Generative Vision Atlas

Living research atlas · updated every 3 days

Follow the representation.

Modern image generation has mostly settled its arguments about objectives and architectures. What it has not settled is where generation should happen: in a compression code, inside a foundation model's features, in discrete tokens, or in raw pixels.

This atlas is organized around that question and the others like it. Every paper here sits inside a research line defined by one explicit bet, so you can see what a group is claiming, what it costs them, and who disagrees.

204
papers
203 verified against arXiv
35
research lines
30 general vision, 5 medical
46
benchmark numbers
with their confounds recorded
11
open problems
linked to who is attacking them

New to this? Start with the fundamentals

Stanford CME296: Diffusion & Large Vision Models ↗

This atlas begins where a course ends. It assumes you already know how diffusion and flow matching work, and spends its time on what the field is still arguing about. If you want that foundation first, or want it taught properly rather than reconstructed from papers, this lecture course is the recommended starting point.

Free on YouTube · then come back and read the representation debate with the background to judge it.

The argument the field is having

Five live answers to one question, ordered by how much meaning the latent carries. Each is an active research line with its own evidence and its own weaknesses.

no semantics in the latentlatent is entirely semantic
Pixels
no latent at all
17 papers · contested
VAE latent
trained to reconstruct
12 papers · dominant
Aligned latent
reconstruction, plus semantic pressure
6 papers · ascendant
Hybrid
semantics with detail added back
9 papers · emerging
Semantic latent
a frozen foundation model
11 papers · contested

The honest summary: at their best-tuned settings all five land within roughly the same range on ImageNet, and the published numbers cannot rank them, because guidance method, model size and training budget all move at once. See why →

How this is organized

Six design questions. Every research line answers exactly one of them, and lines answering the same question compete directly.

What this does that a paper list does not

Refuses to publish a leaderboard

One paper reports the same model at 1.65, 1.49, 1.14 and 1.06 under four guidance methods. That swing is bigger than most architectural claims. Every number here carries the guidance, budget and model size that produced it.

Tracks what is unsolved

11 open problems, each linked to the papers attacking it and the research lines that carry it as a known weakness. Where a line is weak, its page says so.

Updates itself

A pipeline sweeps arXiv and Hugging Face every three days, filters for genuine relevance, and proposes candidates for review. Nothing is added automatically and nothing is claimed without a fetched source.

Separate domain

Medical imaging

Kept apart from the rest of the atlas on purpose. Clinical imaging answers the same design question differently, and it answers to a different evidence bar: not a better distribution distance, but whether a diagnostic model improves and whether a radiologist is fooled.

27 papers across 5 lines, organized by which space they generate in and why that space was chosen →

Start here

You want the fundamentals first ↗

Stanford CME296: Diffusion & Large Vision Models. The background this atlas assumes, taught in order rather than reconstructed from papers.

New to the latent debate

The line that asks whether the generative space should be a pretrained representation at all.

You want the numbers

Head to head on ImageNet and text-to-image, with what the numbers can and cannot support.

You want the story in order

How the field moved, and how long ideas sat unused before something made them work.

You want to run something

Four notebooks with real outputs from an A100: what each latent discards, RAE against the VAE it replaces, how editing methods differ, and why guidance breaks benchmarks.

You want to browse by subject

Six topic areas plus medical, each with its papers, its research lines, and its open problems.

Recently added

newest paper: 2026-09
2026-09Agentic Visual Generationemerging2026-09LLaDA-Imagecore2026-09PixSGRemerging2026-08Any-OPDemerging2026-08ContextBiasemerging2026-08GenFirstcore