Ask the three people closest to building superintelligence how it arrives, and you get three different answers — and three different roadmaps. Amodei says it's already at the door and the bottleneck is money and chips. Altman says the singularity is already here, unfolding so gradually we might barely notice. Hassabis gives you a coin flip and a much harder test than either of them.

These aren't just vibes. Each theory shapes what their lab actually builds: what gets funded, what gets researched, and what counts as success. Here's what each believes, in their own words.

Dario Amodei: scale now, absorb later#

Amodei's theory is the purest expression of the scaling hypothesis. In his October 2024 essay "Machines of Loving Grace," he coined his preferred term — not AGI, which he finds burdened with sci-fi baggage, but "powerful AI": systems smarter than a Nobel Prize winner across most relevant fields, a "country of geniuses in a datacenter."

His mechanism is blunt. Intelligence is what you get when you pour compute, data, and training time into a well-chosen objective function; algorithmic cleverness matters, but mostly as a stopgap for insufficient scale. And the scaling curves, he keeps insisting, have stayed smooth: models keep improving at a predictable rate as inputs grow.

Where Amodei is distinctive is his split between two exponentials: capability — what models can do, on the verge of breaching human-level cognition in knowledge work, starting with software engineering — and diffusion — how fast economies actually absorb that capability, which he expects to lag by years because of regulation and organizational inertia.

That framing lets him hold two apparently contradictory positions at once. At Davos in January 2026, he said AGI could be six to twelve months away in software engineering — his own engineers, he reported, barely write code anymore; they evaluate code the models write. In a March 2025 filing to the White House, Anthropic told regulators to expect powerful AI by late 2026 or early 2027, and in a February 2026 interview with Dwarkesh Patel he put 90% confidence on arrival within a decade, with his personal hunch still landing in 2026–2027.

But he also argues that even after capability arrives, the world won't transform overnight — and, strikingly, that Anthropic won't bet its balance sheet on its own predictions, because the capital requirements of $100-billion training clusters make that gamble irrational even for a true believer. On labor, he's unusually blunt: as many as half of entry-level white-collar jobs could disappear within five years.

What the roadmap reveals: Anthropic's bet is scale as strategy, diffusion as governance. Keep training bigger models on the smooth scaling curve, and put the safety work — alignment research, evaluation, "race to the top" norm-setting — into managing the gap between capability and adoption.

Sam Altman: the gentle singularity#

Altman's theory is the most sweeping and the most philosophical. In "The Intelligence Age" (September 2024), he argued that deep learning can "really, truly learn any distribution of data," and that to a shocking degree of precision, more compute and data means more intelligence. "Deep learning works," he wrote, and it "predictably gets better as it scales." From that, the famous prediction: superintelligence — vastly smarter than humans — may arrive in "a few thousand days," a phrasing that lands somewhere around 2032.

In June 2025, he refined the picture with "The Gentle Singularity": the singularity has already begun, it's just not the rupture the futurists imagined. Per press summaries, he sketched a three-phase progression — 2025 as the year AI agents began doing genuine cognitive work, 2026 as the year systems began producing genuinely novel insights, and 2027 as the year AI crossed into physical tasks via robotics. The through-line is acceleration without drama: society adapts incrementally as capabilities compound.

Notably, Altman has recently been backing away from the word "AGI" itself, reportedly calling it "a very sloppy term" — even as he remains confident superintelligence is coming. The definitional wobble matters: when the leaders won't use the same yardstick, timelines become hard to compare.

What the roadmap reveals: OpenAI's bet is intelligence as infrastructure — agents first, then novelty-generation, then embodiment — a deliberate ladder from cognitive work to physical work, framed as the next general-purpose revolution on the order of agriculture or industry.

Demis Hassabis: the Einstein test#

Hassabis's theory is the most demanding and the most cautious — and it carries extra weight from the one founder who is also a Nobel laureate. His bar for AGI isn't task performance. It's scientific creativity: systems exhibiting all the cognitive capabilities humans have, including hypothesis generation and genuine understanding.

His signature thought experiment is the Einstein test. Train an AI on everything humans knew before 1900, and see whether it independently derives something like relativity. If it can only interpolate within its training data, that's not general intelligence. Hassabis says plainly that current systems can't come close: they can't ask original questions or generate new theories, "the highest level of scientific creativity."

He describes today's models as "jagged intelligence" — brilliant at some things, catastrophically bad at others, in unpredictable ways — and identifies two missing ingredients: continual learning (humans learn on the fly; models must be retrained) and long-term planning and reasoning (models answer questions; they can't pursue goals over weeks and months).

His path forward has two required steps: genuine world models — AI that understands physics and space, the direction DeepMind's Genie research is exploring — connected with automated experimentation, so systems can hypothesize, verify, and iterate on their own. That closed loop is his definition of a complete scientific research machine.

Timeline-wise, he's the outlier: a 50% chance of AGI by 2030, stated at Davos in January 2026. Not "we're almost there" — a coin flip, from a scientist. He also puts it at 50/50 whether scaling current transformer architectures suffices or whether one or two genuine breakthroughs are needed. He's pushed back on Amodei's labor claims too, arguing the jaggedness of current systems means job automation will be messier and slower than headline numbers suggest. And he keeps floating an idea neither competitor has matched: an "International CERN for AI," where labs collaborate on safety research.

What the roadmap reveals: DeepMind's bet is breakthroughs as gates. Gemini-class scaling continues, but the research goes toward the missing ingredients — world models, continuous learning, memory, planning — because Hassabis's endgame can't be reached by scale alone.

Three theories, one race#

Put the bets side by side and the divergence is stark:

AmodeiAltmanHassabis
What "it" isPowerful AI: a country of geniuses in a datacenterSuperintelligence: intelligence vastly beyond humanAGI: full human cognitive capability incl. scientific creativity
How it arrivesScaling compute + data on smooth curvesDeep learning compounding gently through agents → insights → robotsScale plus 1–2 breakthroughs: world models + automated experimentation
TimelineLate 2026–early 2027 (hunch); 90% within a decadeSuperintelligence in "a few thousand days" (~2032)50% by 2030
Biggest riskDiffusion lag: institutions can't absorb it; capital fragilityScarcity: intelligence concentrated without infrastructurePremature automation: jagged systems trusted too early
Lab's actual betScale models, govern diffusion, "race to the top"Intelligence as infrastructure, abundant and distributedFundamental research on what's missing: memory, planning, world models

Notice what's shared: none of them think progress stops. The disagreement is about what's sufficient — scale (Amodei), scale plus time and infrastructure (Altman), or scale plus new ideas (Hassabis) — and what counts as the finish line.

The takeaway#

The leaders' timelines cluster surprisingly tight — most of their probability mass falls between 2026 and 2032 — but their definitions of the endgame diverge wildly. When Altman stops saying "AGI," when Amodei says "powerful AI," and when Hassabis demands an Einstein test, they're not playing word games. Each definition sets a different test the future has to pass.

So the thing to watch isn't the next benchmark score. It's which theory the evidence confirms. If software engineering falls to AI end-to-end within a year and the main story becomes adoption friction, Amodei's frame wins the day. If agents quietly take over cognitive workflows and robots follow on schedule with no single moment of rupture, Altman's gentle singularity looks prophetic. And if progress keeps hitting walls that only new architectures can clear, Hassabis's coin flip was the honest read all along.

Three founders, three theories. The roadmaps are already the bets. Now we watch which one the world validates.