VAE Lyra XL Adaptive Cantor
Multi-modal Variational Autoencoder for SDXL text embedding transformation using adaptive Cantor fractal fusion with learned alpha (visibility) and beta (capacity) parameters.
Modellquelle
- Art
- Other
- Dateigröße
- 1,51 GB
- Version
- vRevision 5f93ebf
- Aktualisiert
- 9. Okt. 2026
- Downloads
- 15
- Quelle
- Hugging Face
Quellenbeschreibung
VAE Lyra 🎵 - Adaptive Cantor Edition
Multi-modal Variational Autoencoder for SDXL text embedding transformation using adaptive Cantor fractal fusion with learned alpha (visibility) and beta (capacity) parameters.
Fuses CLIP-L, CLIP-G, and decoupled T5-XL scales into a unified latent space.
Model Details
- Fusion Strategy: adaptive_cantor
- Latent Dimension: 2048
- Training Steps: 78,750
- Best Loss: 0.2336
Learned Parameters
Alpha (Visibility):
- clip_g: 0.7291
- clip_l: 0.7280
- t5_xl_g: 0.7244
- t5_xl_l: 0.7161
Beta (Capacity):
- clip_l_t5_xl_l: 0.5726
- clip_g_t5_xl_g: 0.5744
Architecture
- Modalities (with sequence lengths):
- CLIP-L (768d @ 77 tokens) - SDXL text_encoder
- CLIP-G (1280d @ 77 tokens) - SDXL text_encoder_2
- T5-XL-L (2048d @ 512 tokens) - Auxiliary for CLIP-L
- T5-XL-G (2048d @ 512 tokens) - Auxiliary for CLIP-G
- Encoder Layers: 3
- Decoder Layers: 3
- Hidden Dimension: 1024
- Cantor Depth: 8
- Local Window: 3
Key Features
Adaptive Cantor Fusion
- Cantor Fractal Routing: Sparse attention based on fractal coordinate mapping
- Learned Alpha (Visibility): Per-modality parameters controlling latent space usage (tied to KL divergence)
- Learned Beta (Capacity): Per-binding-pair parameters controlling source influence strength
Decoupled T5 Scales
- T5-XL-L binds specifically to CLIP-L (weight: 0.3)
- T5-XL-G binds specifically to CLIP-G (weight: 0.3)
- Independent T5 representations allow specialized semantic enrichment per CLIP encoder
Variable Sequence Lengths
- CLIP: 77 tokens (standard)
- T5: 512 tokens (extended context for richer semantic capture)
SDXL Compatibility
This model outputs both CLIP embeddings needed for SDXL:
clip_l: [batch, 77, 768] → text_encoder outputclip_g: [batch, 77, 1280] → text_encoder_2 output
T5 information is encoded into the latent space and influences both CLIP outputs through learned binding weights.
Usage
from geovocab2.train.model.vae.vae_lyra import MultiModalVAE, MultiModalVAEConfig
from huggingface_hub import hf_hub_download
import torch
# Download model
model_path = hf_hub_download(
repo_id="AbstractPhil/vae-lyra-xl-adaptive-cantor",
filename="model.pt"
)
# Load checkpoint
checkpoint = torch.load(model_path)
# Create model
config = MultiModalVAEConfig(
modality_dims={
"clip_l": 768,
"clip_g": 1280,
"t5_xl_l": 2048,
"t5_xl_g": 2048
},
modality_seq_lens={
"clip_l": 77,
"clip_g": 77,
"t5_xl_l": 512,
"t5_xl_g": 512
},
binding_config={
"clip_l": {"t5_xl_l": 0.3},
"clip_g": {"t5_xl_g": 0.3},
"t5_xl_l": {},
"t5_xl_g": {}
},
latent_dim=2048,
fusion_strategy="adaptive_cantor",
cantor_depth=8,
cantor_local_window=3
)
model = MultiModalVAE(config)
model.load_state_dict(checkpoint['model_state_dict'])
model.eval()
# Use model - train on all four modalities
inputs = {
"clip_l": clip_l_embeddings, # [batch, 77, 768]
"clip_g": clip_g_embeddings, # [batch, 77, 1280]
"t5_xl_l": t5_xl_l_embeddings, # [batch, 512, 2048]
"t5_xl_g": t5_xl_g_embeddings # [batch, 512, 2048]
