Using Wearable Sensors for Remote Healthcare Monitoring System

Abidoye, Ademola P.; Azeez, Nureni Ayofe; Adesina, Ademola Olusola; Agbele, Kehinde K.; Nyongesa, Henry O.

doi:10.4236/jst.2011.12004

Cited by 51 publications

(13 citation statements)

References 12 publications

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“…Also, in [5] a brief outline is given about the working of various sensors and their coast is compared with their effectiveness. In [6] tested various sensors to find their workability in real world because sensors in real world can be fragile and nonfunctionable. They compared data rate and proximity of their working.…”

Section: Chapter 2: Related Work Donementioning

confidence: 99%

Design of seamless communication channel for IoT equipped quarantine centers Post Covid 19 Outbreak

Bhatt¹,

Yadav²

2020

IJETMS

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In the last few decades, our population has grown at a tremendous rate. This unsustainably high rate of growth becomes a major issue for healthcare centers. Not only are they already quite limited in numbers, but their own rate of growth is nowhere close to the population growth rate. Thus, due to these mentioned factors, there now exists a tremendous demand for Industrial health IoT services post COVID 19 outbreaks. These services involve a patient getting treatment within the comfort of their own home environment. To do this, an existing healthcare center can very well be transformed into an Industrial health IoT service center. This can be achieved with the help of various emerging, modern technologies such as IoT, which stands for 'Internet of Things'. This model is based upon the overall health of a patient and involves realizing symptoms with the help of mobile devices and multichannel technology. The main idea behind this project is to introduce a set of systems to support a patient and his/her family. Thus, we can increase the independence of a patient, and can provide a lot of support to families of critically-ill patients. These systems are skilled enough to understand various changes in bodily functions and can easily relate them to various diseases. They can also prescribe medications accordingly and automatically.

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Section: Chapter 2: Related Work Donementioning

confidence: 99%

Design of seamless communication channel for IoT equipped quarantine centers Post Covid 19 Outbreak

Bhatt¹,

Yadav²

2020

IJETMS

View full text Add to dashboard Cite

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“…Otto et al [10] also describe a system for ECG monitoring that uses a PDA and nodes based on TinyOS [11] which is an event based operating system designed for low power nodes and sensors. Milenković et al [12] discuss Wearability, Communication Reliability, Security and Interoperability as the four main considerations for the development of a mobile monitoring system Abidoye et al [13] discuss a theoretical three tier system. The first tier consists of collecting data locally onto a Medical Super Sensor.…”

Section: A Research From An Electronics Perspectivementioning

confidence: 99%

A Non-invasive Wireless Monitoring Device for Children and Infants in Pre-Hospital and Acute Hospital Environments

Winderbank-Scott

Barnaghi

2017

2017 IEEE International Conference on Internet of Things (iThings) and IEEE Green Computing and Communications (GreenCom) and I

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This paper describes the design and development of a wireless monitoring system for use within a pediatric environment. The current wired methods used to provide noninvasive sensing are not best suited to their end user, and there is a development need for platform independent data transmission. The main goal has been to develop a practical and flexible proof-of-concept prototype suitable for the transmission of sensor data. This prototype consists of an Arduino based multi-input sensor system with wireless transmission, and an Android monitoring station with the facility to rebroadcast the collected data via email/web as a data file. This was achieved using commercially available hardware platforms. The software produced for the Android device allows for full control of the functionality provided by the sensor platform developed on the Arduino system, as well as storing the data within a relational database. The data can also be graphically represented in realtime on the Android device.

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“…The rapid growth in micro/nano sensors, low-power integrated circuits, and mobile communication has enabled a new generation of wireless body sensor network, now used for purposes such as monitoring health and diagnosing diseases [1]. The BSNs field is an interdisciplinary area which could allow inexpensive and continuous health monitoring.…”

Section: Introductionmentioning

confidence: 99%

Integration of micro sensors with mobile devices for monitoring vital signs of sleep apnea patients

Zhu

Cao

Que

2014

The 9th IEEE International Conference on Nano/Micro Engineered and Molecular Systems (NEMS)

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Body Sensor Networks (BSNs) integrating micro sensor nodes with wireless communication are becoming flourishing in medical applications. This paper demonstrates a BSN-based portable monitor integrating micro sensors with mobile devices for monitoring and diagnosing obstructive sleep apnea syndrome (OSAS) at home. The system uses a micro hotfilm flow sensor to detect respiratory flow, uses tri-axis micro accelerometer to detect body posture and motion intensity, and uses a micro photoelectric sensor to detect oxygen saturation of blood. The real-time vital signs are detected and transmitted wirelessly to a mobile device. The transmitted data are processed and analyzed in the mobile device and can be further transmitted to a remote medical center and physicians through mobile cellular networks or Internet for comprehensively analyzing, assessing, and diagnosing to the diseases.

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Using Wearable Sensors for Remote Healthcare Monitoring System

Cited by 51 publications

References 12 publications

Design of seamless communication channel for IoT equipped quarantine centers Post Covid 19 Outbreak

Design of seamless communication channel for IoT equipped quarantine centers Post Covid 19 Outbreak

A Non-invasive Wireless Monitoring Device for Children and Infants in Pre-Hospital and Acute Hospital Environments

Integration of micro sensors with mobile devices for monitoring vital signs of sleep apnea patients

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