Field notes The Energy Transition for the Rest of Us

Catalyst N° 093 of 125 15 Jan 2026

2026 trends: Gas turbines, Texas’ load queue, and China electrifies

with Nat Bullard, co-founder, Halcyon; energy and climate analyst and writer

In this note
  1. 01The question
  2. 02The answer
  3. 03The argument
  4. 04What you need to know first
  5. 05Details worth keeping
  6. 06Claims worth citing
  7. 07Where it’s contested

The question

There isn’t one. This is the annual walk through Bullard’s 200-slide data deck, part one of two, with Kann picking favorite slides rather than building a thesis. The loose through-line: how much new demand is coming, and is anyone positioned to serve it?

The answer

Bullard’s label for the best slide is “no one knows anything,” and it generalizes. Two organizations looking at the same Texas market produce 2030 forecasts about 500 terawatt-hours apart, a gap bigger than a tenth of annual US consumption. Turbine makers with an order book far above their capacity are expanding slowly on purpose. And globally, data centers rank only fifth among sources of demand growth to 2030.

03The argument

Start with supply, where the behavior is deliberate. Manufacturers can build roughly 60 gigawatts of gas turbines a year; orders ran about 20 gigawatts above that last year, about 30 above this year, and the 2028 book is over 100 gigawatts. The obvious reading is that they cannot keep up. Bullard’s is that they largely do not want to. His series starts in 2001, when the world ordered close to 90 gigawatts, manufacturers built out to meet it, and orders collapsed to well under 40 the next year and stayed below capacity for most of two decades. Anyone senior enough to approve an expansion remembers that, and undersupply is the better commercial position anyway, helping you book durable contracts with the customers you want and helping on price. The cost shows up in utility filings: combined-cycle plants arriving this year at roughly $1,200 per kilowatt against 2030 and 2031 projects at just under $2,500.

On the demand side the numbers stop meaning what they appear to mean. The large load interconnection queue at the Electric Reliability Council of Texas, the state’s grid operator, went from about 42 gigawatts in January 2024 to 226 in November 2025, against a state peak load near 85. Neither speaker thinks it will be built. What Bullard argues is new is not the speculation but where it sits: energy people expect speculative supply-side queues, where a developer permits ten solar projects to build one or two, but a speculative queue on the demand side is unfamiliar, and nobody sites a hospital across seven states at once. Kann pushes back on the mechanism, arguing these are mostly not developers choosing among sites for one facility but speculators developing whatever site they can monetize by sale or lease. Either way nothing nets out the duplicates, because interconnection is regulated state by state. Hence the “no one knows anything” slide: the grid operator forecasts Texas going from under 500 terawatt-hours in 2024 to about 1,000 by 2030, while the transmission service providers, serving the same market, forecast about 1,600. The utilities see every request they are asked to build and are paid to build assets; the operator forecasts what it thinks will happen. Bullard puts the truth between them, closer to the operator.

Two slides then supply proportion, pointing opposite ways. Against the great American build-outs, 2025 technology capital expenditure is larger than any of them: the Manhattan Project, postwar electrification and Apollo each peaked at or barely above half a percent of gross domestic product, broadband around 1.2% in 2000, and technology capital expenditure just under 2%, probably not yet at its peak. But that figure covers only what sits inside the companies’ own fence, and excludes the utility spending that follows. Pointing the other way, on International Energy Agency projections of global demand growth to 2030, data centers rank fifth at around 8%, behind industrial electrification at roughly 30%, electrified transport, and space cooling and buildings at around 10%.

Underneath all of it sits a fifty-year regularity the episode opens with and never resolves. Spending on electricity has stayed between roughly 3% and 4% of global gross domestic product for five decades, while oil’s share swung from just under 9% in 1980 to below 4% in 2020 and sits near 5% now. The flat line means electricity spending has grown with the economy and never faster. Whether AI breaks that depends less on the spending, which everyone expects to rise, than on whether output rises with it, which is precisely the contested question about AI. Bullard declines to guess. The China slide asks it from the other end: China went from about 3% of final energy delivered as electricity in 1970 to roughly 30% today, while North America moved from about 20% in 1990 to 22 or 23% now. Bullard’s explanation is partly sovereignty. Electricity generated inside your borders is yours whether it comes from coal or from solar, and China imports oil and gas while sitting on centuries of domestic coal, so electrification buys energy independence even where it does not buy decarbonization.

04What you need to know first

Large load interconnection queue
Requests to connect big new electricity consumers, as opposed to the generation queue of proposed power plants. A list of what people have asked for, not a plan, and one project can sit in several states’ queues at once.
Gigawatts versus terawatt-hours
Gigawatts measure capacity at an instant, terawatt-hours energy over a year. The episode uses the first for queues and the second for demand forecasts, so they are not directly comparable.
Share of final energy from electricity
Of all the energy an economy uses, the fraction delivered as electricity rather than burned directly as fuel. It says nothing about whether that electricity is clean.
Combined cycle
A gas plant that captures the turbine’s waste heat to drive a second steam cycle. A simple-cycle unit does not, and is cheaper and less efficient.

