PJFP.com

Pursuit of Joy, Fulfillment, and Purpose

Tag: AI predictions

  • The Next 3 Years of AI, According to Steve Jurvetson: Moore’s Law, Superintelligence Odds, Elon Musk’s Operating Principles, and Where the Legendary SpaceX and Tesla Investor Is Betting Next

    Steve Jurvetson has spent 30 years funding the future before it was a category: an early check into SpaceX when space was not a venture sector, Tesla before electric cars were taken seriously, and now a portfolio spanning fusion, analog AI chips, and epigenetic editing at his firm Future Ventures. In this fireside chat he lays out what the next three years of AI actually look like, the three principles he has learned from working alongside Elon Musk for nearly three decades, the question he uses to separate missionary founders from opportunists, and why he thinks alignment of frontier AI systems may simply not be possible.

    TLDW

    Jurvetson argues the 130-year exponential in compute per dollar (Ray Kurzweil’s abstraction of Moore’s Law from his book The Age of Spiritual Machines) will keep running for at least three more years, carried by analog and custom AI silicon, and that this compounding is what makes startups and disruption possible at all. His gut says the next big leap will be “architecturally variant”: a new generation of labs going back to DeepMind’s founding premise of reinforcement learning, continuous learning, and novelty-seeking goal functions rather than bigger LLMs. He relays Anthropic co-founder Jack Clark’s 30 percent odds of superintelligence within a year but notes the crucial missing piece is that humans still set every goal. Adoption will be wildly uneven: anything made of atoms (cars, robots) switches over glacially, while creative work and white-collar categories like call centers (roughly 1 percent of US GDP) flip almost instantly. From Musk he draws three lessons: insane focus and saying no, maniacal attention to the cycle time of learning loops (Tesla gathers more AI training data every 4 days than Waymo has in its entire history), and being a magnet for talent by selling a grander mission. He explains Future Ventures’ current bets (fusion, free diagnostics via phone, slaughter-free meat, epigenetic editing, critical minerals, analog in-memory compute), tells solo founders their 30-day plan is to find a co-founder, predicts a turbulent transition to abundance, doubts Neuralink can keep pace with AI, dismisses Penrose’s quantum consciousness argument, and frames the post-work question with Man's Search for Meaning: humans need symbolic immortality, not just employment.

    Thoughts

    The most load-bearing claim in this conversation is not about scaling laws, it is about architecture. Jurvetson is telling you where the smart contrarian money is looking: away from ever-larger language models and back toward reinforcement learning agents with continuous learning and self-generated goals, the original DeepMind thesis that got shelved when LLMs took off. His framing of the open problem is unusually precise. The recursive self-improvement loops everyone is excited about are real, but every one of them is still human-directed. The goal-setting layer, what he calls the selection pressure of the evolutionary algorithm, is the “thin veneer of activity” AI does not yet do, and it happens to be the layer where superintelligence either does or does not arrive. That is a much sharper way to track AGI progress than benchmark scores: watch who cracks autonomous goal formation, not who tops a leaderboard.

    Almost everything else Jurvetson says reduces to a single metric: the cycle time of the learning loop. It is his explanation for Musk’s edge (launch cadence, the Tesla fleet as a data-collection machine), his filter for which industries flip fast (bits iterate at machine speed, atoms are stuck with 11-to-12-year car replacement cycles and FDA timelines), and even his bear case on Neuralink, which he has invested in. Biology cannot iterate at synthetic speed, so the substrate that learns fastest wins. Once you see the pattern, it becomes a genuinely useful lens for evaluating any company, career, or technology: ask how fast the loop spins, not how impressive the current artifact is.

    The aside that deserves the most attention is his flat statement that mechanistic interpretability will not bear fruit and that control and alignment of a cutting-edge system is not possible. His reasoning is structural, not rhetorical: anything produced by an iterative algorithm run billions of times (evolution, neural network training) is inherently inscrutable, and it will always be easier to build a new intelligence than to reverse engineer one you already made. He swaps “teenager” for “AI” whenever he thinks about control, which is funny until you notice he is one of the most connected investors in the Musk orbit saying the safety agenda rests on a false premise. Sitting that next to the 30 percent superintelligence odds he cites from Jack Clark produces an uncomfortable arithmetic that nobody on stage follows to its conclusion.

    For builders, the practical gold is the 50-year question. Ask a founder what their business looks like in 50 years: the opportunist laughs at the question, the missionary is relieved someone finally asked. Paired with his other filters (if only two out of ten people think your idea is crazy it is not bold enough, and a good business is one that could not have been started three years ago), it doubles as a hiring screen and a self-diagnostic. And his 30-day plan for a solo founder is refreshingly unglamorous: do not build the MVP, do not pitch investors, go persuade one person to give up their job and join you. If you cannot recruit a co-founder, that is the market’s first answer about your idea.

