Ijraset Journal For Research in Applied Science and Engineering Technology

Abstract

In this automated world, biomedical field is not superior.But the rapid advancements in engineering have proven their importance in the biomedical field.Rapid development of technologies such as the Internet and Internet of Things has brought improvements in healthcare. IoT-based health monitoring system has been widely studied and developed in recent years, as they can improve the quality and accessibility of health care services, especially for patients with chronic diseases or in rural areas.The existing IoT-based health monitoring systems have some similarities and differences in terms of their hardware and software components,features, performance, etc. All the systems use sensors to measure the vital signs of patients but they use different types and models of sensors with different specifications and accuracy. This paper presents multiple improvements to the current approach by introducing a system that provides remote and continuous monitoring of patients\' health status and enables early detection and intervention of potential health problems. This system utilizes Arduino nano and Wemos D1 Mini, two popular microcontrollers, collect data from various sensors attached to the patient\'s body and transmit it wirelessly to a central monitoring station. Moreover, the cost of this system is substantially reduced as compared to previous systems.

Introduction

I. INTRODUCTION

The remote health center is an extension of the medical center that can take care of the important physical aspects of the patients. Traditionally, diagnoses are only available in hospitals and are characterized by large and complex electrical circuits that require a lot of electricity. Continuous advances in semiconductor technology have made sensors and microcontrollers smaller, faster, less power efficient and cheaper. This also encourages the development of remote monitoring of patients' vital signs, especially the elderly. Remote healthcare can be used in the following situations:

1. The patient knows that there is a disorder in which the body's control system is unstable. This is when a new drug is given to the patient.
2. The patient may have had a heart attack or may have had a heart attack in the past. Vital signs can be monitored to anticipate and warn of any signs of the body's condition.
3. Significant physical conditions
4. Life-threatening conditions. This is for older people and may not be good.

Many systems have emerged recently to solve the problem of remote healthcare.

The system has a wireless sensing system that wirelessly transmits sensor data to a remote control. Some even use service models that require premium payment. In developing countries this is a hindrance because some people cannot use it due to the cost involved 2. Some machines still have internet connection problems and a good internet connection is required for real-time connections. Internet access is still a problem in developing countries.

Many systems have been introduced in developing countries that perform well. In general, these systems are suitable for developing countries. To mitigate some of these problems, remote sensing must be designed from the ground up to fit the minimum requirements currently available in developing countries. A simple patient care design can be made with as many things as it can capture. Sometimes, multiple readings can be calculated from a single measurement.

For simplicity, the measurement is as follows:

a. Single Measurement: Here, a single measurement, such as an electrocardiogram (ECG) reading, is tracked. Depending on the algorithm used, multiple readings may be taken from an ECG or heart rate monitor. ECG readings can be made on heart rate and oxygen saturation.

b. Multi-parameter Monitoring System: Monitor multiple parameters. An example of this system can be seen in the intensive care unit (ICU), during surgery in the hospital, or in post-operative recovery in the hospital. Many tests include ECG, blood pressure, and breathing. Monitoring of various vital parameters proves the patient is still alive or recovering

II. RELATED WORK

Many researchers have proposed a lot of different models for IOT in the Healthcare field for the detection of various diseases. This part focuses on work done in the same area.

Mohd. Hamim[1] It suggests a prototype of an IoT Based Remote Health Monitoring System for Patients. This prototype consists of three sensors, heart pulse sensor, body temperature sensor and galvanic skin response sensor. All these sensors are merged together into a single system with Arduino Uno and Raspberry Pi combined together. The data acquired from the sensors is transferred to a cloud storage via the Raspberry Pi. The cloud storage is continuously being updated in a real time database.An Android Application was developed using Android Studio which could access the database and show a graphical representation of the health parameters.

Hoe Tung Yew[2] This paper proposes an Internet of Things (IoT) based real-time remote patient monitoring system that is able to generate real-time electrocardiogram (ECG). Message Queuing Telemetry Transport (MQTT) protocol is used for transmitting the real-time ECG from the proposed system to the webserver. The data can  be accessed by the web server via smartphone or computer to monitor the real-time or previously recorded ECG data.

III. METHODOLOGY

Our proposed solution is divided into three basic parts 1. Sensor Modules 2. Microcontroller and Wi-Fi Module 3. IoT Server

A. Collecting Sensor Data

This module comprises the hardware components of the system that makes it IoT enabled and is used to record the health parameters of the patient using various sensors such as Pulse rate sensor, Temperature Sensor, ECG sensor, Oxygen saturation sensor. These generate some raw values when checking vitals which are to analyzed in next stage.

Sensors draw power from MCU units only.

B. Data Processing in MCU and Wemos D1 mini

The data generated by the sensors is raw and is of no use if not properly analyzed and made meaningful sense out of it.

We  calibrate the sensors by viewing sensor output for accuracy.The analog output is given by sensors to the microcontroller , which is then analyzed and results are displayed on the local LCD used. And further the datastream is given to WeMos D1 mini for exporting on the Internet.

C. Exporting data to Blynk using WeMos D1 mini

For remote viewing the data is then given to WeMos D1 mini, The D1 Mini is incredibly versatile because it is inexpensive, Wi-Fi-enabled, The D1 Mini has an ESP8266 at its core, which means that it can do many of the things an Arduino board can do. The Wi-Fi communication enables the D1 Mini to act as a local server and  send data to the Blynk app.

IV. IMPLEMENTATION

In this paper, we have proposed a wearable system in which a patient's body temperature, heart rate, oxygen saturation and ECG reading  are being monitored by the system. The various sensors are placed on the patient’s body and they take the readings and send the corresponding signal to the arduino nano. Here, various sensors are used to measure the patient’s body temperature, heart rate, Blood oxygen saturation, ECG and their respective results are sent to the database via WemosD1 mini and can be monitored from anywhere worldwide through the internet.

Conclusion

In this paper, we presented our system IoT based health monitoring system using Arduino Uno and Wemos D1 mini, which aimed to measure and transmit the vital signs of patients, such as body temperature, heart rate,Spo2, to the cloud for analysis and alerting.It presents an efficient and scalable solution for healthcare providers to remotely monitor and track patients\' vital signs. By leveraging IoT technology, real-time data transmission, and cloud-based analysis, the system enhances patient care, enables proactive interventions, and reduces healthcare costs. With further advancements and integration with other healthcare technologies, this system has the potential to revolutionize remote patient monitoring and improve healthcare outcomes. We described the hardware and software components of our project, such as the sensors, microcontrollers, communication modules, cloud platform, web application, and mobile application. We also presented and discussed the results of our project, such as the accuracy, reliability, efficiency, and usability of our system. We also discussed the limitations, challenges, and future work of our project, such as improving the security, scalability, interoperability, and functionality of our system. The main contributions and findings of our project were that we developed a low-cost, easy-to-use, and effective IoT based health monitoring system that can improve the quality and accessibility of health care services, especially for patients with chronic diseases or in rural areas. We also demonstrated the potential and benefits of using IoT technologies in health care applications.The project\'s scalability allows for future expansion and integration with other healthcare technologies, making it a valuable tool in modern healthcare settings.

References

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Copyright

Copyright © 2023 Amreek Singh, Abdur Rouf Itoo, Ujjawal Akash Singh, Rohit Shedge, Akanksha Tundalwar, Rajesh Patil. This is an open access article distributed under the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited.