Design of Hydrogen Fuel Supply Chain Distribution Network from
the Potency of Palm Oil Empty Bunches
Rahmi M. Sari
1
, Indah Rizkya
1
, Taufiq Bin Nur
2
, Wandika A. Syahputra
1
and Reggy Nouvan
1
1
Industrial Engineering Department, Faculty of Engineering, Universitas Sumatera Utara, Medan, Indonesia
2
Mechanical Engineering Department, Faculty of Engineering, Universitas Sumatera Utara, Medan, Indonesia
Keywords: Hydrogen Fuel
Abstract: In Indonesia, the production of biomass is wasted because it is considered as “waste” that has no use anymore
such as bagasse, rice grain skin, corn cob, and oil palm waste. Oil palm empty bunches have C and H chemical
bonds, where most of the materials with chains C and H store heat energy so that hydrogen can be obtained
as fuel. Process to convert a biomass into hydrogen is by gasification and pyrolysis. The purpose in this
research is to design the distribution network from the potential oil palm empty bunches. The hydrogen
produced is only 0.469% of the available potential and is similar to the existing of the used empty bunches
potential. Selection of factory location is based on 4 criteria. From the criteria, obtained LabuhanBatu District
as the best regencies in North Sumatra. Potential plantations can supply as much as 6,390,423,000 kg with
the ability of oil palm factory distribution of 1,469,797,290 kg.
1 INTRODUCTION
As the depletion of fossil fuel and natural gas reserves
make the world look for replacement energy.
Biomass is an alternative fuel source that is still
abundant and has not been fully utilized(Mirela,
2018)
Exploration for renewable alternative energy
sources for the long term will takes an
environmentally friendly source of energy, one of
which is hydrogen. In the long term, especially in
Indonesia, the production of hydrogen through coal
gasification and through biomass gasification will
provide economic benefits. Consider the potential of
biomass in Indonesia today and in the future,
hydrogen production will have a positive effect on the
national economy.
Globally the need for hydrogen as an alternative
energy has been increasing in recent years hydrogen
as one of the hydrocarbon fuels that has the advantage
of being eco-friendly and having great energy
efficiency especially if used on vehicle fuel (Michael,
2018)
Biomass that has the potential to be processed is
empty bunch palm oil. Oil palm empty bunches have
considerable potential to be utilized. However, empty
bunch utilized as organic fertilizer presently. The
remaining empty bunches will make problem for the
place and its disposal transport resulting in additional
production costs for the processor (Chen, etc,
2018)(Yanan, etc, 2018)
Hydrogen in the industry is generally produced
using the Steam Methane Reforming (SMR) method
from natural gas resulting from pyrolysis and
gasification methods(Josua, etc, 2018)(Melaina and
Penev, 2013). Steam Methane Reforming is more
efficient with low cost through pyrolysis and
gasification process (Delgado, etc, 2018)
Supply chain management is now important for oil
palm companies and other companies as the
competition grows and the position of palm oil and
mill suppliers and millers as partners. The process of
fulfilling the customer needs in the supply chain is a
value-adding chain that not only stops at one
company but includes all the companies that are
members of the supply chain (Muhammad, 2012).
Pyrolysis is decomposed with the aid of heat in the
absence of oxygen or with a limited amount of
oxygen. Usually there are three products in the
process of pyrolysis such as charcoal, gas, and liquid.
Pyrolysis process is influenced by several factors
such as time, temperature, particle number, particle
size, particle weight (Ramadhan, etc, 2018)(Ali,
2018).
Strategic business location can maximize the
business profit. Location is where to serve consumers,
defined as a place to introduce goods. Thus the
232
Sari, R., Rizkya, I., Nur, T., Syahputra, W. and Nouvan, R.
Design of Hydrogen Fuel Supply Chain Distribution Network from the Potency of Palm Oil Empty Bunches.
