I · The Question That Isn't Asked

The European energy transition is stalling. Not due to a lack of money. Not due to a lack of technology. Due to a lack of questioning.

We ask: how do we reach 2050. We do not ask: where does the most sun fall, and how do we harvest it there? We ask: how many wind turbines fit in the North Sea. We do not ask: how much solar energy do we lose before the wind reaches us. We ask: how do we distribute the shortage. We do not ask: how do we fill the abundance.

The sun is at the equator. There, two to three times as much solar energy falls per square meter per year as here. There, Giant Juncao grows up to a hundred tons of dry matter per hectare per year — eight times what a Scandinavian forest does, four times what Iowa corn does. And yet we build wind turbines in the North Sea where the sun rarely reaches through six meters of mist.

That is not a technical misunderstanding. That is a choice stemming from five sets of blinkers. We are going to take them off.

II · The Five Sets of Blinkers

III · The Route That Actually Works

Reject the blinkers and the route lies before you. It is not a revolution. It is not technology that still needs to be invented. All components exist and are running on a lab or pilot scale. What is missing is the decision.

Step one — harvesting where the sun is

On marginal land at the equator — land that cannot produce food due to erosion or poor irrigation — we grow Giant Juncao and related high-yield crops. The numbers speak for themselves.

The root mass of Juncao is not the greatest gain energetically, but it is climatically decisive. Twenty-five tons of roots down to a depth of two meters means that a significant portion of the sequestered carbon remains permanently in the soil. High-plateau Mozambique with Juncao planting does what Flemish and Estonian forests do not — actively extract carbon from the atmosphere and lock it away permanently.

Step two — creating an intermediate liquid

Transporting raw biomass across the sea is stupid. It is mostly water and fiber. The right intermediate step is decentralized densification at the equator itself. Two technologies are ready.

Fast pyrolysis — biomass is converted into biosyncrude at 500°C in the absence of oxygen. Approximately five to seven times higher energy density than raw biomass, 35 percent mass yield.

Fermentation to ethanol — biomass is enzymatically and biologically converted into ethanol. 21 MJ per liter, liquid, transportable in conventional tankers.

Both liquids travel by VLCC tanker to European ports. The CO₂ emissions from the transport itself are less than 5 percent of the chemical energy being carried.

Step three — Europe as refinery and scientific heart

Upon arrival in Rotterdam, Delfzijl, Antwerp, Hamburg, or Marseille, the biosyncrude or ethanol is converted into the final fuel that Europe demands: sustainable aviation fuel via Fischer-Tropsch and Alcohol-to-Jet, diesel replacement for shipping, chemical building blocks for petrochemistry without Russian or Saudi oil, and direct conversion into electricity via fuel cells at room temperature.

This is not pie in the sky. The KIT Bioliq plant in Karlsruhe has been running since 2014. INERATEC in Frankfurt has been producing commercial PtL-SAF since 2024. CARE-O-SENE achieved a catalyst milestone in October 2024 with an 80 percent kerosene yield from syngas. ASTM certification for SAF from ethanol has been granted since 2018.

Step four — closing the circle

Where we made the chimney error in 2018 was thinking that burning biomass was the final step. Carbon-Alert and related research lines are now developing the subsequent step: direct chemical conversion of bio-liquid into electricity via fuel cells that operate at room temperature, with polyoxometalate as a catalyst and without platinum. Theoretically 97 percent of the chemical energy as work — above the Carnot limit of any internal combustion engine.

The circle: sunlight at the equator is converted into biomass by Juncao (3 to 5 percent), the biomass is converted into ethanol (50 percent), the ethanol is converted into electricity (60 to 80 percent), and the electricity powers every industry from Rotterdam to Rome. Net efficiency from sun to final work: around 1.3 percent — nearly twice as good as sun via Brayton turbines on natural gas. And the entire chain is biogenic.

IV · Europe Leading Again, in Partnership

In the nineteenth and twentieth centuries, Europe was the engine of the industrial revolution. Watt's steam engine from Scotland. Diesel's engine from Bavaria. Bell's telephone from Scotland. Pasteur and Lavoisier from France. Marconi from Italy. We built the world in which every other nation could find its industrialization.

In the twenty-first century, we have lost that. Semiconductors go to Taiwan and Korea. Car electrification to China. Smartphone software to California. We became a museum with good education and beautiful cities, but no new technologies.

The biomass-equator route gives Europe back its industrial core. Not through domination — the equatorial countries are not colonies. Rather through partnership where Europe deploys its comparative advantage: advanced chemistry, maritime expertise, scientific education, strict regulation, mechanical engineering.

For the equatorial countries, this is finally an industrial partnership instead of raw material exploitation. The countries do not just supply raw material; they supply biomass that is already densified on-site into biosyncrude — a semi-finished product that has ten to thirty times more value than the raw biomass. Employment, export revenue, technology transfer. Both sides win.

V · What We Must Do Immediately

One — an EU-Equator Energy Agreement. Negotiate a multi-year framework contract for biomass trade with ten equatorial countries (Brazil, Indonesia, Mozambique, Tanzania, Ghana, Colombia, Ecuador, Peru, Malaysia, Suriname) according to clear sustainability and certification requirements. This is not development aid. This is a trade treaty between equal parties.

Two — a Rotterdam Bioliq Hub. Build an industrial cluster for biosyncrude refining parallel to the Maasvlakte petrochemistry. Five to ten billion euros in investment, fifty to one hundred billion euros in annual turnover at full capacity. No subsidy needed — only the right political permit.

Three — patent protection for European breakthroughs. Glasgow (Cronin), Groningen (Feringa), Karlsruhe (Bioliq), Wageningen — European research groups are working on level-3 and level-4 technologies. A fast-track for climate-critical patents, with processing within 12 months, gives Europe back its IP position relative to China and the United States.

Four — education and youth participation. The person who builds the future energy transition is fifteen or twenty years old now. A European Youth Energy Council with a formal advisory position to the Commission and the Council would ensure that decisions about 2050 are made with input from the people who will actually be at the helm in 2050.