Routes 3D ResNets PyTorch video action-recognition workflows across training, inference, and data preparation.
日本語の概要は準備中です。原文の説明を表示しています。
Routes official FlashVSR diffusion-based streaming video super-resolution setup, model preparation, and CUDA inference for v1 and v1.1.
インストールする前に、エージェントに与えられる指示の中身を確認できます。
Use this repo skill when a task involves the official OpenImagingLab FlashVSR
implementation, diffsynth FlashVSR pipelines, one-step streaming video
super-resolution, Locality-Constrained Sparse Attention (LCSA), the
block_sparse_attn backend, v1/v1.1 model bundles, or A100-oriented inference.
It is an operating guide for inference, not a training, dataset, or third-party
ComfyUI skill.
FlashVSR is primarily a 4x video restoration pipeline. The official
conditioning tensor is RGB bfloat16 in [-1, 1] with shape [1, 3, F, H, W].
Prepare the source with bicubic 4x scaling, center-crop each spatial dimension
to a positive multiple of 128, and use a streaming frame count F = 8n + 1.
The expected model output is [3, F-4, H, W]; it is converted to RGB uint8
frames and encoded as an MP4 at the source FPS.
The LCSA backend is not optional for the official masked streaming path. Before expensive inference, require:
python -c "from block_sparse_attn import block_sparse_attn_func; print('LCSA import OK')"
A CUDA-enabled PyTorch import alone is not sufficient. The target profile verified for this skill is Python 3.11, PyTorch 2.6.0+cu124, CUDA 12.4, and NVIDIA A100 SM80. Other GPUs or CPU execution are not equivalent verification.
tiled=True when full
VAE decode is the bottleneck.cfg_scale=1.0, if_buffer=True, kv_ratio=3.0,
local_range=11, color_fix=True, and a sparse ratio of 2.0. Recompute
topk_ratio = sparse_ratio * 768 * 1280 / (H * W) for every geometry.The generated skill is self-contained runtime guidance and safe diagnostics; it
never downloads weights or depends on the original checkout at runtime. Install
the public diffsynth package and its pinned CUDA requirements according to
install.md, build
Block-Sparse-Attention separately, and package the version-matched projection,
TCDecoder, and positive-context support in the application that executes
inference. Do not treat third-party integrations as the official path.
Static API, geometry, frame-plan, weight-contract, and diagnostic-script checks are complete. Native LCSA kernel, real checkpoint loading, full/tiny/tiny-long GPU inference, OOM recovery, and MP4 reopen checks must remain explicitly reported as native candidates until executed with real weights. Read the final verification report under the configured test artifact directory for the exact status; this production run does not import the skill into the managed router.
まだレビューはありません。使ってみた感想をお寄せください。
概要と使いどころ
Routes 3D ResNets PyTorch video action-recognition workflows across training, inference, and data preparation.
日本語の概要は準備中です。原文の説明を表示しています。
Guide 3DDFA Python inference, geometry rendering, training/evaluation, and optional C++ ONNX workflows for 3D dense face alignment.
日本語の概要は準備中です。原文の説明を表示しています。
Routes 3DDFA_V2 face-alignment setup, still-image demos, video tracking, and ONNX benchmarking workflows.
日本語の概要は準備中です。原文の説明を表示しています。
Operate AB3DMOT 3D multi-object tracking workflows for KITTI and nuScenes data, tracking, evaluation, and visualization.
日本語の概要は準備中です。原文の説明を表示しています。
Use Hugging Face Accelerate for PyTorch training-loop migration, distributed launch/configuration, DeepSpeed/FSDP/TPU backend setup, big-model inference/offload, checkpointing, tracking, and troubleshooting.
日本語の概要は準備中です。原文の説明を表示しています。
Route Acme reinforcement-learning framework tasks across core loops, replay/data, JAX agents, and TensorFlow/Sonnet agents.
日本語の概要は準備中です。原文の説明を表示しています。