Unsupervised learning for hyperspectral image segmentation
- Project and Master Subjects 2024-2025
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Past Projects
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Project and Master Subjects 2023-2024
- Multi-satellite data fusion for ocean color remote sensing
- Multimodal ocean color imaging with UAVs
- Hyperspectral super-resolution for ecosystem monitoring in fjords
- Semisupervised algae monitoring from hyperspectral satellites
- Prediction of algal bloom dynamics using ocean simulations
- Sharpening Hyperspectral Remote Sensing Data from Miniaturized Imagers
- MIMO model for water constituents using HYPSO-1 data
- Detection of Large Ships using HYPSO-1 Hyperspectral Remote Sensing Satellite Data
- Unsupervised learning for hyperspectral image segmentation
- Optimal Data Reduction in Miniaturized Hyperspectral Imaging Sensor
- HYPSO-2: Software-defined-radio (SDR) payload integration for HYPSO-2
- Automation of operations for the HYPSO-1 satellite
- Designing a Software-defined-radio (SDR) application experiment for communication between on-ground sensor systems
- HYPSO-3 Mission analysis
- Software Development for CubeSat Payloads for HYPSO-3
- Project and master assignments 2022
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Project and Master Subjects 2023-2024
Unsupervised learning for hyperspectral image segmentation
This project aims to investigate unsupervised learning techniques for efficient hyperspectral image segmentation. The project will explore clustering and dimensionality reduction methods to efficiently process large and high-dimensional datasets, emphasizing graph-based approaches. Goals: - Develop a comprehensive understanding of unsupervised learning techniques for hyperspectral image segmentation through literature review. - Develop new approaches to identify modes and coresets in the pixel distribution (i.e., subset of most representative pixels) by exploring the potential of combining multiple graph-based features and similarity measures such as the minimax distance or the number of shared nearest neighbours. Tasks: - Conduct a literature review on unsupervised learning techniques for hyperspectral image analysis. - Implement clustering and dimensionality reduction methods, focusing on graph-based approaches. - Create a new methodology to combine multiple graph-based features for efficient mode detection and coreset identification. - Analyse and evaluate the performance of the developed methods using real-world remote sensing data. - Prepare a report detailing the methods, results, and conclusions of the project.
Links
Le Moan, Steven, and Claude Cariou. "Minimax bridgeness-based clustering for hyperspectral data." Remote Sensing 12.7 (2020): 1162.
Contact
steven.lemoan@ntnu.no