Predicts the next token
Strong at language, code, reasoning and tool use, but it does not automatically hold a verifiable physical state.
Typical problem: sounding plausible is not the same as the world working that way.
Bilingual atlas · source-first research · updated 2026-07-08
Large language models learn to continue text. World models aim at something different: simulating the outside world internally and predicting what happens after an action.
A useful world model compresses observations into an internal state, then predicts future states from actions, time or conditions. It can be an explicit simulator, or a predictive module inside a video, robotics or autonomous-driving system.
The test is not only whether the image looks real. A serious world model should preserve state, accept interventions, support action planning and avoid collapsing during longer rollouts.
Strong at language, code, reasoning and tool use, but it does not automatically hold a verifiable physical state.
Typical problem: sounding plausible is not the same as the world working that way.Can produce coherent motion and may learn partial physics, but many systems still optimize for looking right.
Typical problem: beautiful output is not the same as controllable, interactive agent training.The focus is state, causality, action and long-horizon consistency, so AI can learn, test and plan inside simulation.
Core value: try the future internally before paying the cost of real-world failure.World model is an overloaded term. This site separates official claims, external evidence and editorial judgment so readers can see how strong each statement is.
Papers, technical reports and official posts are used as the verification base. Commentary is useful for discovery, not proof.
Cards mark whether a claim is official positioning, a paper/report claim, a product surface or this site's synthesis.
A polished demo is not treated as proof of long-horizon physics, controllability or downstream agent utility.
Fast-moving claims are marked with a review date and should be rechecked before becoming evergreen explainers.
Positioning moved to a bilingual, source-first research and product intelligence site; team cards now expose source and evidence status.
Ha and Schmidhuber pushed the idea of imagining future rollouts in compressed latent space into broader AI discussion.
DeepMind's Dreamer line showed that agents can train behavior policies inside learned latent dynamics.
Video generation entered the world-simulator narrative, while Genie turned video environments toward interactive agent training grounds.
The field split into physical AI platforms, representation learning, real-time worlds, 3D spatial generation and driving-specific world models.
Public materials show world models moving from research concepts into robotics, autonomous driving, 3D content and safety-testing workflows.
This map summarizes public materials without treating marketing language as proof. Each card separates focus, maturity and caution.
The homepage keeps only sources that help build judgment: papers, technical reports and official posts. More references live in the source list.
The homepage is the map. Articles are the units that can travel: one question, one cautious answer, bilingual by default.
A non-specialist introduction to prediction, action and internal simulation.
BoundaryWhy video generation can point toward world simulation without proving full interactivity.
ComparisonInteractive worlds, physical AI infrastructure and representation learning are not the same bet.
The frontier has shifted from "who can generate realistic video" toward "who can generate controllable, interactive and verifiable worlds." That matters for robotics, autonomous driving, industrial simulation and 3D content, because the expensive part is real-world trial and error.
The caution remains: many systems show partial ability, not long-horizon physical understanding. A valuable world model must be usable by downstream agents, not just impressive as a demo clip.
Not in the short term. The likely form is a combination: LLMs handle language, planning and tool orchestration, while world models handle physical state prediction and simulated environments.
Because real-world trial and error is costly and risky. A reliable world model could generate rare scenarios, predict action outcomes and stress-test systems before deployment.
No. A video model may learn object motion and scene continuity, but world models also require state persistence, interaction, intervention and usefulness for action planning.
The first version is a manually curated static site. The next step is to split teams, papers and explainers into structured content, add bilingual article pages, then test subscriptions or sponsorship only after there is repeat interest.
There is no account system yet. For now, use GitHub Issues to request an update digest, suggest a source, or point out a weak claim that should be rechecked.