Odyssey builds artificial intelligence tools for creating and controlling 3D worlds. Its main product, Explorer, is a generative world model that turns a single 2D image into a complete, interactive 3D environment within minutes. The company uses a proprietary 360-degree, backpack-mounted camera to capture real-world data, which informs and fuels its AI models. This approach lets content creators in film and gaming generate high-quality, dynamic virtual environments that they can direct and edit. Odyssey differentiates itself by integrating real-world data capture with a world-model AI to streamline the production pipeline, instead of relying on traditional 3D modeling or manual scene creation. The company aims to empower creators to quickly produce immersive, controllable 3D worlds for storytelling and interactive media, typically through a licensing or subscription-based platform.
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Odyssey launches Odyssey-3 foundation world model for physical AI. Odyssey, an AI research company pioneering foundation world models, has announced Odyssey-3, its most powerful world model to date. The new model represents a significant advance toward general-purpose intelligence that can understand, predict, and interact with both physical and virtual environments. World models learn from vast examples of the world evolving to predict and simulate what happens next, including how actions affect outcomes. Odyssey-3 gives intelligent systems a general understanding of how the world works before they are taught a specific task. The model has shown the ability to control robots and humanoids, drive vehicles, pilot drones, generate environments for training AI agents, and play video games. The new model has already been adopted by companies including Flexion, a leader in humanoid autonomy. Trained on a vast dataset of visual observations of the world, Odyssey-3 builds on world models the company has been developing over the past three years. It has learned representations of physics, dynamics, cause and effect, and human behavior that can be applied across physical and virtual systems. Using this pretrained foundation, Odyssey-3 enables physical agents: intelligent systems that can apply a shared understanding of the world across different machines, environments, and tasks. Rather than learning every new task entirely from scratch, these systems can draw on a broader model of how the world works and adapt that knowledge to new situations with relatively little additional experience. Oliver Cameron, co-founder and CEO of Odyssey, stated: "Odyssey-3 is a big step toward a single intelligence that can understand and operate in the world around us. World models give physical agents a foundation of knowledge they can carry from one machine, environment, or task to another. We believe that the ability to learn broadly and then adapt with relatively little experience is the path toward increasingly general physical intelligence." The company has demonstrated Odyssey-3 across six domains. In robotics, it controls multiple robot arms and has demonstrated recovery behaviors it was not explicitly trained to perform. In humanoids, it powers control policies developed with Flexion that perform tasks in real time and generalize to environmental changes better than the baselines Odyssey tested. For vehicles, Odyssey-3 drove autonomously on roads in India using a policy trained with approximately 20 hours of simulated driving data. In AI training, it generates interactive environments where AI agents can act, learn from consequences, and help expose weaknesses in the world model. For drones, the model powers aerial navigation policies trained with simulated data to navigate indoor environments and avoid obstacles. In games, Odyssey-3 plays Grand Theft Auto V and has shown early transfer of learned behaviors into other games without additional policy training. Odyssey-3 is designed as a foundation that can span these domains rather than a model optimized for a single machine or application. By learning common representations of how environments behave and how actions change them, Odyssey is working toward world models that can transfer knowledge across increasingly diverse physical and virtual systems. Odyssey's founders previously pioneered one of the most complex applications of physical AI: self-driving cars. They have since brought together a research team from DeepMind, Tesla, Waymo, Meta, Apple, and Wayve, whose members have contributed to language models, video models, world models and autonomous systems, including DeepMind Gemini, DeepMind Veo, Wayve GAIA and Tesla FSD.
