New Space EconomyBusiness, Technology, and Trends

Srini Gopalan, T-Mobile’s president and chief executive officer, told a J.P. Morgan investor conference on May 18, 2026, that satellite usage represented about 0.0002% of T-Mobile’s total network usage, a figure that makes the emerging direct-to-device market look very different from the early hype around satellite phones for everyone. The same discussion produced the headline that “pretty much no one buys satellite standalone,” reported by PCMag, and the point fits the larger pattern of mobile carriers treating satellite access as an extension of cellular coverage rather than a separate consumer telecom category.

Earth and its moon interact within a massive gravitational system that dictates the military value of the moon by shaping how objects move through deep space. Traditional military space operations have historically remained confined to low Earth orbit, medium Earth orbit, and geostationary orbit. Cislunar space extends far beyond these familiar operational zones, encompassing the entire three-dimensional volume between Earth and the lunar surface, along with the regions heavily influenced by lunar gravity. This vast area measures roughly 384,400 kilometers in radius, representing a staggering increase in the volume of space that defense organizations must monitor.

May 19, 2026 marked a sharp expansion in Vast’s business plan: the company announced Vast Satellite, a line of high-power satellite buses for operators in communications, Earth observation, national security, and orbital data center constellations. The first product is a 15 kilowatt (kW) class spacecraft bus, meaning a spacecraft platform designed to generate and manage far more electrical power than many smaller commercial satellites can provide. The announcement moved Vast beyond its public identity as a private space station developer and into the larger market for mission infrastructure in low Earth orbit (LEO).

On March 16, 2026, NVIDIA used its GTC event to present a space computing strategy built around artificial intelligence, accelerated processing, and a tighter link between spacecraft and ground systems. The announcement placed NVIDIA Space Computing inside a broader shift in the space economy: satellites are no longer treated only as data collectors, communications relays, or navigation aids. They are becoming compute nodes that can process images, radar returns, radio frequency data, and spacecraft telemetry closer to where those data are created.

Tesla stated in its Q1 2026 Update that preparations for its first large-scale Optimus factory would begin in the second quarter of 2026. The company said the first-generation line in Fremont was designed for 1 million robots per year and that a later Gigafactory Texas line was being designed for long-term annual capacity of 10 million robots. Those figures describe planned manufacturing capacity, not proven delivery rates. Tesla’s own update separates installed capacity from production rate, which makes that distinction necessary for accurate analysis as of May 19, 2026.

Muskonomy is an informal term for the business ecosystem built around Elon Musk, his companies, investors, technologies, customers, talent networks, data flows, infrastructure, and financing relationships. It is not a formal economic term. It is mostly used in media, investor commentary, and technology analysis to describe how Musk-linked ventures can reinforce one another across separate but overlapping markets.

NASA announced on May 14, 2026, that it had issued the Final RFP - Mars Telecommunications Network (MTN), seeking industry collaboration for high-bandwidth Mars communications. The draft performance work statement for RFP 80GSFC26R0011 defines the Mars Telecommunications Network as a contractor-delivered system covering design, development, integration, testing, delivery, launch operations support, and operational commissioning. That scope places the Mars Telecommunications Network in a different category from earlier Mars relay arrangements, because NASA is asking industry to propose a full contract performance work statement rather than supply a narrowly defined component or subsystem.

On March 18, 2026, Ottawa announced the Surveillance of Space 2 project, a program that will place three remotely operated telescope sites in Alberta, Manitoba, and New Brunswick by 2028. That decision points to the right opening move for Canada’s sovereign terrestrial counterspace capabilities. The country does not need to begin with a missile, a laser, or a dramatic public declaration about “space war.” It already has the institutions, industrial skills, and geography to build a ground-based capability built around sensing, protection, continuity of service, and carefully governed national decision-making.

On March 7, 2025, Reuters reported that Ukraine’s access to Maxar imagery through the U.S. government’s Global Enhanced GEOINT Delivery program had been temporarily disabled. That episode gave governments a concrete example of how sovereign earth observation systems can become more attractive when access to commercial imagery depends on another country’s policy decisions, contract rights, data portals, or security rules. The issue was not that commercial providers had become unreliable in ordinary market terms. The issue was that the strongest imagery networks often sit inside national security relationships that can alter access for foreign users during political stress.

Censorship and commercial Earth observation now sit inside the same market because satellites no longer serve only governments, weather agencies, and scientific programs. Companies sell imagery, tasking, monitoring, analytics, alerts, and archive access to customers that include insurers, newsrooms, humanitarian groups, commodity traders, defense agencies, infrastructure firms, and national intelligence organizations. A user may buy a fresh optical image, access a radar scene collected through clouds, monitor a port, inspect crop stress, or compare construction activity over time.

This article is based on three U.S. Bureau of Economic Analysis working papers that examine artificial intelligence (AI) through the structure of national economic accounts, industry production accounts, cost data, and price measurement. The first is Concepts and Challenges of Measuring Production of Artificial Intelligence in the U.S. Economy, published in January 2025 by Tina Highfill, David Wasshausen, and Gregory Prunchak. It explains how AI production and AI use enter gross domestic product (GDP) through existing accounting categories such as software, research and development, semiconductors, data services, and intermediate inputs.

Europe’s upstream space industry employed nearly 66,000 full-time workers in 2024 and generated €8.8 billion in final sales, according to the ASD-Eurospace 2025 facts and figures statistical series. That figure describes the industrial base that designs, builds, tests, and integrates satellites, launch systems, payloads, and related ground equipment. It does not capture the full downstream economy of satellite services, navigation, connectivity, imagery, data analytics, insurance, software, and defense users, so the wider economic footprint of space industry economic centers in Europe is larger than the manufacturing base alone.

SpaceX is preparing for Starship’s twelfth integrated flight test (IFT-12), the next major milestone in its ambitious push toward fully reusable orbital launch capabilities. As of Monday, May 18, the company has updated the target launch date to Wednesday, May 20, 2026, with the launch window opening at 5:30 p.m. CDT (22:30 UTC) from the new Pad 2 at Starbase in Boca Chica, Texas. The two-hour window extends until approximately 7:00 p.m. CDT (00:00 UTC on May 21).

The European Space Agency (ESA) is advancing human spaceflight capabilities through collaborative efforts focused on crewed operations aboard the International Space Station (ISS). A notable development in this area is the recent arrival of a French-developed intra-vehicular activity (IVA) spacesuit prototype at the orbiting laboratory. This prototype forms part of a CNES-led initiative aligned with ESA’s human exploration objectives, marking progress toward enhanced European self-reliance in essential life-support technologies for future missions.

On April 21, 2026, the federal government introduced the Canadian Space Launch Act, and that timing matters because Canada still sends its satellites abroad for launch and still depends on foreign sovereign systems for several military functions. That means the sovereignty question cannot be answered by naming one flagship program or by counting how many Canadian firms can build a bus, a payload, or a terminal. Sovereignty in military space is a system property.