Space Economy

The largest technology firms are moving their data centres into low Earth orbit, having pushed terrestrial infrastructure to the physical and environmental limits of what it can supply in power, cooling and land to an artificial intelligence sector whose demands keep compounding. SpaceX has set the fourth quarter of 2027 for the launch of its first generation of computing satellites, targeting one gigawatt of orbital data centre power capacity in that same year and one hundred gigawatts by 2030. The scale of the pressure behind that schedule is visible in the wider market, where global data centre demand is estimated to require investment approaching €5.7 trillion before the decade closes.   What presents itself as an engineering migration is in substance a redistribution of sovereign authority. Moving processing beyond national territory removes technology firms from the reach of the data localisation rules, compliance regimes and tax frameworks that states have spent a decade constructing. For Arab states the challenge is immediate. Having invested heavily in domestic digital infrastructure and imposed strict data residency requirements, they now face the prospect that the server handling their citizens’ data sits five hundred kilometres overhead, beyond the enforcement reach of their courts.   This analysis therefore examines the economics of moving computation into orbit and the limits of its viability; traces the legal gap that allows technology firms to shelter behind the jurisdiction of the state of registry in order to avoid the laws of every other state; assesses the risks of monopolistic concentration and the environmental costs borne collectively; and identifies the regulatory instruments available to Arab states in defence of their digital sovereignty, chief among them the management of radio-frequency spectrum, satellite landing rights and the supervision of ground gateways.

Since the launch of the first satellite in 1957, the Low Earth Orbit (LEO) has undergone a profound transformation from a near-empty frontier into a congested and polluted environment shaped by decades of human activity. Non-functional satellites, spent rocket stages, and fragmentation debris from collisions and explosions have accumulated to a mass exceeding 14,700 tons. Critical events have amplified the scale of the problem, most notably China’s Anti-Satellite Test (ASAT) in 2007 and the 2009 collision between the U.S. Iridium-33 and Russia’s Kosmos-2251, which together generated nearly one-third of all catalogued debris in LEO.   This material is unevenly distributed but highly concentrated between 750 and 1,000 kilometres, an orbital belt central to Earth Observation and communications. Objects in this altitude range can persist for centuries, while in the Geostationary Orbit (GEO) debris may remain indefinitely, underscoring the long-term persistence of the hazard. Consequently, orbital space has shifted from an open frontier to a finite and polluted resource requiring collective governance.   This study examines the economic and political dimensions of space debris. It assesses the direct costs borne by operators, the cascading risks to terrestrial infrastructure such as Global Navigation Satellite Systems (GNSS) and weather forecasting, and the disproportionate challenges facing developing nations. It concludes by analysing potential responses, ranging from mitigation strategies to Active Debris Removal (ADR), within the broader framework of international governance and global equity.