Prototype Storage Locker Security System based on Fingerprint and
RFID Technology
Apri Siswanto, Hendra Gunawan, Rafiq Sanjaya
Department of Informatics Engineering, Faculty of Engineering, Universitas Islam Riau, Pekanbaru, Indonesia
Keywords:
Security, Fingerprint, RFID, Sensor, Automatic Locker.
Abstract:
Locker Security System for storing goods is essential in public facilities such as at the bus station, airport, mall
or library. Today’s commercially available security locker systems require complex system configurations that
involve high costs. For that, a more accessible and cheaper alternative is needed. In this study, a locker security
system was created using Arduino-based fingerprint biometrics. The purpose of this study is to improve the
security of lockers in goods storage services and can reduce theft by using fingerprint sensors and RFID
sensors. The research methods in this study include library research, system design, hardware design, and
software design. Based on the results testing both on the hardware and on the software that has been made
and looking at the objectives of the research, it can be summarized as follows: this equipment can be used as
a storage locker for items that have good security.
1 INTRODUCTION
Storage locker is an essential facility in public places
such as stations, shopping centres, libraries, and in
recreational areas, etc. As we know, the quality
of service from luggage storage dramatically affects
the level of satisfaction of consumers (Erziana et al.,
2018; Arta, 2017). Many things can become service
quality standards for goods storage such as in terms of
the safety of goods that we will leave, the accuracy of
returning goods so that there are no swapped goods,
damage to goods and speed in service so as not to
make customers wait or queue (Moskowitz et al.,
2002).
Several lockers in public area still using process
manually. The process is by the sign with paper or a
key that has a number that matches with a locker on
the items we leave. In this case, the consumer can
be harmed if the number he has is taken by someone
else. Then the officer is also difficult to remember the
owner of the good who left the locker. The officer
on duty is only focused on matching the number
given by the consumer with the number listed in the
locker where the thing is stored (Gangi and Gollapudi,
2013).
With the rapid development of technology, almost
all work done by humans is facilitated with the
support of electronic devices. In the case of storage
of items such as cabinets, drawers, and lockers, many
currently use electronic devices as a support level of
security. The method is carried out, starting from
using passwords, RFID and biometric authentication.
Biometric functions are to recognize physical features
such as voice recognition, eye retinal scans, facial
scans, and fingerprint scans. In order to communicate
several security systems with a variety of tools, a
microcontroller is needed since easily understood and
used by humans. One microcontroller that is widely
used today is Arduino (Siswanto et al., 2017; ARZAF
and V., 2016). From the background above, it was
deemed necessary to build a luggage storage locker
with a fingerprint biometric security system (Patel
et al., 2016).
2 RELATED RESEARCH
Research related to this area is, (Budiharjo and Milah,
2014) proposed a room door security system with
RFID and password using Arduino Uno. The system
is made using RFID sensors and finger passwords
as input and is processed by the microcontroller to
open solenoids. Then Siswanto et al. (2017) created
a home door lock security system using fingerprint
technology and an Arduino microcontroller.
(Khoirunnufus and Sutanto, 2013) designed a
secure security system based on the Atmega8535
microcontroller. The hardware in the system
Siswanto, A., Gunawan, H. and Sanjaya, R.
Prototype Storage Locker Security System based on Fingerprint and RFID Technology.
DOI: 10.5220/0009062900110014
In Proceedings of the Second International Conference on Science, Engineering and Technology (ICoSET 2019), pages 11-14
ISBN: 978-989-758-463-3
Copyright
c
2020 by SCITEPRESS Science and Technology Publications, Lda. All rights reserved
11
consists of a minimum system circuit ATMega8535
microcontroller as a system controller, dc motor
driver circuit which functions to control dc motors to
drive locks on the safe door, a relay driver circuit that
serves to turn on the siren, as well as a power supply
circuit that functions as voltage source.
Then the research of DWI UTOMO ARZAF
(2016), he proposed a security system for goods
storage using microcontroller based RFID and
passwords. This safety deposit box security system
was built with RFID and password sensors based
on the Arduino ATMega 2560 microcontroller that
uses LCD as an information medium. To open the
item storage box, the user must enter a password and
detection of the card, after the password and card are
detected correctly it will be processed on the Arduino
ATmega 2560 microcontroller. Solenoid is used as an
opening and security door closure for the storage box.
3 RESEARCH METHOD
The methodology used in this study is experimental
which is divided into ve steps (Hossain et al., 2016):
Analysis Phase
Analysis of the security system of the
place-to-keep lockers that are currently still
using manual methods. First, the user goes to
the clerk to register. after that the consumer
will make a payment for the rental fee for the
item storage locker then the officer will provide
information on the locker that the consumer
will use along with the locker key.
The solution to dealing with these problems
is the need for a system that can improve
the security system of luggage storage lockers.
Where the process of the user is paid to the
cashier to determine the number of lockers that
will be used. Then the user will scan the
fingerprint which is used as a medium to detect
data from the user. The user data will be stored
in the Arduino controller for the authentication
process if the locker has been used.
Design system
In this automatic locker design, the main
components consist of Arduino Uno as the
system controller centre, fingerprint sensor and
RFID sensor as input and solenoid as output.
Before designing hardware and software, a
functional block design system is needed in the
form of block diagrams that explain the work
system as in figure 1.
Figure 1: Hardware scheme locker security system.
In designing the scheme, the device explains the
installation relationship of the device between the
fingerprint sensor, RFID sensor, relay and solenoid
with the microcontroller so that it can be connected
to each other and become a complete system.
