ECONOMIC POWER, WATER SECURITY, AND GEOPOLITICAL COMPETITION

JAFAJ STRATEGIC ASSESSMENT  |  24 OCTOBER 2026

BOTTOM LINE

Commercial nuclear fusion could eventually reshape the strategic economics of the Middle East and North Africa (MENA), but it is not a commercially established source of electricity. If fusion becomes reliable, scalable, and cost-competitive, it could reduce some demand for oil and natural gas in power generation, support energy-intensive industry, and improve the economics of desalination. The fiscal consequences would not be uniform: an exporter’s exposure depends on the share of public revenue and foreign exchange tied to hydrocarbons, while an importer’s potential gain depends on its current energy-import bill, financing costs, grid readiness, and ability to turn cheaper power into productivity. No credible evidence currently supports a precise forecast of fusion-driven revenue losses for any MENA country.

The strategic recommendation is not to bet against oil or assume fusion is imminent. MENA governments should protect the value of current energy assets while preparing for a future in which technological capability, industrial productivity, and fiscal resilience matter as much as resource ownership.

KEY JUDGMENTS ·        Fusion is a strategic contingency, not a near-term substitute for oil and gas. Commercial economics, engineering, regulation, and deployment speed remain uncertain. ·        MENA’s electricity system is highly exposed: the IEA reports that in 2024 natural gas generated about 70% of regional electricity and oil about 20%. [1] ·        Domestic deployment could initially help some exporters by reducing fuel burned at home, even while widespread global adoption could eventually pressure hydrocarbon demand. ·        Water security and industrial competitiveness may be as important as electricity prices—but only where grids, capital, institutions, and distribution systems are adequate. ·        Early policy should emphasize readiness, workforce and supply-chain development, scenario planning, and diversification—not premature commitments to unproven deployment dates.

1. WHY FUSION MATTERS TO MENA

MENA sits at the intersection of global hydrocarbon supply, fast-growing electricity demand, extreme cooling needs, and water scarcity. In 2024, the region supplied more than 30% of global oil and nearly 20% of global natural gas, while oil and gas together accounted for more than 90% of its electricity generation. [1] These figures make the region unusually exposed to changes in energy technology and demand.

The IEA projects that MENA electricity consumption will rise by about 50% between 2024 and 2035 under current policy settings. Cooling and desalination together are expected to account for close to 40% of projected electricity-demand growth through 2035. [1] This is the immediate strategic context: the region needs more reliable electricity and water infrastructure regardless of whether fusion succeeds.

Fusion could eventually offer firm, low-carbon electricity without the continuous combustion of fossil fuels. But a fusion reaction in a laboratory is not a commercial power station. A viable plant must sustain the reaction, deliver useful net energy after accounting for the full facility’s needs, operate reliably, connect to the grid, meet regulatory requirements, and produce electricity at a competitive cost. The Congressional Research Service’s February 2026 review concludes that important scientific and engineering hurdles remain. [2]

2. OIL AND GAS: A TWO-STAGE EFFECT

Domestic fuel savings could come before global demand disruption

If a commercially viable fusion plant displaced oil- or gas-fired electricity in an exporting country, that country could burn less hydrocarbon at home. In some cases, the saved fuel could be available for export or other uses. This is a potential near- or medium-term benefit of deployment, not proof that fusion would increase export revenue: outcomes would depend on plant cost, grid integration, domestic demand, export capacity, and global prices.

The longer-term risk is different. If fusion became widespread and displaced fossil fuels in electricity generation and selected industrial applications, it could weaken some sources of oil and gas demand. It would not automatically eliminate petroleum use in transport, petrochemicals, plastics, fertilizers, or other industrial processes. Nor would it make natural gas irrelevant as a feedstock or in applications that are difficult to electrify. The defensible thesis is therefore gradual pressure on some hydrocarbon markets—not the overnight disappearance of oil.

Country exposure: the fiscal question comes first

The greatest vulnerability is not simply how much oil or gas a country produces. It is how dependent its government budget, foreign-exchange earnings, employment model, and social spending are on hydrocarbon receipts—and how effectively it can adjust if prices or export volumes weaken.

