Indonesia's Energy Transit: Struggle to Realize Renewable Potential

Similar documents
DECADES Tool to Make Comparative Assessment of Electricity Generation in Indonesia 1

POTENCY AND CHALLENGES OF NUCLEAR COGENERATION FOR INDONESIA EXPERIMENTAL POWER REACTOR DESIGN

Methodology for calculating subsidies to renewables

INDONESIAN PARTICIPANTS REVIEW CALIFORNIA S RENEWABLE ENERGY PLANS

Solar PV in ASEAN Challenges and Opportunities. Peerapat Vithayasrichareon Centre for Energy and Environmental Markets (CEEM), UNSW Australia

SUSTAINABLE USE OF OCEANS IN THE CONTEXT OF THE GREEN ECONOMY AND THE ERADICATION OF POVERTY, PRINCIPALITY OF MONACO, NOVEMBER, 2011

Medium Term Renewable Energy Market Report Michael Waldron Senior Energy Market Analyst Renewable Energy Division International Energy Agency

Status and Challenges of the German Energiewende

POLICY ON SOLAR AND BIOENERGY DEVELOPMENT IN INDONESIA

INDONESIA REGIONAL OVERVIEW

INDONESIA S NEW DEVELOPMENT IN POWER AND RENEWABLE ENERGY SECTORS by Hapsari Arumdati

Indonesia s Energy Requirements Part One: Current Energy Dynamics

Latest developments in Germany's -ongoing -Energiewende

Member State Perspectives

Uruguayan Energy matrix change Wind & PV development. Stuttgart - Germany June, 2013

RENEWABLE ENERGY AS A NATIONAL DEVELOPMENT PRIORITY

Brief Overview of Renewable Energy Regulation in Tanzania

energy [r]evolution A SUSTAINABLE USA ENERGY OUTLOOK Executive Summary

Independent Power Production Policy

Renewable energy: Investing in Africa

THE ELECTRIC POWER INDUSTRY: Power Capacity Mix

Renewable energy (RE) is any energy source that naturally replenishes and cannot be exhausted. Renewable energies include:

France renewable energy policies

Economic and Environmental Emissions Analysis in Indonesian Electricity Expansion Planning: Low-rank Coal and Geothermal Energy Utilization Scenarios

Indonesia update: Tariff framework for renewable energy

Indonesia Power Market Outlook to 2030 Market Trends, Regulations and Competitive Landscape. GDPE0649ICR / Published February 2013

Plenary session 2: Sustainable and Inclusive Growth: Energy Access and Affordability. Background Paper

AFFORDABLE AND CLEAN ENERGY

Investing under regulatory uncertainty

NEW AND RENEWABLE ENERGY POLICY

IEEJ:August Uruguay Paula Cobas. Energy Policy Course Tokio, 2015

CHINA 2050 HIGH RENEWABLE ENERGY PENETRATION SCENARIO AND ROADMAP STUDY. Energy Research Institute National Development and Reform Commission

German Energy Turnaround and KfW Promotion

Energy Perspectives for Asia

The joint Danish-Indonesian cooperation on climate and energy

emissions, capability to take emission reduction measures and national conditions differ from country to country. After the Paris Agreement, it may be

Headline Germany - Experiences with implementing RES E auctions

The Political Economy of Green Growth in Southern Africa

Chapter 7. Indonesia Country Report. September 2016

BRAZIL - GENERAL DATA

RENEWABLE POWER GENERATION COSTS IN 2014

ECONOMIC AND ENVIRONMENTAL EMISSION ANALYSIS IN INDONESIAN ELECTRICITY EXPANSION PLANNING: LOW-RANK COAL AND GEOTHERMAL ENERGY UTILIZATION SCENARIOS

Renewables in Vietnam OPPORTUNITIES FOR INVESTMENT

GENERATING DIALOGUE CLEAN ENERGY, GOOD GOVERNANCE AND REGULATION. Background Paper for Discussion

Off-grid opportunities and sustainability in Indonesia: Sumba Iconic Island: 100% renewable energy by 2025

