A temperature
noise correction method for
CMOS space cameras based on attention mechanisms and LSTM is presented. This method relates to the field of optical
remote sensing technology, specifically to the field of temperature
noise correction for
CMOS space cameras. The core of the method is the use of a multi-level Long Short-
Term Memory (LSTM) network with an attention mechanism to explore how temperature changes affect the
noise performance of
CMOS space cameras under two different operating conditions: dark and bright fields. This
deep learning model possesses powerful autonomous learning capabilities, capable of mining and understanding complex noise patterns hidden within massive amounts of data, thereby improving the accuracy of noise identification and calibration. Its key
advantage lies in its end-to-end learning approach, automatically learning and establishing a deep, nonlinear relationship between temperature and noise directly from the
raw data, without requiring manual intervention for
feature extraction or designing complex correction algorithms. This significantly enhances the model's generalization ability and adaptability to unseen data scenarios.