Dennis Minott | Why Jamaica’s future lies in precision, not brute force

Jamaica currently stands at a high-stakes strategic crossroads. In an era where the relentless expansion of artificial intelligence and hyperscale data centres is triggering an unprecedented global thirst for electricity, our nation is being lobbied to join a high-octane “megawatt race.” The pitch is certainly seductive: adopt First-of-a-Kind (FOAK) Small Modular Reactors (SMRs), woo energy-intensive digital hubs, and catapult the island into the premier league of the global digital economy.

Yet, for a nation with our specific geographic and fiscal profile, this path is far from visionary. It is Risky-In-Our-Context (RIOC). When one weighs our seismic exposure, vulnerability to intensifying hurricanes, modest grid scale, and tight fiscal realities, FOAK SMRs emerge not as a solution but as an imprudent gamble. To remain truly competitive, Jamaica must look beyond the “brute-force” strategy of massive energy expansion. The real opportunity lies in a sophisticated alignment of our renewable energy trajectory with the burgeoning frontier of Quantum Computing.

CASE AGAINST NUCLEAR CENTRALISATION

The argument against FOAK SMRs in Jamaica isn’t rooted in ideology. It is a matter of cold, hard context. Even in the world’s most advanced economies, nuclear projects are notoriously capital-intensive, frequently plagued by massive cost overruns and multi-year delays. Introducing “First-of-a-Kind” technology only magnifies these hazards. With designs still maturing and regulatory frameworks remaining labyrinthine, the long-term liabilities — including insurance and eventual decommissioning — are staggering. For a small island state with limited fiscal “headroom,” sinking vast amounts of capital into a single, high-consequence asset would represent a risky, generational commitment.

Further, geography cannot be ignored. Jamaica is situated near active fault systems and remains a target for Category 4 and 5 hurricanes. While advanced engineering can mitigate these risks, the price tag for such “hardened” infrastructure is exorbitant. These costs would inevitably be passed down to Jamaican consumers and taxpayers. In a grid of our size, a massive baseload nuclear unit risks creating tariff rigidity and overdependence on a single facility. Having worked so hard to diversify our energy mix, we should be wary of recentralising it around a complex, high-risk nuclear asset.

THE QUANTUM ADVANTAGE

The push for SMRs is often tied to the hosting of massive data centres. These facilities consume hundreds of megawatts around the clock, turning the digital economy into a competition of who can provide the cheapest baseload power and the largest fiscal incentives. This is a race won by continental giants with deep pockets and expansive grids. For Jamaica, competing on this terrain risks us becoming a low-margin landlord in someone else’s value chain.

However, a different computational frontier is emerging — one that values physics over scale. Quantum computing does not seek advantage through brute force. Instead of stacking thousands of classical processors, quantum systems utilise the principles of superposition and entanglement to solve specific, complex problems exponentially faster than any conventional machine.

The economic logic of quantum differs sharply from the SMR proposition. A megawatt-centred strategy demands heavy capital outlays and exposure to environmental risk; a quantum-renewable strategy is talent-intensive, modular, and precise.

While quantum hardware requires extreme cryogenic precision, the actual power load of these facilities is measured in kilowatts or low megawatts — not the gigawatts required by traditional AI server farms. Quantum is precision force, and that distinction is vital for our national strategy.

LEVERAGING JAMAICAN INTELLECT

Our transition towards solar, wind, and micro-grids is often framed as a necessity of our oil dependence. But this constraint can be turned into a strategic edge. A renewable-heavy grid is perfectly suited to power low-wattage, high-impact research facilities. Our modest scale becomes an advantage if we target the right domain.

Quantum computing is a field with high barriers to entry, requiring rare expertise in quantum mechanics and algorithm design. Because the barriers are so high, the competition is elite but limited. Jamaica is already a player in this space through its most valuable export: talent.

Consider Gavin Jones of IBM Quantum. A proud alumnus of Morant Bay High School, Dr Jones now operates at the commercial cutting edge of quantum systems development. His journey from a St Thomas classroom to the forefront of global innovation is a blueprint for our future. He is not alone - a quiet but significant “diaspora footprint” exists in this field. The strategic question is whether we continue to export this brilliance or create “innovation enclaves” here at home — renewable-powered residencies where Jamaican minds can solve global problems.

PATH OF COHERENCE

Imagine a Jamaican research campus, powered by stable renewables, where scientists use quantum simulations to optimise hurricane forecasting, coastal resilience, and grid balancing for island nations. These are practical, high-value applications where precision — not power consumption — is the metric of success.

While SMRs might generate exciting headlines, they bring a level of fiscal and environmental exposure that Jamaica simply cannot afford. Conversely, a quantum-renewable pathway offers coherence. It aligns our geography, our energy goals, and our human capital. By moving beyond the hunt for “megawatts” and focusing on the “kilowatt” precision of quantum tech, we turn our small scale into a position of global strength.

Dennis A. Minott, PhD, is a physicist, green energy consultant, and long-time college counsellor. He is the CEO of A-QuEST. Send feedback to columns@gleanerjm.com.