After designing a hardware scheme, the next step
is to determine the program logic that will be applied
to the system to be used. Then make coding that will
be implemented on the system. The flowchart of the
system work process flow as shown in Figure 2.
4 RESULT AND DISCUSSION
Based on the analysis and design that has been
done, the design of goods storage lockers using this
fingerprint sensor has been realized, it is necessary
to do various tests to find out how the device works,
as well as testing based on different fingerprint
and RFID conditions, weaknesses and limitations of
function specifications. system that has been created.
4.1 Fingerprint Enrolment
This test is done to find out whether this fingerprint
sensor can work properly, first the test is done with the
author’s fingerprint which is using the thumb finger
on the left hand, before the testing is done by the
author’s left hand thumbprint has been registered on
the sensor fingerprint
The testing step is to attach the left thumb to
the fingerprint sensor area, after the sensor has
successfully read and identified the corresponding
fingerprint data, the solenoid that was in a defective
position or closed will be active so that the door can
be opened.
The next step is testing the response of the
fingerprint sensor. After testing it can be concluded
that it takes as long as 5 seconds for the system to
work properly and recognize the fingerprint of the left
hand thumb until the door opens.
ICoSET 2019 - The Second International Conference on Science, Engineering and Technology
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Figure 2: Flow chart locker security system
Figure 3: Embedding Process
4.2 Sensor RFID Testing
This test is conducted to find out whether RFID
sensors can work properly, first the author tries to do
a test using a card whose ID has been stored on the
Table 1: Result Hand Position
Hand Position Finger part Result
Left Hand
Thumb Success
Index finger Unsuccess
Middle finger Unsuccess
Ring finger Unsuccess
Little finger Unsuccess
Right Hand
Thumb Unsuccess
Index finger Unsuccess
Middle finger Unsuccess
Ring finger Unsuccess
Little finger Unsuccess
Table 2: Finger Position
Fingerprint Position
Enrolment
time
(seconds)
Result
Thumb left hand
1 Unsuccess
2 Unsuccess
3 Unsuccess
4 Unsuccess
5 Success
Arduino microcontroller.
Figure 4: Testing RFID
The testing step is to attach the RFID card whose
data has been registered in the system so what
happens is that the RFID sensor successfully reads
and identifies the appropriate data, the solenoid that
was in a defective position or closed will be active so
that the door can be opened.
Table 3: Table Result tes RFID
RFID Test scenario Result
RFID card
enrolment in
system
attach the card that
has been registered
to the RFID sensor
The system responds
and the locker door is
successfully opened
Other card
Attach another card
that has not been
registered to the RFID
sensor
The system refuses
and the locker door
cannot be opened
In the next stage, the distance sensor can be read
to the ID card so that the locker can be opened. After
Prototype Storage Locker Security System based on Fingerprint and RFID Technology
13
testing is done it can be concluded that at a distance
of 1.5cm, the sensor can read the RFID card.
Table 4: Result
RFID Distance (cm) Result
RFID Card
4 Unscuccess
3 Unsuccess
2 Success
1 Success
0,5 Success
5 CONCLUSION
Based on the analysis and discussion of the locker
security system using Arduino-based fingerprint
biometrics, it can be concluded that Arduino Uno can
be used as the main control in assembling several
components into an intact system so that the security
system of this locker can increase consumers’ sense
of security and comfort. when you want to deposit
goods and also can reduce the occurrence of criminal
acts that can harm the consumer.
REFERENCES
Arta, Y. (2017). Implementasi intrusion detection system
pada rule based system menggunakan sniffer mode
pada jaringan lokal. IT Journal Research and
Development, 2(1):43–50.
ARZAF, D. U. and V. (2016). Sistem Keamanan
Kotak Penyimpanan Barang Menggunakan Rfid Dan
Password Berbasis Mikrokontroller. Politeknik
Negeri Padang.
Budiharjo, S. and Milah, S. (2014). Keamanan Pintu
Ruangan Dengan Rfid Dan Password Menggunakan
Arduino Uno. J. ICT Penelit. dan Penerapan Teknol.
Erziana, Y., Mutiara, G. A., and Periyadi, P. (2018).
Perancangan dan implementasi untuk membuka
switch locker penyimpanan barang berbasis face
recognition dan fingerprint. eProceedings of Applied
Science, 4(3).
Gangi, R. R. and Gollapudi, S. (2013). Locker opening
and closing system using rfid fingerprint password and
gsm. International Journal of Emerging Trends &
Technology in Computer Science, 2(2).
Hossain, M. A., Hossain, M. B., Uddin, M. S., and
Imtiaz, S. M. (2016). Performance analysis of
different cryptography algorithms. International
Journal of Advanced Research in Computer Science
and Software Engineering, 6(3).
Khoirunnufus, N. S. and Sutanto, H. (2013). Rancang
Bangun Sistem Pengaman Brankas Berbasis
Mikrokontroler Atmega8535. Diponegoro University.
Moskowitz, I. S., Longdon, G. E., and Chang, L. (2002). A
new paradigm hidden in steganography: CRC Press.
Patel, K. K., Patel, S. M., et al. (2016). Internet of things-iot:
definition, characteristics, architecture, enabling
technologies, application & future challenges.
International journal of engineering science and
computing, 6(5).
Siswanto, A., Yulianti, A., and Costaner, L. (2017).
Arsitektur Sistem Keamanan Rumah Dengan
Menggunakan Teknologi Biometrik Sidik Jari
Berbasis Arduino. Paper presented at the Seminar
Nasional Aptikom 2017.
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