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INDONESIA ENERGY OUTLOOK 2016 - Dewan Energi Nasional

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Nguyễn Gia Hào

Academic year: 2023

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This publication is a special assignment from the Ministry of Energy and Mineral Resources to the General Secretariat of the National Energy Council. The authors of this publication are employees of the General Secretariat of the National Energy Council and foreign experts who specifically assist in the preparation of this publication, including an expert from the Government of Denmark.

PICTURE

LIST OF TABLE

EXECUTIVE SUMMARY

INTRODUCTION

This book presents the national energy situation in 2016 to 2050, which includes the projection of supply and demand of primary energy and final energy based on Business as Usual (BaU), Alternative 1 (ALT 1) and Alternative 2 (ALT 2) scenario that should are being developed with Long range Energy Alternative Planning System (LEAP) and Balmorel System modelling. The average assumption averages 5.6% p.a. or approaches Bank Indonesia's 2015 projection and high GDP assumption based on national energy policy of 7.1% p.a.

METHODOLOGY

  • Framework Analysis

Framework Analysis of Indonesia Energy Outlook 2016

Synergy between LEAP and Balmorel

  • Energy Projection Scenario
  • Modeling Assumption
    • Population Growth

The first scenario or BaU uses basic assumption of moderate GDP growth of around 5.6% per year in the period from 2016 to 2050. The third scenario or Alternative 2 (ALT 2) uses high GDP growth assumption of 7.1% per year year average based on National Energy Policy in the projection period from 2016 to 2050 as well as optimal NRE technology and energy saving technology implementation assumption.

Population Growth and Urbanization Rate Assumption

  • Economic Growth

For the following years until 2050, the growth rate is assumed to be constant at 0.62% per year. In relation to the current economic situation, moderate GDP growth is assumed to average 5.6% per year over the projection period.

High and Low GDP Growth Assumption

  • Technology
  • Energy Price

The developed and applied energy technology in demand and supply side will influence the investment decision, different supply costs for each energy source, as well as future energy demand rate and composition. Energy price paid by consumer will influence the choice of technology and appliances to meet the energy demand.

Energy Price Assumption

Scenario

7 Biofuel content as the mixture of biodiesel and biogasoline RON 88 until 2050 follows the biofuel development plan and roadmap as set by the government, such as 30% biodiesel and 20%. There is a movement in mode of transport up to 15% of total vehicle production in 2050 from passenger car and motorcycle to bus and train and from truck to train 18 The oil refinery capacity in 2025 is aligned with the government roadmap (Pertamina) and it is assumed.

CURRENT CONDITION

  • Energy Balance

Energy Balance 2015

Oil Resources 2015

Oil Production, Import and Export Development

  • Oil Fuel Production and Import Year 2010 to 2015

Source: Ministry of Energy and Mineral Resources processed by the General Secretariat of the National Energy Council 2016 Note: Import Dependency Ratio = Import divided by domestic supply (Production+Import-Export). The current selling price of 3 kg of LPG is IDR 4,250 per kg and the government has allocated a subsidy of IDR 5,750 per kg.

Gas Resources 2015

Gas Production and Export Development

  • Coal

Based on this Presidential Ordinance, if the gas price exceeds USD 6 per mmbtu, the Minister of Energy and Mineral Resources can set certain gas prices for fertilizer industry, petrochemical industry, oleochemical industry, steel industry, ceramic industry, glass industry and the glove industry. Note: Quality based on calorie class (Presidential Decree Number 13 Year 2000 amended by Presidential Decree Number 45 Year 2003).

Coal Resources and Reserve Value Change Year 2010-2015

Indonesia Coal Reserve 2015

Coal production realization in 2014 fell due to low price with a total production of 458 million tons. This shows that the coal produced is mostly exported and the domestic use is still low (Picture 3.8).

Coal Production and Export Development Realization 2010-2015

  • New and Renewable Energy

Government regulation number 77 year 2014 on the third amendment of government regulation number 23 year 2010 on mineral and coal mining industry. One of the regulations in future NRE development is Government Ordinance Number 79 Year 2014 on National Energy Policy.

Table 3.3 New and Renewable Energy Resources
Table 3.3 New and Renewable Energy Resources

Large Scale Hydro Power Potential Map

Hydro potential for electricity generation from hydroelectric power plants and mini/micro hydroelectric power plants is widespread in Indonesia, estimated to be around 75,000 MW.