Odyssey releases Odyssey-3, a world model that teaches robots Physics through video. Odyssey-3 is a real-time foundation world model that generates interactive 3D environments from prompts and tops the Physics-IQ benchmark at 66.1. · 4 hrs ago Read 5 min * Odyssey released Odyssey-3, a real-time interactive foundation world model generated from text prompts. * Odyssey-3 Pro scores 66.1 on Physics-IQ Verified video-to-video, the highest reported score. * Ranks first in 3 of 4 WorldMark categories, trailing only in first-person real environments. * Frozen backbone drives a car in India after just 20 hours of driving data. * Autoregressive diffusion transformer distilled to few-step sampling for real-time interactive generation. * Free research preview live at experience.odyssey.systems, API access by request. Odyssey-3 links interactive video with physical control. Odyssey has released Odyssey-3, a foundation world model that generates navigable environments from text and predicts how each scene changes as a person or software agent acts. The free research preview is available now, while developers working on robots and vehicles can request API access. At its core, Odyssey-3 is an autoregressive diffusion transformer: it generates visual states through iterative denoising, then conditions each new state on previous observations and control inputs. Odyssey designed the same pretrained backbone for three workloads: interactive simulation, physical-machine control, and agent training. Reusing that backbone could reduce the task-specific data and compute required for each robot, vehicle, or simulated environment. A physics lead with a compute caveat. Physics-IQ Verified evaluates whether a model can continue recordings of real experiments while preserving behavior across fluid dynamics, optics, solid mechanics, magnetism, and thermodynamics. Odyssey-3 Pro achieved the highest reported video-to-video score, according to the launch results. Benchmark results reported by Odyssey | Benchmark | Result | Context | | Physics-IQ Verified, video-to-video | 66.1 | Odyssey-3 Pro at 720p using best-of-eight sampling; reported ahead of Black Forest Labs' FLUX 3 and NVIDIA Cosmos3 variants. | | Physics-IQ Verified, image-to-video | 54.7 | Odyssey-3 Pro using best-of-eight sampling. | | WorldMark, first-person stylized | First | Ranking based on the mean of 13 reported metrics using WorldMark's captions. | | WorldMark, third-person real and stylized | First | Odyssey-3 led both third-person splits. | | WorldMark, first-person real | 80.6, third | Behind Lyra 2.0 at 84.4 and AlayaWorld at 83.0. | The 66.1 Physics-IQ result uses the strongest outcome from eight generated samples, which requires more compute than a single generation. Odyssey also reports that the base model improves the tradeoff between physical accuracy and generation cost, although the launch materials provide charted generation costs rather than API pricing or hardware-specific latency. Three data streams teach cause and effect. Odyssey trained the model on three complementary data sources, each covering a different part of interactive world modeling: * Internet video supplies broad visual coverage, paired with time-localized event annotations checked against a defined schema. * Gameplay recordings pair frames with synchronized keyboard and mouse inputs, giving the model explicit action-to-outcome examples. * Rigid-body simulations provide controlled interactions with captions and metadata, making cause and effect easier to isolate. Streaming diffusion under the hood. The base architecture is a multi-step video diffusion transformer with temporal rotary positional embeddings, or RoPE, which encode the order of frames. Causal masking prevents the model from attending to future frames, allowing it to predict the next state from past observations. During training, teacher forcing supplies the correct preceding observations; during generation, the model continues from its own output while accepting new prompts and controls. Odyssey compresses the original diffusion sampler into a few-step model to reduce interaction latency. Post-training combines distribution-matching distillation, which teaches a faster model to reproduce the slower model's output distribution, with generative adversarial discriminators and reinforcement learning. The company has not published an exact frame rate, context length, or hardware profile for the research preview. One backbone, three machines. Odyssey adapts the frozen visual backbone to physical systems by training an action decoder or policy on paired observations and actions. Keeping the backbone frozen preserves its pretrained weights while the smaller policy learns how to control a particular machine. * Robot arms. Odyssey reports that policies trained on tens of hours of demonstrations completed manipulation tasks and recovered from failures absent from the demonstrations. Examples include reorienting a gripper after a missed