Energy bills and the AI boom: what Europe's power crunch means for industry

On 29 September, Newfoundland and Labrador's energy minister said the province's door is "open for business" to AI data centres. Lloyd Parrott made the remark during a special House of Assembly session on the Churchill Falls agreement, where he floated selling surplus hydro power to a data centre operator. CBC News reported it. A department spokesperson later confirmed by email that companies had approached the provincial government.

The pitch is simple: low-carbon hydro, cold weather, cheap land. TechNL chief executive Andrea King told CBC that Labrador meets much of that checklist, but she warned the decision is not automatic. "It's not just 'does this make sense?' by itself," she said. "You have to look at economic costs and opportunity costs of what else you could do with that electricity."

Europe is asking the same question

Europe is running the same arithmetic. Power prices there have spent two years squeezing energy-intensive manufacturers. The dossier does not give a single current European industrial electricity price, and this piece will not invent one. What it does show is the direction of travel on demand: more computing, more electrification, more competition for the same kilowatt hours. Paris Marx, author of Hyperscale, a book on data centres, questioned the trade in the CBC report. "Does it make sense to be giving that electricity over to data centres when there might be better ways that it can be used?" he said. Marx also noted that some operators now use closed-loop cooling, which recirculates water. That answers local objections only in part.

Demand pressure is not the only force. On 29 September, Hannah Ritchie published an analysis of work by Oxford professor Nick Eyre. He argues that electrification cuts total final energy demand rather than raising it. In the model, global final energy demand falls from 416 exajoules today to 247 EJ after transition, while electricity demand rises from 110 EJ to 189 EJ. The headline: "Electrification is efficiency."

The mechanism is mostly conversion loss. A petrol car turns roughly 20% of its energy into motion; an electric car manages about 80%. Buildings swap gas boilers for heat pumps. The model assumes 90% of space heating is electrified, with the rest on hydrogen, because full substitution is uneconomic at winter peaks. Industry is harder. High-temperature processes largely cannot be electrified, so they move to hydrogen.

Who pays when oil spikes

While electricity demand is being redesigned, the oil market keeps delivering shocks. Two energy and trade economists analysed the market in The Conversation. US benchmark crude sat at $66 a barrel in late February 2026, before the US and Israeli attacks on Iran, and reached $101 a barrel on 13 April. The authors trace where the extra money goes: mostly to oil companies, then to shareholders through dividends and buybacks, or to states. Norway routes revenue into its Government Pension Fund Global, valued at over $2 trillion. Saudi Arabia's government controls nearly all production, so high prices feed public spending. In the UK, private shareholders benefit, but a tax on oil and gas profits takes a significant share for the state. Russian crude is subject to a price cap: Western shipping, insurance and financing may be used only below $60 a barrel, the article says.

The fix some are betting on is efficiency at the chip level. On 29 September, Efficient Computer said it raised a $97 million Series B led by TQ Ventures. That takes its total raise to $173 million at a $650 million valuation. Writing on the company's blog, chief executive Brandon Lucia claimed its architecture delivers 10 to 100 times better energy efficiency than traditional CPUs, and said the Electron E1 is shipping at volume for embedded robotics and drones.

Treat that number as a company claim, not a benchmark. Lucia's argument leans on Amdahl's Law: if 10% of a workload cannot be accelerated, the ceiling on system gain is 10x no matter how fast the rest runs. That logic cuts against the fixed-function accelerators now filling data halls.

Older material in the dossier sets the scale. The US Energy Information Administration's photovoltaic timeline notes that the first PV cells converted under 1% of light into electricity, while some cells today reach a 40% conversion rate. David MacKay's Sustainable Energy without the hot air, still online, made the same demand-side case in 2008: numbers first, adjectives later.

"We said our door is open for business and we're looking forward to doing business with the world." Lloyd Parrott, Newfoundland and Labrador energy and mines minister, quoted by CBC News.

For European industry, the near-term question is less philosophical. Every new data centre, every electric vehicle and every heat pump adds load to a grid that is still being rebuilt. The bill lands in the same place it always does: on whoever signs the power contract.