Stable Diffusion

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founded 3 years ago
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This is a copy of /r/stablediffusion wiki to help people who need access to that information


Howdy and welcome to r/stablediffusion! I'm u/Sandcheeze and I have collected these resources and links to help enjoy Stable Diffusion whether you are here for the first time or looking to add more customization to your image generations.

If you'd like to show support, feel free to send us kind words or check out our Discord. Donations are appreciated, but not necessary as you being a great part of the community is all we ask for.

Note: The community resources provided here are not endorsed, vetted, nor provided by Stability AI.

#Stable Diffusion

Local Installation

Active Community Repos/Forks to install on your PC and keep it local.

Online Websites

Websites with usable Stable Diffusion right in your browser. No need to install anything.

Mobile Apps

Stable Diffusion on your mobile device.

Tutorials

Learn how to improve your skills in using Stable Diffusion even if a beginner or expert.

Dream Booth

How-to train a custom model and resources on doing so.

Models

Specially trained towards certain subjects and/or styles.

Embeddings

Tokens trained on specific subjects and/or styles.

Bots

Either bots you can self-host, or bots you can use directly on various websites and services such as Discord, Reddit etc

3rd Party Plugins

SD plugins for programs such as Discord, Photoshop, Krita, Blender, Gimp, etc.

Other useful tools

#Community

Games

  • PictionAIry : (Video|2-6 Players) - The image guessing game where AI does the drawing!

Podcasts

Databases or Lists

Still updating this with more links as I collect them all here.

FAQ

How do I use Stable Diffusion?

  • Check out our guides section above!

Will it run on my machine?

  • Stable Diffusion requires a 4GB+ VRAM GPU to run locally. However, much beefier graphics cards (10, 20, 30 Series Nvidia Cards) will be necessary to generate high resolution or high step images. However, anyone can run it online through DreamStudio or hosting it on their own GPU compute cloud server.
  • Only Nvidia cards are officially supported.
  • AMD support is available here unofficially.
  • Apple M1 Chip support is available here unofficially.
  • Intel based Macs currently do not work with Stable Diffusion.

How do I get a website or resource added here?

*If you have a suggestion for a website or a project to add to our list, or if you would like to contribute to the wiki, please don't hesitate to reach out to us via modmail or message me.

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Injects reference image features into Anima's DiT via decoupled cross-attention, enabling character-consistent image generation.

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Use with LTX-2.3 IC workflows to add color to black and white footage. It is not perfect by any means but for the best results I recommend to:

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Abstract

Diffusion models achieve state-of-the-art image synthesis, with their generative trajectories fundamentally exhibiting a spectral bias, resolving low-frequency global structures early and high-frequency fine details later. Conventional stochastic differential equation (SDE) solvers fail to account for this dynamic, naively injecting uniform white noise throughout the entire process and misusing the finite energy budget. In this work, we establish a mathematical framework that reconsiders SDE inference as a targeted, frequency-decoupled energy transfer. Leveraging this framework, we introduce Colored Noise Sampling (CNS), a novel, training-free stochastic solver. Rather than injecting uniform white noise, CNS utilizes a dynamic, timestep- and frequency-dependent schedule that more efficiently allocates injected energy toward structurally unresolved frequency bands. By actively exploiting the model's inherent spectral bias, CNS systematically steers the generated distribution toward the true data manifold. Extensive experiments demonstrate that CNS significantly outperforms standard ODE and SDE baselines as a strictly plug-and-play, inference-time sampler substitution across diverse architectures (SiT, JiT, FLUX). Compared to standard sampling on ImageNet-256, CNS achieves substantial unguided FID reductions, improving from 8.26 to 6.27 on SiT-XL/2, 32.39 to 26.69 on JiT-B/16, and 11.88 to 8.31 on JiT-H/16, while yielding consistent relative FID improvements with Classifier-Free Guidance. Project page is available at this https URL.

Paper: https://arxiv.org/abs/2605.30332

Code: https://github.com/hadardavidson/colored-noise-sampling

Project Page: https://hadardavidson.github.io/CNS/

Basic Comfy UI Implementation for Flux: https://github.com/IIs-fanta/ComfyUI-CNS-Sampler-CHENGOU

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Abstract

Joint audio-video generation aims to synthesize temporally synchronized and semantically coherent visual-acoustic content. However, existing open-source methods mainly rely on either dual-tower designs with posterior alignment or fully unified tri-modal designs that mix textual context, audio and video in one shared space. The former weakens fine-grained audio-video co-evolution, while the latter couples semantic conditioning with low-level synchronization. To address these limitations, we propose NAVA, a Native Audio-Visual Alignment framework for joint audio-video generation. NAVA is built upon context-conditioned native audio-visual alignment: it first establishes audio-video correspondence in a dedicated interaction space, and then uses external context to condition the joint denoising process. Specifically, NAVA is instantiated with an Align-then-Fuse MMDiT architecture, which transitions from modality-aware audio-video alignment to modality-shared joint denoising. Furthermore, we introduce Timbre-in-Context Conditioning to associate reference timbre cues with corresponding speech spans to achieve controllable speech timbre. Experiments on Verse-Bench and Seed-TTS, together with a user study, demonstrate that NAVA achieves superior video quality, precise audio-visual synchronization, competitive audio quality, and stronger reference-timbre controllability using only 6.3B parameters.

Paper: https://arxiv.org/abs/2605.30073

Code: https://github.com/ernie-research/NAVA

Model: https://huggingface.co/ernie-research/NAVA

Project Page: https://ernie-research.github.io/NAVA/

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Abstract

Diffusion transformers (DiTs) have emerged as a dominant architecture for text-to-image generation, yet their performance drops when generating at resolutions beyond their training range. Existing training-free approaches mitigate this by modifying inference-time attention behavior, often through Rotary Position Embeddings (RoPE) extrapolation combined with attention scaling. However, these strategies apply a uniform and content-agnostic scaling across RoPE components with distinct frequency characteristics, inducing a trade-off between preserving global structure and recovering fine detail. We introduce SEGA, a training-free method that dynamically scales attention across RoPE components according to the latent's spatial-frequency structure at each denoising step. This adaptive scaling improves both structural coherence and fine-detail fidelity. Experiments show that SEGA consistently improves high-resolution synthesis across multiple target resolutions, outperforming state-of-the-art training-free baselines.

Paper: https://arxiv.org/abs/2605.22668

Hugging Face: https://huggingface.co/papers/2605.22668

Blog:

Project Page: https://rajabi2001.github.io/sega/

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