Few-Shot Domain Adaptation with Temporal References and Static Priors for Glacier Calving Front Delineation
Marcel Dreier, Nora Gourmelon, Dakota Pyles, Thorsten Seehaus, Matthias H. Braun, Andreas Maier, Vincent Christlein

TL;DR
This paper presents a few-shot domain adaptation method that significantly improves glacier calving front delineation accuracy at new sites by leveraging static priors and summer references, enabling scalable global monitoring.
Contribution
It introduces a novel few-shot domain adaptation framework with static priors and seasonal references, enhancing glacier calving front delineation in out-of-distribution settings without changing model architecture.
Findings
Delineation error reduced from 1131.6 m to 68.7 m
Method enables accurate calving front monitoring at new sites
Framework applicable for global glacier monitoring
Abstract
During benchmarking, the state-of-the-art model for glacier calving front delineation achieves near-human performance. However, when applied in a real-world setting at a novel study site, its delineation accuracy is insufficient for calving front products intended for further scientific analyses. This site represents an out-of-distribution domain for a model trained solely on the benchmark dataset. By employing a few-shot domain adaptation strategy, incorporating spatial static prior knowledge, and including summer reference images in the input time series, the delineation error is reduced from 1131.6 m to 68.7 m without any architectural modifications. These methodological advancements establish a framework for applying deep learning-based calving front segmentation to novel study sites, enabling calving front monitoring on a global scale.
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Taxonomy
TopicsCryospheric studies and observations · Arctic and Antarctic ice dynamics · Winter Sports Injuries and Performance
