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Yann LeCun’s $1.03B AMI Labs Bet on World Models and JEPA

Silicon Scoop · Episode 544 · September 16, 2026

AMI Labs and Yann LeCun raise $1.03B seed funding to scale JEPA world models, challenging LLMs and reshaping AI architectures and strategic market bets.

With Craig Major and Jon Irwin

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Yann LeCun’s $1.03B AMI Labs Bet on World Models and JEPA

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AMI Labs

AMI Labs Raised $1.03B to Kill the LLM Era

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Key Takeaways

  • Then AMI Labs raised $1.03 billion in seed funding, and suddenly the whole AI industry had to pay attention.
  • It is built around one core idea: the path to true machine intelligence runs through world models, not the text-predicting systems that dominate AI right now.
  • This is not a small bet. It is the largest seed round ever recorded in Europe, and one of the largest pre-launch AI financings anywhere on the planet.
  • This article breaks down exactly what AMI Labs is, what JEPA architecture actually does, why serious investors backed it at a $3.5 billion valuation before it had a product, and what this means for the future of artificial intelligence.

Yann LeCun spent years telling anyone who would listen that large language models are a dead end. Most people ignored him. Then AMI Labs raised $1.03 billion in seed funding, and suddenly the whole AI industry had to pay attention.

AMI Labs — short for Advanced Machine Intelligence — is the Paris-based startup LeCun co-founded after leaving Meta. It is built around one core idea: the path to true machine intelligence runs through world models, not the text-predicting systems that dominate AI right now. This is not a small bet. It is the largest seed round ever recorded in Europe, and one of the largest pre-launch AI financings anywhere on the planet.

This article breaks down exactly what AMI Labs is, what JEPA architecture actually does, why serious investors backed it at a $3.5 billion valuation before it had a product, and what this means for the future of artificial intelligence.

What Is AMI Labs and Why Did Yann LeCun Leave Meta

Yann LeCun’s world models vision takes shape at AMI Labs

LeCun is not a newcomer trying to get rich off AI hype. He is one of the three researchers who won the 2018 Turing Award — widely considered the Nobel Prize of computer science — for foundational work on deep learning. He spent years as Chief Scientist of Meta’s Fundamental AI Research (FAIR) lab, one of the most respected AI research groups in the world.

But Meta’s direction and LeCun’s vision kept drifting apart.

Meta struggled to turn FAIR’s research into practical technology. The company’s open-source model, Llama, faced its own headaches. There were internal tensions, including controversy around Meta’s acquisition of ScaleAI. And as the rest of the industry doubled down on larger and larger language models, LeCun grew increasingly vocal about why that path was wrong.

So he left. And he built AMI Labs.

The company is headquartered in Paris, with plans for offices in North America and potentially Asia. Alex LeBrun serves as CEO, while LeCun holds the role of Executive Chairman. At the time of its landmark funding round in March 2026, the company had roughly a dozen employees. It was less than three months old.

The fact that investors handed a 12-person company $1.03 billion says everything about how seriously the market is taking LeCun’s argument.

(Source: nytimes.com, siliconrepublic.com)

The $1.03 Billion Seed Round — By the Numbers

AI seed funding 2026 hits a new record with AMI Labs

Let’s be clear about the scale of this funding event, because the numbers are genuinely unusual.

  • Round size: $1.03 billion
  • Pre-money valuation: $3.5 billion
  • Company age at close: Under 3 months
  • Employee count: Approximately 12
  • Classification: Europe’s largest seed round on record

The round closed in March 2026. It was co-led by five venture capital firms: Cathay Innovation, Greycroft, Hiro Capital, HV Capital, and Bezos Expeditions. But the investor list goes much deeper than that.

Strategic corporate backers include:

  • NVIDIA — the dominant force in AI chip infrastructure
  • Samsung — a global hardware and semiconductor giant
  • Toyota Ventures — signalling interest in embodied AI and autonomous systems
  • Temasek — Singapore’s sovereign wealth fund
  • SBVA and New Legacy Ventures

And then there are the angel investors: Tim Berners-Lee (inventor of the World Wide Web), Eric Schmidt (former Google CEO), Mark Cuban, Xavier Niel, and Jim Breyer.

This is not a group of people who chase trends blindly. When NVIDIA and Toyota both write checks into the same seed round, it is because they see a concrete technical roadmap that could change what AI hardware and autonomous systems look like in five years.

