Hot and Cold Data Migration Strategy Based on Newton’s Law of Cooling

We present a novel temperature-based data migration strategy for tiered storage systems that addresses the limitations of existing Newton’s Law of Cooling approaches. While current methods treat temperature increase from data access as a constant, our approach introduces a logistic function-based model that dynamically adjusts temperature increases based on access patterns. This enhancement prevents artificial temperature inflation during burst accesses and better reflects real-world data access behaviors. Experimental results show our Temperature Migration Strategy (TMS) achieves superior identification effectiveness compared to LRU-2 and ARC across various configurations, with particular resilience to sudden access pattern changes. The proposed solution demonstrates superior stability under extreme workloads, with only a 3.4% average performance degradation compared to 31.2% in traditional approaches. Our work provides a robust foundation for efficient hot/cold data management in modern storage hierarchies, particularly beneficial for OLTP systems with skewed access patterns.

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Publication Details

Published
2024-12-20
DOI
https://doi.org/10.1109/dsit61374.2024.10881624
Citations
2
Primary Topic
Computational Physics and Python Applications
Type
article
Field-Weighted Citation Impact
0.69
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article

Hot and Cold Data Migration Strategy Based on Newton’s Law of Cooling

H. Lin, Asli Pinar Tan, Song Wei
2 citations
Computational Physics and Python Applications
0.69
article

Hot and Cold Data Migration Strategy Based on Newton’s Law of Cooling

H. Lin, Asli Pinar Tan, Song Wei
article en
2 citations

Abstract

We present a novel temperature-based data migration strategy for tiered storage systems that addresses the limitations of existing Newton’s Law of Cooling approaches. While current methods treat temperature increase from data access as a constant, our approach introduces a logistic function-based model that dynamically adjusts temperature increases based on access patterns. This enhancement prevents artificial temperature inflation during burst accesses and better reflects real-world data access behaviors. Experimental results show our Temperature Migration Strategy (TMS) achieves superior identification effectiveness compared to LRU-2 and ARC across various configurations, with particular resilience to sudden access pattern changes. The proposed solution demonstrates superior stability under extreme workloads, with only a 3.4% average performance degradation compared to 31.2% in traditional approaches. Our work provides a robust foundation for efficient hot/cold data management in modern storage hierarchies, particularly beneficial for OLTP systems with skewed access patterns.

Beijing Institute of Technology (CN)
Reduced inequalities
Openalex Percentile: Top 22%
Computational Physics and Python Applications
0.69
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Hot and Cold Data Migration Strategy Based on Newton’s Law of Cooling — H. Lin, Asli Pinar Tan, et al. · (2024) | TGRS Research Map | TGRS