Wind Power Potential Map

Indonesia's solar energy resources can be grouped based on location in the western and eastern part of Indonesia respectively. The solar resources in the western part of Indonesia are 4.5 kWh/m2.day with a monthly variation of about 10%, while the solar resources in eastern Indonesia are 5.1 kWh/m2.day with a monthly variation of about 9%.

Solar Power Potential Location Map

Tidal Power Potential Location Map

Feed in Tariff (FiT) is a mechanism for determining the purchase price of electricity from NRE electricity production by PT PlN, where the tariff is different for each energy source. Thus, the government issued ministerial decree no. 17/2014 on the purchase of electricity from geothermal power generation and geothermal steam for geothermal power generation by PT PLN to ensure security that the parties can negotiate after exploration and FS to reach an economic value.

Tabel 3.4 NRE Feed in Tariff by Energy Source
Tabel 3.4 NRE Feed in Tariff by Energy Source

ENERGY OUTLOOK

  • Final Energy Demand

Final Energy Demand by Scenario

The demand for coal is closely related to the use of coal in industry, especially as a source of energy for furnaces in the cement industry and other industries. The high demand for electricity is due to the high electrification target of 100% in 2020 and lifestyle changes along with economic improvement and technology development.

Final Energy Demand by Source and Scenario

Final Energy Demand by Sector 4.1.1 Final Energy Demand in Non Energy Industry

Based on Presidential Regulation number 40/2016 on gas price determination, the gas price for a certain sector can be reduced if two requirements are met. They do not meet the economic value of the gas consuming industry and the gas price is higher than 6 USD per MMBTU.

Final Energy Demand Share by Industry From the energy intensive level per unit, industry can be classified into three

Final Energy Demand Share by Subsector and Scenario

Energy Conservation and Efficiency in Industry

  • Final Energy Demand in Transportation

Without aggressive energy diversification and efficiency in BaU, final energy demand in transportation will grow by 5% per year or from 46 million TOE today to 228 million TOE in 2050. Final energy demand in ALT 1 is lower since GDP growth assumption in ALT 1 scenario is lower.

Final Energy Demand in Transportation by Source and Scenario

Due to the use of energy-saving vehicle and mode of transport shift, improvement of transport infrastructure and traffic management, the final energy demand of the two scenarios is lower than in BaU. Gas demand in transport will increase to 9 million TOE and 13 million TOE in 2050 for ALT 1 and ALT 2.

Final Energy Share in Transportation by Mode and Scenario

The activity of means of transport is differentiated into passenger and goods based on transport production or useful energy (energy used by passenger and goods). In detail, energy saving and efficiency are implemented in both ALT 1 and ALT 2, as shown in image 4.10.

Table 4.1 Final Energy Demand in Transportation by Source and Scenario (Million TOE)
Table 4.1 Final Energy Demand in Transportation by Source and Scenario (Million TOE)

Energy Conservation and Efficiency in Transportation

  • Final Energy Demand in Household

Final Energy Demand in Household by Source and Scenario

TV and refrigerator in the household still use older technology, namely cathode ray tube (CRT) or liquid crystal display (LCD), while refrigerators without inverter consume a lot of energy. The use of energy-saving LED TVs and inverter refrigerators is predicted to increase, along with policies to support this technology.

Energy Conservation and Efficiency in Household

  • Energy Conservation and Efficiency in Household

Substantial electricity supply and infrastructure has encouraged the commercial sector to convert its energy demand to electricity. The projection of the final demand for energy in the commercial sector by energy source is shown in figure 4.13.

Final Energy Demand in Commercial Sector by Energy Source and Scenario

HVAC technology in large offices uses the Variable Air Volume (VAV) system which saves more energy compared to the Constant Air Volume (CAV). In addition, there is variable refrigerant flow (VRF) technology for HVAC in commercial buildings.

In terms of lighting, in addition to energy-saving FL types T5 and T8, there are also CFLs and LEDs in residential buildings.

Primary Energy Demand by Scenario

Primary Energy Mix by Source and Scenario

  • Energy Indicator Primary Energy Intensity

In ALT 1 and ALT 2, fossil energy such as oil, coal and gas is still the main option for meeting the national energy demand. Growth in primary energy demand over the past five years has been faster than Indonesia's GDP growth.

