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📄 Abstract
Abstract: In the multimedia domain, Infrared Small Target Detection (ISTD) plays a
important role in drone-based multi-modality sensing. To address the dual
challenges of cross-domain shift and heteroscedastic noise perturbations in
ISTD, we propose a doubly wavelet-guided Invariance learning
framework(Ivan-ISTD). In the first stage, we generate training samples aligned
with the target domain using Wavelet-guided Cross-domain Synthesis. This
wavelet-guided alignment machine accurately separates the target background
through multi-frequency wavelet filtering. In the second stage, we introduce
Real-domain Noise Invariance Learning, which extracts real noise
characteristics from the target domain to build a dynamic noise library. The
model learns noise invariance through self-supervised loss, thereby overcoming
the limitations of distribution bias in traditional artificial noise modeling.
Finally, we create the Dynamic-ISTD Benchmark, a cross-domain dynamic
degradation dataset that simulates the distribution shifts encountered in
real-world applications. Additionally, we validate the versatility of our
method using other real-world datasets. Experimental results demonstrate that
our approach outperforms existing state-of-the-art methods in terms of many
quantitative metrics. In particular, Ivan-ISTD demonstrates excellent
robustness in cross-domain scenarios. The code for this work can be found at:
https://github.com/nanjin1/Ivan-ISTD.
Key Contributions
This paper proposes Ivan-ISTD, a framework for Infrared Small Target Detection that addresses cross-domain shifts and heteroscedastic noise. It introduces Wavelet-guided Cross-domain Synthesis and Real-domain Noise Invariance Learning, leveraging wavelet filtering and a dynamic noise library to improve robustness and overcome distribution bias in noise modeling.
Business Value
Enhancing the reliability of small target detection in infrared imagery is critical for applications like autonomous driving, surveillance, and search and rescue, improving safety and operational effectiveness.