grasp and retrieving an object dropped in an unusual position. * Humanoids. Flexion built humanoid policies on Odyssey-3. The resulting systems outperformed the tested vision-language-action baselines under environmental changes and continued operating under lighting changes that disrupted those baselines. * Vehicles. Odyssey trained a driving policy on 20 hours of road data from India while leaving the backbone unchanged. The policy uses its visual representations to predict waypoints and drive in closed loop, meaning each prediction affects the next observation and action. Freezing the backbone can lower adaptation costs because each embodiment needs a smaller policy rather than a newly trained visual model. The public evidence currently consists of Odyssey's demonstrations and reported evaluations, so independent testing still needs to establish reliability, safety, and performance across unfamiliar machines and environments. Agents learn inside generated scenes. For agent training, Odyssey-3 serves as the environment that produces observations and responds to actions. In the task-completion demonstration, an agent receives a natural-language goal, observes the generated scene, and takes actions until it reaches the requested outcome. Generated environments can produce varied rollouts without requiring a physical robot or a hand-authored asset pipeline for every scene. They also carry the world model's errors into training: inaccurate dynamics, weak long-term memory, or missing edge cases can teach a policy the wrong behavior. Odyssey has not reported task-success rates, agent-training costs, or sim-to-real transfer results for this use case. Evidence gaps developers should track. * Long-horizon consistency: WorldMark's world-memory measure is folded into a 13-metric mean, leaving no detailed breakdown of how long scenes remain coherent. * First-person realism: Odyssey-3 ranks third on WorldMark's first-person real split, behind Lyra 2.0 and AlayaWorld. * Runtime requirements: Exact latency, throughput, memory use, context limits, supported control schemas, and deployment hardware remain unspecified. * Sampling cost: The leading Physics-IQ result requires eight samples at 720p, raising compute use relative to a single interactive generation. * Physical-system validation: The robot, humanoid, and vehicle results need independent replication, longer deployments, and safety evaluation. The bet is reusable world knowledge. Odyssey-3's developer proposition centers on reuse: pretrain visual dynamics across broad video and simulation data, freeze that shared backbone, then train a smaller decoder for each robot, vehicle, or agent. If independent evaluations reproduce the reported transfer results, the approach could reduce specialized data collection and shorten the path from a general visual model to a working control policy. Preview now, API by request. Developers can try the research preview and request API access for physical systems. Odyssey's related work includes the Agora-2 multi-agent world model and PROWL-2, a reinforcement-learning framework that trains multiple agents and their world model within one loop.
Why world model startups are sitting on billions and telling no one anything. Tl;dr. * World model startups like World Labs, Odyssey and Decart have raised hundreds of millions on the promise of AI that understands 3D space and physics, but have revealed almost no technical details about how their systems actually work. * Founders and even their data partners are refusing interviews and staying vague on roadmaps to protect proprietary data deals, avoid tipping off Google DeepMind and Meta, and buy time while the tech remains unreliable. * That secrecy is slowing independent evaluation and raising fears of a hype bubble, legal fights over training data, and a future where spatial intelligence is locked behind a few closed APIs. The billions are real. Silicon Valley has not been this excited - or this confused - about a category since the first ChatGPT boom. World Labs, the startup founded by Stanford AI pioneer Fei-Fei Li, has raised more than $230 million at a valuation north of $1 billion from Andreessen Horowitz, NEA and Radical Ventures. Israeli startup Decart has pulled in over $150 million for its real-time interactive models. Odyssey, founded by former Cruise and Voyage leaders Oliver Cameron and Jeff Hawke, has raised more than $45 million from EQT Ventures, GV and Air Street Capital. Luma, Runway and a wave of younger labs are all rebranding around the same phrase: world models. The pitch is enormous. Not chatbots that predict the next word, but AI systems that generate persistent, navigable 3D worlds, understand physics, object permanence and spatial reasoning, and eventually power everything from video games and films to robots and self-driving cars. Investors call it the next step to artificial general intelligence. But ask what is actually under the hood, and the conversation