Nakamoto Consensus to Accelerate Supervised Classification Algorithms for Multiparty Computing

Bitcoin mining consumes tremendous amounts of electricity to solve the hash problem. At the same time, large-scale applications of artificial intelligence (AI) require efficient and secure computing. There are many computing devices in use, and the hardware resources are highly heterogeneous. This m...

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Main Authors: Zhen Zhang, Bing Guo, Yan Shen, Chengjie Li, Xinhua Suo, Hong Su
Format: Article
Language:English
Published: Hindawi-Wiley 2021-01-01
Series:Security and Communication Networks
Online Access:http://dx.doi.org/10.1155/2021/6629433
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spelling doaj-cbc7bcd26a714043aa7943faab8962172021-03-22T00:04:02ZengHindawi-WileySecurity and Communication Networks1939-01222021-01-01202110.1155/2021/6629433Nakamoto Consensus to Accelerate Supervised Classification Algorithms for Multiparty ComputingZhen Zhang0Bing Guo1Yan Shen2Chengjie Li3Xinhua Suo4Hong Su5College of Computer ScienceCollege of Computer ScienceSchool of Computer ScienceSchool of Computer Science and TechnologyCollege of Computer ScienceCollege of Computer ScienceBitcoin mining consumes tremendous amounts of electricity to solve the hash problem. At the same time, large-scale applications of artificial intelligence (AI) require efficient and secure computing. There are many computing devices in use, and the hardware resources are highly heterogeneous. This means a cooperation mechanism is needed to realize cooperation among computing devices, and a good calculation structure is required in the case of data dispersion. In this paper, we propose an architecture where devices (also called nodes) can reach a consensus on task results using off-chain smart contracts and private data. The proposed distributed computing architecture can accelerate computing-intensive and data-intensive supervised classification algorithms with limited resources. This architecture can significantly increase privacy protection and prevent leakage of distributed data. Our proposed architecture can support heterogeneous data, making computing on each device more efficient. We used mathematical formulas to prove the correctness and robustness of our system and deduced the condition to stop a given task. In the experiments, we transformed Bitcoin hash collision into distributed computing on several nodes and evaluated the training and prediction accuracy for handwritten digit images (MNIST). The experimental results demonstrate the effectiveness of the proposed method.http://dx.doi.org/10.1155/2021/6629433
collection DOAJ
language English
format Article
sources DOAJ
author Zhen Zhang
Bing Guo
Yan Shen
Chengjie Li
Xinhua Suo
Hong Su
spellingShingle Zhen Zhang
Bing Guo
Yan Shen
Chengjie Li
Xinhua Suo
Hong Su
Nakamoto Consensus to Accelerate Supervised Classification Algorithms for Multiparty Computing
Security and Communication Networks
author_facet Zhen Zhang
Bing Guo
Yan Shen
Chengjie Li
Xinhua Suo
Hong Su
author_sort Zhen Zhang
title Nakamoto Consensus to Accelerate Supervised Classification Algorithms for Multiparty Computing
title_short Nakamoto Consensus to Accelerate Supervised Classification Algorithms for Multiparty Computing
title_full Nakamoto Consensus to Accelerate Supervised Classification Algorithms for Multiparty Computing
title_fullStr Nakamoto Consensus to Accelerate Supervised Classification Algorithms for Multiparty Computing
title_full_unstemmed Nakamoto Consensus to Accelerate Supervised Classification Algorithms for Multiparty Computing
title_sort nakamoto consensus to accelerate supervised classification algorithms for multiparty computing
publisher Hindawi-Wiley
series Security and Communication Networks
issn 1939-0122
publishDate 2021-01-01
description Bitcoin mining consumes tremendous amounts of electricity to solve the hash problem. At the same time, large-scale applications of artificial intelligence (AI) require efficient and secure computing. There are many computing devices in use, and the hardware resources are highly heterogeneous. This means a cooperation mechanism is needed to realize cooperation among computing devices, and a good calculation structure is required in the case of data dispersion. In this paper, we propose an architecture where devices (also called nodes) can reach a consensus on task results using off-chain smart contracts and private data. The proposed distributed computing architecture can accelerate computing-intensive and data-intensive supervised classification algorithms with limited resources. This architecture can significantly increase privacy protection and prevent leakage of distributed data. Our proposed architecture can support heterogeneous data, making computing on each device more efficient. We used mathematical formulas to prove the correctness and robustness of our system and deduced the condition to stop a given task. In the experiments, we transformed Bitcoin hash collision into distributed computing on several nodes and evaluated the training and prediction accuracy for handwritten digit images (MNIST). The experimental results demonstrate the effectiveness of the proposed method.
url http://dx.doi.org/10.1155/2021/6629433
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