A Framework for Compressing Unstructured Scientific Data via Serialization

We present a general framework for compressing unstructured scientific data with known local connectivity. A common application is simulation data defined on arbitrary finite element meshes. The framework employs a greedy topology preserving reordering of original nodes which allows for seamless integration into existing data processing pipelines. This reordering process depends solely on mesh connectivity and can be performed offline for optimal efficiency. However, the algorithm’s greedy nature also supports on-the-fly implementation. The proposed method is compatible with any compression algorithm that leverages spatial correlations within the data. The effectiveness of this approach is demonstrated on a large-scale real dataset using several compression methods, including MGARD, SZ, and ZFP.

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Published
2024-12-15
DOI
https://doi.org/10.1109/bigdata62323.2024.10825570
Primary Topic
Advanced Data Storage Technologies
Type
article
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article

A Framework for Compressing Unstructured Scientific Data via Serialization

Richard Archibald, Qian Gong, Viktor Reshniak, Norbert Podhorszki et al.
Advanced Data Storage Technologies
article

A Framework for Compressing Unstructured Scientific Data via Serialization

Richard Archibald, Qian Gong, Viktor Reshniak, Norbert Podhorszki, Scott Klasky
article en

Abstract

We present a general framework for compressing unstructured scientific data with known local connectivity. A common application is simulation data defined on arbitrary finite element meshes. The framework employs a greedy topology preserving reordering of original nodes which allows for seamless integration into existing data processing pipelines. This reordering process depends solely on mesh connectivity and can be performed offline for optimal efficiency. However, the algorithm’s greedy nature also supports on-the-fly implementation. The proposed method is compatible with any compression algorithm that leverages spatial correlations within the data. The effectiveness of this approach is demonstrated on a large-scale real dataset using several compression methods, including MGARD, SZ, and ZFP.

Oak Ridge National Laboratory (US)
Openalex Percentile: Top 70%
Advanced Data Storage Technologies
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