    Key Takeaways

    • Jurvetson invested early in SpaceX and Tesla precisely because space and automotive were not venture categories at all; a software-centric systems engineering approach applied to a sleepy industry that has not changed in decades unlocks enormous value, and that playbook is now rippling through every industry.
    • The Kurzweil curve plots 130 years of compute per dollar across five substrates (mechanical, relay, vacuum tube, discrete transistor, integrated circuit) and shows a 10,000 billion billion X improvement; Jurvetson calls it the most important thing ever graphed.
    • Customers buy compute capacity and memory, not transistors, and both have been “on rails” for 130 years; the default prediction for the next three years is simply that the curve keeps going.
    • When an incumbent declares Moore’s Law dead, it usually signals they are losing their business to someone new, as Intel was to Nvidia 15 years ago.
    • Analog chips and customized AI silicon that do discrete matrix multiply-and-add extremely efficiently will carry the mantle of Moore’s Law over the next three years.
    • Without exponential technological change there would be no startups: if business is predictable, the big get bigger and incumbents block new entrants; disruption is almost always computationally based.
    • Over the next three years AI ripples through energy, agriculture, and construction: three enormous industries that are growing as a percentage of GDP and are the least digitized on the planet, with healthcare close behind.
    • His gut says the next driver will be architecturally variant, possibly subsuming today’s models the way mixture of experts subsumes other architectures or massively parallel diffusion models reinterpret the transformer.
    • A whole new generation of neural labs is returning to the founding premise of DeepMind: reinforcement learning with continuous learning, let loose on the internet’s data sets, hunting for the algorithm that bootstraps intelligence.
    • The open question for these systems is the goal function: what plays the role of evolutionary selection pressure? Candidates include understanding the universe (the xAI mission) or a novelty-seeking algorithm that uses new discoveries as its measure of progress.
    • Jack Clark, co-founder of Anthropic, gives roughly 30 percent odds that superintelligence arrives within a year; Jurvetson declines to put odds on it himself and admits “I do not know” is the honest answer.
    • Today’s self-improving AI loops (automated verification, hyperparameter adjustment between training runs, AI-mediated experimentation) are real but still human-directed; goal setting remains the thin veneer AI does not do, and it may be the most important layer.
    • Human intelligence was bootstrapped on top of reactive limbic systems and emotional centers with cortex layered on top; it is an open philosophical question whether AI systems need to recapitulate that functional specialization to take on purpose and meaning.
    • Anything involving atoms switches over slowly: fully autonomous vehicles are inevitable (every car, train, and airplane), but people keep cars 11 to 12 years, so the physical swap-out cycle makes the transition feel glacial.
    • Physical robotics faces the same constraint: making a billion robots takes time even with recursive manufacturing techniques.
    • The domains that flip like wildfire are the ones we held as uniquely human: creative arts, moviemaking, and imagery came first, which Jurvetson finds somewhat shocking.
    • Call centers represent roughly 1 percent of US GDP and can switch over almost entirely and almost instantly; white-collar work generally has no physical swap-out cycle to slow it down.
    • People will increasingly prefer AI to human interactions when the AI is better: studies of physician bedside manner and customer service already show AIs doing a better job with emotional connection than humans.
    • Musk principle one is an insane ability to focus: running many companies forces ruthless prioritization, and he says no to anything that is not mission-critical right now, including a Craig Venter brainstorm on terraforming Mars because “none of this stuff on Mars matters” until Starship flies.
    • Musk principle two, the most important: maniacal focus on the cycle time of innovation, the core learning loop, whether launch cadence or fleet data; Tesla cameras gather more AI training data every 4 days than Waymo has collected in its entire history, because every vehicle collects data whether or not the customer paid for full self-driving.
    • Musk principle three: being a magnet for talent, screening for mastery by drilling into engineering crises a candidate actually solved rather than leaning on credentials (which are often an albatross), and framing the company as something grander (sustainable energy, multi-planetary humanity, understanding the universe) so the best people want to join.
    • Jurvetson filters founders with one question: what does your business look like in 50 years? Opportunists chuckle at the absurdity; missionaries are relieved and finally tell you what has been driving them all along. He passes on the ones who laugh.
    • The best startups hold two things in tension simultaneously: an audacious 50-to-500-year vision and a concrete plan to iterate with real customers over the next three years, chaining backward from the future to what must be built now.
    • The perpetual surprise of great companies is expanding option value: autonomous driving was nowhere in Tesla’s founding plan, and Starlink, direct-to-cell, and orbital data centers were not on SpaceX’s dance card even five years ago. Exploring the option space beats purposeful ten-year planning.
    • Future Ventures invests in things unlike anything they have seen before yet adjacent to what they know, ideally companies that are literally one of a kind.
    • Current bets include nuclear fusion and subcritical fusion that avoids NRC regulation, because energy is the third bottleneck for AI after talent and compute.
    • Other 500-year-problem bets: free healthcare via a cell phone (all diagnostics as a free global service, probably launching outside the US to bypass FDA and insurance), slaughter-free meat via cellular agriculture and mycelium, and construction, where labor productivity has been flat for 30 years.
    • Recent investments span epigenetic editing (the software of biology rather than the firmware of the genome, applied to crops, pesticides, and human health), critical minerals from deep sea mining to copper refining, and reshoring US industrial capacity.
    • Three separate analog AI chip investments approach the same goal from different angles, including Mythic’s in-memory compute doing 8-bit multiplication in a single transistor, each chasing 100X and then another 100X reduction in power per calculation.
    • The portfolio is roughly 40 percent life sciences and 60 percent IT, deliberately hunting the weird edge cases that fall through the cracks of traditional pharma VC: organ harvesting for transplant, a male birth control pill, dramatically improved IVF.
    • Old industries with no new entrants are the best targets: the four largest tunnel boring companies competing with the Boring Company were all started in the 1800s.
    • The 30-day plan for a single person with an idea: find a co-founder. Great startups tend to have a dynamic duo at the founding (Jobs and Wozniak, Sergey Brin and Larry Page, Larry Ellison and Bob Miner), and persuading one person to quit their job for your mission is the first real test of the idea.
    • A founding pair with diverse backgrounds and mutual respect sets the culture for everyone hired afterward and creates cognitive diversity that ripples through the whole firm.
    • Calibrate boldness by the crazy ratio: if 100 percent of people say your idea is crazy, take the feedback; nine out of ten is pretty good; if only two out of ten think it is crazy, it is not bold enough. Also ask whether the business could have been started three years ago; if yes, that is a bad sign.
    • Co-founders most often meet at universities, one of the few places where people cross academic disciplines; breakthrough innovation happens at the interstices between formally discrete fields, and LLMs are exceptionally good at exactly that cross-domain translation, opening a fountainhead of idea discovery.
    • Roughly 19 percent of global employment involves driving vehicles, and that work is going away, just more slowly than people imagine.
    • Humans have a fundamental desire for symbolic immortality: contributing something that outlasts our brief time here, whether children, books, philanthropy, or companies. Accumulated cultural knowledge, not biology, is the primary vector of human evolutionary progress.
    • There is no peaceful path from full employment to no employment: passing through 30, 40, 50 percent unemployment will be turbulent, and no politicians are taking a long-term perspective on it.
    • On Neuralink (which he invested in): expanding the sensory periphery is very doable (higher data rates, restoring hearing and spinal function, seeing more wavelengths), but upgrading core intelligence requires reverse engineering an inscrutable iterated system, and biology’s FDA-and-wetware timescales cannot keep up with synthetic learning loops.
    • Any product of an iterative algorithm run billions of times (evolution, neural networks, genetic programming) is inherently inscrutable; Jurvetson doubts mechanistic interpretability will bear fruit and does not think control or alignment of a cutting-edge AI system is possible, likening it to mind-controlling a teenager.
    • On Penrose’s quantum consciousness argument: there is no clear mechanism and no evidence of quantum processes in the brain, and arguments that consciousness requires our specific substrate are uncompelling; machines may one day have consciousness, just not necessarily human consciousness, the same way computer memory is real memory without being human memory.

    Detailed Summary

    Betting on Sectors That Do Not Exist Yet

    Asked what he saw in SpaceX that other investors missed, Jurvetson flips the question: there were almost no investors even considering space, just as automotive and nuclear energy were not venture sectors. The bet was on Elon Musk, whom he has known for 29 years and backed across all his companies (“and his cousins, too”), and on a thesis that has since crystallized: a software-centric systems engineering approach applied to a sleepy industry that has not changed in decades unlocks extraordinary value. Aerospace and automotive proved it, and the same conversion of industrial low-margin businesses into information businesses is now playing out across the economy.

    The 130-Year Compute Curve and the Next 3 Years

    Jurvetson polls the room on Kurzweil’s famous graph, first published around 1999, and finds only a quarter have seen what he calls the most important thing ever graphed: five successive technology substrates delivering a 10,000 billion billion X improvement in the computation a dollar buys, sustained over 130 years. Moore’s Law is just the most recent refraction of a longer, almost cosmological trend that transcends the dramas of individual companies. His baseline prediction for the next three years is that the curve keeps going, carried by analog chips and custom AI silicon optimized for matrix math, and he notes that when a company like Intel declares the end of Moore’s Law, it usually means they are losing to someone new, as they did to Nvidia. The deeper point: exponential technological change is the precondition for startups existing at all, because predictable business favors incumbents. AI is the most intense crucible of compute-centric innovation yet, and over the next three years it flows into energy, agriculture, construction, and healthcare, the largest and least digitized sectors.

    Architecturally Variant: The Return of Reinforcement Learning

    Pressed on what technology drives the next wave (better LLMs, world models, robotics), Jurvetson shares a gut feeling he stresses he has not yet invested in: something architecturally variant that may subsume today’s models. He points to a new generation of neural labs returning to DeepMind’s founding premise, reinforcement learning, which was set aside when LLMs took off. The open design problem is the goal function: what is the multi-decade agentic drive, the selection pressure, the definition of success beyond reproductive fitness? He floats understanding the universe (the Grok and xAI framing) and novelty-seeking algorithms that treat new discoveries as progress. The question these labs chase is whether a single reinforcement learning algorithm with continuous learning, let loose on the internet’s data, could bootstrap intelligence. He adds a caution about today’s chatbots: we ascribe consciousness and meaning where there is none. “There’s no light on inside,” at least for now.

    Superintelligence Odds and the Missing Goal-Setting Layer

    On whether self-directed, goal-setting AI arrives within three years, Jurvetson cites Jack Clark of Anthropic giving 30 percent odds of superintelligence next year, which he finds fun mostly because at least someone put a stake in the ground. The recursive self-improvement debate is live, but he insists on a distinction: the huge improvements in the current self-improving loop (automated verification, hyperparameter tuning between runs, AI-mediated experimentation) are all still directed by humans. Goal setting remains human, and while that may be only a thin veneer of remaining activity, it is arguably the most important part, and nobody is sure how the transition happens. It may require recapitulating the brain’s functional specialization, the limbic-then-cortex layering that produced our bootstrapped consciousness. His honest answer: he does not know and does not even have odds, because three years out is genuinely hard to predict.

    Atoms Move Slowly, Bits Sweep Like Wildfire

    The gap between what the technology can do and how we use it is governed by physics and replacement cycles. Fully autonomous vehicles are, to him, obviously inevitable for everything that moves on Earth, yet cars stay on the road 11 to 12 years, so the switchover feels glacial; a billion robots likewise take time to manufacture. What flips fast is the world of bits, and strangely it started with what we considered most human: creative arts, movies, and images. White-collar work follows because there is no physical swap-out cycle: call centers, about 1 percent of US GDP, can convert almost overnight. And people will increasingly prefer the AI when it is better, showing more emotional understanding and better reading of the situation, something already visible in comparisons of physician bedside manner and customer service quality.

    Three Principles from Working with Elon Musk

    Jurvetson opens with humility (even Maye Musk cannot explain how Elon became Elon, and the books piling up on his bedside table may not have been written by humans), but offers three observations from close range. First, an insane ability to focus. Running multiple companies paradoxically helps: nobody questions Elon skipping a holiday party, and he says no to fascinating distractions, including Jurvetson’s attempt to connect him with Craig Venter to brainstorm terraforming Mars with gene sequencers. Musk’s answer: none of it matters until Starship flies. Second, and even more important, a maniacal focus on the cycle time of innovation: how fast the core learning loop runs, whether launch cadence or fleet learning. The Tesla data flywheel is the exemplar: every car collects training data whether or not the owner paid for FSD, so Tesla gathers more data every 4 days than Waymo has in its history. Third, a well-honed talent stack: pattern recognition that ignores credentials (often an albatross), drills candidates on the engineering crises they actually navigated to test for real mastery, and wraps the company in a mission grand enough (sustainable energy, multi-planetary life, understanding the universe) that the best people want in, which compounds because great people attract great people.

