne — Autour de la Lune (Around the Moon), 1870
• Robert H. Goddard — A Method of Reaching Extreme Altitudes, 1919 (Smithsonian Institution)
• NASA — Apollo 11 Mission Archives and Historical Documentation, National Aeronautics and Space Administration (www.nasa.gov)
• NASA — Artemis II Mission Profile, Official Program Documentation (www.nasa.gov/artemis)
• Roger D. Launius, NASA Chief Historian — Commentary on Apollo Program and Cold War context
• Carl Sagan — Philosophical commentary on Lucian of Samosata and the origins of science fiction; attributed quote on the cosmos and love
• Isaac Asimov — "Father Jules" commentary on Jules Verne; 1969 letter defending Apollo program funding; 1985 essay on science fiction blind spots regarding cybernetics and mass media
• Wernher von Braun — Attributed commentary on Jules Verne's scientific accuracy and the debt of modern astronauts
• Francis Godwin — The Man in the Moone, 1638 (cited for comparative context)
• Pierre Gassendi — French atomist philosopher; cited as Cyrano de Bergerac's scientific mentor

Disclaimer: This article is produced strictly for informational and educational purposes only. All facts, names, dates, quotations, and scientific claims presented in this post are sourced exclusively from the research data provided and do not represent the independent claims of the author or publisher. Space science, aerospace engineering, and the history of astronautics are rapidly evolving fields; mission profiles (including Artemis II), scientific interpretations, and historical attributions may be updated, revised, or recontextualized as new research emerges. Readers are strongly encouraged to consult official sources — including NASA's official website (nasa.gov), peer-reviewed academic publications, and certified aerospace institutions — for the most current, accurate, and authoritative information. The publisher makes no representations or warranties of any kind regarding the completeness or absolute accuracy of the information presented herein.