IoT Based Heart Activity Monitoring Using Inductive Sensors

Brezulianu, Adrian; Geman, Oana; Zbancioc, Marius Dan; Hagan, Marius; Aghion, C.; Hemanth, D. Jude; Sơn, Lê Hoàng

doi:10.3390/s19153284

Cited by 51 publications

(21 citation statements)

References 34 publications

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“…Moreover, data acquired will be sent to the remote doctors with low cost, and also ensure the physical status continuously and real-time [32]. Example-a planner inductive sensing component (flat spiral) that is installed to the clothes to detect parameters like heart-rate and respiration [33]. And more example using RZF (Rectangular Zig Fractional) antenna to monitoring ECG with the help of IoT, as shown in fig.…”

Section: Ecg Monitoringmentioning

confidence: 99%

Pharma 4.0–IMPACT of the Internet of Things on Health Care

2020

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The IoT in health care is currently booming in the world of health care in particular. Industry has risen from generation 1.0 to 4.0 during the Internet of things period. As we remember, we came across the exact submission of the traditional health care system. Each time the patient has needed to visit the clinic/hospitals, even for small complications that may affect the patient's medical costs along with time and energy. One more significant factor is also an emergency; otherwise, she/he/older population was unable to demand urgent assistance from the older system of healthcare. And yet somehow, the situation has changed with the use of the cyber-physical world; we are heading out of the 4th phase of the health care industry means smart health care network. This paper offers an insight into different facets of how healthcare systems such as doctors, hospitals, and of course, patients are powered by the internet of things and how can it track and ensure fast, quality, and efficient use of less time also in a smart way. Here, a patient knows how to track patients by using a collection of different wearable sensor nodes for real-time monitoring and examination of specific patient criteria. One of the most boosting subjects characterizes the development of medical technology within their own homes, enabling older or physically weak people to stay as long as possible at home while being medically cared for and monitored. We searched literature and guidelines in Pubmed, Web of Science, Google Scholar, Scopus, CNKI, and Embase databases up to 2019. The following search terms alone or matched with the Boolean operators ‘AND’ or ‘OR’ were used: "Nanoparticles", “Anticancer treatment", ‘Bioflavonoids’, ‘Plant origin drugs’, ‘Nano formulations’, ‘Cancer’ and ‘Novel drug delivery systems’. We focused on full-text articles, but abstracts were considered if relevant.

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Section: Ecg Monitoringmentioning

confidence: 99%

Pharma 4.0–IMPACT of the Internet of Things on Health Care

2020

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“…The work of the authors in [6], presented an experimental model to assess the mechanical activity of the heart, employing the use of an inductive sensors that are worn in the clothe fabrics. In the proposed system, a single sensor is placed in the clothes' frontside fabric and senses the cardiorespiratory activity.…”

Section: Related Workmentioning

confidence: 99%

“…Therefore, an approach for a dedicated monitoring and control of parameters for the heart activity is essential. An integrated system that combines electrocardiography, mobile devices and wearable heart sensor is a new approach to monitor the heart activity [6].…”

Section: Introductionmentioning

confidence: 99%

An IoT-Based Smart Framework for a Human Heartbeat Rate Monitoring and Control System

Abba¹,

Garba²

2019

The 6th International Electronic Conference on Sensors and Applications

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This research paper presents the design and implementation of an internet of things (IoT) based smart framework for human heartbeat rate monitoring and control system. A comprehensive study of various techniques and technologies that are used in controlling the heartbeat rate is explored. The proposed system was designed and implemented on a breadboard with the various system components that are assembled, connected and tasted. Experimental results obtained from the implemented prototype were found to be accurate, as the system was able to sense and read the heartbeat rate of its user and transmits the sensed data through the internet. The system components were soldered on a breadboard, and cased inside a plastic container with the heart pulse sensor stretched, so as to be clipped on the finger tip of the system's user. Experimental results demonstrate that the resting heartbeat rate of children below the age of 17 is between 65 to 115 beats per minute (BPM) and the resting heartbeat rate of an adult between the ages of 17 to 60 is 60 to100 BPM. In addition, the resting heartbeat rate of old people who are sixty years old and above, their heartbeat rate is between 65 to 120 BPM respectively. These findings are in agreement with the state-of-theart in the medical field. Furthermore, this research paper, presents an approach that is flexible, reliable, and confidential for heart beat rate monitoring and control system using sensor network and IoT technology which can be deployed to the medical field to assist the medical practitioners in doing their work easily.

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“…To improve the biosensor sensitivity, recently, magnetic nanoparticles (MNP) were produced as labels for biosensing. For the biosensing purpose, different types of biosensors were produced, such as giant-magnetoresistive (GMR) sensors and spin valves (SV) cantilevers [14,15], inductive sensors [16], superconducting quantum interference devices (SQUIDs) [17], anisotropic-magnetoresistive (AMR) rings, and miniature Hall crosses [18]. The detection of biological molecules is usually achieved by using biomolecular recognition between the target molecule and a specific receptor as, for example, an antibody that is tagged with a label.…”

Section: Introductionmentioning

confidence: 99%

Development of Novel Magneto-Biosensor for Sulfapyridine Detection

et al. 2020

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In this work, we report the development of a highly sensitive biosensor for sulfapyridine detection based on an integrated bio micro-electromechanical system (Bio-MEMS) containing four gold working electrodes (WEs), a platinum counter electrode (CE), and a reference electrode (RE). Firstly, the cleaned WEs were modified with 4-aminophenylacetic acid (CMA). Then, (5-[4-(amino)phenylsulfonamide]-5-oxopentanoic acid (SA2BSA) was immobilized onto the transducers surface by carbodiimide chemistry. The analyte was quantified by competitive detection with SA2BSA immobilized on the WE toward a mixture of Ab155 antibody (with fixed concentration) and sulfapyridine. In order to obtain a highly sensitive biosensor, Ab155 was immobilized onto magnetic latex nanoparticles surface to create a 3D architecture (Ab-MLNp). Using electrochemical impedance spectroscopy (EIS), we investigated the influence of the Ab-MLNp on the sensitivity of our approach. The optimized system was analyzed, as competitive assay, with different concentrations of sulfapyridine (40 µM, 4 µM, and 2 nM) and with phosphate buffer solution. From data fitting calculations and graphs, it was observed that the EIS showed more linearity when Ab-MLNp was used. This result indicates that the magnetic latex nanoparticles increased the sensitivity of the biosensor.

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IoT Based Heart Activity Monitoring Using Inductive Sensors

Cited by 51 publications

References 34 publications

Pharma 4.0–IMPACT of the Internet of Things on Health Care

Pharma 4.0–IMPACT of the Internet of Things on Health Care

An IoT-Based Smart Framework for a Human Heartbeat Rate Monitoring and Control System

Development of Novel Magneto-Biosensor for Sulfapyridine Detection

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