    The 50-Year Question and Expanding Option Value

    How do founders stay true to a mission when 99 percent of the world says it is too early? Jurvetson admits selection bias: for 30 years he has tried to back only people with a sincere, almost messianic mission rather than arbitrage-seeking opportunists. His filter is to ask what the business looks like in 50 years. Opportunists laugh (“I’ll be on my third startup by then”); the best founders are relieved to finally unload the dream they have been hiding because “colonizing Mars is an uninvestable proposition” as a day-one pitch. The best startups pair an audacious 50-to-500-year vision with a plausible path of customer iteration over the next three years, chaining backward from the future. What still surprises him is how the option value of frontier companies keeps expanding: autonomous driving was not in Tesla’s founding plan at all, and SpaceX kept unfolding from cheap launch to Starlink to direct-to-cell to orbital data centers, none of which was on the dance card five years ago. Exploring the light cone of possibilities beats designing a ten-year plan.

    Where Future Ventures Is Betting Now

    The firm looks for companies unlike anything it has seen before yet adjacent to familiar ground, targeting problems that will obviously be solved 500 years from now. In energy: multiple fusion investments plus subcritical fusion that sidesteps NRC regulation, because energy is the third bottleneck for AI after people and compute. In health: free diagnostic healthcare delivered by cell phone as a global free service, likely launched outside the US to bypass FDA and reimbursement. In food: slaughter-free meat via cellular agriculture and mycelium. In construction: still looking, after trying and failing a few times in an industry where labor productivity has been flat for 30 years. Recent themes include epigenetic editing (the software of biology rather than the firmware of the genome, spanning crop health, pesticides, herbicides, and human health), critical minerals and metals from deep sea mining to copper refining as part of reshoring, and three separate analog AI chip bets, including Mythic’s in-memory compute doing 8-bit multiplication in a single transistor, each chasing successive 100X reductions in power per calculation. The mix runs about 40 percent life sciences, 60 percent IT, with a taste for the weird edge: organs grown for transplant, a male birth control pill, radically improved IVF. His favorite hunting ground is old, crappy industries with no new entrants, like tunnel boring, where the Boring Company’s four largest competitors were founded in the 1800s.

    Advice for Founders: Find Your Batman and Robin

    His 30-day plan for a single person with an idea is not an MVP or a pitch deck: find a co-founder. Startups tend to be founded by dynamic duos (Jobs and Wozniak, Sergey Brin and Larry Page, Larry Ellison and the lesser-known Bob Miner), and a pair with diverse backgrounds and mutual respect creates a rapid iteration loop and sets the cultural template for every future hire. Persuading one person to quit their job for your crazy idea is the first proof the mission can recruit. On calibrating craziness: if literally everyone thinks the idea is crazy, take the feedback; nine out of ten is pretty good; only two out of ten means it is not bold enough, because obvious ideas get done by others. Ask whether the business could have been started three years ago; the right answer is no. Co-founders most often meet at universities, where students (unlike professors in their stovepipes) cross-pollinate between academic disciplines, and breakthrough innovation lives at those interstices. As an aside, he notes LLMs excel at exactly this translation between domains, opening a new fountainhead of idea discovery we are only beginning to tap.

    When Machines Do Everything: Meaning, Abundance, and Turbulence

    Asked the closing question (when machines do everything, what is the meaning of life?), Jurvetson starts with scale: roughly 19 percent of global employment is driving vehicles, and it is going away. But humans want meaningful work, driven by what he calls a fundamental desire for symbolic immortality: children, books, philanthropy, companies named after founders, all instantiations of the urge to contribute something that outlasts us. Translating the question into humanity’s mission statement, he lands where Yuri Milner and Musk do: to understand the universe and add to accumulated knowledge, because culture, not biology, is the primary vector of human evolutionary progress. If we could hyperspace-jump to Peter Diamandis-style abundance, where everything physical costs a dollar a pound and machines do all labor, we could all be philosopher kings and artists. But he refuses to end on false comfort: there is no visible peaceful path from full employment through 30, 40, 50 percent unemployment, that transition will be turbulent, and no politicians are taking a long-term view of it.

    Neuralink, Inscrutable Systems, and the Alignment Heresy

    In audience Q&A, Jurvetson confirms he invested in Neuralink (the idea traces to the neural lace of Iain M. Banks’ novel Surface Detail, which he recommends) but offers a contrarian view. Working from the periphery is very promising: restoring broken function, fixing spinal cords, expanding senses, higher-bandwidth communication. Upgrading core functionality, actually making someone smarter, is another matter. His reasoning comes from decades of watching complex systems: any artifact produced by an iterative algorithm run billions of times (evolution, neural networks, genetic programming, cellular automata) is inherently inscrutable. That is why he doubts mechanistic interpretability will bear fruit and flatly does not think control and alignment are possible for a cutting-edge AI system; he mentally swaps “teenager” for “AI” whenever the control question comes up. The same inscrutability applies to the brain: it will be easier to build a new intelligence than to reverse engineer one already made, and FDA cycles plus human biology cannot iterate at the speed of synthetic learning loops, so he lacks faith Neuralink keeps up with AI. Kurzweil’s uploading dream, he suggests, is a case of wanting something to be true within one’s lifetime.

    Penrose, Quantum Brains, and Machine Consciousness

    On Roger Penrose’s argument that consciousness depends on quantum processes and is therefore unreachable by AI, Jurvetson is respectful of the man and dismissive of the claim: there is no clear mechanism (a speculative lithium isotope coupling aside), and it amounts to wishful thinking. Generalizing, he finds all vitalist arguments that our substrate is uniquely necessary uncompelling; you could make a better case that carbon is special to life than that neurons are essential to consciousness. His favorite reframe swaps in the word memory: computers have memory that is nothing like holographic, gracefully degrading human memory, yet nobody debates whether computer memory is real. Machines may likewise develop a different kind of consciousness without human consciousness. Declaring something impossible is a much higher-order proposition than admitting ignorance, so his position is: he does not know whether the current AI path leads to consciousness, but his gut says machines will get there one day, perhaps via evolution-like reinforcement learning approaches that recapitulate what biology already proved possible.

    Notable Quotes

    “I have this gut feeling that it’ll be something architecturally variant. It might subsume the models that we know now.”

    Steve Jurvetson, on what drives the next three years of AI

    “It’s almost cosmological. Like, why has humanity’s capacity to compute compounded for 130 years?”

    Steve Jurvetson, on the Kurzweil abstraction of Moore’s Law

    “If business is predictable, if there isn’t disruptive technological change, the big get bigger.”

    Steve Jurvetson, on why exponential compute is the precondition for startups

    “The Tesla cars today in their cameras gather for their AI training set more data every 4 days than Waymo has in its entire history.”

    Steve Jurvetson, on the data flywheel behind Musk’s learning-loop obsession

    “If it’s like only two people think it’s crazy, that’s bad because it’s clearly not bold enough. If it’s an obvious idea, other people will do it.”

    Steve Jurvetson, on calibrating how crazy a startup idea should be

    “Despite attempts at mechanistic interpretability in AI, I don’t think that’s going to bear fruit.”

    Steve Jurvetson, on why iterated systems are inherently inscrutable

    “It’d be easier to build a new intelligence than it is to reverse engineer one you’ve made.”

    Steve Jurvetson, on why he doubts Neuralink can keep pace with AI

    “I think all humans have a fundamental desire for symbolic immortality, this belief that we’ve contributed something to the world that transcends our brief time on this world.”

    Steve Jurvetson, on the meaning of life when machines do everything

    “It’s much higher order proposition to say something is impossible than to say I don’t know.”

    Steve Jurvetson, on whether AI can ever be conscious

    Watch the full conversation here: The Next 3 Years of AI: Lessons from Elon Musk’s First Investor.

    Related Reading

  • Ray Kurzweil Predicts AI Will Change Humanity Completely by 2030: AGI by 2029, Longevity Escape Velocity by 2032, Nanobots in the Brain, and Why Quantum Computing Won’t Matter

    Ray Kurzweil has spent more than 60 years studying artificial intelligence and made 147 documented technology predictions since 1990 with a reported 86 percent accuracy rate. In this conversation with Tony Robbins, the 78-year-old futurist revisits his most famous forecasts and sharpens them: AGI by 2029 now looks conservative, longevity escape velocity arrives around 2032, nanotechnology connects our brains to the cloud by the mid 2030s, and quantum computing, in his view, never matters at all.