TREASURE COAST REGIONAL PLANNING COUNCIL M E M O R A N D U M. To: Council Members AGENDA ITEM 8

Wind Power in Context A clean Revolution in the Energy Sector

8. Confusion About Renewable Energy. Gail Tverberg Energy Economics and Analysis Modeling

A MEANDERING PATH ENERGY

PROJECT INFORMATION DOCUMENT (PID) APPRAISAL STAGE. Lahendong II Geothermal Power Project

1. Executive Summary Ameren Missouri

The German Market Promotion Initiatives for Renewable Energies

Renewables: The True Costs. Michael Taylor and Eun Young So IRENA, Bonn, Germany 7 May 2015

The Potential for Renewable Energy in India

BRIEFING TO THE INCOMING MINISTER

Flexible Fiscal Incentives and Policy Reforms: What works for Clean Energy Investments?

Germany: Energy Briefing

Egyptian Renewable Energy plan

Accelerating energy innovation to achieve a sustainable future

Costs of Renewables in Pacific Island Countries (PICs)

Are the 2020 renewables targets (for electricity and heat) achievable? If not, why not?

European Economic Area Financial Mechanism GR03 Programme «Renewable Energy» Energy profile: Norway

Medium Term Renewable Energy Market Report 2016

New regulation for biomass and biogas power projects in Indonesia

Renewable energy in Europe. E-turn 21 workshop Cologne, 10 May 2006

Outlook for Renewable Energy Market

The Role of Public-Private Partnership in Financing Renewable Energy and Improving Energy Access to Rural Poor

VIETNAM GUIDE ON RENEWABLE ENERGY

Renewable Energy Sources Act. Progress Report 2007

Photovoltaics in Indonesia. Frank Südbeck (853303)

Role of IPRs in the Diffusion and Transfer of Technologies, including Lesson from Work in the Trips Council

Jordan Assessment Report

Croatia Energy efficiency report

Why China Is Acting on Clean Energy: Successes, Challenges, and Implications

RENEWABLE ENERGY AND ENERGY EFFICIENCY FINANCING AND POLICY NETWORK FORUM

Design of feed-in tariffs in emerging economies and developing countries

Renewable Energy Technologies - Present and Future Prospects in Indian Economy

SAMPLE. Reference Code: GDAE6214IDB. Publication Date: September GDAE6214IDB / Published SEP 2012

The goals for renewable energy share of all energy

Promoting Renewable Energy Development: An Introductory Workshop for Energy Regulators. Kenyan Country Report

Estonia Energy efficiency report

GOVERNMENT REGULATION OF THE REPUBLIC OF INDONESIA NUMBER 79 OF 2014 ON NATIONAL ENERGY POLICY THE PRESIDENT OF THE REPUBLIC OF INDONESIA,

Pragmatic Policy Options for Copenhagen and Beyond

Development of Renewable Energies in Tunisia

Export & import possibilities and fuel prices

Cost of Service and Public Policy. Ted Kury Director of Energy Studies, PURC

Vietnam Renewable Energy development project to 2030 with outlook to 2050

A Study on Renewable Energy Development Status in Rural China Yue Yu 1,a, Adam Pilat 1,b

OVERVIEW OF THE ENERGY SECTOR IN ZAMBIA: CASE OF RENEWABLE ENERGY

100% Energy from Wind

PG&E s Role in California s Clean Energy Future. Emma Wendt Pacific Gas and Electric Company January 25, 2011

Democratic Socialist Republic of Sri Lanka Commercial Capital: Colombo Administrative Capital: Sri Jayawardenapura Kotte

Current Status and Future Prospects of World s Renewable Energy Dr. Wolfgang Palz World Council Renewable Energy Former European Union Official

RenovAr PROJECT ON ARGENTINA Ministry of Energy and Mining Argentina Republic

THE ROLE OF GEOTHERMAL ENERGY

Nigeria Solar PPA Project Pipeline InterSolar Europe 2017, Munich Germany Presented by: Segun Adaju CEO Consistent Energy & President, REAN