DOI: 10.5220/0010078802320236
In Proceedings of the International Conference of Science, Technology, Engineering, Environmental and Ramification Researches (ICOSTEERR 2018) - Research in Industry 4.0, pages
232-236
ISBN: 978-989-758-449-7
Copyright
c
2020 by SCITEPRESS Science and Technology Publications, Lda. All rights reserved
definition of a location is a place to run an activity
that serves consumers, production activities, storage
activities, or to control the activities of the company
as a whole part of the company. The main factors in
choosing the location are (1) Availability of Raw
Materials, (2) The location of the intended market, (3)
Availability of energy source, water, and
communication facilities, (4) Availability of
manpower and (5) Availability of transportation
(Sunil, etc, 2013).
Supply chain is a network of companies that work
together to produce and deliver a product into the end
users. These companies usually include suppliers,
producers, distributors, stores or retailers, as well as
support agencies such as logistics services agencies.
(Dawei, 2011). According to the definition, several
number of key characteristics that used to portrait a
supply chain. First, supply chain needs participation
of more than one company. Second, the participating
companies within a supply chain should be in
difference business ownership, therefore there is a
legal independence in between. Third, those
companies are inter-related on the common
commitment to add value of material flow that run
through the supply chain. The material flow, to every
company, transformed inputs and goes out as outputs
with value added. (Directorate general of the farm,
2017)
2 METHODOLOGY
Research object is hydrogen fuel that produced from
palm oil empty bunch with pyrolysis method. The
data gathered from the result of empty bunch,
plantation location and factory locations in Sumatera
Utara. This data then processed to gain the
information of distribution network palm oil empty
bunch.
First step is to figure out the needs of raw material
by define the capacity per day based on the steam
methane reformer machine. Second step is to define
the needs of raw material needed based on the
percentage of hydrogen by gas and the percentage of
gas from empty bunch from the result of pyrolysis
process and also percentage data from empty bunch
and fresh fruit bunch. In this step, also resulting the
hydrogen potential that can be get from empty bunch
in Sumatera Utara.
Next, designing the distribution network is done by
defining the location of hydrogen plant in Sumatera
Utara with qualitative method. The assessment based
on raw material supply and added material, utility,
transportation and surroundings. The result is the best
location to build the hydrogen plant.
The last step is figuring the distribution network
after resulting the ideal plat location and factory data
in Sumatera Utara. The result is shown by the
distribution figure from farm to hydrogen plant.
3 RESULT AND DISCUSSION
3.1 Production Capacity
The determination of production capacity is based on
rated power capacity (MW) using Steam Methane
Reformer. The results of a study by the National
Renewable Energy Laboratory for the production of
hydrogen using pyrolysis and Steam Methane
Reformer methods obtained a production capacity of
1,000 kg / day (Joshua Eichman, etc.2016).
3.2 Raw Materials Needs
The needs of raw material calculated by the following
steps :
1. Hydrogen Calculation Result
Based on the calculation, Percentage of empty
bunch turns in to gas is 52.02%. Then the
percentage of hydrogen in gas is 8.69%.
2. Potential of Hydrogen Produced in North
Sumatera
The processing of fresh fruit bunches (FFB) will
produce 23% palm empty fruit bunches, 6.5%
shell waste, 4% wet decanter, 13% fiber and liquid
waste as much as 50%.
The following is the calculation of the amount of
hydrogen produced in North Sumatra.[14]
a. The number of FFB produced in 2015 is
6,390,423,000 kg.
b. The percentage of oil palm empty fruit
bunches from fresh fruit bunches is 23% so
that there are empty bunch of 1,469,797,290
kg.
c. The percentage of oil palm empty bunches into
gas as much as 52.02% to obtain gas of
764,588,550 kg by pyrolysis method.
d. The percentage of hydrogen in the gas as much
as 4.52% to obtain hydrogen of 690.265.368
kg per year.
2. Needs of Empty Bunch per hour CalculationThe
hourly empty bunch requirement is calculated
using the hydrogen percentage in empty bunch
The results can be seen in Table 1.