COUNTRY / GROUP	OBSERVED ECONOMIC / ENERGY EXPOSURE	FUSION IMPLICATION AND STRATEGIC PRIORITY
Saudi Arabia	Oil and oil products represented about 69% of goods exports in the IMF’s 2026 consultation dataset; the IMF projected a 2025 fiscal deficit of 5.8% of GDP. [6]	Domestic firm power could eventually free some oil or gas used in electricity generation. Broad global adoption could pressure hydrocarbon demand, but timing and scale are unknown. Stress-test public investment and spending; expand competitive non-oil exports and energy efficiency.
Kuwait	The IMF projected central-government deficits of 8.7% of GDP in FY2025/26 and 9.4% in FY2026/27, while describing external buffers as large. [7]	The immediate exposure is fiscal sensitivity to oil prices and output, not a known fusion shock. Model domestic fuel substitution separately from global demand effects. Strengthen the fiscal framework and non-oil revenue.
Qatar	LNG is central to the country’s export and investment position; IMF analysis emphasizes planned LNG expansion and revenue diversification. [8]	Fusion could eventually affect gas used for power more directly than all gas uses. LNG competitiveness, contracts, petrochemicals, and Asian demand also matter. Stress-test demand assumptions and diversify investment returns.
Iraq	Oil revenue was estimated at 36% of GDP in 2024; the IMF estimated an oil price of roughly $84/barrel was needed to balance the budget that year. [9]	Domestic fuel savings could be material over time, but grid reliability, institutions, and execution constrain benefits. Prioritize reliable electricity, budget discipline, transparent procurement, and diversification; do not book hypothetical fusion savings.
United Arab Emirates	The IMF describes robust non-hydrocarbon growth, including tourism, construction, and financial services, alongside strong fiscal and external buffers. [10]	Capital and infrastructure could support investment or supply-chain participation, but early deployment and local manufacturing advantage are not assured. Compete selectively for research, engineering, finance, and components; require commercial proof.
Bahrain	Hydrocarbon revenue was about 10.4% of GDP in 2024; the IMF reported an 11% fiscal deficit and public debt of 134% of GDP in 2024. [11]	Any future decline in hydrocarbon receipts would interact with constrained public finances. A low-cost plant would not solve sovereign financing risks. Prioritize debt sustainability and fiscal reform; avoid large contingent liabilities for speculative technology.
Oman	The IMF estimated a 2025 fiscal surplus of 0.7% of GDP and public debt of 36.1% of GDP by September 2025, while emphasizing continued diversification. [12]	Oman’s exposure and fiscal position differ from more debt-constrained peers. Preserve buffers and compare any future fusion proposal with renewables, gas, storage, and grid upgrades using whole-system costs.
Algeria	The IMF reported that lower hydrocarbon receipts and higher public spending widened the fiscal deficit to 11.5% of GDP in 2024, with further pressure projected in 2025. [13]	Long-term weaker hydrocarbon demand could constrain public investment and exports, but domestic power demand and gas-market conditions matter earlier. Broaden exports and non-hydrocarbon revenue; protect high-return grid investments.
Libya	The IMF’s 2025 consultation estimated hydrocarbon revenue at 55.4% of GDP in 2024; the outlook was dominated by oil-sector developments and fiscal pressures. [16]	A global oil-demand or price shock could compound existing exposure, but political and production disruptions are nearer-term drivers. Prioritize a credible unified budget, expenditure control, non-oil revenue, and continuity of energy infrastructure.
Egypt	The IMF’s 2025 analysis describes energy supply as heavily dependent on natural gas and oil and notes that subsidy reform and grid integration matter to the transition. [14]	Egypt could benefit from competitively priced firm power, but debt, financing costs, gas availability, and existing thermal assets govern the economics. Prioritize bankable grid investments, subsidy reform, and transparent comparison of future power options.
Morocco and other energy importers	Morocco’s net energy-product imports were about US$12.1 billion in 2024; its export base also includes automobiles and phosphate products. [15]	Importers could gain from lower fuel-import exposure if fusion became commercially competitive. Plant cost, financing, grid capacity, and the pass-through of savings to firms and households would determine the benefit. Track import costs and strengthen grids and skills now.

These indicators are not directly interchangeable: exports, hydrocarbon revenue, fiscal balance, debt, and GDP have different denominators and measure different risks. The table therefore separates observed indicators from strategic inference. It is a representative comparison, not a complete ranking of all MENA states and not an estimate of fusion-caused losses. A defensible regional ranking would require aligned fiscal years, consistent definitions, and country-level data on government hydrocarbon receipts, export concentration, domestic fuel use, energy subsidies, sovereign assets and liabilities, and electricity costs.

ECONOMIC ANALYSIS: HOW TO MEASURE EXPOSURE WITHOUT INVENTING A FUSION FORECAST

The key economic mistake would be to translate a speculative fusion timeline directly into a predicted oil-price or revenue collapse. Fusion would affect MENA through several distinct channels, each with different timing: (1) domestic fuel substitution, which could reduce oil and gas burned in power plants; (2) global demand and price effects, which would require widespread deployment and competition with renewables, storage, fission, and efficiency; (3) capital reallocation toward fusion technology, manufacturing, and services; and (4) changes in energy-import bills for net importers. These channels should be modeled separately, because a country could gain from lower domestic fuel use while losing from weaker export prices.

A transparent first step is a fiscal sensitivity test. It is not a fusion forecast; it shows how exposed a budget is to a hypothetical change in hydrocarbon receipts before policy responses, production changes, exchange-rate effects, or secondary economic effects.

EXAMPLE	BASELINE EVIDENCE	SIMPLE 10% SENSITIVITY	LIMITATION
Iraq	Oil revenue estimated at 36% of GDP in 2024. [9]	A hypothetical 10% reduction in oil revenue equals about 3.6% of GDP in direct revenue exposure, if production, prices, and all other factors are held constant.	Illustrative arithmetic only; not a prediction of fusion’s effect.
Bahrain	Hydrocarbon revenue estimated at 10.4% of GDP in 2024. [11]	A hypothetical 10% reduction in hydrocarbon revenue equals about 1.04% of GDP in direct revenue exposure, before offsets.	Illustrative arithmetic only; not a prediction of fusion’s effect.
Morocco	Net energy-product imports were about US$12.1 billion in 2024. [15]	A hypothetical 10% reduction in the import bill would equal about US$1.21 billion annually, if import volumes and all other prices were unchanged.	Illustrative arithmetic only; lower global prices are not guaranteed by fusion.

These calculations deliberately use different denominators and must not be compared as a league table. Their value is methodological: the first step is to establish a country’s actual baseline exposure; the second is to apply explicit price, volume, and adoption assumptions; the third is to model offsets, such as reduced domestic fuel use, tax changes, export reallocation, and alternative electricity costs. The numbers above are simple sensitivities, not estimated impacts of fusion.

3. WATER SECURITY MAY BE A MAJOR STRATEGIC DIVIDEND

Desalination is energy-intensive, and MENA’s water challenges make reliable power especially valuable. If fusion eventually supplies competitively priced electricity or usable heat, it could support desalination, wastewater treatment, industrial water recycling, pumping, and some controlled-environment agriculture. The IEA’s finding that cooling and desalination are set to account for close to 40% of regional electricity-demand growth to 2035 underscores the connection between energy planning and water security. [1]

Potential beneficiaries include Gulf states with large desalination systems, Jordan with its significant water constraints, Egypt in selected coastal and industrial applications, and North African countries seeking to improve water resilience. But fusion would not create water resources or solve distribution failures. Desalination plants require capital, intake and outfall infrastructure, skilled operators, electricity-grid connections, and responsible brine management. Water governance and network losses remain decisive.

Policy implication: MENA governments should evaluate fusion as one possible future source of firm power within an integrated water-and-energy strategy—not as a stand-alone water solution. Existing efficiency, renewable energy, storage, grid upgrades, and conventional generation options should continue to be assessed on current costs and performance.