Energy Perspectives 2016 Long-term macro and market outlook

Role of clean energy in the context of Paris Agreement

Note of the Director-General Region in Focus Asia

The Global Grid. Prof. Damien Ernst University of Liège December 2013

Transcription:

Indonesia's Energy Transit: Struggle to Realize Renewable Potential By Jeremy Wilcox, Contributor September 14, 2012 LONDON -- Indonesia's electricity market is moving from a monopoly fossil-fuel generation base to a more competitive structure with an increasing share of renewable energy. Or rather that is the transition the government seeks to promote, while the reality is somewhat different. As with some other fast developing economies, Indonesia is characterized by economic growth and a widening middle class as social prosperity grows. But unless there is significant investment in its aging generation and transmission infrastructure the country could face an electricity crisis in this decade. Current conventional energy resources are unable to meet full base load supply, leading to daily blackouts in some parts of the country, and the government's target for 90 percent electrification by 2020 is woefully behind schedule and unlikely to be met. With annual electricity demand growth estimated at between 7 percent and 9 percent through the remainder of this decade the supplydemand imbalance will only widen further without investment in additional generation capacity. The irony of this situation is that Indonesia can, and should, be self-sufficient in energy supply, being blessed with abundant energy resources, both fossil and renewable, and once the transmission link with Malaysia is completed (scheduled by 2020) it will also have the potential to generate significant electricity export revenues. Renewable Potential The energy potential is significant, as are the economic rewards, but policy-wise the government has been lethargic in harnessing these renewable resources, with energy policy still coal-centric. Since passing an energy law in 2007 with the goal of diversifying the country's energy supply, and increasing the use of renewable energy to reduce dependency on fossil fuels, the government mandated investment in 20 GW of new coal-fired capacity, supported by a new mining law in 2009, and is now looking to implement coal export quality thresholds to protect its domestic coal-fired market - both generation and extraction industry. It is important to understand the government's coal policy in order to fully appreciate the opportunities and challenges faced by renewable energy in Indonesia. Through significant investment, and a more attractive regulatory regime for foreign investors, Indonesia now boasts the world's largest thermal coal market. And with 40 percent of the world's geothermal reserves Indonesia could, and arguably should, replicate its coal success with renewable energy. But while identifying and quantifying the country's abundant renewable energy opportunity is relatively easy, developing it is not and the figures speak for themselves. In 2010 Indonesia's Ministry for Energy and Mineral Resources (MEMR) revised the country's geothermal potential to 28.1 GW from 27 GW a decade earlier, which is equivalent to 12 billion barrels of oil and almost twice the country's current oil reserves of 6.4 billion barrels. Yet as of 2010, the latest year for which full data is available, Indonesia had installed geothermal capacity of just 1.2 GW, leaving it with an undeveloped potential of 96 per cent. This undeveloped renewable potential is similar for hydropower (94 percent), biomass (99 percent) and wind (99 percent). Overall, Indonesia has an undeveloped renewable potential of 96 per cent with an on-grid installed capacity of 2.9 GW and an off-grid capacity of 3.2 GW, against a total resource potential estimated at 163.3 GW.