Primary Energy Intensity by Scenario

The increase comes as the target electrification ratio reaches 100% in 2020, high population growth, and moderate energy efficiency and energy conservation driving high primary energy demand.

Primary Energy Intensity Rate of Change by Scenario

Energy elasticity below one by 2025 is one of the goals of the national energy policy (Figure 4.19).

Energy Elasticity by Scenario

  • Oil Outlook
    • Sectoral Oil Demand

Oil distillation capacity has remained constant over the past decade, leading to increasing imports of refinery products, such as fuel oil. The use of oil in other sectors such as electricity, industry, trade and household is also influenced by economic and population growth.

Table 4.4  Green House Gas Emission per Capita by Scenario (Ton CO 2  per Capita)
Table 4.4 Green House Gas Emission per Capita by Scenario (Ton CO 2 per Capita)

Oil Demand by Sector and Scenario

  • Oil Refinery

Petroleum fuel is used as energy while non-petroleum fuel is a raw material for industry especially the petrochemical industry. The new refineries will supply the demand for diesel fuel especially pertamax (RON 92 gasoline) with optimal cost of fuel distribution.

Oil Refinery Processing Capacity Assumption

Oil Refinery Balance

  • Oil Primary Energy Supply

Oil Primary Energy Supply

  • Oil Production

Oil Lifting

Oil Production Assumption

Oil Balance by BaU Scenario 4.5.5 Oil Refinery Infrastructure

Oil Refinery Balance 2015-2050

  • Gas Outlook
    • Sectoral Gas Demand

In electricity, gas is an interesting option that ensures high efficiency of electricity production, especially in the production of electricity with steam. Electricity also needs gas in larger quantities to meet the demand for gas-fired electricity generation during peak load and gas-steam electricity generation during moderate or base load.

Gas Demand by Sector and Scenario

  • Gas Refinery

Gas is also used in oil, LPG and LNG refinery inputs which produce LPG and LNG. The LNG refinery's current capacity is 44.2 million tonnes per year from the three existing LNG refineries and the new Donggi Senoro LNG.

LNG Refinery Processing Capacity Assumption

The national utilization of gas in the form of LNG is not optimal due to the lack of infrastructure and utilization of existing facilities. Based on the government plan, LNG refinery capacity in this Outlook is projected to increase to 29 million TOE by 2050, including Masela and Tangguh Train 3 (Figure 4.30).

LNG Refinery Balance LPG Refinery

  • Gas Primary Energy Supply

To ensure domestic energy supply in the future, gas will be prioritized to supply domestic demand instead of being exported. This means that gas infrastructure is a key to increasing domestic gas supply in the future.

Gas Primary Energy Supply

  • Gas Production

In the last several years, half of the gas production has been exported in the form of LNG and through pipelines. Although not significant, there is additional gas production in ALT 1 and ALT 2 from CBM (Coal Bed Methane) starting in 2020.

Gas Production Assumption by Alternative Scenario (ALT 1 dan ALT 2) Picture 4.34 shows simulation of gas demand, production, export and import projection in BaU,

Kutai, Jangkrik Muara Bakau, Matindok Donggi Senoro dan Abadi Masela diharapkan dapat menekan laju penurunan produksi gas di Indonesia.

Gas Balance

  • Gas Refinery Infrastructure

LNG Refinery Capacity Demand Projection

To meet the growing demand, it requires additional LNG refinery capacity from the Donggi Senoro refinery and the South Sulawesi refinery of 6.3 million tonnes per annum (MTPA). As a result, increased demand causes increased LPG imports and additional LPG refinery capacity.

LPG Refinery Capacity Demand Projection

  • Coal Outlook
    • Sectoral Coal Demand

In alternative scenarios, the largest consumer of coal is the cement industry and the non-metallic industry which grows by 3% per year in 2015-2050. The next largest consumer is the fertilizer, chemical and rubber industry which is growing at 2.5% per year with a relatively constant share of 17%.

Coal Primary Energy Supply

  • Coal Production

As explained in the previous chapter, the coal production assumption is divided into BaU and ALT.