Analyst coverage from Futurum Group frames this as the largest institutional bet on record that large language models alone cannot reach general intelligence. The investor mix — spanning traditional VCs, corporate strategics, sovereign capital, and high-profile angels — reflects a genuine industry hedge against LLM-centric approaches.

(Source: futurumgroup.com, reuters.com, startuphub.ai)

Why LeCun Says LLMs Are Not Enough

Yann LeCun’s world models argument targets LLM limitations

To understand why this funding matters, you need to understand the core argument LeCun has been making for years — and why he believes it is backed up by the architecture AMI Labs is building.

The problem with large language models:

LLMs like GPT-4, Claude, and Gemini are trained on vast amounts of text. They are extraordinarily good at predicting the next word or token in a sequence. That single capability, scaled up enormously, produces systems that can write essays, answer questions, generate code, and hold conversations.

But LeCun argues this approach has a hard ceiling. Here is why:

  1. LLMs only know text. They have never seen the physical world. They have no internal model of how objects move, how forces work, or how actions lead to consequences.
  2. They cannot truly reason or plan. When an LLM appears to reason, it is doing sophisticated pattern matching on text. It does not have a simulation of reality it can run forward to test possible outcomes.
  3. They hallucinate because they lack grounding. Without a world model — an internal representation of how reality works — LLMs fill gaps with statistically plausible text, not verified facts.
  4. They struggle with genuinely novel problems. Tasks that require physical intuition, multi-step planning in real environments, or understanding causal chains push current LLMs to their limits.

LeCun’s argument is not that LLMs are useless. It is that they are the wrong foundation for building AI that can act reliably in the real world. For that, you need a system that understands the world the way a child eventually does — by building an internal model of how things work.

(Source: taskade.com, startuphub.ai)

What Is JEPA and How Does It Actually Work

JEPA architecture is AMI Labs’ technical foundation

JEPA stands for Joint Embedding Predictive Architecture. It is the technical framework at the heart of AMI Labs, and it represents a fundamentally different way of training an AI model to understand the world.

The core idea:

Instead of predicting raw output — like the next word, or the next pixel in an image — JEPA trains an AI to predict in abstract representation space. Think of it this way: when you watch someone throw a ball, your brain does not try to predict the exact color of every pixel the ball will pass through. It builds an abstract internal model: “the ball will arc upward, reach a peak, and come down over there.” JEPA tries to make machines do something similar.

More technically:

  • JEPA learns latent embeddings — compressed, abstract representations of states in an environment
  • It then makes predictions in that latent space, rather than predicting raw sensory data
  • This makes the learning process more efficient and the representations more meaningful for reasoning and planning

V-JEPA 2 and recent advances:

Newer variants of the architecture, such as V-JEPA 2, add components like 3D Rotary Position Embeddings (3D-RoPE) to stabilize training of billion-parameter models over temporal sequences. This is critical for robotics and embodied AI, where the system needs to understand how a scene evolves over time in three dimensions.

The formal mathematical proof:

In May 2026, AMI Labs published a preprint on arXiv delivering a landmark result: the first formal mathematical proof that JEPA can recover the hidden structure of an environment under specific statistical conditions — specifically, Gaussian latent variables with stationary additive-noise transitions.

This matters because it moves JEPA from a promising intuition to a provably grounded theory. It also honestly defines where current implementations still fall short, setting a clear technical roadmap for the work ahead.

Model Predictive Control (MPC):

One of the key applications JEPA world models are designed to enable is model predictive control with receding horizon planning. This is a control paradigm where a system uses its world model to simulate multiple future trajectories, evaluates them, and picks the best action — then repeats the process at every step. This is how you build an AI that can plan reliably in a changing environment, rather than one that just reacts.

(Source: startuphub.ai, taskade.com, startuphub.ai)

Where World Models Get Applied

Yann LeCun world models target robotics, autonomous driving, and agentic AI

The reason corporate giants like Toyota and NVIDIA joined this round is not abstract. World models built on JEPA architecture have specific, high-value applications that existing LLM-based systems handle poorly.

Robotics and embodied AI:

A robot navigating a factory floor needs to predict the consequences of its movements in real time. An LLM cannot do that. A world model trained with JEPA can build an internal simulation of the robot’s environment, predict what happens if it takes any given action, and plan accordingly. V-JEPA 2’s temporal and 3D capabilities are built specifically for this.