4. THE INDUSTRIAL OPPORTUNITY: POWER IS AN INPUT, NOT A STRATEGY

Affordable, reliable electricity could improve the economics of several industries, but low electricity prices alone do not create globally competitive firms. Human capital, logistics, predictable regulation, access to markets, water, financing, and reliable infrastructure will determine which countries convert energy advantages into lasting value.

Advanced manufacturing. Potential opportunities include industrial equipment, advanced materials, electronics assembly, and components—provided skills, supply chains, and export access are available.

Data centers and AI. Power availability matters, but cooling, fiber connectivity, data rules, cybersecurity, and political and regulatory predictability are also essential.

Water technology. MENA could expand expertise in desalination equipment, water treatment, recycling, and system management even before fusion is commercial.

Chemicals and materials. Fusion electricity or heat could support some processes, but each application needs a process-specific cost and engineering assessment.

Hydrogen and industrial fuels. Abundant electricity could support hydrogen production, but fusion would compete with renewables and other routes; transport, storage, and customer demand would still determine viability.

The strongest industrial strategy is to identify sectors where a country already has credible advantages, then test whether future firm power would materially improve competitiveness. Governments should avoid announcing “fusion economies” built on speculative electricity prices or unproven deployment schedules.

5. GEOPOLITICS: TECHNOLOGY, CAPITAL, AND SUPPLY CHAINS

Fusion could shift some energy-related influence from resource ownership toward technological capability. Countries that develop reactor designs, specialized materials, control systems, components, fuel-cycle solutions, engineering talent, and project-finance expertise may capture value beyond the electricity itself. Countries that only import complete plants may still gain from power generation, but could remain dependent on foreign suppliers for maintenance, upgrades, parts, and intellectual property.

The United States and China are among the major competitors in fusion research and commercialization. The Congressional Research Service identifies international competition as a strategic consideration, while emphasizing that commercial viability remains uncertain. [2] The U.S. Department of Energy’s June 2026 roadmap aims to support private-sector scale-up in the 2030s; that is a policy goal, not a guarantee that commercially competitive fusion plants will be operating on schedule. [3]

For MENA, this creates a practical choice. Governments can compete to host research and industrial activity, or they can build regional capacity to assess and procure technology intelligently. Even states that do not develop reactors should train engineers, understand licensing and safety requirements, negotiate technology-transfer terms, and avoid excessive dependence on a single vendor or geopolitical partner.

Saudi Arabia and the UAE have capital and infrastructure that could support early procurement or investment if commercial systems become available. Israel may be positioned to contribute through specialized technology and research. Egypt, Morocco, Jordan, and Tunisia could benefit from improved power availability, but financing and access may be more decisive than scientific capability. These are hypotheses for further investigation, not validated rankings of national readiness.

6. POLITICAL OUTCOMES WILL DEPEND ON GOVERNANCE

Fusion does not inherently favor democracies or authoritarian governments. Any state could use cheaper and more reliable electricity to support industrial growth. The distribution of benefits, however, would depend on ownership, market access, procurement integrity, competition, workforce policy, and the quality of public institutions.

If governments use new energy capacity mainly to subsidize consumption or protect favored firms, productivity gains may be limited. If they support competitive private-sector activity, technical education, open procurement, and export-oriented production, the economic dividend could be broader. A fusion plant would not automatically democratize a country or entrench an existing political order; institutions would shape the outcome.

7. A MENA FUSION READINESS INDEX: A JAFAJ RESEARCH OPPORTUNITY

JaFaJ should not assign numerical scores to countries until the methodology and data are established. Instead, this paper proposes a transparent index that can be developed in a subsequent edition. Each country would be assessed across five dimensions using published, comparable indicators and a stated scoring rubric.

DIMENSION	INDICATORS TO TEST
Fiscal resilience	Hydrocarbon share of government revenue and exports; fiscal buffers; debt and spending flexibility.
Technology readiness	Research capacity, engineering workforce, university-industry links, relevant patenting and partnerships.
Infrastructure readiness	Grid reliability, transmission capacity, industrial sites, water systems, and ability to integrate large firm-power plants.
Investment capacity	Cost of capital, sovereign and private financing capacity, procurement quality, and project-delivery record.
Economic diversification	Non-hydrocarbon productivity, export complexity, private-sector depth, and workforce adaptability.

Methodological safeguards: publish the indicator definitions, years, weights, missing-data rules, and country coverage; distinguish observed indicators from expert judgments; run sensitivity tests on weights; and avoid presenting the index as a forecast of which country will obtain fusion first. A readiness index would measure preparedness, not predict commercial success.

For economic planning, each scenario should be tested against the same set of variables: (a) commercial plant cost and reliability; (b) share of electricity displaced; (c) oil and gas no longer burned domestically; (d) global demand and price response; (e) cost of capital and grid upgrades; and (f) fiscal capture of any gains. No reliable public evidence currently permits a MENA-wide numerical estimate of fusion’s future effect on oil prices or government revenues.

8. SCENARIOS AND DECISION POINTS

SCENARIO A — DELAYED COMMERCIALIZATION — Fusion remains technically or economically uncompetitive for decades. MENA still benefits from diversification, grid modernization, renewable power, energy efficiency, and water investment. Governments avoid making essential plans contingent on fusion.

SCENARIO B — SELECTIVE EARLY DEPLOYMENT — A limited number of plants operate in markets where costs and technical performance justify them. Early adopters gain experience and potentially reduce some fuel use; suppliers, finance, and engineering become sources of competitive advantage.

SCENARIO C — BROADER COMMERCIAL ADOPTION — Fusion becomes reliable, scalable, and competitive across more electricity markets. Hydrocarbon exporters face greater pressure to diversify, while energy-intensive industry and water infrastructure may shift toward locations with strong overall operating conditions.

The scenarios are deliberately conditional. The CRS review documents major remaining technical hurdles and cautions that commercial timing is difficult to predict. [2] The appropriate planning horizon is therefore a set of trigger points rather than a single forecast date: sustained net energy performance at the plant level, demonstrated component durability, credible capital costs, licensing progress, and independently verifiable electricity-delivery economics.