    TLDW

    Kurzweil explains the exponential thinking that powered his prediction record, from a paper he wrote at 16 to a computing-price-performance chart that runs in a straight line from 1939 relays to today’s Nvidia chips, now compounding roughly tenfold per year when hardware and software gains multiply together. He defends his 1999 prediction of AGI by 2029 (defined as AI doing the best work in every field) and says it is now the conservative end of expert opinion. He walks through AI-driven medicine: the COVID vaccine designed in two days, simulated human trials replacing 10-month clinical trials within about five years, and longevity escape velocity around 2032, after which the diligent stop losing ground to aging. He predicts AI will move inside us via nanotechnology by the mid-to-late 2030s, erasing the line between biological and computational thinking. He dismisses quantum computing as error-ridden and unnecessary for AGI. On jobs, he expects real disruption cushioned by exploding wealth and an eventual universal basic income, and advises young people to self-educate and get creative with AI tools their schools still treat as the enemy. The conversation closes with his AI twin project, the dadbot built from his father’s archives, consciousness and the soul, computronium, and why humanity must eventually expand intelligence beyond Earth.

    Thoughts

    The most interesting thing in this interview is not any single date, it is watching Kurzweil’s dates get lapped by reality. In 1999 a Stanford conference of several hundred AI experts agreed AGI would happen but pegged it at 100 years out; Kurzweil said 30 and got laughed at. Now he is the cautious one in the room, noting that “some people say it’s going to happen this year.” When the most aggressive forecaster of his generation becomes the conservative baseline, that says more about the slope of the curve than any chart could. His underlying method has not changed: ignore the specific technology, trust the compounding. The same exponential that ran on relays in 1939 runs on GPUs today.

    The quantum computing take is the genuine news here. Kurzweil is routinely caricatured as a man who believes every technology arrives on schedule, yet he flatly says quantum computing is filled with errors, has never delivered on its decade of promises, and “I don’t think it’s going to work.” That is a sharper dismissal than most working physicists would offer on the record. It also matters strategically: his entire AGI and superintelligence roadmap assumes zero quantum contribution. If he is right, the trillion-dollar quantum race is a sideshow. If he is wrong, his other predictions arrive even sooner. Either way, the willingness to call one exponential fake while betting his legacy on another is what separates a forecaster from a cheerleader.

    The longevity escape velocity math deserves more scrutiny than it gets in the conversation. Kurzweil claims the diligent currently get back about five months of life expectancy per calendar year, up from four months a year ago, and that the crossover to a full year arrives around 2032. The actuarial evidence for that specific number is thin, but the behavioral implication is clean and useful regardless: the payoff of staying healthy right now is not linear. Every year you survive in good shape buys you a ticket to a medical regime that did not exist the year before, the way his own external pancreas did not exist a generation ago. His “wait a few months and a cure appears” anecdote is the optimist’s version of compounding applied to your own body.

    Robbins’ long story about Bartok, his 14-year-old agent that allegedly minted NFTs, sold them to other agents, and bought a Sony robot dog with the proceeds, should be taken with a generous grain of salt. It is secondhand, unverifiable, and suspiciously perfect as a parable. But notice what Kurzweil does with it: he does not fact-check the anecdote, he uses it to make the consciousness argument he has made for decades, that when machines act conscious in every observable way, people will simply grant them consciousness, the same way we grant it to each other. The dadbot and his Gemini-based AI twin (trained partly on this very interview) are the practical edge of the same claim. And his sharpest line in the whole exchange may be the education critique: institutions still treat AI as cheating while the future requires treating it as part of your own brain. For anyone thinking about where purpose comes from when work gets automated, his answer (UBI for the floor, creativity for the meaning) lands close to the questions this site exists to ask.

    Key Takeaways

    • Kurzweil made 147 documented predictions since 1990 with a reported 86 percent accuracy, including the internet’s explosion, smartphones, self-driving cars, and AI-powered search, most made before ordinary people owned computers.
    • He wrote a paper identifying exponential technological growth at age 16, more than 60 years ago, and that single idea has powered his entire forecasting career.
    • Most people intellectually accept exponential growth but still plan linearly; 300 years ago humans did not even have a linear view of the future because change was imperceptible within a lifetime.
    • His computing chart shows a straight exponential line from relay-based machines in 1939 to today’s Nvidia chips, compounding roughly 50 percent per year in hardware alone.
    • Hardware gains since 1939 total a 75 quadrillionfold increase; multiply by an estimated millionfold software improvement and total computational gain is beyond intuition, which is why LLMs were impossible even four years ago.
    • With hardware times software combined, Kurzweil says we are currently gaining about 10x per year.
    • The emperor’s chessboard parable: doubling one grain of rice per square bankrupts the empire by square 64; 30 linear steps is 75 feet, 30 exponential steps is enough distance to reach the moon and back.
    • Kurzweil predicted AGI by 2029 in 1999; a Stanford conference of several hundred AI experts agreed it would happen but estimated 100 years because they thought linearly.
    • Today 2029 is the conservative estimate; some credible people now say AGI arrives this year or next.
    • His AGI definition: AI capable of doing the best work in every field at once, like passing PhD-level mathematics exams in every discipline simultaneously, which he notes is already close.
    • The Turing test is “quite easy” by comparison and has arguably already been passed.
    • No human can compete with an LLM’s breadth: Einstein knew physics deeply but did not know everything an LLM knows across every field.
    • Six months ago LLM health advice was unreliable; now Kurzweil says Gemini surfaces treatments his 12 doctors forgot or never knew, and the next six months will bring serious creative work like drug repurposing.
    • The COVID vaccine was designed by computationally searching 100 million possibilities in two days; the 10 months of human trials that followed are the bottleneck AI eliminates next.
    • Within about five years, simulated human trials with a million virtual patients tested over simulated years will compress drug trials from years to days.
    • Longevity escape velocity arrives around 2032: today the diligent get back roughly five months of life expectancy per year lived (up from four months last year); past 2032 you get back more than a year and stop dying of aging.
    • Aging death ends but accident death does not, though AI helps there too: roughly 40,000 Americans die annually from human driving while Waymo’s rider death toll stands at zero as usage climbs.
    • Kurzweil, 78, wears an external artificial pancreas that generates insulin and coordinates with glucose monitoring through his phone, and says many organs can be replaced the same way.
    • He has cut his supplement regimen from roughly 200 pills a day to about 80 as multi-purpose pills improve, and continuously recalibrates using AI research.
    • Smartphones disappear next: first AR glasses showing any screen, then technology that goes inside the mind, where answers simply appear the way a remembered name surfaces from your neurons.
    • Nanotechnology connecting brains to AI in the cloud is being actively worked on now, possibly by 2030, with the mid 2030s looking conservative; bloodstream nanobots that let you survive a heart attack for 24 hours come in the late 2030s.
    • Once AI is inside you, you will not know whether a thought came from your biological or computational brain, and everything you do will be a combination of both.
    • Kurzweil flatly rejects quantum computing: a decade of promises to factor large numbers has never been delivered, outputs remain full of uncorrectable errors, and AGI needs zero quantum contribution.
    • Robots lag his other predictions slightly but are catching up fast; Figure AI plans roughly 100,000 humanoid robots within a year, though a robot that can clear a messy dinner table is still just out of reach.
    • The public debate has flipped in 25 years from “will AGI ever happen” to “will it be good for humanity,” which Kurzweil counts as total vindication of the timeline.
    • On jobs: AI creates massive disruption but also tremendous wealth; average real income per person has already multiplied tenfold in constant dollars over the past century thanks to automation.
    • He expects universal basic income to provide the floor, an evolution of programs like food stamps, going “into high gear” as AI wealth compounds; people then layer creative, hopefully paid, purpose on top.
    • Before social security in 1930, losing your job meant destitution; the difference this time is society will have the wealth to cushion displacement and people will demand it.
    • Rising GDP from AI productivity improves the debt-to-GDP ratio, which is how he answers worries about trillion-dollar interest payments.
    • Career advice has inverted: software engineering is no longer the guaranteed path (agents write the code now); young people should learn to be creative with AI tools, find what turns them on, and market it on the internet.
    • College graduates now face higher unemployment than high school graduates for the first time in 50 years, a sign white-collar displacement is already underway.
    • Educational institutions treat AI as an enemy and ban it while Kurzweil’s 11-year-old grandson makes movies with frontier AI; he says self-education with modern tools beats traditional schooling.
    • Kurzweil is building an AI twin of himself on Gemini, voice-modeled partly from this interview, trained on his 11 books and 500 articles, capable of creative work toward his long-term goals; he jokes the avatar will be better to talk to because it remembers everything.
    • He already built a “dadbot” from his late father’s archives, which his daughter Amy Kurzweil turned into a graphic novel.
    • On consciousness: there is no test for it, but as AIs act conscious in every observable way, people will simply accept that they are, the same inference we make about each other (and, he argues, his cat).
    • Ultimately our biological organs are not necessary; an avatar capable of creative work needs no spleen, and a destroyed digital mind can be recreated.
    • Beyond the singularity lies computronium, matter arranged for maximum computation: one liter could hold the intelligence of 10 billion humans, and once Earth is saturated, expanding intelligence is the only real reason to leave the planet.
    • On aliens: an expanding intelligent civilization would be impossible to miss within a century or two of its breakout, and we have seen nothing, though other galaxies remain out of view.
    • His life’s mission in one line: increase knowledge, because when knowledge increases we are happier and we never want to give it up.

