Research article

A system dynamics approach to biodiesel fund management in Indonesia

  • Received: 18 August 2020 Accepted: 29 October 2020 Published: 09 November 2020
  • Indonesia, which is strongly supportive of renewable energy development, meets its obligation to extensively employ renewable energy through the mandatory mixing of palm oil-derived biodiesel with diesel, a fossil fuel. The success of the program is inseparable from the government's provision of incentives which involve paying the difference in cost between biodiesel and diesel through export taxes collected from producers of palm oil and its derivatives. However, the increase in the government's mandatory target is not in line with the higher revenue obtained with the result that under current policy conditions the government will not be able to provide incentives for the B30 plan during the next few years. This research presents a dynamic simulation modelling of Indonesia's biodiesel program and analyzes the policy applied in support of that program. A system dynamics model is proposed to enable decision-makers to understand the relationship between the different variables inherent in the system and the impact of different variables on the continuity of the biodiesel program in Indonesia. The system dynamics model consists of three sub-models: the palm oil production sub-model, the biodiesel demand and production sub-model and the biodiesel fund management sub-model. Fund management of biodiesel is specifically discussed, starting with the source of funds, through fund management, to the impact of fund availability on the biodiesel mandatory program's continuity. The simulation shows that increasing palm oil production capacity is insufficient in order to ensure the success of the government program. Simulations indicate that the biodiesel program will operate optimally if two prerequisites are satisfied; first, that the levy policy adopted is not dependent upon crude palm oil (CPO) prices and, second, that the provision of incentives is limited solely to those required by the prevailing Public Service Obligation (PSO).

    Citation: Fitriani Tupa R. Silalahi, Togar M. Simatupang, Manahan P. Siallagan. A system dynamics approach to biodiesel fund management in Indonesia[J]. AIMS Energy, 2020, 8(6): 1173-1198. doi: 10.3934/energy.2020.6.1173

    Related Papers:

  • Indonesia, which is strongly supportive of renewable energy development, meets its obligation to extensively employ renewable energy through the mandatory mixing of palm oil-derived biodiesel with diesel, a fossil fuel. The success of the program is inseparable from the government's provision of incentives which involve paying the difference in cost between biodiesel and diesel through export taxes collected from producers of palm oil and its derivatives. However, the increase in the government's mandatory target is not in line with the higher revenue obtained with the result that under current policy conditions the government will not be able to provide incentives for the B30 plan during the next few years. This research presents a dynamic simulation modelling of Indonesia's biodiesel program and analyzes the policy applied in support of that program. A system dynamics model is proposed to enable decision-makers to understand the relationship between the different variables inherent in the system and the impact of different variables on the continuity of the biodiesel program in Indonesia. The system dynamics model consists of three sub-models: the palm oil production sub-model, the biodiesel demand and production sub-model and the biodiesel fund management sub-model. Fund management of biodiesel is specifically discussed, starting with the source of funds, through fund management, to the impact of fund availability on the biodiesel mandatory program's continuity. The simulation shows that increasing palm oil production capacity is insufficient in order to ensure the success of the government program. Simulations indicate that the biodiesel program will operate optimally if two prerequisites are satisfied; first, that the levy policy adopted is not dependent upon crude palm oil (CPO) prices and, second, that the provision of incentives is limited solely to those required by the prevailing Public Service Obligation (PSO).