Autonomous driving:

Self-driving systems need to model how other vehicles, pedestrians, and road conditions will evolve moment to moment. World models that understand physical dynamics — not just statistical patterns in text — are far better suited for this than LLMs.

Smart glasses and wearable AI:

LeCun has spoken specifically about AI-powered smart glasses as an early consumer application. A system that can interpret your physical environment, understand spatial context, and give you relevant information in real time needs a world model, not a text predictor.

Industrial processes:

World models can simulate industrial systems, predict failures before they happen, and optimize complex multi-step processes. This is the kind of deep operational intelligence that automation-heavy industries have wanted for years.

Agentic AI platforms:

For AI agents — systems that take a sequence of actions to achieve a goal — reliable prediction of action consequences is essential. Current LLM-based agents frequently fail because they lack this grounding. World models give agents the ability to simulate outcomes before acting, making them far more reliable.

(Source: taskade.com, futurumgroup.com)

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AMI’s Open-Source Philosophy and the Geopolitical Angle

AMI Labs’ open-source AI strategy challenges closed-model dominance

AMI Labs is not just making a technical bet. It is making a political and strategic one.

LeCun has been a vocal critic of the industry’s drift toward closed AI models. OpenAI started with an open-source philosophy and gradually closed its systems. Anthropic was built as a closed lab from the start. These companies argue that powerful AI must be restricted to prevent misuse. LeCun argues the opposite: that open-source AI makes the ecosystem safer, more diverse, and more resistant to any single entity having too much control.

AMI’s position:

  • AMI is committed to open-source AI development
  • LeCun views AI as a platform — like the internet itself — that must be open to be trustworthy and widely beneficial
  • He argues that a diverse AI ecosystem, where models can be fine-tuned by different groups with different languages and value systems, is essential for global adoption

The geopolitical dimension:

LeCun specifically frames AMI as a European alternative to the US-China AI binary. Right now, the dominant AI narrative is a two-horse race between American labs (OpenAI, Google, Anthropic, Meta) and Chinese ones (DeepSeek, Baidu, Alibaba). AMI, headquartered in Paris, is positioning itself as a third option — one that is open-source, globally accessible, and not beholden to either superpower’s strategic interests.

This matters for governments, universities, and companies around the world that are uncomfortable depending on AI infrastructure controlled by either Washington or Beijing.

The open-source investor case:

Investors backing AMI have explicitly noted the strategic value of its open-source approach for startups that rely on open-source models. A thriving open-source world model ecosystem would benefit a wide range of downstream developers, much as Linux and Android created enormous value without being proprietary products.

(Source: bloomberg.com, startuphub.ai)

What the Critics Say — and Where AMI Still Has to Prove Itself

Not everyone is convinced that AMI Labs’ bet will pay off. The honest picture includes real challenges.

The skeptical case:

  • JEPA’s formal proof relies on Gaussian latent variables and stationary additive-noise transitions — relatively clean mathematical assumptions that may not hold in the messy, non-stationary complexity of the real world. AMI’s own preprint acknowledges this gap.
  • LLMs have kept improving faster than many critics expected. Systems that seemed to hit a wall two years ago found new performance jumps. Declaring them a dead end has been premature before.
  • Training world models at scale is computationally intensive in different ways than LLM training, and the engineering challenges are not trivial.
  • AMI has no product yet. $1.03 billion and a compelling theory is the starting line, not the finish line.

Where AMI has to deliver:

The company needs to demonstrate that JEPA-based world models can scale beyond the current proof’s assumptions, work reliably in real robotic and embodied AI applications, and attract the engineering talent to build production systems — not just research prototypes.

LeCun acknowledges that recruiting people who believe in the world models future is a central challenge. The talent pool that understands this architecture deeply is still small compared to the armies of engineers trained on transformer-based LLM development.

(Source: futurumgroup.com, startuphub.ai)

What This Means for the Broader AI Landscape

AMI Labs signals a maturing market that is seriously hedging beyond LLMs

AMI Labs’ $1.03 billion raise is significant not just for what it tells us about one company, but for what it reveals about where the broader AI industry is heading.

The LLM era is not over — but it is no longer uncontested.