9. RECOMMENDED ACTIONS FOR MENA GOVERNMENTS

1. Conduct a fusion exposure stress test. Model the effects of multiple hydrocarbon-price and demand scenarios on government revenue, foreign exchange, subsidies, and public investment.
2. Build a technology-monitoring capability. Track independently verified engineering milestones, project financing, licensing, plant costs, and grid-delivery claims—not promotional target dates alone.
3. Invest in skills and research partnerships. Develop plasma science, materials, power engineering, control systems, radiation protection, project management, and regulatory expertise where these investments have broader value.
4. Protect procurement and negotiating leverage. Require transparent cost assumptions, clear liability arrangements, supplier diversification, cybersecurity provisions, maintenance plans, and realistic technology-transfer terms.
5. Integrate energy and water planning. Continue investments in desalination efficiency, wastewater reuse, grid reliability, renewables, storage, and transmission that pay off even if fusion is delayed.
6. Accelerate economic diversification now. Use current hydrocarbon earnings to build productive non-oil industries rather than waiting for a technology shock to make diversification politically urgent.
7. Create a regional technical dialogue. Countries could share standards, workforce programs, grid-integration experience, and independent technical assessment while retaining national procurement choices.

10. DECISION GATES: WHEN FUSION BECOMES A MENA POLICY ISSUE

MENA governments should not use a calendar date or a vendor announcement as the trigger for major public commitments. They should use observable decision gates. The gates below separate scientific progress from the commercial, financial, and system-level evidence required for a national energy decision.

Gate 1 — Demonstrated plant-level performance. Require independently reviewed evidence that an integrated system can operate reliably over meaningful periods, with transparent accounting of energy consumed by magnets, lasers, heating, cryogenics, pumps, fuel handling, and other auxiliary systems. A plasma milestone alone does not pass this gate.

Gate 2 — Bankable cost and delivery evidence. Require a credible, independently reviewed estimate of overnight cost, financing cost, construction schedule, availability, maintenance intervals, component replacement, fuel-cycle requirements, decommissioning, and insurance or liability arrangements. Compare delivered electricity and heat—not a headline reactor metric—with alternatives available in the relevant market.

Gate 3 — Grid and water-system fit. Test whether a proposed unit’s size, ramping behavior, outage profile, cooling needs, water demand, transmission requirements, and cybersecurity requirements fit the national system. A technically successful plant may still be a poor choice for a weak grid or a water-stressed site.

Gate 4 — Procurement and local-value test. Before signing a major commitment, identify who bears construction, performance, fuel-supply, maintenance, cybersecurity, and end-of-life risks. Quantify local jobs and supplier participation using enforceable measures rather than aspirational percentages. Require open-book cost assumptions and independent technical review.

Gate 5 — Portfolio comparison and public decision. Compare fusion against the same alternatives and assumptions: renewables plus storage, interconnection, nuclear fission where legally and politically viable, efficiency, demand response, and conventional generation with relevant emissions controls. Publish the assumptions, sensitivity ranges, and reason for selecting or rejecting each option.

A country should move to the next gate only when the prior gate has been passed with independently reviewable evidence. Failure to pass a gate should delay or limit commitment, not be interpreted as a reason to abandon low-regret investments in grids, water efficiency, workforce development, and fiscal diversification.

11. COUNTRY STRATEGY: DIFFERENT STARTING POINTS REQUIRE DIFFERENT POLICIES

Hydrocarbon exporters with large fiscal buffers (including Qatar, the UAE, and—depending on fiscal conditions—Saudi Arabia) can afford to monitor technology and selectively fund research, supplier development, and option-value investments. Their principal error would be to confuse financial capacity with proof of commercial readiness.

Exporters with high fiscal sensitivity or constrained buffers (including Iraq, Bahrain, Kuwait, Algeria, and Libya, though their exposures differ materially) should prioritize fiscal stress testing, transparent energy subsidies, revenue diversification, and protection of essential public investment. A speculative fusion timetable is not a substitute for managing today’s oil-price and production risks.

Energy importers and water-stressed states (including Morocco, Jordan, Tunisia, and Egypt) should focus on the delivered cost of reliable power, grid flexibility, industrial competitiveness, and water security. They may benefit from global advances even without hosting a fusion plant; their near-term planning should continue to evaluate renewables, storage, interconnection, efficiency, and other proven options on their own merits.

States with advanced research or specialized industrial capabilities, including Israel and selected Gulf research hubs, may pursue targeted partnerships and component expertise. Such activity should be evaluated against opportunity cost and a realistic route to market. For conflict-affected states, including Yemen, Syria, and Lebanon, near-term priorities are institutional capacity, reliable infrastructure, and basic energy services rather than speculative reactor deployment.

These groupings are strategic hypotheses, not a numerical ranking. Country classification should be updated as fiscal data, electricity systems, policy choices, and fusion evidence change. Within each group, national conditions differ; the grouping must never replace country-level due diligence.

12. COMMERCIAL REALITY CHECK: WHAT THE EVIDENCE SUPPORTS

The most important update to this assessment is not a more aggressive deployment date; it is a clearer distinction between ambitious targets and demonstrated capability. The U.S. Department of Energy’s finalized 2026 Fusion Science and Technology Roadmap describes a pathway intended to support a pilot plant in the mid-2030s, but explicitly ties delivery to unresolved technical gaps, public-private coordination, and future appropriations. A government roadmap is evidence of policy intent and research priorities—not proof that a plant will be delivered on schedule or at a competitive price. [3, 17]

The International Energy Agency’s 2026 innovation assessment similarly recognizes major experimental progress and increased investment while identifying fuel-cycle and materials challenges that are not ready for scale-up. Its Energy Technology Perspectives 2026 executive summary says fusion remains at an early stage, with significant technical and cost barriers and deeply uncertain commercialization timing. The defensible planning baseline is therefore that fusion may become strategically important, but should not be included as firm capacity or as a forecast driver in national budgets until independently verified performance and cost evidence exists. [17, 18]

Three evidence categories should be kept separate in every JAFAJ update:

Demonstrated fact: a result independently measured and documented under stated conditions, with clear system boundaries. A plasma or experimental energy-gain milestone does not by itself establish net electricity from an integrated power plant.

