Implicit Neural Representations for Simultaneous Reduction and Continuous Reconstruction of Multi-Altitude Climate Data

The world is moving towards clean and renewable energy sources, such as wind energy, in an attempt to reduce green-house gas emissions that contribute to global warming. To enhance the analysis and storage of wind data, we introduce a deep learning framework designed to simultaneously enable effective dimensionality reduction and continuous representation of multi-altitude wind data from discrete observations. The framework consists of three key components: dimensionality reduction, cross-modal prediction, and super-resolution. We aim to: (1) improve data resolution across diverse climatic conditions to recover high-resolution details; (2) reduce data dimensionality for more efficient storage of large climate datasets; and (3) enable cross-prediction between wind data measured at different heights. Comprehensive testing confirms that our approach surpasses existing methods in both super-resolution quality and compression efficiency.

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Publication Details

Published
2024-09-22
DOI
https://doi.org/10.1109/mlsp58920.2024.10734742
Primary Topic
Advanced Image Processing Techniques
Type
article
Field-Weighted Citation Impact
0.00

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article

Implicit Neural Representations for Simultaneous Reduction and Continuous Reconstruction of Multi-Altitude Climate Data

Alif Bin Abdul Qayyum, Nathan M. Urban, Xihaier Luo, Xiaoning Qian et al.
Advanced Image Processing Techniques
article

Implicit Neural Representations for Simultaneous Reduction and Continuous Reconstruction of Multi-Altitude Climate Data

Alif Bin Abdul Qayyum, Nathan M. Urban, Xihaier Luo, Xiaoning Qian, Byung-Jun Yoon
article en

Abstract

The world is moving towards clean and renewable energy sources, such as wind energy, in an attempt to reduce green-house gas emissions that contribute to global warming. To enhance the analysis and storage of wind data, we introduce a deep learning framework designed to simultaneously enable effective dimensionality reduction and continuous representation of multi-altitude wind data from discrete observations. The framework consists of three key components: dimensionality reduction, cross-modal prediction, and super-resolution. We aim to: (1) improve data resolution across diverse climatic conditions to recover high-resolution details; (2) reduce data dimensionality for more efficient storage of large climate datasets; and (3) enable cross-prediction between wind data measured at different heights. Comprehensive testing confirms that our approach surpasses existing methods in both super-resolution quality and compression efficiency.

Brookhaven National Laboratory (US), Texas A&M University (US)
U.S. Department of Energy
Climate action
Openalex Percentile: Top 81%
Advanced Image Processing Techniques
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