This paper examines whether orbital data centers could offer a viable alternative to the increasingly resource-intensive computing infrastructure supporting artificial intelligence. It evaluates the technical, economic, environmental, and governance challenges of moving computation into space, arguing that policymakers should address questions of orbital debris, liability, market concentration, and data sovereignty before commercial development outpaces regulation.

The infrastructure of artificial intelligence (AI) depends on critical minerals and rare earth elements, making their supply chains a central factor in national security, economic stability, and global technology competition and governance. Overreliance on supply chains characterized by limited geographic diversification exposes AI commercial and defense industries to trade disruptions, cyber sabotage and strategic leverage. This paper explores these issues.

The United Nations Educational Scientific and Cultural Organization (UNESCO) has designated 2022-2032 the International Decade of Indigenous Languages. This initiative comes at a time when endangered language speakers, linguists, and other groups are concerned about language extinction and the rapid spread of artificial intelligence (AI). Some researchers are optimistic that AI can be leveraged to help document, preserve, and revitalize at-risk languages, while others are concerned that the technology will accelerate the homogenization of human language.

In a given month, more than 100 million people open Pokémon Go—the app that allows users to superimpose the world’s most profitable media franchise onto reality using only their smartphone. Using their phone camera and a flick of the wrist, they captured tiny digital monsters at the park, at the office, sometimes in active minefields, and, yes, in the bathroom.

Who else was watching?

While social media disinformation has received significant academic and policy attention, more consequential forms of intentional manipulation target the underlying digital infrastructures upon which society depends.

A seasoned scholar, strategist, and expert in space policy and strategy, Dr. John J. Klein is well-versed in applying strategic theory to the space domain. In his new book, Fight for the Final Frontier: Irregular Warfare in Space (2023), Klein argues that irregular warfare, in both its military and nonmilitary forms, is a vital and underutilized concept for understanding malicious activities in space and the nature of space warfare. His argument draws on a diverse list of strategic theorists, historians, and contemporary policy analyses. Klein weaves these sources together persuasively, providing an accessible overview of a technologically demanding subject. Policy generalists and students, along with veteran analysts of space policy, will benefit from his account.

As the world’s infrastructure becomes increasingly interconnected, more critical systems are exposed to cyber threats. A cyber threat is a malicious act intended to steal, damage, or disrupt digital data. Cyber threats seek to turn potential security vulnerabilities into attacks on systems and networks.

Orbiting satellites perform many tasks: communications, broadcasting, weather forecasting, earth observation, intelligence-gathering, and scientific research. The first satellite, launched in 1957, was a modest metal sphere containing a simple radio transmitter. Since then, satellites have grown in size and complexity. Many are visible to anyone with a reasonably powerful backyard telescope.

In 2006, two leading scholars of the nuclear era warned that the age of mutually assured destruction (MAD) was ending. Seventeen years later, the authors are doubling down on these claims, arguing that the outbreak of new conventional conflicts has changed nuclear decision making, increasing the threat of coercive nuclear escalation. In an age of new technology, this warning is more pertinent than ever. The rapid introduction of emerging technologies and their weaponization raises concerns about maintaining strategic stability. 

Last month, SpaceX became the operator of the world’s largest active satellite constellation. As of the end of January, the company had 242 satellites orbiting the planet with plans to launch 42,000 over the next decade. This is part of its ambitious project to provide internet access across the globe. The race to put satellites in space is on, with Amazon, U.K.-based OneWeb and other companies chomping at the bit to place thousands of satellites in orbit in the coming months.