ArrayMorph: Optimizing Hyperslab Queries on the Cloud for Machine Learning Pipelines

Cloud storage services such as Amazon S3, Azure Blob Storage, and Google Cloud Storage are widely used to store raw data for machine learning applications. When the data is later processed, the analysis predominantly focuses on regions of interest (such as a small bounding box in a larger image) and discards uninteresting regions. Machine learning applications can significantly accelerate their I/O if they push this data filtering step to the cloud. Prior work has proposed different methods to partially read array (tensor) objects, such as chunking, reading a contiguous byte range, and evaluating a lambda function. No method is optimal; estimating the total time and cost of a data retrieval requires an understanding of the data serialization order, the chunk size and platform-specific properties. This paper introduces ArrayMorph, a cloud-based array data storage system that automatically determines which is the best method to use to retrieve regions of interest from data on the cloud. ArrayMorph formulates data accesses as hyperslab queries, and optimizes them using a multi-phase cost-based approach. ArrayMorph seamlessly integrates with Python/PyTorch-based ML applications, and is experimentally shown to transfer up to 9.8X less data than existing systems. This makes ML applications run up to 1.7X faster and 9X cheaper than prior solutions.

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Publication Details

Journal
Proceedings of the VLDB Endowment
Published
2025-05-01
DOI
https://doi.org/10.14778/3746405.3746437
Primary Topic
Cloud Computing and Resource Management
Type
article
Field-Weighted Citation Impact
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article

ArrayMorph: Optimizing Hyperslab Queries on the Cloud for Machine Learning Pipelines

Spyros Blanas, Ruochen Jiang
1 links
Proceedings of the VLDB Endowment
Cloud Computing and Resource Management
article

ArrayMorph: Optimizing Hyperslab Queries on the Cloud for Machine Learning Pipelines

Spyros Blanas, Ruochen Jiang
article en

Abstract

Cloud storage services such as Amazon S3, Azure Blob Storage, and Google Cloud Storage are widely used to store raw data for machine learning applications. When the data is later processed, the analysis predominantly focuses on regions of interest (such as a small bounding box in a larger image) and discards uninteresting regions. Machine learning applications can significantly accelerate their I/O if they push this data filtering step to the cloud. Prior work has proposed different methods to partially read array (tensor) objects, such as chunking, reading a contiguous byte range, and evaluating a lambda function. No method is optimal; estimating the total time and cost of a data retrieval requires an understanding of the data serialization order, the chunk size and platform-specific properties. This paper introduces ArrayMorph, a cloud-based array data storage system that automatically determines which is the best method to use to retrieve regions of interest from data on the cloud. ArrayMorph formulates data accesses as hyperslab queries, and optimizes them using a multi-phase cost-based approach. ArrayMorph seamlessly integrates with Python/PyTorch-based ML applications, and is experimentally shown to transfer up to 9.8X less data than existing systems. This makes ML applications run up to 1.7X faster and 9X cheaper than prior solutions.

Proceedings of the VLDB EndowmentVol. 18(9)
The Ohio State University (US)
Openalex Percentile: Top 65%
Cloud Computing and Resource Management
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