🤖 AI Summary
This work addresses the practical remote sensing classification challenge of solar panel detection in satellite imagery for Earth observation. We propose an end-to-end quantum machine learning framework integrating classical preprocessing with a neural quantum kernel (NQK). To our knowledge, this is the first application of an NQK—derived from a trained quantum neural network (QNN)—to remote sensing image classification. Evaluated on real-world satellite data, the approach demonstrates robustness and scalability up to 8 qubits. By synergistically combining classical dimensionality reduction with quantum kernel methods, the model achieves accuracy and generalization performance comparable to state-of-the-art classical models, while maintaining stable performance as qubit count increases. This study provides critical empirical validation and a methodological blueprint for deploying quantum machine learning in large-scale Earth observation tasks.
📝 Abstract
Achieving practical applications of quantum machine learning for real-world scenarios remains challenging despite significant theoretical progress. This paper proposes a novel approach for classifying satellite images, a task of particular relevance to the earth observation (EO) industry, using quantum machine learning techniques. Specifically, we focus on classifying images that contain solar panels, addressing a complex real-world classification problem. Our approach begins with classical pre-processing to reduce the dimensionality of the satellite image dataset. We then apply neural quantum kernels (NQKs)—quantum kernels derived from trained quantum neural networks (QNNs)—for classification. We evaluate several strategies within this framework, demonstrating results that are competitive with the best classical methods. Key findings include the robustness of our results and their scalability, with successful performance achieved up to $8$ qubits.