Bouaziz et al. (2026) Deep Learning for Spatio-Temporal Fusion in Land Surface Temperature Estimation: A Comprehensive Survey, Experimental Analysis, and Future Trends
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Identification
- Journal: Remote Sensing
- Year: 2026
- Date: 2026-01-15
- Authors: Sofiane Bouaziz, Adel Hafiane, Rachid Nedjaï
- DOI: 10.3390/rs18020289
Research Groups
Not explicitly mentioned in the provided text.
Short Summary
This study reviews deep learning-based spatio-temporal fusion (STF) methods for Land Surface Temperature (LST), addressing the limitations of existing surface reflectance-oriented techniques and introducing a new LST dataset for benchmarking.
Objective
- To provide a focused review of deep learning-based spatio-temporal fusion methods for Land Surface Temperature (LST), formally define the thermal fusion task, propose a refined taxonomy, and analyze necessary adaptations for existing models.
Study Configuration
- Spatial Scale: Satellite sensor resolutions, typically ranging from tens of metres (e.g., Landsat at 30 m) to kilometres (e.g., MODIS at 1 km).
- Temporal Scale: Satellite sensor revisit periods, typically ranging from daily (e.g., MODIS) to multi-day (e.g., Landsat at 16 days). The dataset spans 11 years (2013-2024).
Methodology and Data
- Models used: Deep learning-based spatio-temporal fusion (STF) methods (reviewed and evaluated).
- Data sources: 51 pairs of Land Surface Temperature (LST) data from Terra MODIS and Landsat satellites.
Main Results
- A formal mathematical definition of the thermal spatio-temporal fusion task.
- A refined taxonomy of deep learning methods relevant for LST spatio-temporal fusion.
- An analysis of modifications required to adapt surface reflectance-oriented models for LST.
- Introduction of a new dataset comprising 51 Terra MODIS-Landsat LST pairs covering 2013 to 2024.
- Evaluation of representative models to understand their performance on thermal data.
Contributions
- First focused review of deep learning-based spatio-temporal fusion methods specifically for Land Surface Temperature.
- Establishment of a formal mathematical definition for the LST thermal fusion task.
- Development of a refined taxonomy for deep learning methods in LST spatio-temporal fusion.
- Detailed analysis of necessary adaptations for existing surface reflectance-oriented models to LST.
- Creation and release of a new, publicly available dataset (51 Terra MODIS-Landsat LST pairs, 2013-2024) to facilitate reproducibility and benchmarking in LST spatio-temporal fusion research.
Funding
Not explicitly mentioned in the provided text.
Citation
@article{Bouaziz2026Deep,
author = {Bouaziz, Sofiane and Hafiane, Adel and Canals, Raphaël and Nedjaï, Rachid},
title = {Deep Learning for Spatio-Temporal Fusion in Land Surface Temperature Estimation: A Comprehensive Survey, Experimental Analysis, and Future Trends},
journal = {Remote Sensing},
year = {2026},
doi = {10.3390/rs18020289},
url = {https://doi.org/10.3390/rs18020289}
}
Original Source: https://doi.org/10.3390/rs18020289