Developer or government target: a stated objective, schedule, or commercialization pathway. Report it as a target and attribute it to the organization; do not restate it as an expected outcome.

JAFAJ scenario assumption: an explicit conditional input used to test policy exposure. Label it as an assumption, show its formula and sensitivity range, and do not present the output as a prediction.

A practical consequence follows: the near-term economic case for MENA is stronger for investments that have independent value now—grid modernization, energy efficiency, renewables and storage, water-system efficiency, engineering skills, and fiscal diversification—than for public commitments premised on fusion electricity arriving by a specific year. Fusion-readiness work should initially be low-cost and reversible: technical monitoring, university partnerships, standards expertise, supply-chain mapping, and transparent feasibility studies.

12.1 PROCUREMENT SCORECARD: MINIMUM CONDITIONS BEFORE PUBLIC COMMITMENT

No MENA government should select fusion on a vendor headline, a memorandum of understanding, or a target date alone. A proposal should be compared with the best available alternatives using the same system boundary, financing assumptions, reliability standard, and delivery period. The following minimum scorecard is designed as a go/no-go screen; it is not a claim that commercial fusion plants currently satisfy these conditions.

Gate	Evidence required	Pass condition	Public-policy safeguard
Integrated performance	Independent operating data for an integrated plant; transparent accounting of recirculating power and facility loads; duration and availability records.	Results are independently reviewable and clearly distinguish experimental output from net electricity delivered.	No capacity credit or guaranteed-output payment based solely on plasma performance.
Engineering durability	Materials, component lifetime, maintenance intervals, fuel-cycle performance, waste streams, and safety case.	Key components demonstrate repeatable performance under relevant operating conditions.	Contractor bears defined performance and remediation obligations; liabilities are not left open-ended.
Delivered cost	Audited capital cost, financing, construction schedule, operating costs, decommissioning, insurance, and cost of replacement power during outages.	Independent comparison shows credible whole-system cost under sensitivity tests.	No undisclosed sovereign guarantee or unbounded cost-overrun exposure.
Grid and water fit	Connection requirements, unit size, outage profile, cooling demand, water use, transmission upgrades, and resilience.	System operator and water authority confirm that integration is feasible and affordable.	Grid and water upgrades are costed in the project case, not externalized.
Public value and local capability	Skills transfer, research access, supply-chain opportunities, workforce plan, IP terms, and alternatives analysis.	Specific, measurable benefits exceed those available from competing investments under the same budget.	Milestone-based funding, independent review, disclosure, and termination rights.

Decision rule: if a proposal cannot meet these conditions, the appropriate response is to continue monitoring and fund lower-regret alternatives—not to compensate for missing evidence with optimistic assumptions.

13. JAFAJ STRATEGIC THESIS

The central strategic risk is not that fusion will make oil worthless tomorrow. It is that some MENA governments could reach the next major energy transition with fiscal systems, export models, and industrial strategies still built around assumptions that no longer hold.

Oil and gas will remain important for the foreseeable future, and fusion’s commercial future is uncertain. Yet the cost of preparing for technological change is generally lower when governments have fiscal room and profitable energy exports than when they are already under pressure. The region should therefore use existing energy wealth to build resilience, technical capability, and industries that can prosper under more than one energy future.

For JaFaJ, the next research step is to quantify exposure and readiness rather than expand the article with more speculation. A sourced fiscal-risk comparison and a transparent MENA Fusion Readiness Index would convert this assessment into a repeatable analytical product.

CONCLUSION

Fusion could eventually change the relationship between energy, water, industrial development, and geopolitical influence in MENA. The region’s hydrocarbon exporters may face pressure if fusion materially displaces fossil fuels in some markets; energy importers may benefit from lower-cost firm power; and states that build engineering and industrial capacity could capture value beyond electricity generation. None of these outcomes is guaranteed.

The immediate policy imperative is clear: prepare without overcommitting. Preserve the value of existing energy resources, diversify government revenue, strengthen electricity and water infrastructure, and build the technical capacity to evaluate fusion as the evidence matures. In a future energy system, ownership of resources may matter less than the ability to turn technology into productivity, exports, and durable public wealth.

EDITORIAL AND ANALYTICAL STANDARD

This assessment distinguishes reported source data, illustrative arithmetic sensitivities, and conditional strategic judgments. It does not claim that fusion will arrive on a specific date or produce a forecastable oil-price shock. Country figures retain the source-year and denominator stated in the cited material; because reporting periods and definitions differ, the figures should not be read as a harmonized country ranking. The sensitivity examples are transparent arithmetic exercises, not forecasts of fusion-driven outcomes.

14. QUANTITATIVE DECISION FRAMEWORK: WHAT WOULD CHANGE THE OUTLOOK?

The paper’s central economic question is not whether fusion will “end oil.” It is which observable combination of plant performance, delivered cost, deployment scale, and fuel substitution would materially change MENA’s fiscal and strategic position. This framework converts that question into a repeatable test without pretending the commercial timetable is known.

14.1 THE TRANSMISSION CHAIN — KEEP THE CAUSAL STEPS SEPARATE

Step 1 — Plant output. Use independently verified net electricity delivered to the grid, after recirculating power and downtime, not gross fusion output or a vendor’s target capacity.

Step 2 — Displaced generation. Estimate which existing generation is displaced and its actual fuel consumption. A fusion plant does not automatically displace oil or gas; it may displace renewables, imports, or new demand instead.

Step 3 — Domestic fuel released. Calculate displaced fuel using the relevant plant heat rate, operating profile, and fuel mix. Separate oil from gas and identify whether the fuel can technically and contractually be exported.

Step 4 — Fiscal capture. Apply the country-specific fiscal take—royalties, taxes, state-company transfers, subsidies, and domestic administered prices—to the estimated change. Avoid treating gross export value as government revenue.

Step 5 — Market feedback and offsets. Model global price effects separately; include plant capital costs, financing, transmission, backup, maintenance, decommissioning, and any productivity or water-security gains. If an input is unavailable, report it as unknown rather than inserting a convenient proxy.

