Banana Flakes: Design of Controlling Molding Machine based on
Proximity Sensors
Seri Intan Kuala, Eko Kuncoro Pramono, Galih Riyan Basuki
and Agustami Sitorus
Research Center for Appropriate Technology, Indonesian Institute of Sciences, KS Tubun 5 Street, Subang, Indonesia
Keywords: Banana Flakes Machine Control, Programmable Logic Control, Proximity Sensor.
Abstract: Banana flakes can be an alternative of nutrient-rich breakfast. It had been developed by PPTTG LIPI since
2016 and was carried out on a laboratory scale production. The scaling up was constrained at the cutting stage.
The sticky properties of the dough required a 2-stages roasting treatment before become flakes. The cutting
process manually on the dough that was flattened on a special grill paper. In this study, a control was
developed using a Programmable Logic Control (PLC). The banana flakes molding machine consists of three
main parts, the oil spray, the dough molding part, and the cutting part. Each part had a proximity sensor as a
detector the presence of baking sheets which became inputs for the PLC. The sensor on the spraying part will
control the electric pump oil. And the sensor on the molding part of the dough and the cutter will control the
solenoid valve. Solenoid valve will transmits pneumatic power from the compressor to drive the dough
molding and cutting. A simulation using CX programmer software to ensure the rate of the spraying part and
the cutting part meet the rate of the dough molding.
1 INTRODUCTION
Bananas are the most consumed fruits by Indonesian
(BMKG, Kementerian Pertanian, BNPB, LAPAN,
BPS, WFP, 2017 and Badan Pusat Statistik, 2017)
with consumption levels reach more than 7 million in
2017(Subdirektorat Statistik Holtikultura, 2017).
This condition is balanced by the growth of banana
production which experienced a positive trend from
1980-2015 with an average value of 4.16% per year
(Bappenas, 2016).
Bananas are rich in carbohydrates, food fiber,
certain vitamins, and minerals (Sidhu and Zafar,
2018). Its short shelf life (Singh, Shrivastava and
Kumar, 2018) provides an opportunity to process
bananas into products that have a longer shelf life
such as flour (Ratnasari et al., 2018). Although it has
changed shape, banana flour has high bioactive
compounds especially resistant starch (Amini
Khoozani, Birch and Bekhit, 2019). This further
strengthens the opportunities for gluten-free banana
flour-based processed products (Seguchi et al., 2014)
exclude from maize starch and rice flour (M. Rosell
and Matos, 2015).
Cereal is a breakfast preferred by school-age
children (Khehra, Fairchild and Morgan, 2018). In
addition ready to eat, breakfast with cereal is part of
a healthy lifestyle that plays an important role in order
to meet the nutritional needs (Kruma et al., 2018).
Since 2016 the Center for Appropriate Technology
Research has developed breakfast cereals in the form
of flakes made from banana flour (Surahman et al.,
2016, Ratnawati et al., 2017, Desnilasari et al., 2018).
The production process is still done manually using
common equipment used in household kitchens such
as mixers and hand ovens. The stages of making
banana flakes include the stage of mixing ingredients,
flattening, baking I, cutting, baking II, and packaging
(Ekafitri et al., 2016).
The manual production of banana flakes still has
obstacles in the process of forming into flakes. The
flakes can be formed after the flattened dough has
been baked and continued by cutting process which
done on a special baking paper by scissors. After
becomes small pieces in the form of flakes then baked
again until they reach a certain water content. The
cutting process takes a longer time compared to other
stages of the process because of the need of the first
baking process and the cutting time itself. The
objective of this research is to design a banana flakes
molding machine with an automatic control process
that is expected to overcome this problem.
Programmable Logic Controller (PLC) takes an
Kuala, S., Pramono, E., Basuki, G. and Sitorus, A.
Banana Flakes: Design of Controlling Molding Machine based on Proximity Sensors.
DOI: 10.5220/0009980400002964
In Proceedings of the 16th ASEAN Food Conference (16th AFC 2019) - Outlook and Opportunities of Food Technology and Culinary for Tourism Industry, pages 273-278
ISBN: 978-989-758-467-1
Copyright
c
2022 by SCITEPRESS Science and Technology Publications, Lda. All rights reserved
273
important role in the whole process to ensure the
forming dough to the flakes process becomes efficient
and effective by using a system that is easily
programmed, flexible and reliable to be used, and
effective in terms of the financial sector.
2 MATERIALS AND METHODS
Banana flake molding machine used in this study has
3 sub-systems, namely the oil spraying section, the
dough molding section, and the dough cutting section.
