Lumen Studios
AI video studio · research-driven · prototype

The power
you want.

An AI video studio built by one creator — with Claude as assistant and researcher, turning careful questions into proposals, research, and the hours of engineering behind every release.

The method, on repeat — one strong idea, one pipeline, one iteration. Improved and expanded through research alone.

See the work Read the lab log Backend prototype — access opening soon
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How it's built

A working loop, not a launch.

No team, no roadmap theatre — a single, repeatable rhythm. The creator asks; research answers; one pipeline gets one honest iteration better.

01 · ASK

Thoughtful questions

The creator poses precise, testable questions — the kind that move one thing forward.

02 · RESEARCH

Claude assists

Claude researches, weighs options, and drafts proposals — the hours of legwork, on tap.

03 · BUILD

One pipeline

A single idea becomes a single pipeline. No sprawl, no half-finished forks.

04 · ITERATE

Prove or drop

Each change is benched and looked at. It ships, or it goes in the failed column — honestly.

The hardware

What's a "T4"?

Every Lumen clip is rendered on a T4 — a graphics chip that lives in a data center, and one Lumen borrows for free. Here's the gist, in plain terms.

01 · THE CHIP

A little AI engine

An NVIDIA T4 — a GPU built for inference (running trained models, not training them). 16 GB of memory, 320 Tensor Cores, and it sips just 70 watts.

02 · THE RACK

Hundreds, humming

Data centers stack rows of them in servers, wired together with high-speed links (PCIe / NVLink) — quiet aisles of compute you never see.

03 · LUMEN'S SLICE

One, borrowed free

Lumen owns none of it. It borrows a single T4, for free, through Google Colab — and that one chip is what turns your prompt into video.

ArchitectureNVIDIA Turing · 12 nm
Memory16 GB GDDR6
Tensor Cores320
Power70 W
Built forAI inference

Simplified for the gist. Technically the T4 is an NVIDIA chip that Google (and others) offer in the cloud — not a "Google chip." And that 16 GB of memory is Lumen's ceiling: it's the exact reason clips render at 480p and not 4K — the whole model has to fit inside it.

Showcase

Reels, coming soon.

These stay blank on purpose. A reel goes up only when a clip earns it — looked at frame by frame, not just measured. Placeholder until then.

Reel 01coming soon
Reel 02coming soon
Reel 03coming soon
Open questions

What we're actually chasing.

Real questions pulled from the build log — some answered, some still open. This is the frontier the studio is working, in plain terms.

R‑01

Can hidden physics priors — Verlet dynamics, momentum, restitution — steer a photoreal model's motion while never showing geometry?→ shipped as a hidden conditioning layer; realism intact.

R‑02

Why does the 16 GB memory wall behave identically on a T4 GPU and a v5e‑1 TPU — and what does that say about the real bottleneck in video diffusion?→ it's memory, not compute. Same wall, different silicon.

R‑03

A sequential Mixture‑of‑Experts lets a "27 B" model run on a card that shouldn't fit it. How low can the active footprint really go?→ open — one 14 B expert resident at a time fits 16 GB.

R‑04

Is CFG distillation genuinely lossless — two guidance passes collapsed into one at no quality cost?→ ~lossless on the low‑noise pass; the high‑noise pass still needs guidance.

R‑05

Where is the "fuzziness floor" — the fewest inference steps before video breaks down?→ ~4 steps with distillation; below that it turns to mush.

R‑06

Late‑clip face smear — is it lighting noise, or the image‑to‑video chain compounding softness across hops?→ the chain. Denoise made it worse, not better.

R‑07

Where does a clip's "old‑film" character come from — the model, or a highlight rolloff that accidentally mimics film's shoulder?→ both; the rolloff is a controllable style, not a defect.

The lab log

Proved & failed — kept honest.

Most studios show only the wins. The failed column is the point: it's what a research‑first process actually looks like.

✓ Proved
No‑GPU physics render.Full 10 s clips, zero seams, ~42× faster than the GPU chain (orbit, pendulum).
CFG distillation ≈ lossless.~2× faster by collapsing two guidance passes into one; benched.
14 B is the 16 GB sweet spot.Fits ~10 GB, visibly sharper than the 5 B — no bigger card needed.
The "smear" was blown highlights.Not noise. An 80% highlight rolloff separated subject from background.
Close‑up "dots" were VAE dither.A targeted denoise cleared them without waxing the face.
Federated ntfy restored auto‑connect.Routed around a hard IP block — hands‑free worker adoption again.
Prompt→sound vector router.Held‑out F1 lifted 0.00 → 0.62 with a dictionary layer.
✕ Failed / dead ends
ESRGAN upscaling.Plastic, over‑sharpened faces. Cut.
Crossfade seam‑blending.Compounding re‑encodes; the quality leak, not the fix.
Heavy denoise for face smear.Made faces waxier, not sharper — verified frame by frame.
LTX as the base model.Motion too shallow and jittery. Replaced by Wan.
27 B at 720 p on a T4.Activations OOM. Needs a bigger card or a TPU pod.
4‑step, cfg = 1 distillation.Blurry motion. Fix: 8 steps + guidance on the high‑noise expert.