The Future of Fully Homomorphic Encryption System: from a Storage I/O Perspective

📅 2025-11-07
📈 Citations: 1
Influential: 0
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🤖 AI Summary
Fully homomorphic encryption (FHE) enables computation on encrypted data, yet its practical deployment is severely constrained by storage I/O bottlenecks—an issue hitherto unaddressed in systematic studies. Method: This work presents the first storage-I/O–centric performance analysis of FHE systems, conducting fine-grained profiling on both ASIC and GPU platforms to quantify throughput and latency under varying I/O workloads. Contribution/Results: Experiments reveal that I/O overhead degrades ASIC performance by up to 357× and GPU performance by up to 22×. Based on these findings, we propose an I/O-aware hardware–software co-optimization paradigm, establishing I/O efficiency as a critical prerequisite for unlocking the full acceleration potential of FHE hardware. Our study provides novel architectural design principles and empirical evidence to guide future FHE system development.

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📝 Abstract
Fully Homomorphic Encryption (FHE) allows computations to be performed on encrypted data, significantly enhancing user privacy. However, the I/O challenges associated with deploying FHE applications remains understudied. We analyze the impact of storage I/O on the performance of FHE applications and summarize key lessons from the status quo. Key results include that storage I/O can degrade the performance of ASICs by as much as 357$ imes$ and reduce GPUs performance by up to 22$ imes$.
Problem

Research questions and friction points this paper is trying to address.

Analyzing storage I/O impact on Fully Homomorphic Encryption performance
Studying I/O challenges in deploying encrypted computation applications
Quantifying performance degradation in ASICs and GPUs from storage bottlenecks
Innovation

Methods, ideas, or system contributions that make the work stand out.

Analyzes storage I/O impact on FHE performance
Reveals ASIC performance degradation by 357 times
Shows GPU performance reduction by up to 22 times
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