Design, Simulation and Implementation of a Digital Pulse Oxygen Saturation Measurement Meter using Arduino Microcontroller
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Date
2021-02-28
Journal Title
Journal ISSN
Volume Title
Publisher
WASET
Abstract
If a person can monitor his/her oxygen saturation level
intermittently then he/she can identify his/her condition early and
thus he/she can seek a doctor’s help. This paper reports the design,
simulation, and implementation of a low-cost pulse oxygen saturation
measurement device based on a reflective photoplethysmography
(PPG) system using an integrated circuit sensor as the fundamental
component of this health status checking device. The measurement of
the physiological parameter is the blood oxygen saturation level
(SpO2 ) in the peripheral capillary. This work has been implemented
using an Arduino Uno R3 microcontroller along with this sensor
integrated circuit (IC). The system is designed in the Proteus
environment and then simulated to check its performance. After that,
the hardware implementation is performed. We used a clipping type
optical sensor to sense the arterial oxygen saturation level of blood
signal from the fingertips of an individual and then transformed it
into the digital data in the microcontroller through its programming
its instruction. The designed system was tested by measuring the
SpO2 level for several people of different ages, from 12 to 57 years of
age. Besides, the same people were tested using a standard machine
purchased from the market. Test results were found very satisfactory
as the average percentage of error was very low, 1.59% only.
Description
This work was done by the student as part of his final year project.
Keywords
Digital pulse, Oxygen saturation level, Oximeter, Arduino Uno, Simulation, Measurement, Implementation, Proteus
Citation
M. H. Bhuyan and M. R. Sarder, “Design, Simulation and Implementation of a Digital Pulse Oxygen Saturation Measurement Meter using Arduino Microcontroller,” International Journal of Biomedical and Biological Engineering, vol. 15, no. 2, February 2021, e-ISSN: 1307-6892, pp. 105-111