14.2 SCENARIO TESTS — NO FALSE PRECISION

The following tests are deliberately expressed as thresholds and sensitivities rather than forecasts. They can be populated country by country when verified inputs exist.

Test	Required calculation	What a result would mean	Evidence needed before decision
Technical viability	Net MWh delivered; availability; recirculating-power ratio; maintenance downtime.	Establishes whether the plant is a dependable generator rather than a successful experiment.	Independent operating data across a meaningful period; defined system boundary.
Cost competitiveness	Levelized delivered cost including financing, grid connection, backup, fuel cycle, maintenance, and end-of-life obligations.	Tests whether fusion beats the actual local alternative—not a generic global benchmark.	Audited assumptions and comparable bids for renewables plus storage, gas, interconnection, and other firm power.
Domestic fuel substitution	Net MWh displacing each fuel ÷ relevant generation efficiency/heat rate.	Estimates physical fuel avoided before making any claim about exports or fiscal impact.	Country generation mix, unit heat rates, dispatch rules, fuel subsidies, and plant availability.
Fiscal sensitivity	Change in hydrocarbon receipts × country-specific fiscal capture, with price and volume effects separated.	Shows budget exposure without equating export value with public revenue.	IMF/national accounts, fiscal regime, state-company transfers, baseline year, and sensitivity range.
Water-system value	Incremental dependable electricity/heat applied to a specified desalination or reuse system; cost per m³.	Tests a measurable water-service benefit instead of asserting that fusion automatically solves scarcity.	Plant-specific energy demand, water output, reliability, brine/environmental controls, and lifecycle cost.
Strategic supply-chain value	Share of contract value, skilled jobs, maintenance capability, and critical components secured locally.	Distinguishes genuine capability-building from a host-country announcement or prestige project.	Binding local-content definitions, workforce data, IP terms, and supplier-diversification plan.

14.3 THREE DECISION RULES

Rule A — No revenue-loss headline without a causal model. A stated “10% revenue shock” is a sensitivity assumption, not a prediction of what fusion will do to oil or gas markets.

Rule B — No procurement commitment based on calendar promises. Advance only after independent technical, cost, grid-fit, financing, and liability gates are passed.

Rule C — Use a portfolio counterfactual. Compare fusion with the best credible local mix of efficiency, renewables, storage, interconnection, gas, and—where legally and politically feasible—fission. The comparison must use the same financing assumptions, reliability standard, and time horizon.

14.4 COUNTRY-LEVEL PRIORITIZATION WITHOUT A PREMATURE RANKING

For exporters, the first-order variables are hydrocarbon receipts as a share of government revenue, domestic hydrocarbon use in power, fiscal buffers, and the ability to redeploy saved fuel. For importers, the first-order variables are net energy-import exposure, grid reliability, cost of capital, and the ability to finance firm power. For water-stressed states, desalination integration and the full cost per cubic metre deserve a separate business case. These profiles are not interchangeable, and no composite ranking should obscure them.

14.5 EVIDENCE STATUS AND REPRODUCIBILITY

Every quantitative result in a future JAFAJ update should carry a source record with publication date, reference year, unit, denominator, actual/estimate/projection status, exact table or page, calculation formula, and reviewer initials. Where a source has been revised, the current version takes precedence. Where the data cannot be reconciled, publish the range or mark the result “not comparable.”

SOURCES AND VERIFICATION NOTES

[1] International Energy Agency (IEA), The Future of Electricity in the Middle East and North Africa, Executive Summary (2025). Regional oil and gas supply, 2024 electricity mix, and projected electricity-demand growth. https://www.iea.org/reports/the-future-of-electricity-in-the-middle-east-and-north-africa/executive-summary

[2] Congressional Research Service, Toward Commercial Fusion Energy: Considerations for Congress, R48866 (27 February 2026). Technical and commercial hurdles, private-sector activity, and international competition. https://www.everycrsreport.com/reports/R48866.html

[3] U.S. Department of Energy, Energy Department Releases Finalized Fusion Science and Technology Roadmap to Accelerate Commercial Fusion Power (9 June 2026). Describes U.S. roadmap and its stated commercialization objectives; targets should not be treated as guaranteed outcomes. https://stage.energy.gov/articles/energy-department-releases-finalized-fusion-science-and-technology-roadmap-accelerate

[4] International Energy Agency, “Electricity demand is surging across the Middle East and North Africa, driven by cooling and desalination needs” (18 September 2025). Context on rising electricity consumption and demand drivers. https://www.iea.org/news/electricity-demand-is-surging-across-the-middle-east-and-north-africa-driven-by-cooling-and-desalination-needs

[5] U.S. Nuclear Regulatory Commission, “Fusion and the ADVANCE Act.” Regulatory context for fusion machines in the United States; not a statement of MENA regulatory requirements. https://www.nrc.gov/materials/fusion/mass-production-status

[6] International Monetary Fund (IMF), Saudi Arabia: 2026 Article IV Consultation, press release, 29 July 2026. Includes oil and oil products as a share of exports and fiscal projections. https://www.imf.org/en/news/articles/2026/07/29/pr26267-saudi-arabia-imf-concludes-2026-aiv

[7] International Monetary Fund (IMF), Kuwait: 2025 Article IV Consultation, press release, 24 February 2026. Fiscal projections, oil-price exposure, and external buffers. https://www.imf.org/en/news/articles/2026/02/23/pr-26061-kuwait-imf-executive-board-concludes-2025-article-iv-consultation

[8] International Monetary Fund (IMF), Qatar: 2024 Article IV Consultation, press release, 11 February 2025. LNG expansion and fiscal diversification context. https://www.imf.org/en/news/articles/2025/02/11/pr25034-qatar-imf-executive-board-concludes-the-2024-article-iv-consultation

[9] International Monetary Fund (IMF), Iraq: 2025 Article IV Consultation, press release, 8 July 2025. Oil revenue, fiscal balance, and estimated oil price required to balance the budget. https://www.imf.org/en/news/articles/2025/07/08/pr-25243-iraq-imf-executive-board-concludes-2025-article-iv-consultation

[10] International Monetary Fund (IMF), United Arab Emirates: 2025 Article IV Consultation, staff mission press release, 2 October 2025. Non-hydrocarbon growth and fiscal/external buffers. https://www.imf.org/en/news/articles/2025/10/02/pr-25326-united-arab-emirates-imf-staff-completes-2025-article-iv-mission

[11] International Monetary Fund (IMF), Bahrain: 2025 Article IV Consultation, press release, 27 January 2026. Hydrocarbon revenues, fiscal balance, debt, and reserves. https://www.imf.org/en/news/articles/2026/01/27/pr-26023-the-kingdom-of-bahrain-imf-executive-board-concludes-2025-article-iv-consultation

[12] International Monetary Fund (IMF), Oman: 2025 Article IV Consultation, press release, 15 January 2026. Fiscal and external positions and diversification priorities. https://www.imf.org/en/news/articles/2026/01/14/pr-2604-oman-imf-executive-board-concludes-2025-article-iv-consult

[13] International Monetary Fund (IMF), Algeria: 2025 Article IV Consultation, press release, 18 September 2025. Fiscal pressures associated with lower hydrocarbon receipts and public spending. https://www.imf.org/en/news/articles/2025/09/18/pr-25305-algeria-imf-executive-board-concludes-2025-article-iv-consultation

[14] International Monetary Fund (IMF), Arab Republic of Egypt: 2025 Article IV Consultation and climate policy analysis, IMF Country Report 25/186, July 2025. Energy mix, subsidy, and transition considerations. https://www.elibrary.imf.org/view/journals/002/2025/186/article-A001-en.xml

[15] International Monetary Fund (IMF), Morocco: 2025 Article IV Consultation, press release, 18 March 2025. Net energy-product imports and export structure. https://www.imf.org/en/news/articles/2025/03/18/pr-2568-morocco-imf-concludes-2025-art-iv-consult-3rd-review-under-rsf

[16] International Monetary Fund (IMF), Libya: 2025 Article IV Consultation, press release, 25 June 2025. Hydrocarbon revenue, fiscal exposure, and dependence on oil-sector developments. https://www.imf.org/en/news/articles/2025/06/25/pr-25217-libya-imf-executive-board-concludes-the-2025-article-iv-consultation

 

 

[17] International Energy Agency (IEA), The State of Energy Innovation 2026, executive summary and fusion-energy discussion, 17 February 2026. Documents recent experimental progress alongside unresolved fuel-cycle, materials, and scale-up challenges. https://www.iea.org/reports/the-state-of-energy-innovation-2026/executive-summary

[18] International Energy Agency (IEA), Energy Technology Perspectives 2026, executive summary, 26 March 2026. Assesses fusion as an early-stage technology with substantial technical and cost barriers and uncertain commercialization timing. https://www.iea.org/reports/energy-technology-perspectives-2026/executive-summary

[19] U.S. Department of Energy, “Energy Department Releases Finalized Fusion Science and Technology Roadmap to Accelerate Commercial Fusion Power,” 9 June 2026. The roadmap targets support for a fusion pilot plant in the mid-2030s but states implementation depends on public-private partnerships and future appropriations; it is a government objective, not proof of commercial delivery. https://www.energy.gov/articles/energy-department-releases-finalized-fusion-science-and-technology-roadmap-accelerate

[20] International Energy Agency, Energy Technology Perspectives 2026, Executive Summary. The IEA describes fusion as early-stage, with substantial technical and cost barriers and uncertain commercialization timing. https://www.iea.org/reports/energy-technology-perspectives-2026/executive-summary

ANALYTICAL APPENDIX A
SCENARIO FRAMEWORK AND COUNTRY EXPOSURE

Purpose. This appendix converts the paper’s strategic thesis into a repeatable framework for future JAFAJ updates. It is a scenario framework, not a forecast. No scenario assigns a probability to commercial fusion or estimates a fusion-caused oil-price decline without an explicit model and defensible assumptions.

A1. THREE SCENARIOS, ONE CONSISTENT TEST

Scenario	Technology and deployment assumption	Exporter exposure	Importer / water-system effect	Policy response
1. Delayed commercialization	Fusion remains technically, operationally, or economically uncompetitive through the planning period.	No material fusion-driven hydrocarbon displacement should be booked. Fiscal risk remains dominated by existing price, production, and spending variables.	No fusion-specific energy-import savings should be assumed. Grid, efficiency, renewables, storage, and water investments retain independent value.	Avoid dependence on fusion timelines; maintain low-regret investments and monitor independently verified milestones.
2. Selective deployment	A limited number of plants demonstrate reliable operation and bankable costs in selected markets; adoption remains geographically narrow.	Domestic fuel displacement may create savings in host countries. Global export-price effects remain uncertain and should be modeled separately.	Benefits depend on delivered electricity cost, financing, grid fit, plant availability, and whether savings reach firms and households.	Use pilot procurement gates, independent cost review, transparent liability terms, and country-specific fuel-displacement models.
3. Broad commercialization	Fusion becomes reliable, scalable, financeable, and cost-competitive across multiple electricity markets, with meaningful fossil generation displacement.	Potentially greater pressure on hydrocarbon demand and fiscal receipts, but magnitude varies with non-power uses, production costs, contracts, and alternative demand.	Potentially lower exposure to imported fuels and stronger firm-power options; gains remain constrained by capital cost, grids, institutions, and distribution.	Stress-test public finances and export strategies; compare fusion against alternatives on full-system cost and build resilience rather than assume a single outcome.

Interpretation rule. The scenarios are not dates or predictions. The move from one scenario to another should require observable evidence: integrated plant performance; transparent accounting of facility energy use; demonstrated component durability; independently reviewed capital and operating costs; licensing progress; and credible delivered-electricity economics.

