期刊
IEEE ACCESS
卷 8, 期 -, 页码 75822-75832出版社
IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC
DOI: 10.1109/ACCESS.2020.2989143
关键词
Medical services; Biomedical imaging; Wireless communication; Senior citizens; Batteries; Reliability; Real-time systems; Deep learning; elderly healthcare; cost-effective; intelligent systems; IoMT; reliability
资金
- Research grant of PIFI 2020 [2020VBC0002]
- FCT [UID/EEA/50008/2019]
- Beijing Municipal Natural Science Foundation [4172006]
- Guangdong Province Key Research and Development Plan [2019B010137004]
- Guangdong Province Universities and Colleges Pearl River Scholar Funded Scheme (2019)
- Programa Operacional Regional do Centro (CENTRO 2020), through the Sistema de Apoio a Investigacao Cientifica e Tecnologica Programas Integrados de ICDT
- Technologies and Equipment Guangdong Education Bureau Fund [2017KTSCX166]
- Science and Technology Innovation Committee Foundation of Shenzhen [JCYJ201708171 12037041, ZDSYS201703031748284002E]
- [010145-FEDER-000019-C4]
Deep learning (DL) driven cardiac image processing methods manage and monitor the massive medical data collected by the internet of things (IoT) based on wearable devices. A Joint DL and IoT platform are known as Deep-IoMT that extracts the accurate cardiac image data from noisy conventional devices and tools. Besides, smart and dynamic technological trends have caught the attention of every corner such as, healthcare, which is possible through portable and lightweight sensor-enabled devices. Tiny size and resource-constrained nature restrict them to perform several tasks at a time. Thus, energy drain, limited battery lifetime, and high packet loss ratio (PLR) are the keys challenges to be tackled carefully for ubiquitous medical care. Sustainability (i.e., longer battery lifetime), energy efficiency, and reliability are the vital ingredients for wearable devices to empower a cost-effective and pervasive healthcare environment. Thus, the key contribution of this paper is the sixth fold. First, a novel self-adaptive power control-based enhanced efficient-aware approach (EEA) is proposed to reduce energy consumption and enhance the battery lifetime and reliability. The proposed EEA and conventional constant TPC are evaluated by adopting real-time data traces of static (i.e., sitting) and dynamic (i.e., cycling) activities and cardiac images. Second, a novel joint DL-IoMT framework is proposed for the cardiac image processing of remote elderly patients. Third, DL driven layered architecture for IoMT is proposed. Forth, the battery model for IoMT is proposed by adopting the features of a wireless channel and body postures. Fifth, network performance is optimized by introducing sustainability, energy drain, and PLR and average threshold RSSI indicators. Sixth, a Use-case for cardiac image-enabled elderly patient's monitoring is proposed. Finally, it is revealed through experimental results in MATLAB that the proposed EEA scheme performs better than the constant TPC by enhancing energy efficiency, sustainability, and reliability during data transmission for elderly healthcare.
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