stops. A demo, not A paper. Unlike the large language model era, where startups and labs competed to publish papers, release weights and top leaderboards, world model companies are shipping tightly controlled demos with almost no technical disclosure. World Labs released Marble, its browser-based text-to-3D environment tool, in June 2025, followed by a first large world model preview that turns a single image into an explorable 3D scene. Odyssey launched its Explorer tool for interactive streaming video worlds. Decart went viral with Oasis, a playable AI-generated Minecraft clone, and later a real-time conversational video model. DeepMind upped the pressure in August 2025 with Genie 3, a real-time interactive world generator. All are impressive in a browser tab. None came with architecture details, training compute numbers, evaluation benchmarks, or clear roadmaps for pricing, API access, or when these toys become reliable products. Requests for model cards, data sources and failure rates are met with waitlists and marketing language about spatial intelligence. The founders who won't talk. That silence is deliberate. In recent months, founders of three of the most-funded world model startups have declined in-depth technical interviews or pulled out of conference panels, even as they continue to raise and hire aggressively. Off the record, employees and investors give the same reasons: no one wants to show their hand. First, the race is unusually paranoid. With Google DeepMind, Meta, Nvidia and OpenAI's Sora team all building competing video-to-world systems, a single detail about data pipelines, rendering engines or hybrid diffusion-transformer designs could be copied in weeks. Second, the tech is still brittle. Anyone who has spent time in an AI-generated world knows the problem: walls melt, objects disappear when you turn around, avatars fall through floors. Founders prefer to talk about long-term vision - persistent worlds for creators and robots - rather than admit their current models can only hold coherence for a few minutes. Third, hype is the strategy. In a market where talent and GPU capacity are scarce, mystery helps. Being the stealthy Fei-Fei Li company or the secretive ex-Cruise team is better for recruiting and fundraising than publishing a benchmark where you lose to Genie 3. Even the data suppliers have gone quiet. More telling is who else won't talk: the data suppliers. World models need something LLMs never did - massive libraries of 3D geometry, video with camera movements, drone footage, game engine renders, and licensed scans of real-world places. Companies that provide that fuel, from stock video platforms and photogrammetry studios to game asset marketplaces and autonomous vehicle fleets, have signed exclusive deals with world labs but now refuse to name clients or discuss terms. Two data executives told reporters this summer they were barred by NDAs from confirming partnerships, citing fears of copyright lawsuits and backlash from creators who never consented to having their 3D work used for training. It echoes the early LLM data wars, but with higher stakes. A text scrape is one thing. A licensed 3D replica of a city, a national park or someone's Unreal Engine environment raises new questions about ownership, consent and price. No startup wants to be the test case, so no one discloses where the worlds come from. What secrecy means for the future. The short-term winner from secrecy is the incumbents. DeepMind, Meta's WorldGen efforts and Nvidia's Cosmos platform can afford to experiment in public because they already own data, distribution and compute. Startups, by contrast, are trying to build moats out of mystery. But researchers warn of three long-term costs. One is evaluation chaos. Without open benchmarks for physics consistency, memory and controllability, there is no way to compare World Labs vs. Odyssey vs. Decart vs. Genie 3 except vibes from cherry-picked demos. That makes enterprise adoption almost impossible for gaming studios and robotics firms that need reliability guarantees. Two is a legal time bomb. If training data deals stay hidden, Hollywood studios, game publishers and 3D artists say they cannot audit infringement or negotiate fair licensing. Lawsuits that hit image and video generators in 2023-2024 could return even larger for 3D worlds. Three is centralization. The dream of world models was open, creator-driven universes anyone could build. The current path points to the opposite: a handful of closed APIs where you rent explorable worlds by the minute, with pricing, limits and safety filters controlled entirely by the lab. Until one company breaks ranks and actually explains how its worlds are made - what data, what model, what roadmap - customers, researchers and even investors are left betting billions on faith. AndroGuider Team Articles written by the AndroGuider team. Androguider try to make them thorough and informational while being easy to read.
