In January 1920, the Smithsonian Institution announced Robert Goddard's work on a rocket capable of reaching great altitudes and possibly delivering instruments to the Moon. The New York Times responded with an editorial that the newspaper would have to correct forty-nine years later—one day before the launch of Apollo 11.
On January 13, 1920, The New York Times published a piece headlined "A Severe Strain on Credulity." The paper acknowledged that a multistage rocket could be a practical means of lifting instruments into the upper layers of the atmosphere. But then the physics turned inside out.
The editorial claimed: after leaving the atmosphere, explosions of the remaining charges would be unable to sustain or accelerate flight. The rocket allegedly needed "something better than a vacuum" to react against. The article tied this to the laws of dynamics, as if appealing to Newton himself.
The error was elementary to the point of absurdity. Rocket thrust arises not from pushing off the atmosphere, but from ejecting mass—hot gases—at high velocity backward. Newton's third law works flawlessly: gases fly one way, the rocket flies the opposite way. The law of conservation of momentum doesn't ask permission from its surroundings. Imagine a firefighter with a hose: when water bursts from the nozzle, he's thrown backward not because he's bracing his feet against the asphalt harder, but because the mass of water acquires velocity in one direction. The asphalt helps the firefighter stay upright, but doesn't create the reactive force—the water itself creates it.
The Times was essentially claiming that a rocket is a propeller that needs a medium to spin in. But a rocket is a cannon firing itself in the opposite direction from the projectile, and the projectile here is the combustion products ejected through the nozzle at several kilometers per second.
The Smithsonian Institution had been funding Goddard's work since 1917, initially planning to use his rockets to lift instruments above the atmosphere. In 1920 the institution published the work "A Method of Reaching Extreme Altitudes." After publication, information about the project received international attention, and it was this surge of attention that provoked the Times editorial.
Goddard found himself trapped between scientific ambition and public ridicule. The press dubbed him the "moon man," cartoonists drew rockets with wings. Mockery worked as a social mechanism of rejection: an idea ridiculed in the country's major newspaper automatically moved into the category of eccentricities.
After 1920, Goddard became secretive about technical experiments. He feared his inventions might be stolen, but even more—that they'd be laughed at before they worked. Secrecy became his armor, but it also cut him off from colleagues and potential allies. Goddard kept diaries in code, patented details without publishing blueprints, launched rockets far from prying eyes.
This is the classic engineering dilemma: to prove an idea works, you need resources and attention, but attention without proof turns into skepticism, and skepticism chokes off resources. Goddard was stuck in this loop for years, until a man appeared who understood the price of risk better than anyone in America.
On March 16, 1926, on a snow-covered field in Auburn, Massachusetts, Goddard launched the world's first liquid-fueled rocket. Present were he himself, his wife Esther, and several assistants from Clark University. On March 8 an unsuccessful attempt was made—the rocket didn't lift off.
The design resembled an upside-down Christmas tree: engine and tanks on top, nozzle below. Fuel—liquid oxygen and gasoline. This was a radical departure from gunpowder rockets: liquid fuel can be regulated, metered, shut off. Gunpowder burns until it burns out; liquid gives control.
The rocket operated for about twenty seconds, rose approximately 12.5 meters and traveled about 56 meters before being destroyed on impact. By space age standards this looks like a parody of flight, but by 1926 standards it was a breakthrough comparable to the Wright brothers' first flight. Goddard proved not altitude, but principle: the liquid-fueled rocket is controllable, reproducible, and scalable.
The snow on the field wasn't accidental scenery—it served as a measure of range and a visual marker of trajectory. The track in the snow showed where the rocket fell and helped estimate range without complex measurements. This launch didn't make the papers, didn't cause a stir, didn't become a sensation. Goddard deliberately avoided publicity, remembering the lesson of 1920: better to stay silent and work than to promise and make excuses.
In 1930 Goddard received additional funding after the intervention of Charles Lindbergh—the man who had flown solo across the Atlantic and understood what it meant to do the impossible alone. Lindbergh saw in Goddard a kindred spirit: an engineer working at the edge of technical possibility, ignored by the establishment.
The money allowed a move to Roswell, New Mexico—desert country where rockets could be launched without risk of burning down someone's barn or frightening neighbors. In the 1930s Goddard built and launched larger rockets: with gyroscopic stabilization, with nozzle cooling systems, with pumps for pressurized fuel delivery.
Roswell became a proving ground for working out all the key technologies later used in the V-2, Redstone, Atlas, and Saturn. Goddard patented multistage designs, turbopumps, thrust vector control systems. He worked methodically, almost maniacally, documenting every launch, every failure, every improvement.
But the world was moving faster. In Germany, Wernher von Braun and his team were creating the V-2—a rocket that embodied Goddard's ideas on an industrial scale, but for military purposes. After the war, von Braun ended up in America, and Goddard's patents—in legal disputes. Goddard died in 1945, not living to see the first satellite, or the first human in space, or the moment when his correctness became obvious even to the skeptics at the Times.
On July 17, 1969, one day before the launch of Apollo 11, The New York Times printed a brief editorial correction. The text was laconic to the point of mockery of its own error: "Further investigation and experimentation have confirmed the findings of Isaac Newton... The Times regrets the error."
This wasn't an act of generosity or scientific honesty—it was capitulation before the obvious. Apollo 11 was preparing to fly to the Moon with three astronauts aboard, using technologies Goddard had dreamed of half a century earlier. To deny the functionality of rockets in vacuum at that moment would have been equivalent to denying gravity.
The correction appeared not in the science section, not in a piece about the space program—it was printed as an editorial note, meaning on behalf of the newspaper itself. This is an acknowledgment of institutional error, not the error of an individual journalist. The Times essentially said: we were wrong as a publication, as a voice of authority, as a filter between science and society.
Forty-nine years—that's the lifespan of an entire generation. During those years, humanity traveled from mocking rockets to a lunar program costing tens of billions of dollars. Goddard didn't live to see this moment, but his patents, his records, his methods became the foundation of all astronautics. The Times correction wasn't an apology to Goddard—he couldn't read it—but an acknowledgment that technical progress doesn't ask permission from editorials. Rockets flew to the Moon not because the newspaper corrected its error, but because physics works regardless of whether journalists believe in it or not.