e-Health prototype system for cardiac telemonitoring

Escobar, Laura Juliana Vargas; Salinas, Sergio Alexander

doi:10.1109/embc.2016.7591702

Cited by 19 publications

(6 citation statements)

References 1 publication

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“…Previous works have reported some important benefits for patients in specific rehabilitation programs that use information and communication technologies. The outcomes are comparable to those obtained by the well-known face-to-face physiotherapy [14]- [17]. Since telerehabilitation systems are used in real clinical scenarios, several assistive technologies have been implemented using basic communication tools, e.g., healthcare assistance by videoconference [18].…”

Section: Overview Of Technologies For Telerehabilitationsupporting

confidence: 57%

Development and implementation of technologies for physical telerehabilitation in Latin America:

Narváez

Marín-Castrillón

Cuenca

et al. 2017

TecnoL.

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Telerehabilitation has arised by the inclusion of emerging technologies for capturing, transmitting, analyzing and visualizing movement patterns associated to musculoskeletal disorders. This therapeutic strategy enables to carry out diagnosis processes and provide rehabilitation treatments. This paper presents a systematic review of the current development and implementation of telerehabilitation technologies in Latin America. The main goal is to explore the scientific literature and dissemination sources to establish if such technologies have been introduced in this region. Likewise, this work highlights existing prototypes or systems that are to being used or that are still under development. A systematic search strategy was conducted by two different searches: the first one involves a rigorous literature search from the most relevant scientific digital repositories; the second one included telerehabilitation projects and programs retrieved by an advanced Google search. A total of 53 documents from six countries (Colombia, Brazil, Mexico, Ecuador, Chile and Argentina) were found. Most of them were focused on academic and research initiatives to develop in-home telerehabilitation technologies for pediatric and elderly populations affected by motor and functional impairment, cerebral palsy, neurocognitive disorders and stroke. The analysis of the findings revealed the need for a comprehensive approach that integrates health care and the social system to increase the current availability of telerehabilitation initiatives in Latin America.

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Section: Overview Of Technologies For Telerehabilitationsupporting

confidence: 57%

Development and implementation of technologies for physical telerehabilitation in Latin America:

Narváez

Marín-Castrillón

Cuenca

et al. 2017

TecnoL.

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“…Connectivity that will be used is wifi communication. Wifi is a wireless data communication medium that can be used by electronic devices to communicate using radio waves in the 2.4 GHz to 5 GHz range [14], [15]…”

Section: B Connectivitymentioning

confidence: 99%

Development of Temperature Control and Monitoring System for Precision Aquaculture Based on the Internet of Things

Akbar¹,

Fakhrurroja²,

Kusuma³

2023

Proceedings of the 1st International Conference on Sustainable Engineering Development and Technological Innovation, ICSEDTI 20

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The cultivation of cherax quadicarinatus is one of the aquaculture businesses with superior prospects. Meanwhile, it was also discovered that lobster has biological advantages, which include uncomplicated reproduction, adaptability, and are technically easy to cultivate with relatively high prices. Therefore, this study aimed to provide a monitoring system using the Antares Platform and a temperature control system that has not installed the Internet of Things (IoT). It is formed by three components, namely things, connectivity, and platform, which can be built in various ways according to the applications needs. Furthermore, each component has a different level of efficiency and effectiveness. The things component is divided into Sensors and Controllers. The DFRobot DS18B20, DS18B20, and Atlas Scientific (PT-1000) temperature sensors were discussed and compared. The results showed that there is a little difference between DFRobot DS18B20 and DS18B20, which are 23.9ºC and 24.0ºC, respectively, while the Atlas Scientific (PT-1000) has the large difference of 25.6ºC. Moreover, the controller, connectivity, and platform discussed ESP32, Wi-Fi, and the Antares Platform, respectively. Artemis is a prototype made for a temperature control system that does not have IoT installed. Based on the test results, the prototype maintained the spawning pond at an ideal temperature of 26ºC -28ºC, and the monitoring test was successfully sent to the Antares Platform.

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“…Iancu-Constantin et al proposed an approach which allows the physicians to monitor biometric data such as heart rate/oxygen saturation, ECG, and blood pressure acquired using a real-time eventbased engine [10]. In [11], an eHealth system has been developed for cardiac telemonitoring which uses a LinkIt ONE development board.…”

Section: Related Workmentioning

confidence: 99%

IoT-Based Ambulatory Vital Signs Data Transfer System

Misbahuddin

Zubairi

Al-Ahdal

et al. 2018

Journal of Computer Networks and Communications

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In emergencies or life-threatening situations, patients are generally shifted to hospitals in ambulances. The health conditions of on-board patients can become critical if they are not evaluated and treated in time. Chances of saving lives can increase significantly if patients’ vital signs inside an ambulance or on-site triage area are transferred to a hospital in real time. If the ambulances are linked to target hospitals, then the physicians in emergency rooms can monitor on-board patients’ vital signs and issue instructions to paramedics to stabilize patients’ medical conditions before they reach the assigned hospitals. Transferred vital signs data may also be archived for medical records. The Internet of things (IoT) is a paradigm which envisions Internet connectivity of virtually everything on the earth. In this paper, an IoT-based low-cost solution is proposed to monitor, archive, analyze, and tag the vital signs data of multiple patients and transfer them to the remote hospital in real time. This opens up a lot of possibilities in telemedicine and disaster management. As a proof of concept, the functionality of the proposed system was validated by developing a prototype model utilizing an IoT-enabled medical sensor board and a Linux server mimicking the remote hospital server. Results of actual data transmission obtained during experimentation are also provided. It is hoped that the proposed system can play a role in saving human lives in disaster situations.

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e-Health prototype system for cardiac telemonitoring

Cited by 19 publications

References 1 publication

Development and implementation of technologies for physical telerehabilitation in Latin America:

Development and implementation of technologies for physical telerehabilitation in Latin America:

Development of Temperature Control and Monitoring System for Precision Aquaculture Based on the Internet of Things

IoT-Based Ambulatory Vital Signs Data Transfer System

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