05Details worth keeping

  • The gas cost series comes from mining state regulatory filings, specifically certificates of public convenience and necessity, covering more than 160 active plants and close to 80 gigawatts. Figures are delivered cost including construction financing, with discrete site items such as 80 miles of feeder line stripped out, and are revisited monthly.
  • Nobody is planning reciprocating engines for the 2030s, even though they are being deployed at scales suggesting bulk power rather than the backup and bridge duty they were meant for.
  • Scarcity is pulling in machines never designed for the job: jet engine makers are pivoting and aero-derivatives built for intermittent service are being sold into always-on grid power. Kann’s shorthand is “everything is turbine.”
  • Bullard flags a possible global trade-off. If new electrons through 2030 are effectively finite, more going to data centers could mean less in absolute terms going to space cooling. Kann says the same of supply-constrained markets: each new data center may be an electrified industrial facility that never happens.
  • The capital expenditure comparison is Michael Cembalest’s team at JP Morgan, not Bullard’s; the point that capital spending lags financial markets is Michael Burry’s.

06Claims worth citing

All figures as stated on 2026-01-15 and attributed to the speaker, not verified independently. Turbine prices and the Texas queue move monthly.

  • Gas turbine production capacity around 60 gigawatts a year, with orders about 20 gigawatts above it last year and about 30 above this year. (Bullard) The 2028 order book is over 100 gigawatts. Kann
  • Combined cycle roughly $1,200 per kilowatt for 2026 arrivals and just under $2,500 for 2030-2031 projects; simple cycle up about 50% to roughly $1,500; reciprocating engines already $2,500 to $3,000. Halcyon, cited by Bullard
  • Texas large load queue from about 42 gigawatts in January 2024 to 226 in November 2025, against roughly 30 gigawatts of data centers in the entire US two years earlier. (Kann) State peak load around 85 gigawatts. Bullard
  • Texas 2030 demand: the grid operator forecasts about 1,000 terawatt-hours against under 500 in 2024, the transmission providers about 1,600. (Bullard) US annual consumption is roughly 4,000 to 4,500 terawatt-hours. Kann
  • 2025 technology capital expenditure just under 2% of US gross domestic product, against broadband’s 2000 peak near 1.2%. The older build-outs are given loosely: the Manhattan Project, postwar electrification and Apollo “less than, or barely above” 0.5%, with Apollo and the interstate highways then put at about 0.6% a sentence later. Kann restates broadband as “just over 1%,” so treat 1.2% as approximate too. JP Morgan slide, cited by Bullard
  • That technology figure excludes power, transmission and water spending; associated utility capital expenditure is “tens if not hundreds of billions” on top. Bullard
  • Global demand growth 2024-2030: industrial electrification around 30%, space cooling and buildings around 10%, data centers around 8% and fifth overall, with electrified transport also ahead. International Energy Agency, cited by Bullard
  • Electricity has stayed between roughly 3% and 4% of global gross domestic product for five decades; oil just under 9% in 1980, below 4% in 2020, near 5% now. Bullard
  • Final energy delivered as electricity: China 3% in 1970, 7% in 1990, about 30% now; North America about 10% to a little over 20% across five decades, and 22 to 23% today. Bullard and Kann

07Where it’s contested

  • Whether the utility load forecast is a forecast at all. Kann argues the transmission providers’ 1,600 terawatt-hour number is not a real forecast, because they are paid to build assets. Bullard refuses that: it is a real forecast of real requests, and the difference is how heavily each party discounts them.
  • What the Texas queue means. Both agree most of it will not be built, and Bullard says Texas will not add 226 gigawatts of large load in seven or eight years. They disagree on the cause: Bullard reads a demand-side queue behaving like a speculative supply-side one, Kann reads site-control speculation, where the developable site is itself the product.
  • Kann’s disbelief in the global ranking. He says outright that he does not believe the International Energy Agency data even while accepting the explanation for it. Bullard calls the ranking a moving target and expects data centers to climb it, without saying how far.
  • Whether gas plant costs are understated. Kann suspects engineering and construction costs will push actual spend above the filings. Bullard reports developers telling him his numbers are low, then declining to substantiate it.
  • The electricity share of output question is left open on purpose, with Bullard calling his own answer unsatisfying. Two spoken figures also wobble: the broadband peak is 1.2% from Bullard and “just over 1%” from Kann, and a question about Texas consuming as much as a third of current US demand is answered with “roughly 11 or 12% last year,” which reads as Texas’s present share but is not said outright.

Cite as: “2026 trends: Gas turbines, Texas’ load queue, and China electrifies,” The Energy Transition for the Rest of Us, note on Catalyst with Shayle Kann, January 15, 2026. CC BY 4.0. View the Markdown