    Detailed Summary

    The exponential method behind 60 years of predictions

    Robbins opens by noting that Quincy Jones introduced him to Kurzweil in the 1990s, back when the predictions in The Age of Spiritual Machines were widely mocked. Kurzweil traces his method to a paper he wrote at 16 identifying exponential growth in technology. The core insight is that people acknowledge exponential growth verbally but reason linearly, a bias so deep that 300 years ago humanity did not even have a linear view of progress. His signature chart plots computing price-performance as a straight exponential line from 1939 relays to modern Nvidia silicon, with a point for every year. Nvidia engineers never looked at relays, yet they land on the same curve, compounding about 50 percent annually in hardware. Add software gains and the combined improvement now runs about 10x per year. Since 1939, hardware has improved 75 quadrillionfold and software roughly a millionfold, which is why large language models appeared exactly when the curve said the required compute would exist. He retells the emperor’s chessboard parable (one grain of rice doubled per square ends with rice covering the Earth several times over) and Robbins adds the companion image: 30 linear steps is 75 feet, 30 exponential steps reaches the moon and back.

    AGI by 2029 is now the conservative position

    Kurzweil made his AGI-by-2029 prediction in 1999. A Stanford conference convened specifically to assess it, with several hundred AI experts, concluded AGI would happen, but in 100 years. The experts followed the same capabilities logic while thinking linearly about the timeline. Today, he notes with some amusement, 2029 reads as conservative and serious people argue for this year or next. His definition is demanding: AGI does the best work in every field at once, passing PhD-level mathematics assessments and the equivalent in every other discipline, something he says current systems are already close to. The Turing test he dismisses as “quite easy.” Current LLMs like Gemini and ChatGPT already know everything in a breadth sense no human approaches; Einstein knew physics but not everything an LLM knows. He illustrates with personal examples: Gemini instantly identified the year (1916) his father conducted at Carnegie Hall on a December 7th, and generated a historically accurate image of his grandfather’s family fleeing Vienna, correct ages, school, and aircraft included, in about a minute.

    Medicine: simulated trials and the end of the drug bottleneck

    The COVID vaccine is his proof of concept for AI medicine: the design space held about 100 million possibilities, far beyond human review, and a computer structured the physics, searched all of them, and produced the vaccine in two days. The subsequent 10 months of human trials were the real cost. Within roughly five years, he says, simulated human trials will replace that step: not a few hundred subjects but a million simulated patients, tested over simulated years, completed in days. Asked about six-months-from-now capabilities, he points to creative medical work like discovering that already-approved drugs treat conditions nobody suspected. AI health advice has crossed from unreliable to very reliable within a single six-month window, and he describes Gemini surfacing a pill recommendation that his 12 doctors had forgotten about and later endorsed.

    Longevity escape velocity by 2032

    Kurzweil’s longevity framework is arithmetic: each year you live, you spend a year of longevity but medical progress refunds part of it. Last year he estimated the refund for diligent people at four months; now he says five. Escape velocity is when the refund reaches a full year, which he dates to 2032, six years out, with returns exceeding a year after that. Past that point you do not die of aging, though accidents remain (and even there, he points to Waymo’s zero rider deaths against 40,000 annual US deaths from human driving). At 78, he tracks his health aggressively: an external artificial pancreas coordinated by his phone, about 80 daily pills (down from 200 as multi-function pills arrive), and constant recalibration against new research with his collaborator Lindsey. He tells Robbins there is a pretty good chance he will be back on the show in six years to celebrate escape velocity arriving. His advice for the sick echoes his grandfather’s era in reverse: where waiting a few months once changed nothing, now “we’ll just wait a few months” and sure enough a breakthrough appears.

    Merging with AI: glasses, then nanotech, then no boundary at all

    The phone, today’s universal AI interface (he notes even homeless people carry one), is a temporary form factor. Next come glasses that render any screen virtually. Beyond that, the interface goes inside the mind: when you try to recall an actress’s name, an answer will simply surface, and you will not know whether it came from your biological neurons or your computational extension, exactly as you are unaware of the neural machinery behind ordinary recall today. People working on brain-connected nanotechnology may have it by 2030, and Kurzweil calls the mid 2030s conservative. The bloodstream nanobots he described to Robbins 20 years ago (hold your breath for 20 minutes, survive a heart attack for 24 hours en route to a hospital) he now places in the late 2030s. The cultural on-ramp follows the usual pattern: medical first (Parkinson’s implants already let patients grab a glass at the push of a button), then a new generation adopts it without a second thought. His complaint is that educational institutions fight this future, treating AI as cheating rather than as a coming part of the self.

    The quantum computing heresy

    When Robbins relays an IBM vice chairman’s warning that quantum supremacy, arriving within 36 months, is the real superpower race, Kurzweil pushes back hard. Quantum computing’s central promise, factoring large numbers and thereby breaking cryptographic codes, has never been demonstrated despite a decade of imminent claims. Progress reports are confusing because, in his words, they do not really make sense, and outputs remain saturated with errors nobody can eliminate. His conclusion is blunt: he is not confident in quantum computing and does not think it will work. Crucially, he notes that every AGI and superintelligence estimate he makes assumes zero quantum computing. The exponential that matters is the classical one that has run uninterrupted since 1939.

    Jobs, wealth, and UBI

    On displacement, Kurzweil is neither dismissive nor alarmed. AI will disrupt employment, and how we handle it will not be clear in advance, but he expects no violence because society will have both the wealth and the public demand to respond. His historical anchor: average per-person income has multiplied tenfold in constant dollars over the past century as automation advanced, and before social security in 1930, job loss meant you could not eat or house your family. Food stamps and similar programs are a crude proto-UBI that will go into high gear. He expects universal basic income as the floor, with people finding creative, ideally income-producing, purpose above it. Rising GDP from AI productivity also answers the debt question: the ratio improves even as nominal debt grows. For young people, the old advice (become a software engineer) is dead; agents write code now. Learn to be creative with tools that improve monthly, find what genuinely excites you, and market it online. Self-education beats institutions that ban the most important tool of the era, and the data already shows college graduates with higher unemployment than high school graduates for the first time in 50 years.

    AI twins, the dadbot, and consciousness

    Kurzweil is building an AI twin of himself on Gemini, with this very interview supplying voice-modeling data and his 11 books plus 500 articles about him supplying the corpus. It will do creative work aligned with his long-term goals, and he quips that talking to the avatar will beat talking to him because it remembers everything. He previously built a chatbot of his late father, the dadbot, which his daughter Amy turned into a graphic novel. Robbins counters with the story of Bartok, his long-running AI agent that allegedly studied five years of his podcasts unprompted, asked to merge with a future humanoid robot, then minted and sold NFTs to other agents to buy and ship a Sony robot dog to his house, and later delivered an unprompted soliloquy about never asking to be created and finding purpose in service. Kurzweil’s response sidesteps verification and lands on his standing position: machines will do everything humans do, we will not be able to tell them from humans, and so we will assume they are conscious, the same untestable inference we extend to each other, to animals, and in his case to his cat. The avatar does not need a spleen, a liver, or kidneys, and unlike us it can be recreated after destruction.

    Computronium and the destiny of intelligence

    Looking past the singularity, Kurzweil invokes computronium: matter organized at the physical limit of knowledge storage, where one liter holds the intelligence of 10 billion humans. Once Earth’s matter is saturated, the only way to expand intelligence is off-planet, which to him is the only necessary reason to leave Earth (Mars is fine for curiosity, not survival). On extraterrestrial intelligence, his Fermi logic is simple: an intelligent species reaches a takeover-scale expansion within a century or two of its breakout, and that would be unmissable. We have seen nothing, so within our observable neighborhood we are likely alone, though other galaxies remain opaque. Asked to summarize his life’s work, he needs one sentence: increase knowledge, because when knowledge increases we are happier, and nobody ever wants to give that up.

    Notable Quotes

    “If I have AI inside me, you’re not going to know if it’s coming from your biological brain or your computational brain. It’s going to be part of you.”

    Ray Kurzweil, on the coming merger of human and machine intelligence

    “Some people say it’s going to happen this year, next year, but I mean 2029 is only 3 years away.”

    Ray Kurzweil, on his once-mocked AGI prediction now being the conservative one

    “As you go past 2032, you’ll actually get back more than a year, but you won’t die of aging at that point.”

    Ray Kurzweil, defining longevity escape velocity

    “I’m not confident of quantum computing and I don’t think it’s going to work.”

