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Efficient Video Face Enhancement with Enhanced Spatial-Temporal Consistency

CVPR 2025 · Video › Video segmentation and tracking · approach: Video restoration with temporal priors · 7 citations (OpenAlex)

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Proposes an efficient two-stage 3D-VQGAN with spatial-temporal codebooks and marginal prior regularization for blind video face restoration and video de-flickering.

Problem

Blind video face enhancement suffers from long processing times and inconsistent spatial-temporal effects such as flickering in restored face videos.

Approach

A 3D-VQGAN backbone with separate spatial and motion-aware temporal codebooks, a DINOv2-based multi-head discriminator, and a marginal prior KL regularizer that counts code usage via similarity scores to avoid codebook collapse; Stage II trains transformers to predict code indices from low-quality videos.

Key results

Measured effects reported in the paper

What was changedWhereMeasuredEffect
Use the proposed method instead of PGTFormerBlind face video restoration · VFHQ-TestSSIM: 0.8426 -> 0.8641Helped
Use the proposed method instead of PGTFormerBlind face video restoration · VFHQ-TestFVD: 107.6 -> 105.1Helped
Use the proposed method instead of PGTFormerBlind face video restoration · VFHQ-TestPSNR: 28.68 -> 27.47Hurt
Use the proposed method instead of DVPBrightness de-flickering · Brightness de-flickeringFlow-Score: 1.492 -> 1.100Helped
Use the proposed method instead of DVPPixel de-flickering · Pixel de-flickeringFlow-Score: 1.505 -> 1.063Helped
Use ViT-B CLIP rather than ViT-S DINOv2 as discriminator feature network (ablation)Stage I reconstruction · VFHQ-Test reconstructionSSIM: 0.9054 -> 0.8935Hurt
Fuse spatial and temporal latents with convolution projection instead of addition (ablation)Stage I reconstruction · VFHQ-Test reconstructionSSIM: 0.9054 -> 0.8799Hurt
Fuse spatial and temporal latents with 3DFFT instead of addition (ablation)Stage I reconstruction · VFHQ-Test reconstructionSSIM: 0.9054 -> 0.8741Hurt
Add adversarial loss (ablation)Stage I reconstruction · VFHQ-Test reconstructionSSIM: 0.8887 -> 0.8914Helped
Add marginal prior regularization (ablation)Stage I reconstruction · VFHQ-Test reconstructionSSIM: 0.8914 -> 0.9054Helped
Use MPR rather than no codebook regularization (ablation)Stage I codebooks · VFHQ-Test reconstructionSSIM: 0.8914 -> 0.9054Helped
Use MPR rather than PDR (ablation)Stage I codebooks · VFHQ-Test reconstructionSSIM: 0.9015 -> 0.9054Helped

Surprising findings

Limitations

Experimental setup

Datasets: VFHQ live broadcast dataset (self-collected)

Benchmarks: VFHQ-Test

Metrics: PSNR SSIM LPIPS AKD Face-Cons IDS FVD Flow-Score Runtime

Baselines: VQFR GFPGAN CodeFormer BasicVSR++ Real-BasicVSR PGTFormer KEEP FastBlend DVP NeuralAtlas

Builds on: VQGAN VQFR CodeFormer DINOv2

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