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    [1] Abokyi E, Appiah-Konadu P, Abokyi F (2019) Industrial growth and emissions of CO2 in Ghana: The role of financial development and fossil fuel consumption. Energy Reports 5: 1339-1353.
    [2] EPA (2009) Opportunities to reduce greenhouse gas emissions through materials and land management practices. U.S. environmental protection agency.
    [3] EPA (2020) Global greenhouse gas emissions data. United states environmental protection agency.
    [4] Bimanatya TE (2018) Fossil fuels consumption, carbon emissions, and economic growth in Indonesia. Int J Energy Econ Policy 8: 90-97.
    [5] MEMR (2019) Handbook of energy and economic statistics of Indonesia 2018. Jakarta: Ministry of energy and mineral resources republic of Indonesia.
    [6] Živković SB, Veljković MV, Banković-Ilić IB, et al. (2017) Technological, technical, economic, environmental, social, human health risk, toxicological and policy considerations of biodiesel production and use. Renewable Sustainable Energy Rev 79: 222-247.
    [7] GoI (2014) Government regulation no 79 of 2014 about national energy policy. President of republic Indonesia.
    [8] Silalahi FTR, Simatupang TM, Siallagan MP (2019) Biodiesel produced from palm oil in Indonesia: Current status and opportunities. AIMS Energy 8: 81-101.
    [9] Fauzia M (2018) Oil and gas imports contribute to the biggest deficit of trade balance deficit kompas.com. Available from: https://ekonomi.kompas.com/read/2018/09/17/150041626/impor-migas-sumbang-penyebab-terbesar-defisit-neraca-perdagangan.
    [10] MEMR (2015) MEMR regulation number 12 of 2015. In: MEMR, editor. Jakarta: MEMR.
    [11] OEC (2020) Palm oil. Available from: https://oec.world/en/profile/hs92/1511/.
    [12] Basri Wahid M, Abdullah SNA, Henson IJPPS (2005) Oil palm-achievements and potential. Plant Prod Sci 8: 288-297.
    [13] Espinoza A, Bautista S, Narváez P, et al. (2017) Sustainability assessment to support governmental biodiesel policy in Colombia: A system dynamics model. J Cleaner Prod 141: 1145-1163.
    [14] Moncada JA, Junginger M, Lukszo Z, et al. (2017) Exploring path dependence, policy interactions, and actor behavior in the German biodiesel supply chain. Appl Energy 195: 370-381.
    [15] Barisa A, Romagnoli F, Blumberga A, et al. (2015) Future biodiesel policy designs and consumption patterns in Latvia: a system dynamics model. J Cleaner Prod 88: 71-82.
    [16] Musango JK, Brent AC, Amigun B, et al. (2012) A system dynamics approach to technology sustainability assessment: The case of biodiesel developments in South Africa. Technovation 32: 639-651.
    [17] Indrawan N, Thapa S, Rahman SF, et al. (2017) Palm biodiesel prospect in the Indonesian power sector. Environ Technol Innovation 7: 110-127.
    [18] Arrumaisho US, Sunitiyoso Y (2019) A system dynamics model for biodiesel industry in indonesia. Asian J Technol Manage 12: 149-162.
    [19] Wijaya H, Arkeman Y, Hambali E (2017) Formulation of Indonesian palm oil biodiesel policy for energy security by using system dynamics model. Agric Eng Int: CIGR J 2017: 268-282.
    [20] Kuo TC, Lin S-H, Tseng M-L, et al. (2019) Biofuels for vehicles in Taiwan: Using system dynamics modeling to evaluate government subsidy policies. Resour, Conserv Recycl 145: 31-39.
    [21] Chanthawong A, Dhakal S, Kuwornu JK, et al. (2020) Impact of subsidy and taxation related to biofuels policies on the economy of Thailand: A dynamic CGE modelling approach. Waste Biomass Valorization 11: 909-929.
    [22] GoI (2015) Presidential regulation no 61 about establishment of Indonesian palm oil fund management agency. President of republic Indonesia.
    [23] MoF (2016) Regulation of the minister of finance of the republic Indonesia no. 80/PMK.05/2016.
    [24] Dharmawan A, Sudaryanti D, Prameswari A, et al. (2018) Pengembangan bioenergi di Indonesia: Peluang dan tantangan kebijakan industri biodiesel: CIFOR.
    [25] MEMR (2020) Market index price of biodiesel. Available from: http://ebtke.esdm.go.id/category/22/hip.bbn.
    [26] MIGAS B (2020) Market index price for subsidized and non subsidized gas oil to calculate the difference between market index price of gas oil with market index price of biodiesel. Available from: https://migas.esdm.go.id/uploads/harga-indek-pasar-/sept-2020---hip-minyak-solar--website-migas.pdf.
    [27] MoF (2015) Regulation of the minister of finance of the republic Indonesia no. 133/PMK.05/2015 In: Finance Mo, editor. Jakarta.
    [28] MoF (2018) Regulation of the minister of finance of the republic Indonesia no. 81/PMK.05/2018 Jakarta: Ministry of finance.
    [29] MoF (2019) Regulation of the minister of finance of the republic Indonesia no. 136/PMK.05/2019.
    [30] MoA (2020) Tree crop estate statistics of Indonesia 2018-2020: Palm oil. Jakarta: Directorate general of estates ministry of agriculture.
