QSIH: Design of a Novel QoS-Aware Sidechain- Based IoT Network Design for Secure Healthcare Deployments

Q4 Computer Science
Pooja Mishra, Sandeep Malik
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引用次数: 0

Abstract

– Internet of Medical Things (IoMT) are networks which are targeted towards design of healthcare communication interfaces with low latency and high security. In order to design such interfaces, efficient models for data encryption, hashing, privacy, and quality of service (QoS) awareness are needed. A wide variety of standard medical interfaces are proposed by researchers, which assist in reducing network redundancies for high-throughput and low latency communications. These interfaces also implement security models that ensure data encryption & privacy. But due to incorporation of encryption methods, QoS performance of the IoMT devices reduces, which limits their real-time usability for in-patient monitoring & treatment. In order to improve IoMT QoS while maintaining high security, this text proposes design of QSIH, which is a QoS-aware sidechain model that can be used for securing IoMT networks. The proposed model describes design of a blockchain-based data storage & communication interface, which is capable of removing a wide variety of network attacks. The delay needed for communication in any blockchain-based interface increases exponentially w.r.t. number of blocks added to the system. In order to reduce this delay, a novel machine learning model based on Genetic Algorithm optimization is proposed. The proposed model splits the main blockchain into multiple shards in a QoS-aware manner, thereby ensuring low delay, and high communication throughput. The shards (or sidechains) are managed using an interactive Q-Learning (IQL), which is able to expand or contract these chains depending upon network’s QoS performance. Sidechains which are unused for large periods of time are combined together, and archived for future reference. The archived sidechains are formed from main blockchain, and are merged with other sidechains depending upon archival requirements of the network. Due to such a dynamic side chaining model, the proposed QSIH model is capable of reducing network communication delay by 18%, increase throughput by 14%, reduce storage cost by 5%, while maintaining high level of security & privacy in the network. The model was tested under different IoMT scenarios, and it was observed that it showcased consistent performance across different network emulations.
QSIH:一种新的基于QoS感知的侧链物联网设计,用于安全的医疗部署
-医疗物联网(IoMT)是针对低延迟和高安全性的医疗保健通信接口设计的网络。为了设计这样的接口,需要有效的数据加密、散列、隐私和服务质量(QoS)感知模型。研究人员提出了各种各样的标准医疗接口,这些接口有助于减少高吞吐量和低延迟通信的网络冗余。这些接口还实现了确保数据加密和隐私的安全模型。但由于采用了加密方法,IoMT设备的QoS性能降低,限制了其对住院患者监测和治疗的实时可用性。为了在保证高安全性的同时提高IoMT的QoS,本文提出了一种基于QoS感知的侧链模型QSIH的设计,该模型可用于IoMT网络的安全保护。所提出的模型描述了基于区块链的数据存储和通信接口的设计,该接口能够消除各种网络攻击。在任何基于区块链的接口中,通信所需的延迟都是以指数方式增加的。为了减少这种延迟,提出了一种基于遗传算法优化的机器学习模型。该模型以qos感知的方式将主区块链划分为多个分片,从而保证了低延迟和高通信吞吐量。分片(或侧链)使用交互式Q-Learning (IQL)进行管理,它能够根据网络的QoS性能扩展或收缩这些链。长时间未使用的侧链被合并在一起,并存档以备将来参考。归档侧链由主区块链组成,并根据网络的归档需求与其他侧链合并。由于这种动态侧链模型,所提出的QSIH模型能够将网络通信延迟降低18%,吞吐量提高14%,存储成本降低5%,同时保持网络的高度安全性和隐私性。该模型在不同的IoMT场景下进行了测试,并观察到它在不同的网络模拟中显示出一致的性能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
International Journal of Computer Networks and Applications
International Journal of Computer Networks and Applications Computer Science-Computer Science Applications
CiteScore
2.30
自引率
0.00%
发文量
40
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