在智能医疗行业的边缘环境中使用机器学习进行有效的资源预测

IF 4.3 3区 材料科学 Q1 ENGINEERING, ELECTRICAL & ELECTRONIC ACS Applied Electronic Materials Pub Date : 2024-05-30 DOI:10.1007/s10723-024-09768-0
Guangyu Xu, Mingde Xu
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引用次数: 0

摘要

最近的现代计算和数字化转型趋势提供了一个可在早期预测疾病的智能医疗系统。在医疗保健服务中,基于物联网(IoT)的模型在加强数据处理和检测方面发挥着至关重要的作用。随着物联网的发展,处理数据需要更多空间。传输病人报告需要耗费大量时间和精力,从而导致高延迟和高能耗。为了克服这一问题,边缘计算是一种解决方案。数据在边缘层进行分析,以提高利用率。本文利用物联网和边缘计算提出了有效的资源分配预测和预测模型,适用于医疗保健应用。所提议的系统由三个模块组成:使用过滤方法进行数据预处理;使用深度 Q 网络进行资源分配;使用优化的 DL 模型(DBN-LSTM)进行预测阶段的蛙跳优化。使用训练健康数据集对 DL 模型进行训练,然后预测目标区域。利用物联网层的传感数据对其进行了测试,预计病人的健康状况将采取适当的行动。通过使用边缘设备进行及时预测,医生和患者可以方便地采取必要行动。该系统的主要目标是通过提高服务质量(QoS)指标,如时间跨度(makespan)、ARU、LBL、TAT 和准确率,确保低延迟。由于深度强化学习方法在资源分配方面获得了广泛认可,因此该系统采用了这种方法。与最先进的方法相比,所提出的系统通过提高平均资源利用率和负载平衡减少了时间跨度,适用于对患者健康状况进行准确的实时分析。
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An Effective Prediction of Resource Using Machine Learning in Edge Environments for the Smart Healthcare Industry

Recent modern computing and trends in digital transformation provide a smart healthcare system for predicting diseases at an early stage. In healthcare services, Internet of Things (IoT) based models play a vital role in enhancing data processing and detection. As IoT grows, processing data requires more space. Transferring the patient reports takes too much time and energy, which causes high latency and energy. To overcome this, Edge computing is the solution. The data is analysed in the edge layer to improve the utilization. This paper proposed effective prediction of resource allocation and prediction models using IoT and Edge, which are suitable for healthcare applications. The proposed system consists of three modules: data preprocessing using filtering approaches, Resource allocation using the Deep Q network, and prediction phase using an optimised DL model called DBN-LSTM with frog leap optimization. The DL model is trained using the training health dataset, and the target field is predicted. It has been tested using the sensed data from the IoT layer, and the patient health status is expected to take appropriate actions. With timely prediction using edge devices, doctors and patients conveniently take necessary actions. The primary objective of this system is to secure low latency by improving the quality of service (QoS) metrics such as makespan, ARU, LBL, TAT, and accuracy. The deep reinforcement learning approach is employed due to its considerable acceptance for resource allocation. Compared to the state-of-the-art approaches, the proposed system obtained reduced makespan by increasing the average resource utilization and load balancing, which is suitable for accurate real-time analysis of patient health status.

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4.30%
发文量
567
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