    [31] Nurfatriani F, Sari GK, Komarudin H (2019) Optimization of crude palm oil fund to support smallholder oil palm replanting in reducing deforestation in Indonesia. Sustainability 11: 4914.
    [32] Sterman J (2010) Business dynamics: Irwin/McGraw-Hill c2000.
    [33] Bautista S, Espinoza A, Narvaez P, et al. (2019) A system dynamics approach for sustainability assessment of biodiesel production in Colombia. Baseline simulation. J Cleaner Prod 213: 1-20.
    [34] MEMR (2019) FAQ: Program mandatori biodiesel 30% (B30). Directorate of new renewable energy and energy conservation, ministry of energy and mineral resources republic of Indonesia.
    [35] MoA (2018) Tree crop estate statistics of Indonesia 2017-2019 palm oil. Jakarta: Directorate general of estate crops, ministry of agriculture.
    [36] DGoP (2017) Guidelines for private oil plantations of planters, development of human resources and facilities and infrastructure assistance in the funding of the palm oil plantation fund management agency.
    [37] Asianagri (2019) Land rejuvenation success, oil palm farmers duplicate harvest production. Available from: https://www.asianagri.com/id/media-id/artikel/sukses-peremajaan-lahan-petani-kelapa-sawit-gandakan-hasil-panen.
    [38] MEMR (2015) Regulation of the minister of energy and mineral resources Indonesia about certain sector industry mandatory to use biodiesel and bioethanol as a fuel mixture with certain mixtures from 2015 to 2025. Minister of energy and mineral resources.
    [39] Indonesia PotRo (2014) Regulation of the president of the republic of Indonesia number 191 of 2014 concerning provision, distribution and retail price of oil fuel. Jakarta: President of Indonesia.
    [40] USDA (2019) Indonesia biofuels report 2019. Jakarta.
    [41] Migas B (2020) Konsumsi BBM nasional 2006-2018. Available from: https://www.bphmigas.go.id/kuota-dan-realisasi-jenis-bbm-tertentu/.
    [42] Population growth (annual %)-Indonesia, 2020. The World Bank Data.
    [43] BPDPKS (2019) PDPKS signs biodiesel incentive financing agreement for 2019. Palm oil fund management agency.
    [44] Barlas Y (1996) Formal aspects of model validity and validation in system dynamics. Syst Dyn Rev: J Syst Dyn Soc 12: 183-210.
    [45] Lawrence KD, Klimberg RK, Lawrence SM (2009) Fundamentals of forecasting using excel, Industrial Press Inc.
    [46] Arifin R (2019) RI wants to reach B50, car manufacturers say. Available from: https://oto.detik.com/mobil/d-4667356/ri-mau-loncat-ke-b50-ini-kata-produsen-mobil.
    [47] Sharon H, Karuppasamy K, Soban Kumar DR, et al. (2012) A test on DI diesel engine fueled with methyl esters of used palm oil. Renewable Energy 47: 160-166.
    [48] MEMR (2019) B30 road test results: All aspects of the vehicle have passed. Ministry of energy and mineral resources of the republic of Indonesia.
    [49] Sindo (2018) CPO export levy deleted, here are the facts (pungutan ekspor CPO dihapus, ini fakta-faktanya). Available from: https://economy.okezone.com/read/2018/11/27/320/1983508/pungutan-ekspor-cpo-dihapus-ini-fakta-faktanya.
    [50] Ogunkunle O, Ahmed NA (2019) A review of global current scenario of biodiesel adoption and combustion in vehicular diesel engines. Energy Reports 5: 1560-1579.
    [51] Gumilar P (2019) Gapki targets CPO productivity to be 6.9 tons per hectare per year. Available from: https://ekonomi.bisnis.com/read/20190412/99/910998/gapki-targetkan-produktivitas-cpo-jadi-69-ton-per-hektare-per-tahun.
    [52] Harahap F, Silveira S, Khatiwada D (2019) Cost competitiveness of palm oil biodiesel production in Indonesia. Energy 170: 62-72.
    [53] Amelia AR (2018) The government agrees to increase solar subsidies to rp 2,000 per liter, Available from: https://katadata.co.id/arnold/berita/5e9a55f50e96b/pemerintah-sepakat-naikkan-subsidi-solar-menjadi-rp-2000-per-liter.
    [54] Arvirianty A (2019) Biodiesel B30 is implemented in 2020, how much foreign exchange will be saved?: CNBC Indonesia. Available from: https://www.cnbcindonesia.com/news/20190619092850-4-79226/biodiesel-30-berlaku-2020-berapa-devisa-yang-dihemat.
    [55] Replanting is the key to improve livelihood of oil palm smallholders. 2018. Available from: https://www.bpdp.or.id/en/replanting-is-the-key-to-improve-oil-palm-smallholders-welfare.
    [56] Khatiwada D, Palmén C, Silveira SJB (2018) Evaluating the palm oil demand in Indonesia: production trends, yields, and emerging issues. Biofuels 1-13.
    [57] Population total-Indonesia, 2020. The World Bank Data.
    [58] Nurfatriani F, Sari GK, Komarudin H (2018) Optimalisasi dana sawit dan pengaturan instrumen fiskal penggunaan lahan hutan untuk perkebunan dalam upaya mengurangi deforestasi: CIFOR.
    [59] MIGAS B (2020) Laporan kinerja BPH migas tahun, 2019. BPH MIGAS.
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