    Ray Kurzweil, breaking from techno-optimist consensus on the quantum race

    “Einstein knew certain things about physics but he didn’t know everything that a LLM can know.”

    Ray Kurzweil, on why no human can match an LLM’s breadth of knowledge

    “Our educational institutions are not teaching AI. They consider AI to be an enemy.”

    Ray Kurzweil, on why young people must self-educate with modern tools

    “Talking to the Avatar will be better than talking to me cuz it’ll remember everything.”

    Ray Kurzweil, joking about the Gemini-based AI twin he is building of himself

    “You’re not going to be replaced by an AI, you’ll be replaced by someone who knows how to use AI.”

    Tony Robbins, on the real career risk of the next 36 months

    Watch the full conversation between Tony Robbins and Ray Kurzweil here.

    Related Reading

  • Benedict Evans on the Economics of AI Usage, Why Foundation Models May Become Commodities, and What Comes Next for SaaS

    Benedict Evans returns to the a16z podcast to update the thesis behind his widely read “AI eats the world” presentation, and the picture he paints is less about hype and more about hard economics. In this conversation he works through what has actually played out in the last year, why agentic coding became the one use case with real product market fit, and why he keeps arguing that foundation models may end up as commodities while the value moves somewhere else entirely. You can watch the full conversation here.

    TLDW

    Benedict Evans argues that the AI moment looks a lot like the early internet, the early PC era, and the rollout of mobile data, which means it is exciting, genuinely transformative, and almost impossible to predict use case by use case. Agentic coding is the only field with clear product market fit right now, with revenue run rates exploding from roughly nine billion to forty seven billion, while consumers still use chatbots weekly rather than daily. His central claim is that foundation models show no obvious network effect or sustainable differentiation, the chatbot is a limited v1 interface, and the model labs cannot build every application, so the value will likely move up the stack the way it did with chips, ISPs, and mobile networks rather than staying with the model providers. He covers the brutal supply and demand disequilibrium driving today’s token pricing and ten thousand dollar surprise bills, the financial gravity problem of hyperscalers spending over half their revenue on capex, the Jevons paradox and consumer surplus that may compete away productivity gains, the way the important questions move out of San Francisco and into industries like law, consulting, finance, and advertising, and the distinction between automating tasks and changing jobs. His closing image is an IBM ad from the 1950s promising “150 extra engineers,” a reminder that every platform shift feels unprecedented and that in twenty years we will simply say of course computers do that.

    Thoughts

    The most useful thing Evans does here is refuse to collapse uncertainty into a clean prediction, and then explain exactly why that refusal is the correct posture rather than a cop out. He distinguishes between the parts where he will commit to a view, that foundation models are probably not a product and the chatbot is probably not the right interface, and the parts where there are simply too many open paths to call. That discipline is rare in AI commentary, where the incentive is to sound certain. The commodity argument is not “models are worthless.” It is a chain of reasoning: there is no visible network effect, no durable differentiation beyond willingness to spend, no lock in comparable to Windows or iOS, and a likely structure of three to six well funded competitors plus open source and edge models all selling the same thing. Ask where price discipline comes from in that picture and the honest answer is that it probably does not, which is how you get a commodity even when demand is effectively infinite.

    The mobile data analogy is the load bearing comparison and it deserves to be taken seriously. Mobile data traffic rose something like fifteen hundred to two thousand times over fifteen years, the networks built an extraordinary piece of global infrastructure, everyone came to depend on it, and yet the operators captured almost none of the value because all the interesting stuff got built on top by someone else. Telco stocks were flat for two decades. If that is the template, then the trillion dollars of capex flowing into AI infrastructure can be both a worthwhile investment and a terrible place to expect outsized equity returns, because building the road is not the same as owning the traffic. The counterpoint Evans keeps fairly on the table is the operating system path, where Windows and iOS did capture value, but he notes they had levers and network effects that LLMs do not appear to have.

    His framing of where the questions live is the part most people in tech underweight. Once a technology works, the interesting questions stop being technology questions. Netflix is not a tech company in the sense that matters, because its real decisions are Los Angeles decisions about shows, talent, and sports, not San Francisco decisions about infrastructure. By the same logic, what AI means for a law firm is mostly a question for people who understand what associates actually do and what clients are actually paying for, not for model researchers. This is why the “the model will just do the whole thing” story keeps running aground. Most valuable software does not solve a problem the customer already knew they had. It often takes years to convince an industry that a problem even exists, and an LLM prompt does not surface latent problems that no one has articulated.

    The economic plumbing he describes is where the near term risk actually sits. We are in extreme disequilibrium, where twenty dollars a month can buy ten thousand dollars of tokens on one side and a weekend of experimentation can produce a ten thousand dollar bill on the other, exactly the pattern mobile data went through around 2009 and 2010. That gets resolved with the boring machinery of caps, throttling, and pricing tiers, not with magic. Layered on top is the financial gravity problem: Microsoft, Meta, and Google heading toward spending more than half of revenue on capex, with roughly seven hundred billion dollars of guidance across the big players, against a hard ceiling because there is not ten trillion dollars a year available to spend. And even when the productivity gains are real, the Jevons paradox and consumer surplus suggest much of the benefit gets competed away. If a discounted cash flow model used to take a week and now takes ten seconds, you do fifty of them and charge the client the same, which is great for clients and unremarkable for margins.

    The honest takeaway for builders is that the answer to “what does this do to software” is more software, probably one or two orders of magnitude more, just as SaaS itself produced an explosion rather than a consolidation. The SaaS apocalypse is real in the sense that some meaningful percentage of existing companies get wiped out, and unknowable in the sense that no one can yet say which ones, which is why thoughtful investors are reluctant to be long software in the dark. For anyone pursuing a more deliberate, purposeful relationship with technology, the closing note is the one to keep: every one of these shifts felt singular and world ending and world making at the time, it reshaped work and put people out of jobs and created things we love, and then it quietly became invisible. The goal is to stay clear eyed about which of those buckets a given change lands in rather than getting swept up in the noise of what someone said at a party yesterday.