The investor syndicate behind AMI includes some of the most sophisticated money in tech. When NVIDIA backs a company that is explicitly building an alternative to the LLM paradigm, that is a signal worth paying close attention to. NVIDIA makes money selling hardware for AI training regardless of which architecture wins. Their bet on AMI suggests they genuinely believe world models could become a major training workload.

Europe is asserting itself.

AMI being based in Paris and billing itself as an alternative to the US-China AI binary reflects a real and growing push for European AI sovereignty. With regulatory frameworks like the EU AI Act already reshaping how AI is deployed in Europe, having a major open-source AI research company on the continent has significant strategic value.

The robotics and embodied AI markets are ready.

Toyota, NVIDIA, and Samsung are not backing AMI because they are interested in making chatbots. They are backing it because they have enormous commercial exposure to robotics, autonomous systems, and hardware that needs to interact intelligently with the physical world. They are betting that world models will be the architecture that makes their next generation of products possible.

Open-source AI is getting serious capital.

The AMI round is one of the clearest signals yet that open-source AI development can attract institutional-scale funding. This challenges the assumption that only closed, proprietary labs can raise the capital needed to compete at the frontier.

(Source: futurumgroup.com, reuters.com, startuphub.ai)

Frequently Asked Questions

1. What is AMI Labs?

AMI Labs (Advanced Machine Intelligence) is an AI research and development company co-founded by Turing Award winner Yann LeCun. It is headquartered in Paris and is focused on building AI systems based on world models using the JEPA architecture, as an alternative to large language models. The company raised $1.03 billion in seed funding in March 2026 at a $3.5 billion pre-money valuation.

2. What is JEPA architecture?

JEPA stands for Joint Embedding Predictive Architecture. It is a machine learning framework that trains AI models to predict in abstract representation space (latent embeddings) rather than predicting raw outputs like tokens or pixels. This approach is designed to help AI systems build a genuine internal model of how the world works, enabling better reasoning, planning, and physical interaction.

3. How is JEPA different from a large language model?

A large language model predicts the next token in a text sequence. JEPA predicts in compressed latent space — abstract representations of world states. LLMs are grounded in text; JEPA-based world models are grounded in the structure of environments. This makes JEPA more suited for physical reasoning, robotic control, and multi-step planning in real-world settings.

4. Who invested in AMI Labs?

The round was co-led by Cathay Innovation, Greycroft, Hiro Capital, HV Capital, and Bezos Expeditions. Strategic backers include NVIDIA, Samsung, Toyota Ventures, Temasek, SBVA, and New Legacy Ventures. Notable angel investors include Tim Berners-Lee, Eric Schmidt, Mark Cuban, Xavier Niel, and Jim Breyer.

5. Why did Yann LeCun leave Meta?

LeCun left Meta after years as Chief Scientist of its Fundamental AI Research (FAIR) lab. While FAIR produced strong research, Meta struggled to translate that research into practical technology at scale. LeCun also grew increasingly at odds with the industry’s direction toward closed, LLM-centric AI, which conflicted with his commitment to open-source AI and world models.

6. What is the formal JEPA proof that AMI Labs published?

In May 2026, AMI Labs published a preprint on arXiv containing the first formal mathematical proof that JEPA can recover the hidden structure of an environment under specific conditions — Gaussian latent variables with stationary additive-noise transitions. This was a significant theoretical milestone, though it also clearly outlines the assumptions the proof relies on and where current implementations still need to advance.

7. What applications are world models designed for?

World models are being developed for robotics and embodied AI, autonomous driving, smart glasses and wearable AI, industrial process optimization, and agentic AI systems that need to predict the consequences of actions before taking them. These are all areas where understanding physical dynamics matters more than processing text.

8. What is Model Predictive Control (MPC) and how does it connect to JEPA?

Model Predictive Control is a control technique where a system uses a forward model of the world to simulate possible future trajectories, evaluate them, and choose the best action — repeating this process at each step. JEPA world models are designed to serve as that forward model, enabling AI agents and robotic systems to plan effectively over multiple steps in changing environments.

9. What is AMI Labs’ stance on open-source AI?

AMI Labs is firmly committed to open-source AI development. LeCun argues that AI should be treated like a platform — open and accessible to all — rather than a proprietary product controlled by a handful of companies. He believes open-source models allow for greater diversity of languages, values, and fine-tuning, making AI more globally beneficial and less dangerous if any single actor gains outsized control.

