New Space EconomyBusiness, Technology, and Trends

In 1969, four computers exchanged data packets across telephone lines for the first time. The researchers at UCLA, Stanford Research Institute, UC Santa Barbara, and the University of Utah who built ARPANET weren't building a commercial network. They were solving a specific defense communications problem, and nobody was calling it an economy for good reason: it wasn't one yet.

A human spacecraft is not finished when it reaches orbit. It is not finished when it docks, lands on the Moon, or circles Earth for months. It is finished only when the crew is back on the ground alive, reachable, and in condition to be recovered. That fact shaped the entire history of crewed spacecraft design.

The story of humanity's reach into deep space is, in large part, the story of a network of dish antennas scattered across three remote corners of the planet. Without the Deep Space Network, or DSN, the images from Voyager 1 would never have arrived, the landing of Curiosity would have gone unwitnessed in real time, and the New Horizons flyby of Pluto would have been a silent event, its data forever unretrievable. The network exists because someone in the late 1950s recognized that sending a spacecraft into deep space was only half of any problem. Getting data back was the other half, and it turned out to be an engineering challenge of a completely different magnitude.

The solar system is old. At roughly 4.6 billion years, it's had plenty of time to sort itself out, settle into predictable orbits, and stop surprising people. And yet, the more spacecraft venture into its outer reaches, the more unexpected things they find. Some of what's known about these eight planets, hundreds of moons, and billions of smaller bodies flatly refuses to fit the standard models. Not in minor, easily-explained ways. In ways that require entirely new theories, some of which contradict each other, and some of which remain genuinely unresolved.

It is one of the most famous questions in science, and it was asked, as legend has it, over lunch. Enrico Fermi, the physicist who helped build the first nuclear reactor and whose name graces a unit of length so small it makes an atom look generous, was chatting with colleagues about the possibility of alien life when he suddenly asked ‘where is everybody?’

Two Russian satellites appear to have been shadowing European spacecraft in Earth orbit.

The year is 1862. Congress has just signed the Pacific Railroad Act, authorizing land grants and government-backed bonds to coax private investors into building a railroad across terrain no sane financier would otherwise touch. Sixty million acres of federal land will change hands. Hundreds of millions of dollars in government-backed loans will flow. And within seven years, a golden spike at Promontory Summit, Utah, will mark one of the most consequential feats of American engineering, built on a model that was equal parts public investment and private ambition.

Here's a thought experiment that keeps planetary scientists awake at night. Strip every living thing from our planet, every bacterium, every blade of grass, every creature that has ever drawn breath and ask a simple but profound question: would Earth still be a world capable of supporting life?

The literary history of Unidentified Flying Objects - now formally recognized as Unidentified Anomalous Phenomena (UAP) - is a sprawling archive of human curiosity, fear, and scientific inquiry. It is a body of work that has been built over nearly eighty years, evolving in lockstep with the geopolitical landscape and technological advancements of the 20th and 21st centuries. These texts do not merely recount sightings of strange lights in the sky; they serve as a chronicle of how humanity attempts to process the "other." The evolution of this genre mirrors the trajectory of the phenomenon itself, moving from the nuts-and-bolts flying saucers of the 1950s to the high strangeness of the 1970s, the terrifying intimacy of the abduction era, and finally, the rigorous, data-driven investigation of the modern disclosure movement.

In a dramatic escalation of tensions between Silicon Valley’s AI innovators and the U.S. government, President Donald Trump on February 27, 2026, ordered all federal agencies to immediately cease using technology from Anthropic, the San Francisco-based artificial intelligence company known for its Claude AI model. This directive, issued just before a Pentagon-imposed deadline, marks a significant rift over the balance between AI safety protocols and national security needs. The dispute, which has unfolded publicly over the past weeks, pits Anthropic’s commitment to ethical guardrails against the Department of Defense’s (DoD) demand for unrestricted access to AI tools for military applications. As of 9 PM EST on February 27, 2026, the fallout continues to reverberate through the tech and defense sectors, with implications for AI policy, government contracts, and the broader tech industry.

The phrase "space logistics" entered mainstream aerospace vocabulary gradually, borrowed from terrestrial supply chain management and applied to the increasingly complex challenge of moving people, equipment, and cargo between different points in cislunar space. In 2026, commercial space logistics encompasses a wide range of activities that didn't exist as a commercial market a decade ago: routine cargo runs to the International Space Station, competitive lunar surface deliveries for NASA, and a growing ecosystem of vehicles designed to ferry satellites between orbital regimes or extend their operational lives.

On November 28, 2025, a single Falcon 9 rocket lifted off from Vandenberg Space Force Base carrying 140 payloads from more than 30 customers spread across 16 countries. Some of those payloads were satellites. Some of those satellites were themselves hosting smaller payloads from other operators. It was, in a very literal sense, a rocket carrying satellites carrying satellites, all of it bundled onto a reusable booster making its 30th flight. That was SpaceX Transporter-15, and it was not an anomaly. It was Tuesday in the new satellite economy.

The gap between when a rocket is announced and when it actually lifts off for the first time tells a story that the aerospace industry would often prefer to keep quiet. Nearly every medium lift launch vehicle developed since the 1990s has missed its original schedule by years, sometimes by nearly a decade, and the excuses change but the pattern holds with remarkable consistency across continents, contractor types, and budget sizes. What follows is an examination of that pattern through the specific histories of the most significant medium lift vehicles developed over the past four decades.

There are scientists who change a field, and then there are scientists who change how the field sees the universe. Vera Rubin was the second kind.

NASA has announced an increase in the cadence of its Artemis program, adding a new mission in 2027 and implementing an accelerated timeline for lunar exploration. The updates aim to establish an enduring presence on the Moon and improve mission reliability and safety.