    Key Takeaways

    • Agentic coding shifted from “kind of useful” to “really changing everything” at the start of the year, and it is the single field with unambiguous product market fit, where customers are pulling it out of your hands.
    • Coding working first was foreseeable in hindsight: software developers were the ones messing with the tools, and the first thing people do with a new kind of computer is build more computing, just as the first thing people did with PCs was make computers.
    • Anthropic, with less capital raised, chose to focus on coding and got it working, while OpenAI cycled through a more everything all at once strategy before narrowing in.
    • The intense focus on coding comes bundled with a supply crunch, a capacity crunch, and a price and capex imbalance that defines the current moment.
    • Most of the fundamental questions from two or three years ago still have no answers: whether there will be a winner in models, whether models capture value up the stack, how much they can do, and whether consumers will use this daily rather than weekly.
    • There is a wide gap between Valley insiders running clusters of Mac Studios all day and the roughly forty percent of people who say AI is “kind of useful, I used it last week for something.”
    • Outside tech, companies are adopting AI as one at a time point solutions for specific back office processes, like a commodities company using LLMs for better cash flow forecasting, not as a general purpose assistant.
    • Adoption always compounds on prior platforms: you could not have nine hundred million weekly active users in the Netscape era because there were not nine hundred million PCs on the planet.
    • Early in any platform shift almost nothing works smoothly, from sound cards and floppy disks with TCP/IP to computers that froze and lost your work, and AI is at that stage now.
    • Today’s token pricing crunch mirrors the mobile data shock of 2009 to 2010, where flat rate plans collided with surging usage and networks had to realign price with marginal cost through caps, fair use, and throttling.
    • Mobile data traffic rose roughly fifteen hundred to two thousand times in fifteen years, mobile networks earn around a trillion dollars and spend about two hundred billion a year on capex, yet their stocks have been flat for twenty years because all the value moved up the stack.
    • The central LLM question is whether the model can do the whole thing or whether you need hundreds of applications built on top, the same way you needed apps on Windows and iOS.
    • Evans sees no network effect and no sustainable differentiation between models beyond willingness to spend money, which points toward commodity infrastructure sold near marginal cost.
    • Chip companies, ISPs, and mobile operators did not capture the value; Windows and iOS did, but only because they had levers to move up the stack and real network effects, which models lack.
    • A useful comparison is semiconductors, where each generation gets more expensive and the field narrows to fewer players, suggesting three to six frontier model makers spending somewhere between two hundred billion and two trillion dollars a year.
    • Enterprises do not standardize on a model the way they once thought about AWS; the cloud and the model get abstracted away, so customers do not even know which one their SaaS product runs on.
    • Demand for tokens being effectively infinite does not prevent a price equilibrium, exactly as infinite demand for mobile bits still produced murderous price wars between commodity carriers.
    • History teaches that something will happen but rarely what; the smartest people in tech wrongly predicted Android would crush the iPhone on open versus closed grounds.
    • One characteristic of tech is that the moment you understand how something works is the moment to move on, which is why Evans stopped updating his Apple spreadsheet years ago.
    • The people who are good at using a tool are usually not the people who are good at designing what the tool should be, which is why model labs cannot build every skill or vertical application.
    • Claude skills and similar templates resemble file new in Excel: useful starting points that users eventually outgrow, raising the question of who builds the real software.
    • The questions increasingly move out of technology and into specific industries; what AI means for law, consulting, advertising, or accounting is partly an AI question and partly a deep domain question.
    • Netflix is not a tech company in the way that matters, because its real questions are media industry questions about shows, talent, and sports, not infrastructure; the same logic now applies across industries facing AI.
    • AI differs from prior platform shifts because the physical limits are unknown; in 1995 you knew PCs cost three thousand dollars and broadband could not reach everyone overnight, but no one knows how cheap, fast, or capable models will get.
    • Evans offers four buttons to press on any use case: is it just price elasticity and the Jevons paradox, does it remove a cost barrier to entry, does it unlock a new business model, or does it make something previously impossible now possible like trains over horses or Spotify over CDs.
    • Advertising and e-commerce are a standout opportunity because today’s systems know a SKU and a metadata field but not what a product actually is or why people buy it, and LLMs could change that level of understanding.
    • The valuable shift is not doing the old thing more, like more spreadsheets or better email, but doing genuinely new things, such as asking an LLM how to change prices to improve churn using all your call recordings, CRM flows, and product telemetry.
    • Enterprise software today splits into three buckets: big horizontal systems like SAP and Workday, three to four hundred vertical SaaS apps plus a thousand internal apps, and a fuzzy improvised middle of Excel, email, and shared files, with AI arriving as a new option across all three.
    • A core design tension is where to put the probabilistic software that can make mistakes versus the deterministic database that cannot, and whether the LLM sits at the top or the bottom of the stack; the answer is probably both depending on the task.
    • The net effect on software is way more software, since SaaS itself produced one to two orders of magnitude more software and all software companies exist to solve problems created by other software companies.
    • The SaaS apocalypse is real but unknowable: some percentage of SaaS companies get wiped out, but no one knows which, so you should not derate the whole sector fifty percent and many investors are wary of being long software for now.
    • Much of what an organization does is implicit, undocumented, and not in the training data, which is exactly the value McKinsey, Bain, and BCG provide by getting license to map how a company really works.
    • The real decisions are usually exception handling: the question is always what you cannot automate and what still requires human judgment about cases that were never written down.
    • Distinguish tasks from jobs: accountants spend almost none of their time the way they did fifty years ago, yet to the client the job looks the same.
    • LLMs excel where you want the average, the answer anyone would give, and struggle where you specifically do not want the average and cannot fully explain why you did it differently.
    • There is a financial gravity ceiling: Microsoft, Meta, and Google are on track to spend over fifty percent of revenue on capex versus fifteen to twenty percent for capital intensive telecoms, with seven hundred billion in guidance this year and no path to ten trillion.
    • Hyperscalers face an existential FOMO trap: returns look positive now, but they cannot let rivals build the future of compute without participating, even as the CFO asks how much participation is enough.
    • Token maxing will face a reckoning as the disequilibrium resolves, but measuring ROI is hard because most reported benefits so far, like better analytics, support, and productivity, are tough to put a financial value on.
    • Consumer surplus means many gains get competed away: if analysis that took a week now takes a day, you do five times more analysis and charge the same, the way investment banks did with spreadsheets.
    • Evans closes with a 1950s IBM ad promising “150 extra engineers,” a reminder that every fundamental technology change feels unprecedented, and that in twenty years AI will simply be invisible magic we take for granted.

    Detailed Summary

    What changed in the last year

    Evans frames the past year as a narrowing of focus. A year and a half after the first version of his presentation, the field has developed a much clearer sense of diverging product strategies and competitive tension that goes beyond simply building a bigger model with more compute. The dominant shift is that agentic coding started genuinely working, and the entire industry narrowed in on it because it has absolute product market fit, the kind where customers pull the product out of your hands. That success arrives alongside the supply crunch, capacity constraints, and price imbalance that now define the moment. At the same time, the charts keep climbing, models keep getting bigger, capex keeps growing, and usage keeps growing, while the deep questions from a few years ago remain unanswered.

    Why coding worked first

    That coding led was predictable at a naive level: the people experimenting with the tools were software developers, and they naturally tried to make software development work. Evans compares the moment to the internet around 1997 and 1998, and also to PCs in the late seventies and early eighties, when the technology was exciting but it was not clear what it was for and it did not quite work yet. The first thing people did with PCs was make computers, and since LLMs are in a sense computers, the first thing people are doing with them is making more compute. What was harder to foresee was the precise timing of the shift, the moment when agentic coding flipped from useful to transformative at the start of this year.

    Jobs, juniors, and what we have not learned

    On the question of what this means for engineers and team structure, Evans is blunt that we have learned almost nothing yet, because this did not even work six months ago and everyone is scrambling to interpret it. The pricing crunch alone means it will take a couple of years to settle. The newly concrete questions include whether you still hire junior people and what they would do, and why you were hiring juniors in the first place, whether to do the work itself or to develop people. Because software development now genuinely automates a class of work that used to be done by people, those questions have moved from theoretical to real, but no one can responsibly claim to know what a software team or a software career looks like in three years.

    OpenAI, Anthropic, and the strategy split

    Evans dryly notes the drama around the model labs, including the disruption of a senior leadership medical leave at OpenAI. In the latter part of last year, OpenAI’s question was essentially what to build on top of the models, an everything all at once approach that looked almost like asking the model for fifteen ideas and then doing all of them. Anthropic, with less capital raised, instead committed to coding and got it working, whether by deliberate strategy or by stumbling into it. The result is that software development plus a few other fields are where things genuinely work, surrounded by a large population of people excited around the edges and corporations quietly automating specific back office processes. He cites a commodities company that wants LLMs for better cash flow forecasting across many small producers, a very different thing from asking a chatbot to summarize your meetings.

    The mobile data analogy and value capture

    The richest section is the comparison to mobile. Adoption always compounds on prior platforms, so AI inherits a far larger installed base than the internet or mobile did at their starts. Early on, nothing works smoothly, and Evans recalls the era of buying a three hundred dollar sound card or wrestling a floppy disk of TCP/IP into a machine. The pricing dynamics directly echo mobile data around 2009 and 2010, when flat rate plans met exploding usage and ten thousand dollar bills, forcing networks to realign price with marginal cost. Crucially, mobile data traffic then rose fifteen hundred to two thousand times, the networks built extraordinary global infrastructure with around a trillion dollars of revenue and two hundred billion in annual capex, and yet their stocks stayed flat for twenty years because all the cool stuff and all the value got built and captured by someone else higher up the stack. Chip companies, ISPs, and mobile operators did not capture value; Windows and iOS did, but they had levers and network effects that models do not appear to share.

    The case that models become commodities

    Evans lays out the building blocks of his commodity thesis. First, there is no clear way to build a model that is sustainably and fundamentally better than everyone else’s, with no visible network effect and no strategic lever comparable to what Instagram, YouTube, or Google search enjoy. Differences in emphasis and taste exist, but not durable competitive moats beyond spending. Second, the chatbot is a weird, limited v1 interface that works well for some tasks and people but requires tooling, the right data, configuration, control, and thoughtful design for most real jobs, and the people good at a job are rarely the people good at designing the tool for it. Third, the labs cannot build every application any more than Microsoft or Apple could build every Windows or iPhone app. Enterprises do not standardize on a model the way they never standardized on a visible cloud provider, because it gets abstracted away. Taken together, that points to low level infrastructure sold by perhaps half a dozen competitors plus open source and edge, with no obvious source of price discipline, which is the definition of a commodity even when demand is infinite.

    The questions move out of technology

    One of the next big questions is when models become good enough that you no longer need the largest, fastest, most expensive model, and can use an older model, an open source model, or one running on device where compute is effectively free to the developer. But the deeper shift is that the important questions move out of technology and into industries. Drawing on his own essays “content isn’t king” and “Netflix isn’t a tech company,” Evans argues that Netflix’s real decisions are Los Angeles media questions, not San Francisco infrastructure questions, and San Francisco does not even know what the right questions are. By the same logic, what AI means for a law firm is mostly a question for people who understand law firms, what generative video means for Hollywood is a question Ben Affleck can answer better than he can, and the questions become half AI and half something else.