Each baking sheet will enter through the first to the
third subsystems through a conveyor belt system. The
controller will detect the baking sheet position and
will control the actuator in each sub-system
automatically. In this research, a control system was
designed using CX-Programmer software which is
the bundling PLC Omron brand software. The
designed control system can be set up automatically
or manually with a workflow as shown in Figure 1.
Figure 1: Control system on Banana flake dough molding
machine.
The manual control system is used to anticipate
unwanted circumstances. In other hand, the manual-
automatic selector switch is used as an input in the
system to prevent double settings. For automatic and
manual control system workflows, see Figure 2 and
Figure 3.
Figure 2: Otomatic control system.
Figure 3: Manual control system.
The first sensor used in this research is inductive
type proximity sensor. This sensor is very suitable to
be applied in industry (Nguyen, 2017) compared to
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capacitive ones because it is more sensitive (Guo,
Shao and Li, 2016), has no moving parts, operates
very fast, very reliable, requires no maintenance and
operates in environmental extreme conditions (Naik
et al., 2016). The second sensor, limit switch is used
for safety switches and the detection of the presence
of container die in molding. Yeop Kim et al., 2014
explain that limit switches can be used for a long time
with robustness is proven. The third sensor is reed
sensor can help pneumatic up and down movements
become faster. Reed sensor is an electric switch that
is operated with a magnetic field, consisting of a pair
of contacts on an iron metal body in a tightly closed
glass envelope (Sadad, Iswanto and Sadad, 2011). All
sensors are placed in a position as seen in Figure 4
with annotation (1) Inductive proximity sensor
sprayer; (2) Inductive proximity sensor molding; (3)
Inductive proximity sensor cutter; (4) Bottom reed
sensor; (5) Up reed sensor; (6) Limit switch.
3 RESULTS AND DISCUSSION
All sensors become inputs to PLC to control actuators
such as conveyor motors, solenoid sprayers, and
pneumatic valves. PLC as the main controller is an
important component in modern industrial control
systems (Ghaleb, Zhioua and Almulhem, 2018) that
is designed to be easy to install and maintain
(Alphonsus and Abdullah, 2016) and is used for all
needs in the industry (Katalin, 2019). The design of
the PLC control system using CX-Programmer
software as shown in Figure 5 with the input and
output information shown in Table 1.
Figure 4: The position of sensors on banana flakes molding
machine.
Figure 5: Ladder diagram of a banana flake dough molding
machine control system.
Banana Flakes: Design of Controlling Molding Machine based on Proximity Sensors
275
Table 1: Input and Output port definition of PLC.
Input Output
0.00 automatic
selector switch
for power
100.00 conveyor belt
motor driver
0.01 stop push button 100.01 sprayer
solenoid
0.02 start push button 100.02 the pneumatic
valve on the
molding section
0.03 manual selector
switch for power
100.03 pneumatic
valve cutter
under limit
0.04 manual selector
switch for motor
100.04 pneumatic
valve cutter to
top limit
0.05 proximity sensor
on the sprayer
section
0.06 manual selector
switch for
sprayer
0.07 limit switch
sensor on the
molding section
0.08 proximity sensor
on the molding
section
0.09 manual selector
switch for
molding
0.10 proximity sensor
on the cutting
section
0.11 bottom reed
sensor
1.01 top reed sensor
From the ladder diagram, the control system of the
banana flake dough molding machine can be seen by
using the timing diagram for each output as Figure 6.
Figure 6: Timing diagram on banana flake dough molding
machine control system.
I0.00
I0.01
I0.02
M1
I0.03
M2
M1
M2
I0.04
Q100.00
M2.00
I0.05
M2.01
I0.06
Q100.01
M2.00
I0.08
M2.01
I0.09
I0.07
Q100.02
M2.00
I0.08
M2.01
I0.09
I0.07
Q100.02
M200
I0.10
I0.11
I1.01
M2.01
I1.02
Q100.04
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4 CONCLUSIONS
The design of a control system for the banana flakes
molding machine to minimize the bottleneck
production process has been simulated. The main
components in this control system are PLC, CX-
Programmer, proximity sensors, limit switch and reed
sensors. Simulation design using the CX-Programmer
can describe system has been running as desired. The
next work of this research is to carry out construction
and testing of the banana flakes molding machine and
the control system that has been designed.
ACKNOWLEDGEMENTS
We would like to gratefully acknowledge Aidil
Haryanto, Novrinaldi, and all PPTTG LIPI and we are
grateful for Kemenristek Dikti through Insentif Riset
Sistem Inovasi Nasional (INSINAS) Riset Pratama
for funding this research.
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