In 2010, according to the Indonesia Infrastructure Report, coal accounted for 40 percent of installed capacity, followed by oil (29 percent), gas (21 percent), hydropower (8 per cent) and geothermal at just 2 percent. Under the 2006 Presidential Regulation No. 5, Indonesia plans to reduce oil use by 20 percent (compared with 2005) by 2025 and increase the share of renewable/low-carbon energy as a share of consumption to 15 percent (also by 2025) based on 5 percent biofuel, 5 percent geothermal and 5 percent biomass, nuclear, hydro and solar. Last year the government produced its latest energy policy draft, known as Vision 25/25, which proposes a 25 percent renewable share by 2025. A geothermal superpower Addressing the Asia Pacific Summit for the Climate Project in Jakarta last year, former US vice president Al Gore said Indonesia has the potential to become the world's geothermal energy superpower, telling delegates: Scientists and engineers are now saying confidently that certain forms of enhanced geothermal electricity production may represent one of the largest resources of carbon-free electricity available in the world today... And Indonesia could be a superpower of geothermal electricity. With the new regional supergrids that are being proposed on every continent, it can be a significant advance for Indonesia's economy. Gore is not alone in identifying Indonesia's geothermal potential but in order for this energy potential to be realized the government has to address three main challenges; technology knowledge, environmental impact and foreign investment. While a number of U.S. companies have already invested in Indonesia's geothermal power sector, with this trend expected to continue if there are sufficient financial returns, the key determinant of geothermal success will be cooperation with other countries that have successfully developed this technology. Encouragingly, in April 2012 the governments of Indonesia and New Zealand signed a cooperation agreement on geothermal energy, with New Zealand already active in the geothermal development with this resource contributing 70 percent of its renewable energy share. According to the MEMR statement, the cooperation includes sharing developments in exploration, development and regulation with the intention that it assists with the Indonesian government's policy development to support geothermal growth through to 2025. Accordingly MEMR sees the cooperation agreement as being pivotal to developing a strategic plan together with an education and training program on geothermal technology to improve the quality of geothermal production and to improve the role of the private sector in developing the country's geothermal resources. While the government seems to be addressing the technology issues associated with geothermal development, the environmental impact of this development could prove more challenging. With around 80 per cent of Indonesia's geothermal reserves located in conserved forests, any development of this land requires a presidential decree. Yet in May 2011 the government committed to a two-year moratorium on forestry development under a $1 billion climate deal with Norway aimed at reducing emissions from deforestation, and the government is still deliberating on its longterm forestry policy when the moratorium expires next year. The problem faced by the government is that it cannot meet its full geothermal potential and also commit to a longerterm deforestation policy that will be pivotal to meeting the government's voluntary emission reduction target of 26 percent by 2020.

Ever since Indonesia made its emission reduction pledge at the 2009 Copenhagen U.N. climate summit, its environmental policy has been uncertain. The government has an opportunity to meet its emission reduction objectives through increased renewable energy use, but to achieve this it will have to provide a forestry policy that supports renewable development while restricting deforestation for carbon-rich project development, such as coal mining. But economically, at least in the medium-term, such a forestry policy could be disadvantageous if it limited coal export revenues. Consequently the government has to carefully consider the environmental and economic risk-reward scenarios associated with deforestation. The third challenge to geothermal development, financial incentives, is applicable to all renewable energy development in Indonesia. The lack of sufficient financial incentives and the heavy energy price subsidies have been major constraints on renewable development, while the Negative Investment List under the 2007 Investment Law prevents foreign investment in power plants with an installed capacity below 10 MW. Financial incentives The primary financial support scheme for renewable energy is a feed-in tariff (FiT) program that has been in place since 2002, with all technologies being eligible for the tariff that has a 15-year maturity. But the problem with this financial incentive is not the level of support provided but the regulated end user energy prices, with a growing concern that unless the government increases these prices the FiT system will become economically unsustainable. In 2010, the average end user price was 7 cents/kwh, while the average FiT rate, that is, the price for which state utility PLN (Perusahaan Listrik Negara) purchased the electricity, was 10 cents/kwh. This provides the government with a problem. To incentivise more renewable investment it will have to keep the feed in tariff high, yet unless it also increases the end user prices it will have to provide increasing subsidies to PLN to cover the loss between electricity costs (both its own production costs and the price it pays to offtake electricity from independent power producers) and revenues. In 2011 the subsidy paid to PLN was estimated at just over $8 billion. The obvious solution would be to increase end user prices, yet to just break even on production costs would require a near 80 percent price hike and a recent attempt to increase prices by 20 percent was defeated by mass public demonstrations and strike threats. With a public used to cheap energy any attempt to increase prices could be political suicide, yet the economic cost of bailing out PLN with annual subsidies makes no sense. And there is another potential risk afforded by the disparity between renewable energy costs and end user prices: an increase in fossil fuel generation. Coal-fired generation costs just over half that of renewable resources, and for PLN coal is a far more economically attractive generation source. And while PLN is obligated to offtake renewable generation from independent power producers (IPPs) the disparity between renewable generation costs and end user prices could well force the utility to switch its own production to coal in order to reduce losses, which would ultimately undermine the government's renewable and emission objectives. Outlook Indonesia has both significant renewable resource potential and a government committed to its development, but the country's renewable realization is seriously lacking. As with other fast-developing countries it needs to support its strong economic growth with energy supply, with its abundant coal reserves providing an obvious solution, at least in the medium term. But unlike other fast developing economies, Indonesia has a strong environmental conscience with the government keen to present itself as a regional climate action leader.

