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Self-Supervised Facial Representation Learning with Facial Region Awareness

CVPR 2024 · Label-efficient and robust learning › Self-supervised and contrastive · approach: Invariance-based self-supervised learning · 25 citations (OpenAlex)

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Proposes Facial Region Awareness (FRA), a BYOL-based self-supervised facial pre-training framework that learns consistent global and local (facial-region) representations via learned heatmaps from facial mask embeddings, using a ResNet-50 backbone.

Problem

Learning general self-supervised facial representations for diverse facial analysis tasks; prior methods enforce only image-level consistency and overlook consistency of local facial regions.

Approach

Generate facial-region heatmaps by cosine similarity between per-pixel projected features and facial mask embeddings produced by a Transformer decoder from learnable positional queries; train these heatmaps via a deep-clustering-style pixel-to-cluster assignment loss between online and momentum networks, and enforce consistency of global and region-pooled embeddings across views.

Key results

Measured effects reported in the paper

What was changedWhereMeasuredEffect
add local consistency and semantic relation to global consistency (ablation)BYOL · RAF-DBaccuracy: 87.82 -> 88.72Helped
add local consistency and semantic relation to global consistency (ablation)BYOL · CelebAaccuracy: 90.63 -> 91.18Helped
add local consistency and semantic relation to global consistency (ablation)BYOL · 300WNME: 3.56 -> 3.14Helped
use only semantic relation instead of global consistency (ablation)FRA · RAF-DBaccuracy: 87.82 -> 85.34Hurt
use only semantic relation instead of global consistency (ablation)FRA · 300WNME: 3.56 -> 3.25Helped
use only local consistency instead of global consistency (ablation)FRA · RAF-DBaccuracy: 87.82 -> 87.46No clear effect
use only local consistency instead of global consistency (ablation)FRA · 300WNME: 3.56 -> 3.19Helped
increase heatmap count from 8 to 32 or 64 (ablation)FRA · RAF-DBaccuracy: 88.72 -> 88.36; 88.72 -> 88.18Hurt
increase heatmap count from 8 to 32 or 64 (ablation)FRA · CelebAaccuracy: 91.18 -> 91.01; 91.18 -> 90.98Hurt
set λr to 0.5 or 1.0 instead of 0.1 (ablation)FRA · RAF-DBaccuracy: 88.72 -> 88.45; 88.72 -> 88.08Hurt
set λr to 0.5 or 1.0 instead of 0.1 (ablation)FRA · CelebAaccuracy: 91.18 -> 91.04; 91.18 -> 90.46Hurt
increase Transformer decoder layers from 1 to 2 or 3 (ablation)FRA · RAF-DBaccuracy: 88.72 -> 89.01; 88.72 -> 89.06Helped

Surprising findings

Limitations

Experimental setup

Datasets: VGGFace2 FERPlus RAF-DB AffectNet CelebA WFLW 300W

Benchmarks: FERPlus RAF-DB AffectNet CelebA 300W WFLW

Metrics: top-1 accuracy averaged attribute accuracy NME failure rate AUC

Baselines: BYOL LEWEL PCL Bulat et al. MCF FaRL EAC SLPT ADNet STAR

Builds on: BYOL MaskFormer SwAV LEWEL

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