10. Is the $1.03 billion AMI Labs seed round really the largest in Europe?

Yes, according to multiple analysts and press reports, including coverage from Futurum Group and Silicon Republic, the AMI Labs seed round is Europe’s largest on record and one of the largest pre-launch AI financings globally. The combination of the round’s size, the company’s age (under three months), and its small team makes it a historically unusual financing event in the venture capital world.

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Episode transcript

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Craig: everyone is obsessed with the next chatty ai, but jan lecun, just raised a billion dollars to build something completely different. he says llms are dead. they're a dead end, too much text, not enough physical intelligence. today, we're looking at ami labs and why the biggest names in hardware are betting everything on radical new architecture called jepa. so jan lokan, one of the three turing award winners who define modern deep learning, has cofounded ami labs and pulled in a 1,030,000,000 in seed funding. their core argument, lms like chatttp or claude are hallucination machines because they only understand text, not the physical world. ami is betting that j e p a, i'm gonna call it jeppa, standing for joint embedding predictive architecture, which creates world models, internal abstract representations of how reality works with backing from nvidia, toyota, and samsung. this isn't just a theory. it's an industrial play for robotics and autonomous systems. the big question, can they scale this math before llms simply get better? what do you think about this, john?

Jon: i love this. this excites me so much. i am so excited to dive into this. i think this could be a game changer, but let's talk about this fundamental disagreement of prediction versus understanding. so llms today, they're trained around variations of a simple objective. given a sequence of tokens, predict what comes next. and so scale that process across trillions of tokens with enormous neural networks, and the resulting systems develop extraordinary capabilities in language, coding, mathematics, summarization, and it's increasingly in multimodal reasoning. lacun's objection is that next token prediction may be an indirect route to intelligence rather than the architecture intelligence fundamentally requires. the reason being is because language is only a compressed description of reality. right? there's countless physical relationships that humans understand that people rarely bother writing down because to us, they're obvious. right? so we don't publish billions of sentences explaining that a mug remains on the table when we look away, that pushing it toward an edge would make it fall or that grabbing it requires approaching it rather than simply announcing that we grabbed it. and so lacun, therefore, distinguishes between knowing descriptions of the world and having a model of the world. and that distinction, that's what becomes particularly important once ai systems must act rather than merely answer. so for those of you that i kind of touched on it, but the world model, it's an internal kind of simulator. right? so suppose a robot sees a cup on a table and wants to pick it up. a conventional perception system might identify cup, table, and distance. right? the world model tries to learn something deeper. for example, if i move my arm in this direction, the hand should approach the cup. if i move the gripper at the correct point or if i close it at the correct point, the cup should become attached to the hand. if i move upward afterwards, the cup should rise rather than remain on the table. and then, therefore, the model can internally evaluate possible actions before committing to one. and so this creates the pipeline of observe, represent, predict, plan, act rather than what the llms currently do is prompt, generate output. i love this. i think this is where this is how we're gonna get to, agi, but i don't know. what are your thoughts on this, craig? do you think this is gonna challenge the current model the current, learnings? or what are your thoughts?

Craig: i think all this stuff is exciting because when anybody takes a new approach to these things, it brings new revelations, new ideas, and even the old players will start building some of this into their tools and products so that, the world gets better. whether they use, jepa or something else specifically, because, like, these companies like to make their own acronyms for whatever they have. that is the equivalent thing. i think this is great because we are moving very fast, and ai is creating most of our software and whatnot now. and when they can share this kind of thing and ais can pick this stuff up quicker than ever before. we'll see this kind of, stuff in active robots within a week of them releasing this rather than months. so that's why i'm excited about how fast these things go. will this be the end all and be all? i don't know. but it's like bluetooth one wasn't great, but here we are. everybody uses bluetooth headsets now.

Jon: yeah. yeah. and the thing is this isn't, it's not just theoretical anymore. because before leaving meta, researchers worked with him and developed v dash jepa two, which is a video based jeppa system. and so the model was pretrained using more than one billion hours of internet video. it then received less than sixty two hours of unlabeled robot interaction video to create an action conditioned version called v jeppa two dash or two dash a c. so, like, this is like, there is no explicit reward function was required for the task. no training data needed to be collected from those particular robots in those environments. so that's essentially where we're getting to where lacun is getting at least with, you know, it's gonna take less and less training to get to, get to the end result at the end of the day because it's more of a contextual than just straight, predictive learning, if that makes sense.

