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Parameter Efficient Self-Supervised Geospatial Domain Adaptation

CVPR 2024 · Label-efficient and robust learning › Self-supervised and contrastive · approach: Self-supervision in supervised pipelines · 20 citations (OpenAlex)

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Adds Scaled Low-Rank (SLR) adapters to frozen ViT-L MAE-style remote sensing foundation models and self-supervisedly adapts them to new sensor modalities, then fine-tunes only 1-2% of parameters for downstream classification and segmentation.

Problem

Visual foundation models for remote sensing are pre-trained mainly on optical RGB/multispectral data, leading to distribution gaps for heterogeneous sensors (e.g., SAR); full fine-tuning is costly and fails on small labeled datasets.

Approach

Insert scaled low-rank adapters (input/output scaling vectors plus low-rank matrices) into the linear layers of frozen ViT MAE models, train them with masked autoencoding on unlabeled target-domain data, then use them for linear, scaling, or fine-tuning downstream tasks.

Key results

Measured effects reported in the paper

What was changedWhereMeasuredEffect
self-supervised SLR adapter training before linear evaluationMAE · 8 remote sensing datasets (average)accuracy: 63.46% to 69.83% (+6.37% absolute improvement)Helped
self-supervised SLR adapter training before linear evaluationSatMAE · 8 remote sensing datasets (average)accuracy: +2.93%Helped
self-supervised SLR adapter training before linear evaluationScale-MAE · 8 remote sensing datasets (average)accuracy: +3.68%Helped
use SLR adapter fine-tuning instead of full-model fine-tuningMAE · 8 remote sensing datasets (average)accuracy: +0.35%Helped
use SLR adapter fine-tuning instead of full-model fine-tuningSatMAE · 8 remote sensing datasets (average)accuracy: +1.12%Helped
use SLR adapter fine-tuning instead of full-model fine-tuningScale-MAE · 8 remote sensing datasets (average)accuracy: +1.49%Helped
use SLR Scale instead of full fine-tuningSatMAE · EuroSAT, k=10accuracy: +5%Helped
use SLR Scale instead of full fine-tuningMAE · EuroSAT-SAR, k=10accuracy: +10%Helped
use SLR adapter fine-tuning instead of full-model fine-tuningSatMAE · BENGE-8k Sentinel-1 SAR segmentationaccuracy: +2.36%Helped
replace SLR adapters with LoRA (ablation)ImageNet MAE adapted to SAR · EuroSAT-SARaccuracy: 85.86 ± 0.3 -> 87.14 ± 0.1Hurt
remove self-supervised adapter pre-training and train adapters from random initialization (ablation)SLR adapters · BENGE-8k, k=10accuracy: +6%Hurt
remove self-supervised adapter pre-training and train adapters from random initialization (ablation)SLR adapters · EuroSAT, k=10accuracy: +7%Hurt

Surprising findings

Limitations

Experimental setup

Datasets: EuroSAT RESISC45 FireRisk TreeSatAI EuroSAT-SAR BENGE-8k UCMerced

Benchmarks: EuroSAT RESISC45 FireRisk TreeSatAI EuroSAT-SAR BENGE-8k UCMerced

Metrics: accuracy average accuracy

Baselines: Linear evaluation full fine-tuning LoRA (IA)3 BitFit Norm tuning random-init SLR adapters

Builds on: masked autoencoder LoRA (IA)3 BitFit ScaleMAE SatMAE

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