Development of Smartband to Monitor from Home the Vital Signs for Patients with SARS COV 2 Through a Mobile Application from the Central Military Hospital (HOMIL) Bogota 2020

Gacharna, Tito Alberto Nuncira; Ostos, Adriana Beltran; Gonzalez, Monica Andrea Lopez; Pallares, Joaquin Jose Avila; Zuluaga, Valentina Romero; Castro, Natalia Andrea Duran; Amaya, Erick David Daleman; Rojas, Yeison Javier Fonseca; Silva, Hernando Hernandez; Forero, John Alvaro Rueda; Laguna, Joffre Alejandro Guzman; Anaya, Angel Jesus Estrada; Rivera, Maria E.; amado, Holman David Vasquez; Vasquez, Vanessa Hernandez

doi:10.1109/ghtc46280.2020.9342962

Cited by 5 publications

(1 citation statement)

References 5 publications

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“…Normal oxygen saturation is between 95% -100%, if the oxygen saturation level is below 94% then it is called hypoxemia [10]. Even when ambient factors alter, a healthy body can maintain a steady body temperature [11]. A patient's average body temperature determines how quickly their heart pumps blood throughout their body, which means that even a small fluctuation in body temperature can severely damage cardiac function [4].…”

Section: Introductionmentioning

confidence: 99%

Monitoring SpO2, Heart Rate, and Body Temperature on Smartband with Data Sending Use IoT Displayed on Android (SpO2)

Anggraini,

Irianto,

Wisana

et al. 2023

j.teknokes

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The patient's health must not deteriorate if treatment is not started right away if they show indications of a disease. Monitoring is the most important thing that needs to be done to ascertain the patient's state, especially for those with lung illness who have asthma and pneumonia with moderate symptoms. SpO2, BPM, and body temperature are vital signs that can be used as indicators of a person's degree of health. The main goal of this project was to create wearable devices index finger then a wrist-worn devices that can measure SpO2, Heart rate, and body temperature in real time, regardless of distance, and alert users' smartphones when a patient's condition is abnormal. The body temperature is measured using the MLX90614 sensor, positioned on the wrist, whereas the Oxygen saturation and Heart rate are measured with MAX30100 sensor, placed on the index finger. The ESP32 Microcontroller processes the sensor data after which the results are displayed on the TFT Display GC9A01 and to Ubidots application on a smartphone or computer. When the SpO2, BPM, and Temperature values drop below the predetermined range, Ubidots sends an alert message to the associated email address on the smartphone or computer. In comparison to BPM, which had the lowest error is 0.06% and highest at 5.65%, and temperature, which had the least error value of 0.1% and the most 0.88%, SpO2 had the lowest error is 0.2% and biggest error at 1.6%. MAX30100 sensor, which serves as a processor for SpO2 and Heart rate values on the index finger, delivers a good response when utilized by respondents, according to the smart band's manufacturer. The results of data measurement can also be shown on LCD TFT GC9A01 and Ubidots applications. This device will be kept in a hospital, clinic, or utilized on its own at home. Additionally, regardless of the distance, this application is anticipated to assist families or medical personnel in keeping track of the health of senior patients.

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Section: Introductionmentioning

confidence: 99%

Monitoring SpO2, Heart Rate, and Body Temperature on Smartband with Data Sending Use IoT Displayed on Android (SpO2)

Anggraini,

Irianto,

Wisana

et al. 2023

j.teknokes

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Development of a data acquisition system (DAQ) of a low-cost health monitoring system for Covid19 suspects

Putra,

Utami,

Setyonugroho

et al. 2023

Proceedings of the 1st International Conference on Frontier of Digital Technology Towards a Sustainable Society

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Knowledge structure and theme trends on mHealth apps for COVID-19: bibliometric analysis

Ramzy

2024

AJIM

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PurposeRecently, mHealth apps for COVID-19 have emerged as a new research area due to the diverse efforts to control the COVID-19 epidemic. Although there are many bibliometric studies on mHealth and its applications, no bibliometric study sheds light on mHealth apps for COVID-19 as a new research area. To address the above-mentioned research gap, the current study conducts a bibliometric analysis of research in mHealth apps for COVID-19. It aims to provide a comprehensive overview of the new area and its directions.Design/methodology/approachThe study uses a bibliometric approach to provide an analysis of the overall status of research in mHealth apps for COVID-19. The Scopus database provided by Elsevier was used to extract the analyzed data in this study. SciVal was used to perform the analyses, while VOSviewer was used for scientific mapping.FindingsA total of 457 publications were published between 2020 and 2021 (until Tuesday, June 1) and cited 3,559 times. Publications were written by 2,375 authors, with an average of 5.20 authors per publication. Articles play a pivotal role in the literature on mHealth apps for COVID-19 in terms of production and impact. The research area of mHealth apps for COVID-19 is multidisciplinary. The United States made the largest contribution to this area, while the UK was the most influential. This study reveals the most productive and influential sources, institutions and authors. It also reveals the research hotspots and major thematic clusters in mHealth apps for COVID-19, highly cited publications and the international collaboration network.Originality/valuemHealth apps for COVID-19 are gaining more and more importance due to their influential role in controlling the COVID-19 epidemic. Using bibliometric analysis, the study contributes to defining the knowledge structure of global research in mHealth apps for COVID-19 as a new, interdisciplinary area of research that has not previously been studied. Therefore, the study results and the comprehensive picture obtained about research in mHealth apps for COVID-19, especially at the level of Internet of Things (IoT) and artificial intelligence applications, make it an effective supplement to the expert evaluation in the field.

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Development of Smartband to Monitor from Home the Vital Signs for Patients with SARS COV 2 Through a Mobile Application from the Central Military Hospital (HOMIL) Bogota 2020

Cited by 5 publications

References 5 publications

Monitoring SpO2, Heart Rate, and Body Temperature on Smartband with Data Sending Use IoT Displayed on Android (SpO2)

Monitoring SpO2, Heart Rate, and Body Temperature on Smartband with Data Sending Use IoT Displayed on Android (SpO2)

Development of a data acquisition system (DAQ) of a low-cost health monitoring system for Covid19 suspects

Knowledge structure and theme trends on mHealth apps for COVID-19: bibliometric analysis

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