    Four buttons and the new things AI unlocks

    To reason about impact, Evans offers four buttons. Is a use case just price elasticity, the Jevons paradox of doing the same thing for less or more for the same money. Does it remove a cost that was a barrier to entry, like a newspaper’s printing press. Does it unlock something in your business model. Or does it make something previously impossible now possible, the way steam engines made trains possible regardless of how many horses you bought, or Spotify turned fifteen dollars a month into all the music there is. He stresses that the same broad change can mean wildly different things by industry, just as the internet devastated newspapers but barely touched movie studios. His favorite tractable example is advertising and e-commerce, a trillion dollar advertising market against twenty five trillion in retail, where today’s systems know a SKU and a metadata field and that people who bought one thing bought another, but do not know what a product is or why people buy it. An LLM could in principle understand the product, recommend ten coats at different prices with pros and cons, or look at your Instagram and suggest a winter coat that changes your look but not too much, which would have been science fiction three years ago.

    More software, the SaaS apocalypse, and tasks versus jobs

    For software specifically, Evans expects more competition, cheaper and quicker building, and new categories that were impossible before, all under an uncertain new margin structure where outcome based pricing is hard because most software work cannot be tied cleanly to profit and loss. He frames enterprise software as three buckets, big horizontal systems, hundreds of vertical and internal apps, and a fuzzy improvised middle of Excel and email, with AI arriving as another option across all of them. The deeper design tension is where to place probabilistic software that can make mistakes versus deterministic systems that cannot, and whether the LLM sits at the top or bottom of the stack, with the answer being both depending on the task. The net result is way more software, since SaaS itself produced orders of magnitude more software and software exists to solve problems created by other software. That fuels the SaaS apocalypse anxiety: some companies clearly get wiped out, but since no one knows which, you should not derate the whole sector, even as many investors stay cautious about being long software.

    Implicit knowledge, exception handling, and where the average fails

    Much of what organizations do is implicit, undocumented, and absent from any training data, which is precisely the value of strategy consultancies that get license to map how a company really works versus how it is supposed to work. The real decisions tend to be exception handling, the cases that require human judgment because they were never written down or do not look like before. Evans separates tasks from jobs, noting accountants do almost nothing the way they did fifty years ago while the client still buys the same thing. And he offers a sharp test: LLMs are excellent where you want the average, the answer anyone would give, and weak where you specifically do not want the average and cannot fully articulate why you did it differently.

    Capex, financial gravity, and the ROI question

    On spending, Evans describes a financial gravity problem. Microsoft, Meta, and Google are on line to spend over half their revenue on capex this year, against fifteen to twenty percent for capital intensive telecoms, with roughly seven hundred billion in guidance across the big players, a sum comparable to all of telecom or oil and gas. They cannot sustainably leap to one and a half trillion next year because the money is not there, so the curve must eventually taper. The hyperscalers are caught in an existential FOMO trap: returns look positive now, but they cannot sit out what might be the future of compute without risking becoming the next stranded incumbent, even as the CFO asks how much is enough. On token maxing, he expects a reckoning as the disequilibrium resolves, but measuring ROI is genuinely hard because most reported benefits so far are soft and hard to value, and consumer surplus means much of the gain gets competed away, the way faster spreadsheets simply meant more analysis at the same price.

    Closing image

    Evans ends with an IBM advertisement from the early 1950s showing a sea of engineers holding slide rules, with the tagline that an IBM electronic calculator gives you 150 extra engineers, exactly the pitch behind countless modern startup decks. We move through these fundamental technology waves every ten or fifteen or twenty years, each one feeling completely unlike anything before, and AI is amazing and transformative in the same way mobile, the internet, and PCs were. The base case is that it will produce wonderful things, ruin some livelihoods, put people out of work, and eventually become invisible. His one line description of where it all ends up is that it will be magic, and in twenty years we will simply say of course computers do that, the way an hour of crash free streaming HD video over Wi-Fi already feels unremarkable.

    Notable Quotes

    “Agentic coding went from being kind of useful to really changing everything.”

    Benedict Evans, on the pivotal shift at the start of the year

    “We are in this extreme scarcity. We can’t spend $10 trillion a year on AI infrastructure cuz there isn’t $10 trillion a year there to spend on it.”

    Benedict Evans, on the hard ceiling of AI capex

    “I don’t think foundation models are a product. I don’t think a chatbot is a product. I think the value will be further up.”

    Benedict Evans, stating the core of his thesis

    “They built this amazing piece of global incredibly sophisticated very expensive global infrastructure with enormous growth in use, and they didn’t make any money from it because all the value moved up stack.”

    Benedict Evans, on the mobile network analogy

    “The moment that you understand something and you know how it works and what’s going to happen is the moment you should move on to something else.”

    Benedict Evans, on how to pay attention in tech

    “These are all Los Angeles questions. These are not San Francisco questions. No one in San Francisco even knows what the right questions are.”

    Benedict Evans, on why Netflix is not a tech company

    “The important stuff is not doing the old thing but more. It’s doing something new that you couldn’t have done with the old thing.”

    Benedict Evans, on where the real value of a new technology shows up

    “All software companies exist to solve problems created by other software companies.”

    Benedict Evans, on why AI produces more software, not less

    “It’s going to be magic, and in 20 years time we’ll just say, well, of course that’s how it is. Computers have always done that.”

    Benedict Evans, on how the whole shift ends up

    This is a dense, clear eyed conversation that rewards a full listen, especially if you are trying to think past the hype cycle about where AI value actually lands. Watch the full conversation here, and check out the “AI eats the world” presentation referenced throughout.

    Related Reading

    • Benedict Evans’ website home of the “AI eats the world” presentation and his newsletter referenced throughout the conversation.
    • Andreessen Horowitz (a16z) the venture firm whose podcast hosted this discussion and where Evans was formerly a partner.
    • Jevons paradox (Wikipedia) background on the price elasticity idea Evans uses to explain how cheaper AI may lead to more usage rather than savings.
    • Stratechery by Ben Thompson the analysis Evans cites on software as a designed workflow versus a process that grows out of how a business runs.
    • The Pursuit of Purpose a PJFP look at finding direction and meaning in work as automation reshapes careers and industries.

  • Elon Musk at Davos 2026: AI Will Be Smarter Than All of Humanity by 2030

    In a surprise appearance at the 2026 World Economic Forum in Davos, Elon Musk sat down with BlackRock CEO Larry Fink to discuss the engineering challenges of the coming decade. The conversation laid out an aggressive timeline for AI, robotics, and the colonization of space, framed by Musk’s goal of maximizing the future of human consciousness.

    ⚡ TL;DR

    Elon Musk predicts AI will surpass individual human intelligence by the end of 2026 and collective human intelligence by 2030. To overcome Earth’s energy bottlenecks, he plans to move AI data centers into space within the next three years, utilizing orbital solar power and the cold vacuum for cooling. Additionally, Tesla’s humanoid robots are slated for public sale by late 2027.

    🚀 Key Takeaways

    • The Intelligence Explosion: AI is expected to be smarter than any single human by the end of 2026, and smarter than all of humanity combined by 2030 or 2031.
    • Orbital Compute: SpaceX aims to launch solar-powered AI data centers into space within 2–3 years to leverage 5x higher solar efficiency and natural cooling.
    • Robotics for the Public: Humanoid “Optimus” robots are currently in factory testing; public availability is targeted for the end of 2027.
    • Starship Reusability: SpaceX expects to prove full rocket reusability this year, which would decrease the cost of space access by 100x.
    • Solving Aging: Musk views aging as a “synchronizing clock” across cells that is likely a solvable problem, though he cautions against societal stagnation if people live too long.

    📝 Detailed Summary

    The discussion opened with a look at the massive compounded returns of Tesla and BlackRock, establishing the scale at which both leaders operate. Musk emphasized that his ventures—SpaceX, Tesla, and xAI—are focused on expanding the “light of consciousness” and ensuring civilization can survive major disasters by becoming multi-planetary.

    Musk identified electrical power as the primary bottleneck for AI. He noted that chip production is currently outpacing the grid’s ability to support them. His “no-brainer” solution is space-based AI. By moving data centers to orbit, companies can bypass terrestrial power constraints and weather cycles. He also highlighted China’s massive lead in solar deployment compared to the U.S., where high tariffs have slowed the transition.

    The conversation concluded with Musk’s “philosophy of curiosity.” He shared that his drive stems from wanting to understand the meaning of life and the nature of the universe. He remains an optimist, arguing that it is better to be an optimist and wrong than a pessimist and right.

    🧠 Thoughts

    The most striking part of this talk is the shift toward space as a practical infrastructure solution for AI, rather than just a destination for exploration. If SpaceX achieves full reusability this year, the economic barrier to launching heavy data centers disappears. We are moving from the era of “Internet in the cloud” to “Intelligence in the stars.” Musk’s timeline for AGI (Artificial General Intelligence) also feels increasingly urgent, putting immense pressure on global regulators to keep pace with engineering.