Design of Hydrogen Fuel Supply Chain Distribution Network from the Potency of Palm Oil Empty Bunches
233
Table 1: The Needs of Palm Oil Empty Bunch
Percentage
(%)
Weight (Kg) Type Weight (Kg) Type
Percentage Hydrogen in
Gas
4,52 22,123.89 Gas 1,000 Hydrogen
Percentage Gas in Empty
Bunch
52,02 42,529.58 Empty Bunch 22,123.89 Gas
PercentageEmpty Bunch
from Fresh Fruit Bunch
23 184,911.24
Fresh Fruit
Bunch
42,529.58
Empty
Bunch
Table 1. shows that the need of empty bunch fruit
to gain 1000 kg hydrogen per day is 42,529.58 kg.
3.3 Plant Site Selection
The ideal plant site selection is the location that will
provide the minimum total cost of production and
transportation and maximum profit for the company.
The selected regions are districts located in the
province of North Sumatra. In the selection process
of several alternative locations will be used
qualitative methods to determine the alternative
locations should be selected.
Then the determination of the weight of the criteria
that affect the selection of factory location. Giving
weight of each factor or criteria identified based on
degree of importance. The highest market share is
Labuhan Regency with 37.09% market share
followed by Asahan District with 13.13% market
share and Langkat Regency with market share of
12.05% as location 1, location 2 and location 3 (Data
center and farmig information system, 2016).
Table 2: Weight and Value Matrices from Each Location Factor and Alternative
Criteria Weight
Alternatives
Alternative 1 Alternative 2 Alternative 3
Easy supply of raw materials and auxiliary
materials
35%
9 7 7
Utility 30%
8 9 7
Easy Transportation 20%
8 8 8
Environmental and social circumstances
15%
8 8 8
The value get from research considerations based
on the actual conditions in which location. Then get
the values of each alternative location that can be seen
in Table 3.
Table 3: Assessment of Location Alternatives
Criteria
Alternative
Alternative 1 Alternative 2 Alternative 3
Easy supply of raw materials and auxiliary materials
3.15 2.45 2.45
Utility
2.8 3.15 2.45
Easy Transportation 2.8 2.8 2.8
Environmental and social circumstances 2.8 2.8 2.8
Total
11.55 11.2 10.5
From the results of the calculation above, then the
selection of alternative locations that are considered
good alternative location that has the greatest value of
z / total. Thus location 1 has the largest total value of
11.55, so the best location according to this analysis
is alternative 1.
ICOSTEERR 2018 - International Conference of Science, Technology, Engineering, Environmental and Ramification Researches
234
3.4 Distribution Network
Supply chain problem can be done by using a facility
location capacity approach. The development of
supply chain networks is carried out at three levels of
supply chain distribution (suppliers, distribution
centers, and consumers) in consider of multi-period,
multi-product issues, and adding inventory issues to
anticipate uncertainty in supply. Hydrogen fuel
supply chain distribution network can be seen in
figure 1.
Figure 1. Hydrogen Fuel Supply Chain Distribution
Network
The supply chain is divided into three groups: (1)
Suppliers level 1, that is oil palm plantations that
produce FFB for processing in Palm Oil Mill, (2)
Suppliers level 2, which is leaving empty bunch to
become the raw material for the process of making
hydrogen fuel, and the last destinationwhich is
Hydrogen Plant that produces hydrogen fuel.
4 CONCLUSION
Sumatera Utara has a great potential of empty bunch
for making a hydrogen fuel. To make it come true, it
needed a distribution network start from fresh fruit
bunch from farm until hydrogen fuel from factory.
Supply chain consist of three part such as supplier
level 1, supplier level 2, and hydrogen plant as
consumer. Supplier level 1 is farm that send a fresh
fruit bunch to supplier level 2. Supplier level 2 is a
palm oil factory that sent palm oil empty bunch to
hydrogen plant. The calculation shows that the palm
oil farm in Sumatera Utara can supply empty bunch
as the production capacity that makes this supply
chain can be applied.
ACKNOWLEDGMENTS
This work has been fully supported by TALENTA
Research Program (Universitas Sumatera Utara), No:
2590/UN5.1.R/PPM/2018, March 16th, 2018
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