Design and Development of Smart Doors for Automatic Person Screening

Main Article Content

Kanya Kosum
Jarun Kaewsa
Apisit Chookaram

Abstract

The objective of this research is to design and develop smart doors to automatically screen people. In this study, the organizers designed the system to operate according to three conditions: 1) detecting wearing a mask, 2) measuring body temperature, and 3) spraying alcohol to sanitize the hands. When the consumer passes the 3-step verification, the door will open for
the consumer to pass. This smart door is operated by the corgi dude board and the arduino is equipped with a temperature sensor, a sensor to detect a mask and an alcohol spray. From the test, it was found out that smart doors can automatically screen people in 3 steps according to the conditions that have been set. It took an average of 7.66 seconds per person to complete
the three steps of screening. It can screen up to 470 people per hour when working continuously. The electricity consumption is 7.476 × 10-3 kilowatt-hours or equal to 0.0243 baht per hour.

Article Details

How to Cite
[1]
K. Kosum, J. Kaewsa, and A. Chookaram, “Design and Development of Smart Doors for Automatic Person Screening”, RMUTI Journal, vol. 15, no. 1, pp. 11–23, Apr. 2022.
Section
บทความวิจัย (Research article)

References

Department of Disease Control. (2019). Guidelines for the Prevention and Control of Coronavirus Disease 2019 in Schools and Educational Institutions. Access (5 May 2021). Available (https://ddc.moph.go.th)

Kruawan, N., Krakhunthod, N., Talatkwan, N., and Kongsang, J. (2018). The Operation of a Microcontroller System Works with an In-Depth Analytical Processing System. Vocational Project Satuk Vocational College

Kaenphet, T. (2012). Face-to-Face Online Performance Recording System. M. Eng. Computer Engineering Rajamangala University of Technology Thanyaburi

Loylom, C. (2017). Industrial Mechanical Arm Simulation Set. M. Eng. Electrical Engineering Burapha University

Maker Asia. (2562). Corgidude Board. Access (15 May 2021). Available (https://corgidude.makerasia.com)

Phurak, T. (2015). Display with LCD Display. Documents for Teaching Basic Arduino Courses, Saraburi: Saraburi Technical College

Wisetkaew, W. (2018). Display with LCD Display. Teaching Documents for Microcontroller Course. Yasothon Technical College

Maneetham, D. (2015). Arduino Board. Bangkok: SE-Education Public Company Limited

Analog Read. (2562). Infrared Temperature Sensor MLX90614ESF. Access (20 May 2021). Available (https://www.analogread.com)

Supremelines. (2562). Capacitive Proximity Sensor. Access (15 May 2021). Available (https://www.supremelines.co.th)

Kamchomphu, S. (1999). Elements of Switching Power Supply. Journal of Electronic Semiconductors. Vol. 202, pp. 137-146

Cybertice. (2559). Ultrasonic Module hc-sr04. Access (15 May 2021). Avialable (https://www.cybertice.com)

Including Car, Motorcycles, Other Vehicles. (2013). Wiper System. Access (15 May 2021). Available (https://www.auto2drive.com)

Ung Phakorn, W. and Thanadngan, C. (1998). Machine Design I. Bangkok: SE-Education Public Company Limited

Ung Phakorn, W. and Thanadngan, C. (2013). Machine Design II. Bangkok: SE-Education Public Company Limited

Norton, R. L. (2009). Kinematics and Dynamics of Machinery. 1st Edition (SI unit). McGraw-Hill

Mekhphuksawong, P. and Pheimchat, W. (2000). Pumps in Engineering. 1st Edition. Bangkok: King Mongkut's Institute of Technology Ladkrabang