A2. COUNTRY EXPOSURE: REQUIRED MODEL INPUTS

A future country comparison should not collapse unlike indicators into a single score before definitions are aligned. For each country, JAFAJ should collect the following inputs for the same fiscal or calendar period where possible:

• Hydrocarbon receipts as a share of total government revenue, with the source table and fiscal-year definition.
• Hydrocarbon exports as a share of total goods exports, distinguishing value from volume and oil from gas where data permit.
• Public debt, fiscal balance, sovereign assets, and financing costs, clearly marked as actual, estimate, or projection.
• Oil and gas consumed in domestic electricity generation, including the generation mix and any fuel-subsidy arrangements.
• Net energy-import bill for importers, with products, period, currency, and whether the figure is gross or net.
• Electricity system constraints: reserve margin, grid reliability, transmission needs, and the cost of integrating large firm-power units.
• Exposure model: domestic fuel displaced, exportable volume potentially freed, price response, fiscal capture, and offsetting costs.

Comparability rule. Do not rank countries where periods, definitions, or denominators are not comparable. Publish missing data and uncertainty explicitly. A country with high hydrocarbon export dependence may have substantial fiscal buffers; another with a smaller revenue share may have greater debt or financing vulnerability. These are separate dimensions.

A3. MINIMUM QUANTITATIVE MODEL

For each country and scenario, estimate effects in separate stages rather than applying a single percentage shock to GDP:

1. Domestic fuel substitution: estimate the amount of oil or gas displaced from electricity generation only after specifying plant availability, displaced generation, and system constraints.
2. Potential export reallocation: calculate the volume that could become available for export, then assess whether export infrastructure, contracts, and market demand permit reallocation.
3. Global market response: model price effects as a separate sensitivity. Do not assume that a given volume of displaced fuel produces a proportional price decline.
4. Fiscal transmission: estimate the effect on government receipts using the country’s fiscal regime, state-company transfers, royalties, taxes, subsidies, and production costs.
5. Offsetting effects: include plant capital and operating costs, grid investment, financing costs, alternative electricity costs, and possible productivity gains.
6. Uncertainty: show low, central, and high assumptions only where evidence supports them; otherwise label the variable as unquantified.

Required reporting format. Every modeled result should show the baseline year, units, assumptions, formula, source for each input, sensitivity range, and exclusions. Results should be described as scenario outputs—not forecasts—unless a validated forecasting model and supporting evidence are available.

 

 

ANALYTICAL APPENDIX B
MENA FUSION READINESS INDEX — PROPOSED METHODOLOGY

Status. This is a proposed research methodology, not a completed country ranking. No numerical country scores are reported in this edition because comparable data and scoring decisions must be assembled and audited before scoring.

B1. DIMENSIONS AND INDICATOR DESIGN

Dimension	Suggested indicators	Evidence standard	What the dimension measures
Fiscal resilience	Hydrocarbon revenue share; fiscal balance; public debt; liquid sovereign buffers; financing costs.	IMF country reports and national fiscal publications; identify year and projection status.	Capacity to absorb revenue volatility and finance long-lead infrastructure.
Technology and workforce	Relevant research institutions; engineering and plasma-science workforce; university-industry programs; documented research partnerships.	Published institutional data, research outputs, and formal partnership records; avoid patent counts alone as a proxy for readiness.	Ability to evaluate, adapt, and participate in fusion-related research and supply chains.
Infrastructure readiness	Grid reliability; transmission capacity; large-unit integration capability; industrial sites; cooling and water systems.	National grid reports, regulators, utilities, and international energy datasets with transparent definitions.	Ability to host and reliably integrate a large, complex power plant.
Investment and delivery capacity	Cost of capital; project-delivery record; procurement transparency; sovereign and private financing access.	Public financing data, audited project records, and recognized governance indicators, with limitations disclosed.	Ability to finance, procure, construct, operate, and maintain complex projects.
Economic diversification	Non-hydrocarbon productivity; export complexity; private-sector depth; workforce adaptability.	Comparable national accounts and trade datasets; distinguish output levels from productivity and export diversity.	Resilience if energy markets or technology change.

B2. SCORING PROTOCOL

1. Define each indicator, unit, direction of improvement, reference year, source, and inclusion rule before collecting country data.
2. Normalize indicators using a published method and test whether outliers distort results. Do not mix ordinal expert opinions with measured data without labeling the distinction.
3. Set weights before observing the country rankings. Publish the rationale and run equal-weight and alternative-weight sensitivity tests.
4. Set explicit missing-data rules. Do not silently impute missing values or penalize countries merely because reporting capacity differs; show coverage by country.
5. Publish both dimension-level results and any composite score. A composite must never conceal a weak dimension or be presented as a forecast of first commercial deployment.
6. Have a second reviewer reproduce the data extraction and calculation. Retain a source log with page, table, date accessed, unit, and any transformation.

Interpretation safeguard. The index would measure preparedness to evaluate and benefit from fusion-related opportunities, not whether a country will develop fusion first, whether a proposed plant will be economical, or whether fusion will displace a given quantity of oil or gas.

B3. SOURCE AUDIT CHECKLIST FOR THE NEXT EDITION

• Trace every numerical statement in the country table to the cited primary source and exact table, paragraph, or page.
• Check the source period against the sentence: calendar year, fiscal year, end-of-period value, actual, estimate, or projection.
• Confirm denominator and units: percent of GDP, percent of exports, percent of government revenue, nominal currency, or physical volume.
• Verify that source revisions have not superseded the figures used in the paper.
• Confirm that each source supports the specific claim attached to it; a report discussing diversification does not automatically verify a numerical claim.
• Check all URLs and bibliographic dates, and distinguish institutional targets from independently demonstrated technical results.
• Record each check in a source log and resolve discrepancies before describing the edition as fully source-verified.

PUBLICATION CONTROL: EVIDENCE AND LIMITATIONS

This assessment is a strategic analysis, not an engineering feasibility study or a forecast of fusion deployment. The DOE roadmap is treated as a policy objective, not a guarantee; the IEA’s 2026 assessment reinforces that commercial timing and costs remain uncertain. The country indicators and sensitivity arithmetic in this edition must be read with their stated years and denominators. Before external release as a fully source-verified report, an editor should complete a claim-by-claim audit of every country figure and URL, retain the audit log, and independently reproduce all calculations. No country readiness ranking is presented because a defensible comparable dataset has not yet been assembled.