What AWS's chief AI and technology officer told employees about the future of AI. At the AWS Global Meeting, Matt Wood drew a parallel between AI today and cloud's early days - and brought a live demo to prove the future is already here. Published: September 17, 2026 Key takeaways. * AWS is building the foundational tools for AI the same way it built them for cloud computing. * Odyssey unveiled Agora-2, an AI that simulates shared worlds with no game engine. * From world models to code synthesis, frontier startups are building on AWS Trainium. At the AWS Global Meeting on September 17, AWS Chief AI and Technology Officer Matt Wood laid out a vision for where AI is heading - and brought a live demo on stage to prove it's already arriving. "What we are doing today at AWS for AI is exactly what we did for cloud computing, to make this technology broadly distributed and democratized for everybody," Wood told the audience. Then he named the building blocks: Trainium for compute, Bedrock for inference, AgentCore for agents - and brought the startups already building on them to prove it. University researchers are using Amazon's Trainium chip to push the boundaries of their work - and making the chip better for all developers in the process. A startup demonstrates its most realistic world simulator yet. The centerpiece of the meeting was a live demonstration from Odyssey, a startup building foundation world models - a new kind of AI that learns physics by watching massive amounts of video rather than relying on hand-coded rules. "A language model learns to predict the next most likely word in a sentence. A world model learns to predict the next most likely future of a world," explained Oliver Cameron, CEO of Odyssey. World models learn how the world works - from physics and cause-and-effect to human behavior - providing a foundational intelligence that can be applied across many industries. A world model draws on extensive learned knowledge of the world to automate physical systems, train AIs in interactive environments, and much more across robotics, autonomous driving, science, healthcare, education, gaming, defense, energy, and beyond. Through a new Student Rewards program on AWS Builder Center, university students worldwide can earn credits, premium training, and certification vouchers. On stage Cameron introduced Odyssey-3, Odyssey's most advanced foundation world model yet, which is trained and runs on Trainium3. Odyssey-3 is trained on vast observations of the world, giving it a learned grasp of physics, cause-and-effect, and human behavior. The same model can control robots, power humanoids, drive vehicles, pilot drones, train other AIs, and play video games. Because Odyssey-3 already understands how the world works, it can learn new tasks quickly, with far less task-specific data than previous systems. Additionally, Cameron unveiled Agora-2, a multi-agent world model - the first to hold multiple intelligences inside the same simulated world at the same time. Cameron and Wood each picked up controllers and entered Agora-2 in real time. The audience watched on a split screen as both navigated, interacted, and fought within the same AI-generated environment, each from their own perspective. Agora-2 supports up to 20 participants in a single simulation, with no game engine underneath. Cameron, who spent a decade working on autonomous vehicles before founding Odyssey, said the implications go well beyond gaming. "I believe we are on the cusp of a GPT-3 moment for world models," he said. "This is the moment where we see an explosion of applications for world models, and their adoption into every industry imaginable." OpenClaw creator Peter Steinberger on AI's next chapter. The meeting also featured a fireside chat between Peter Steinberger, the creator of OpenClaw and now at OpenAI, and AWS Vice President Francesca Vasquez. Steinberger discussed how the tools and infrastructure available to AI developers are evolving, a conversation that underscored Wood's broader argument that the biggest names in AI are building on and alongside AWS. Steinberger has become one of open source's biggest recent success stories. His OpenClaw project, which Vasquez called "the fastest growing open source project in GitHub history," has drawn more than 388,000 GitHub stars and 3.2 million active users. The bigger shift, he argued, is in how software itself gets built. "It's no longer 'I write code.' It's more, how can I design a system so my agent can do its best work?" As he put it, "We're all moving a little bit up the ladder. We're not just coders anymore." AWS is giving students at 132 universities across 18 countries a full year of free access to Kiro, so they enter the workforce ready to build with AI from day one. Why frontier AI startups are choosing AWS Trainium. A common thread across the meeting was the role of AWS Trainium in powering frontier AI workloads that demand sustained compute over weeks - a profile that general-purpose hardware struggles to sustain. Odyssey-3 runs on Trainium3 at over 80% model flops utilization - roughly double the industry average, according to the company. Odyssey joins a growing network of startups building on Trainium, including DeCart AI (real-time game environments), Neura Robotics (physical AI), Reactor (world model infrastructure), Splash Music (music generation), and Poolside (code synthesis). "We're here because you moved fast when we needed it, and then built something really special with us," Cameron said of AWS. Wood closed with a vision for where all of it is heading. "Our goal at AWS is to make it as easy, cheap, and fast to build these valuable economically viable AI systems as it is for anyone to build a website today," he said. "It's happening now, it's happening fast, and it's happening in all industries, but most importantly of all, it's happening here on AWS."
Odyssey has raised $310 million in Series B funding at a $1.45 billion valuation. Natural Capital led the round, with participation from Amazon, GV, AMD, EQT, and IQT. Existing investors include Jeff Dean, Elad Gil, Qasar Younis, Kyle Vogt, and Garry Tan, alongside researchers from OpenAI, DeepMind, MSL, Recursive, and Thinking Machines. The funds will accelerate the company's development of AI capable of understanding and simulating the world. Latham & Watkins advised AMD in the transaction.
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Industries
Company Size
51-200
Company Stage
Late Stage VC
Total Funding
$337M
Headquarters
Palo Alto, California
Founded
2023
Find jobs on Simplify and start your career today