The seed is a coordinate.
A seed deterministically selects the initial noise. Both paths begin at the same point, so changing the seed moves both through the same latent coordinate system.
Hold the latent seed fixed. Change how strongly two synthetic denoisers share dominant spectral directions. Then measure what their outputs actually have in common.
The outputs below are generated in your browser. Similarity and overlap are calculated from the rendered arrays, not prewritten values.
Preparing the shared latent...
Conceptual synthetic simulator. It illustrates the shared-spectrum mechanism named in the post; it does not reproduce the cited paper, its datasets, or a trained diffusion model.
Random matrices can have universal large-scale spectral behavior even when their microscopic entries differ. In this lab, the analogy becomes visible.
A seed deterministically selects the initial noise. Both paths begin at the same point, so changing the seed moves both through the same latent coordinate system.
When high-energy spectral directions align, broad composition can converge even while dataset-specific textures remain different.
More denoising steps strengthen shared low-frequency structure. Lower alignment lets distinct training textures dominate instead.
Different random systems can share stable macroscopic spectral patterns. That is the conceptual bridge behind this experiment.
Matching structure does not by itself show that either path stored an image. Here, every pixel is constructed from the current seed and controls.
This is a teaching model, not evidence about the exact ICML result. It makes one proposed mechanism inspectable and falsifiable inside the toy system.