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The conversation about technology in 2026 has been almost entirely consumed by artificial intelligence — its capabilities, its costs, its geopolitical implications. But beneath that dominant narrative, a quieter set of developments is unfolding across energy, space, quantum computing, and biology that may, on a longer horizon, prove equally consequential. This is the emerging technology story that isn’t being told loudly enough.
The Battery That Could Redraw the Energy Map
Sodium-ion batteries — made from abundant materials like salt — are emerging as a cheaper, safer alternative to lithium, backed by major players and public investment, and poised to power grids and affordable electric vehicles worldwide. The significance of this development is easy to underestimate. The energy transition has long been constrained by the geography of lithium — concentrated in a handful of countries, strategically contested, and subject to supply chain disruptions that carry direct geopolitical consequences. Sodium is, by contrast, effectively everywhere.
Chinese battery giant CATL has already begun manufacturing sodium-ion batteries at scale, and BYD has announced plans for a massive production facility. The most significant near-term impact may not be on roads but on power grids — storing clean energy generated by solar and wind has long been a challenge, and sodium-ion batteries, with their low cost, enhanced thermal stability, and long cycle life, represent an attractive solution. Peak Energy, a US startup, is already deploying grid-scale sodium-ion storage. If the technology scales as its proponents believe, it could materially reduce the strategic leverage currently exercised by lithium-producing states and shift the geopolitics of the energy transition in ways that are not yet fully appreciated.
The Privatisation of Orbit
The commercialisation of low Earth orbit is advancing faster than the policy frameworks designed to govern it. Haven-1 — built by the private company Vast and set to launch aboard a SpaceX Falcon 9 — is designed to be the world’s first standalone commercial space station, representing a radical shift in the way humanity lives and works in space. Haven-1’s integration is now underway, with the station scheduled to be ready to launch in early 2027, following environmental testing at NASA’s Neil Armstrong Test Facility later in 2026.
The broader implications extend beyond the engineering achievement. Haven-1 will also be the first space station connected to Starlink, providing gigabit-speed internet to orbit — a leap forward for real-time communication and data transfer. What is being constructed, piece by piece, is not merely a commercial outpost but the foundational infrastructure for an orbital economy whose regulatory architecture remains almost entirely undefined. Questions of jurisdiction, liability, data sovereignty, and military dual-use are accumulating faster than the international community is addressing them.
Floating data centers are also now being tested in oceanic environments — a development that raises its own set of governance questions about which legal frameworks apply to compute infrastructure located in international waters, and who bears responsibility when things go wrong.
Quantum’s Quiet Breakthrough
Quantum computing has spent years oscillating between breathless hype and sceptical dismissal. The most recent data suggests the technology may be entering a phase of genuine, if narrow, practical utility. Q-CTRL and IBM achieved a 3,000-fold speedup in simulating the Fermi-Hubbard model on 120 qubits using runtime error suppression — a demonstration of practical quantum advantage over classical methods in materials science simulation, with implications for drug discovery and advanced materials research.
The military and intelligence implications of quantum computing — particularly in cryptography — have been discussed extensively in policy circles. Less attention has been paid to the industrial implications: a technology that can simulate molecular interactions at the quantum level could fundamentally accelerate pharmaceutical development, battery chemistry optimisation, and materials engineering. The nation or bloc that achieves reliable quantum advantage at scale first will hold a strategic asset of the first order.
The Infrastructure Problem Nobody Is Solving
Underlying all of these developments is a shared constraint: physical infrastructure. The rapid and continuous scaling of autonomous AI systems is putting unprecedented pressure on the global hardware ecosystem. A bottleneck phenomenon dubbed “RAMageddon” is emerging — the massive need for memory and processing power to support agentic AI infrastructure is forcing the hardware industry to innovate radically simply to keep pace with the evolution of software.
The energy demand is equally acute. Next-generation nuclear power, particularly small modular reactors with cores just two metres tall, is attracting serious investment precisely because it offers steady, emissions-free energy in compact formats deployable at military bases, remote sites, and industrial facilities — exactly the kind of distributed, reliable power that an AI-intensive economy requires and that intermittent renewables alone cannot provide.
What links sodium-ion batteries, commercial space stations, quantum simulation, gene editing, and small modular reactors is not a common technology but a common condition: each is arriving at a moment when the governance frameworks capable of managing it are running years, if not decades, behind. The AI debate has focused policymakers’ attention on one dimension of technological disruption. The fuller picture is considerably more complex — and the window for getting ahead of it is narrowing.
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