}
# For SDXL inference - only decode CLIP outputs
recons, mu, logvar, per_mod_mus = model(inputs, target_modalities=["clip_l", "clip_g"])
# Use recons["clip_l"] and recons["clip_g"] with SDXL
Training Details
- Trained on 10,000 diverse prompts
- Mix of LAION flavors (85%) and synthetic prompts (15%)
- KL Annealing: True
- Learning Rate: 0.0001
- Alpha Init: 1.0
- Beta Init: 0.3
Citation
@software{vae_lyra_adaptive_cantor_2025,
author = {AbstractPhil},
title = {VAE Lyra: Adaptive Cantor Multi-Modal Variational Autoencoder},
year = {2025},
url = {https://huggingface.co/AbstractPhil/vae-lyra-xl-adaptive-cantor}
}
Quellen
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Modellartefakte
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Quellenauszüge
3 Auszüge--- tags: - vae - multimodal - text-embeddings - clip - t5 - sdxl - stable-diffusion - adaptive-cantor - geometric-fusion license: mit --- # VAE Lyra 🎵 - Adaptive Cantor Edition Multi-modal Variational Autoencoder for SDXL text embedding transformation using adaptive Cantor fractal fusion with learned alpha (visibility) and beta (capacity) parameters. Fuses CLIP-L, CLIP-G, and decoupled T5-XL scales into a unified latent space. ## Model Details - **Fusion Strategy**: adaptive_cantor - **Latent Dimension**: 2048 - **Training Steps**: 78,750 - **Best Loss**: 0.2336 ## Learned Parameters **Alpha (Visibility):** - clip_g: 0.7291 - clip_l: 0.7280 - t5_xl_g: 0.7244 - t5_xl_l: 0.7161 **Beta (Capacity):** - clip_l_t5_xl_l: 0.5726 - clip_g_t5_xl_g: 0.5744 ## Architecture - **Modalities** (with sequence lengths): - CLIP-L (768d @ 77 tokens) - SDXL text_encoder - CLIP-G (1280d @ 77 tokens) - SDXL text_encoder_2 - T5-XL-L (2048d @ 512 tokens) - Auxiliary for CLIP-L - T5-XL-G (2048d @ 512 tokens) - Auxiliary for CLIP-G - **Encoder Layers**: 3 - **Decoder Layers**: 3 - **Hidden Dimension**: 1024 - **Cantor Depth**: 8 - **Local Window**: 3 ## Key Features ### Adaptive Cantor Fusion - **Cantor Fractal Routing**: Sparse attention based on fractal coordinate mapping - **Learned Alpha (Visibility)**: Per-modality parameters controlling latent space usage (tied to KL divergence) - **Learned Beta (Capacity)**: Per-binding-pair parameters controlling source influence strength ### Decoupled T5 Scales - T5-XL-L binds specifically to CLIP-L (weight: 0.3) - T5-XL-G binds specifically to CLIP-G (weight: 0.3) - Independent T5 representations allow specialized semantic enrichment per CLIP encoder ### Variable Sequence Lengths - CLIP: 77 tokens (standard) - T5: 512 tokens (extended context for richer semantic capture) ## SDXL Compatibility This model outputs both CLIP embeddings needed for SDXL: - `clip_l`: [batch, 77, 768] → text_encoder output - `clip_g`: [batch, 77, 1280] → text_encoder_2 output T5 information is encoded into the latent space and influences both CLIP outputs through learned binding weights. ## Usage ```python from geovocab2.train.model.vae.vae_lyra import MultiModalVAE, MultiModalVAEConfig from huggingface_hub import hf_hub_download import torch # Download model model_path = hf_hub_download( repo_id="AbstractPhil/vae-lyra-xl-adaptive-cantor...
Source context: 15 downloads · 1 likes · Repo AbstractPhil/vae-lyra-xl-adaptive-cantor
Source context: 25 downloads · 1 likes · Repo AbstractPhil/vae-lyra-xl-adaptive-cantor