The current renewable outlook is not promising, but it need not be that way. From an electrification perspective, off-grid renewable plants can provide the rural electrification required and improve grid reliability, which in turn will benefit overall economic output. And from an environment perspective, the replacement of largely diesel-powered off-grid generation with small-scale renewable plants will reduce greenhouse gas emissions. But in order for this off-grid capacity to be developed, the government must be able to provide sufficient financial support to developers and relax restrictions on foreign investors. But the major challenge, and the constraint on renewable market development, is PLN. While the state utility may not exercise its historical market dominance following recent reforms, it still has a right of first refusal, with IPPs only able to service areas that have been declined by PLN or that are not included in PLN plans. And IPPs have to enter into a PPA with PLN if they want to use the grid, which is operated by PLN. If the government is to accelerate renewable development and realise the economic and environmental benefits it will afford, it has to introduce more competition into the market by reducing the dominance of PLN. If it does not, it is likely Indonesia will continue on the slow development path and may never fully realise the potential of its renewable wealth. Indonesia's renewable potential As with geothermal, Indonesia's biomass potential is significant at just under 50 GW. But again, as with geothermal, the resource is significantly under-developed with barely 1 percent of this potential currently commercially developed. With its extensive biomass reserves, including rice residues, sugar, rubber and palm oil, Indonesia could be a major centre of biofuel production, but its potential is constrained by most biofuel resources being exported due to the higher value placed in food, or used in domestic food production. Additionally, a lack of biofuel processing capacity and infrastructure to support large-scale biomass projects will severely restrict the development potential, as will land ownership issues, with an incomplete central database on land ownership leading to disputes that prevent economic development. Indonesia's greatest renewable energy potential is from hydro and marine power, with MEMR estimating 75.6 GW of large hydropower potential and marine potential of 10-35 MW per km of a coastline that is 54,700 km in length. But, as with other renewable resources, only 4.3 GW of large hydropower capacity has been developed and only one demonstration marine project in the Lombok Strait has been developed. Of the two renewable resources, the greater potential lies with marine energy. Indonesia's onshore wind power potential is severely limited by the lack of wind along the equator and limited transmission infrastructure to support large-scale wind farms in the less populated eastern islands where the wind is more favorable for generation. Consequently wind power development has been limited to small projects with an installed capacity of just over 1 MW. But Indonesia's lengthy coastline will provide opportunities for offshore wind development, although this development will be contingent on transmission infrastructure investment. If the government wants to develop its offshore potential and to date there are no indications that this will be a policy priority it will have to consider issuing tenders for offshore operation licenses similar to those offered in the U.K., for example. However, the protectionist nature of the government suggests this is unlikely, at least until after the next general election which is currently scheduled to take place in September 2014.

Finally, Indonesia has significant solar power potential, estimated at 4.8 kwh/m2/day. But as with the country's other renewable resources this potential is underdeveloped, with current installed solar capacity of just 12 MW, mainly through rooftop photovoltaic (PV) systems in urban areas. The main restrictions on solar market development are the lack of domestic solar cell producers, limited solar maintenance expertise and the inability to sell excess solar capacity back to the grid. Source : http://www.renewableenergyworld.com/rea/news/article/2012/09/indonesias-energy-transit?page=all