Craig: absolutely. and so i like to think of this like an llm is a chef who has read every cookbook in existence but has never stepped into a kitchen. it can describe a souffle perfectly, but if you give it a real whisk and eggs, it doesn't know the physics of how a batter or a beater behaves. ami's world model is the chef who spent years actually cooking. it knows how the ingredients interact. it knows how heat changes the state of the food, and it can simulate the outcome before it even turns on the stove. so just to kind of phrase it in the people that we understand, the investor list is a who's who of hardware. when toyota and nvidia write checks to the same start up, they aren't looking for a new chatbot. they're looking for the brain for the next generation of hardware. so the confidence is high in where this is going. and he just left meta, a couple of months ago. right? i'm just scrolling back here. early twenty twenty six. he left us to found ami labs. so it's interesting to see where this is going. jeppa is not trying to generate an image or text. it's trying to learn from the structure of reality. so it's a little bit different than, what we can kinda do. so we have, the beer case situation where the lm wall hasn't fully arrived. o one style reasoning models, are showing that with enough compute transformers may be able to fake reasoning well enough to handle a beer case, you know, how to fill it out and put stuff in the 24 thing. so that's a model that people are really having trouble with. failure mode. ami gets stuck in a permanent research loops. they're spending $1,000,000,000 on brilliant papers that never translate into a product developers can actually work on. these are skeptics, but they're saying, again, this is not necessarily reality. and real world benchmarks. so ken jeppa holds its own in a dynamic chaotic environment like a sidewalk in downtown tokyo compared to a massive hyper, train transformer. so it's high stakes game, a high reward research bet. it's most important anti trend in ai right now. so it's a big bet, and i think it's going to maybe not, you know, version two or ver but maybe version three. i think this will define, how we start moving out of the tech space and into a world, three d space. that was always a problem with llms. like, if you have a mug on a table and glasses and you fold it like this and then you put it down and you pick it up, l they don't understand hinges. they don't understand how objects can change. and as you build these real world models that actually predict, automated driving will become better. smart glasses will, help people do more things. it'll also record and, have these robots getting smarter. so i'm excited about where this is going. and i love you, yeah.

Jon: go ahead. let's just talk about why lacun believes llms hit fundamental limits. let's just dive a little bit deeper in that. like, language contains less information than physical experience. we talked about that. actions need understanding. llms don't naturally have persistent world state. like, for example, they don't understand object permanence, which is critical. so a truly autonomous agent will need a persistent representation of the environment that evolves through time, which they don't have. and planning requires evaluating futures. what happens if i do a? what happens if i do b? which outcome gets me closer to the goal? world models create that framework for that form of deliberation. so, i thought i was gonna get a little bit more pushback from you on this one as, like, as far as a little bit more argument, which i'm glad i'm glad we're on the same page with this. think, i think that, i think that lacun has something, and i think if done right, he could, he could become the next big anthropic or open ai. that's my prediction.

Craig: and we will see because we had some similar technologies that aren't really world models but are quantum in nature that control robotic movement at the edge, understanding if an elbow moves is what happens at the and they can do that in real time. so i'm not a 100% that this technology is gonna be the leader or the winner, but i love the fact that we're looking at these problems from different angles. i let to extrapolate that, openclaw was one of the first harnesses out there that took off, and now how many other harnesses are out there? every major company, claude, kodex, everyone has their own now. and it changed the they're not the same, but it changed the way they looked at how people use ai and how we can get more ai used and how we can use it better and harness these things. and the world changed as a result in six months. this kind of thing can do that at the robotics level because we're still at the infancy stage, and we can take this and apply the other technologies that we're using and come up with something far superior in one generation where we would historically have taken ten years to do these things. so i'm really excited. and i laugh when you say we'll be opposed. like, i'm not you know, his philosophy on open source, and geopolitical and stuff, i don't really care about. and moving stuff forward, if we move these things and it helps everyone, i'm excited because i'd like to see things moving, the ball forward. so i'm excited.

Jon: yeah. yeah. me too.

Craig: so ami labs is the most significant hedge against the current ai hype cycle, trading token prediction for physical understanding. we spent the last two years teaching computers how to talk. the next ten will be about teaching them how to be in the real world. drop a comment. do you think l the llm error is peaking, or we are just getting started? let us know what you

Jon: think.

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