LTX-Video-0.9.8-13B-distilled
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This is a video detailer model on top of `LTXV_13B_098_DEV` trained on custom data. IC LoRA is a method that enables adding video context into the video generation process. This approach allows for video-to-video control on top of the text-to-video model, providing more precise control over the generated content by conditioning the model on reference video frames during inference. comfy compatible model: ltxv-098-ic-lora-detailer-comfyui.safetensors
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kimi-k2.6-eagle3-mla is an Eagle3 MTP draft model with MLA (Multi-Latent Attention) for accelerating inference of Kimi-K2.6, trained with TorchSpec — an online speculative decoding training framework that runs FSDP training and inference concurrently. If you find this draft model useful, please give our project TorchSpec a star on GitHub. Compared with an MHA draft model, the MLA variant is a better fit for Kimi-K2.6 deployment: - Uses less KV cache, which reduces serving memory pressure. - Matches Kimi-K2.6's MLA architecture, so it fits more naturally into the inference engine's KV-cache handling under different serving scenarios such as PD-Disaggregation.
Draft model for speculative decoding on `moonshotai/Kimi-K3`, served with TokenSpeed (`--speculative-algorithm DFLASH`). Acceptance length `acc_len = 1 + accepted/steps` at 7 speculative proposals, served with TokenSpeed DFLASH on two GB300 nodes (8 GPUs, TP8), MLA target and drafter. Target is `moonshotai/Kimi-K3` with the serving flags shown at the bottom of this card. Production sampling only: `temperature=1.0`, `top_p=0.95`, reasoning effort `max`, no `top_k`. RULER multi-key needle retrieval over natural-text paragraphs, with only the input length varying. `retrieval` is exact match on the needle value, recorded so that acceptance cannot be credited to a model that has stopped reading its context.
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*From Official Models to Lightx2v Distilled Optimized Versions - Balancing Quality, Speed and Memory* For VAE, the LightX2V team has conducted a series of deep optimizations, deriving two major series: **LightVAE** and **LightTAE**, which significantly reduce memory consumption and improve inference speed while maintaining high quality. ✅ Best reconstruction accuracy ✅ Complete detail preservation ❌ Large memory usage (~8-12 GB) ❌ Slow inference speed
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> **An extremely efficient Wan 2.2 14B variant: NVFP4 Quantization-Aware Step Distillation with Sparse Attention for Blackwell Architecture** Follow the LightX2V environment setup and NVFP4 kernel installation. Use a Blackwell GPU with the required sparse-attention dependencies. In each launch script, set `lightx2v_path`, `model_path`, `CUDA_VISIBLE_DEVICES`, and the input/output paths. Keep `model_path` pointed at the complete corresponding Wan2.2 base model directory.
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