StarLink

Access to low Earth orbit has undergone a structural transformation over the past fifteen years, shifting from a sovereign undertaking financed by the budgets of major states into a logistics service bought and sold by the kilogram. The global space economy reached roughly $626 billion in 2025, with commercial activity accounting for close to 78% of that total, and projections place it between $1 trillion and $1.8 trillion by 2035 — even though launch services on their own amount to no more than $14 billion. That disparity points to a basic truth: launch is not the market being contested. It is the gateway whose price determines the nature and the scale of everything that can be built beyond the atmosphere.   This structural shift rests on a single pivotal engineering innovation: recovering the first stage of the rocket and flying it again rather than discarding it after every mission. Recovery allows the capital cost of manufacturing to be distributed across multiple flights, and it demolished the price floor that had governed the market for decades. The consequence has been to narrow the technological contest over low-orbit reusability to two principal powers: the United States, which operates a mature fleet flying at an intensive and near-routine cadence, and China, which since mid-2024 has been conducting an accelerated, high-risk test campaign in pursuit of the same capability. The threshold of reaching orbit has therefore ceased to function as the technological dividing line between the two; the real remaining challenge lies in mastering precision guidance through the final metres before a safe landing.   Therefore, this analysis aims to unpack the economics of reusability and locate the true bottleneck within the cost structure; to then measure the gap between Washington and Beijing through two distinct indicators, namely the number of launches and the mass delivered to orbit; and finally to estimate the technical and temporal distance separating China from its first successful recovery, together with what its completion would mean for global launch pricing and for the budgets of the megaconstellations on which satellite internet services depend.

When governments shut down the internet, the standard justification is security, and the standard assumption is that the measure is temporary. Iran has tested both of those assumptions to their breaking point. Its nationwide internet blackout is now the longest ever imposed on an entire population, and Iranian authorities have simultaneously passed legislation making possession of a satellite internet terminal a criminal offence punishable by execution. These two facts are not separate policies responding to separate pressures. They are expressions of a single, long-prepared doctrine of information sovereignty, one in which connectivity is not a public utility to be temporarily suspended but a political instrument to be permanently controlled.   What Iran has built, and what it is now operating at scale for the first time, raises a question that extends well beyond its borders: when a state decides that controlling information is worth more than the economic cost of losing it, and the international system has no answer, what happens next?

In recent years, Low Earth Orbit (LEO) satellite constellations have emerged as a transformative layer within the global digital infrastructure, marking a departure from their original role as connectivity solutions for remote regions. These systems are now embedded within the operational cores of critical sectors such as civil aviation, maritime logistics, financial markets, and defence. The clearest manifestation of this structural shift is Starlink, operated by SpaceX, which by mid-2025 had exceeded 7 million users across more than 150 countries, with exponential growth rates in high-value, latency-sensitive industries.   This rapid technological and geographical expansion has positioned Starlink as a globally integrated utility—yet one that operates outside conventional regulatory regimes. It represents a structural concentration of control over global data flows in a single, privately held entity. The dual outages that occurred in July and September 2025 exposed deep systemic vulnerabilities within the Starlink network, including software architecture fragilities and environmental sensitivities to space weather events. These incidents prompted urgent questions about the stability of a critical infrastructure layer that now underpins sectors central to national sovereignty and global economic coordination.   This report interrogates the systemic risks embedded in the global economy’s growing dependence on LEO constellations through two interlinked analytical lenses. The first is a technical-political economy perspective, which examines the underlying architecture of the Starlink network and the typology of its failure modes—both endogenous and exogenous. The second is a forward-looking, scenario-based assessment that models the potential global economic consequences of a 24-hour Starlink outage in 2032. Through this dual approach, the analysis traces the contours of a new strategic dilemma: how to govern an emergent, transnational infrastructure whose failure could trigger multi-sectoral crises at planetary scale, yet whose design and control remain entirely privatized.

Globally, an estimated 4.2 billion people lack access to the internet, highlighting a major technological disparity. This digital divide disproportionately impacts rural and remote communities, hindering their access to essential healthcare, education, and economic opportunities. Traditional terrestrial infrastructure expansion often faces financial and geographical limitations in these regions. As satellite technology becomes increasingly accessible, space-based internet solutions emerge as a potential alternative.   However, the lowering cost of satellite production and launch, coupled with the availability of technological complexities of operating in low-earth orbit (LEO) create a competitive landscape. Developed nations and corporations are vying for dominance in LEO, raising concerns about the future accessibility of this technology for developing countries. This article investigates the challenges arising from this intensifying competition and its potential consequences for the digital inclusion of developing nations.