Coal Production Assumption by Scenario

Coal Balance

  • Electricity Outlook
    • Power Demand

Power Demand by Scenario

Power Demand by Sector

  • Power Supply Power Production

Power Production by Scenario and Energy Source

This is due to slower growth in energy production from gas-fired power generation compared to coal-fired power generation. Gas-fired power generation and NRE power generation contribute the same amount to total power generation in 2025.

Table  4.8  shows  cost  and  efficiency  assumption  in  Balmorel  model.  This  assumption  is  the  average of technologies in IEA technology database, World Energy Outlook (WEO), 2015
Table 4.8 shows cost and efficiency assumption in Balmorel model. This assumption is the average of technologies in IEA technology database, World Energy Outlook (WEO), 2015

Power Generation Total Capacity by Scenario and Energy Source In ALT 1, power demand is lower than in BaU due to energy conservation and other efforts to

  • Power Capacity Addition

Half of it has been operating since 2015 while the rest is newly installed power generation capacity. About 61% of the total additional capacity comes from coal-fired power generation, while the share of gas-fired power generation is about 26%.

The details of additional electricity generation capacity up to 2019 by electricity generation for each scenario and RUPTL 2016-2025 can be seen in Figure 4.46.

Additional Power Generation Demand 2016-2019

  • Electricity Price

Electricity costs in ALT 1 are higher than in BaU as ALT 1 is encouraged to meet the NRE use target in power generation. Although the electricity price is relatively lower in electricity generation with fossil fuels, the external costs will increase in the future, which will affect the rising electricity price.

Electricity Price 2015-2050

  • Power Fuel Demand

The graphic shows that coal power generation (conventional and supercritical), biomass power generation and geothermal. Hydropower generation is not only flexible in production, but it can also produce quickly as long as there is sufficient water in the reservoir.

Power Production Week 22 Year 2025

Jam dalam Minggu ke-22 (2025)

Power Production Week 22 Year 2050

  • New Renewable Energy Outlook .1 NRE Supply

With generation only at certain hours in a day, the solar power generation will contribute to meeting the midday peak load on the 22nd week. Pumped storage power generation should meet the same peak load demand as in 2025, but with a larger amount.

Jam dalam Minggu ke-22 (2050)

  • NRE Supply
  • NRE Demand by Sector and Scenario
    • Biodiesel and Bioethanol Demand
  • Bioethanol Demand Development by Scenario 0
    • NRE Demand for Power Generation
  • Power Generation capacity Supply from NRE 0%
  • NRE Power Generation Additional Demand 2016-2050
  • NRE Power Generation Additional Demand 2016-2025

The additional capacity in solar power generation and wind power generation compared to the total additional NRE power generation (113 GW) is 18% and 10%. Therefore, additional high capacity in solar and wind power generation in ALT 2 is possible in the next 35 years.

THE CITY OF BATAM ENERGY OUTLOOK

  • Population Condition
  • Economic Condition
  • Energy Sector Development
  • Social Economy Projection 1 Population
  • Population Projection in City of Batam 5.4.2 Gross Regional Domestic Product (GRDP)
    • Proyeksi Kebutuhan Energi Final
  • Final Energy Demand Projection in the City of Batam by Consumer
    • Energy Demand Projection by Energy Source
  • Final Energy Demand Projection in the City of Batam By Energy Source
    • Electricity
  • Power Demand Projection in the City of Batam
  • Power Generation Capacity Projection in the City of Batam
    • Capacity and Cost Addition
  • Fuel Demand Projection for Power Generation in the City of Batam
  • Capital Cost Projection for Power Generation Construction in the City of Batam
  • Power Generation Cost in the City of Batam based on Cost Component
    • Primary Energy Supply
  • Primary Energy Mix in the city of Batam 26%

It is predicted that the role of NRE power generation in Batam city will not grow well. Fluctuations in electricity production costs in the city of Batam are shown in Figure 5.8.

Table 5.2 GRDP Growth in the City of Batam  (Constant Price Year 2010 in Billion Rupiah)
Table 5.2 GRDP Growth in the City of Batam (Constant Price Year 2010 in Billion Rupiah)

BIBLIOGRAPHY

DEFINITION

Gambar

Table 2.1 shows a detailed basic and additional assumption used in Indonesia Energy Outlook  2016 for all scenarios
Table 2.1: Basic and Additional Assumption
Table 3.3 New and Renewable Energy Resources
Tabel 3.4 NRE Feed in Tariff by Energy Source
+7

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