ENERGY AND OPERATING COSTS OF METHANOL FUEL ON A 4000 DWT OIL CHEMICAL TANKER

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Abyan Ariaputra Aziz
Fajri Ashfi Rayhan
Agus Dwy Bramastha
Muhammad Afrizal
Muhammad Sugeri
Amir Marasabessy

Abstract

The International Maritime Organization (IMO) has introduced regulations that the shipping industry must reduce Greenhouse Gas Emissions by at least 50% by 2050 compared to 2008. At the same time, the IMO predicts that global shipping emissions will increase by 250% by 2050. Therefore, the Shipping Industry must fix this problem by reducing carbon emissions. Methanol Fuel is an alternative fuel for ships that is cost-effective, low-emission, environmentally friendly, and renewable. Methanol can reduce SOx emissions by up to 99%, NOx emissions by up to 60%, and Special Particulates by up to 95%. The purpose of this study is to make adjustments to the methanol-fueled main engine, calculate energy, operating costs,  main engine retrofit prices, and return periods on the  Oil Chemical Tanker 4000 DWT ship with the method of Round-Trip Shipping with Route Variations, Composition, and Fuel Prices. From the discussion of this study, it can be concluded that the calculation of energy and operating costs of Heavy Fuel Oil (HFO) and methanol is influenced by the amount of fuel used during the voyage, in addition to the results of the calculation of energy, operating costs, and retrofit prices on the Oil Chemical Tanker 4000 DWT (Deadweight Tonnage) ship with a voyage on the American route of 3,467,320 MJ, Rp. 1,565,684,341.-, and a 2.4-year return period, the European route of 3,137,099 MJ,  Rp. 1,352,844,897.-, and 2.8 years of return period, and Asia Pacific routes of 3,274,914 MJ, Rp. 1,069,629,506.-, and 3.5 years of return period, as well as the price of the main engine retrofit, which reached Rp. 7,574,435,035.-. These findings offer valuable insights for shipping companies to make informed decisions about fuel selection and retrofit investments, potentially leading to significant cost savings and a reduced environmental footprint. Furthermore, the study provides a strategic foundation for complying with IMO regulations and achieving long-term sustainability goals in the maritime industry.

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References

Agarwal, S.P. & Rauthan, S.S., 2019, Fuel supplement to reduce harmful emissions. U.S. Patent 10,323,199.

AlAbbad, M., Gautam, R., Romero, E.G., Chatakonda, O., Kloosterman, J.W., Middaugh, J. & Agostini, M.D., 2024, ‘Characterization and surrogate formulation of heavy fuel oil’, Fuel, 360, 130556.

Bayraktar, M., Yuksel, O. & Pamik, M., 2023, ‘An evaluation of methanol engine utilization regarding economic and upcoming regulatory requirements for a container ship’, Sustainable Production and Consumption, 39, 345–356.

Chen, Z., 2021, ‘Study on risk assessment of methanol fueled ship’. commons.wmu.se

Cui, Z., Li, Y., Xiao, S., Tian, S., Tang, J., Hao, Y. & Zhang, X., 2024, ‘Recent progresses, challenges and proposals on SF6 emission reduction approaches’, Science of The Total Environment, 906, 167347.

Dalena, F., Senatore, A., Marino, A., Gordano, A., Basile, M. & Basile, A., 2018, ‘Methanol production and applications: an overview’, Methanol, 3–28.

Elishav, O., Mosevitzky Lis, B., Miller, E.M., Arent, D.J., Valera-Medina, A., Grinberg Dana, A., Shter, G.E. & Grader, G.S., 2020, ‘Progress and prospective of nitrogen-based alternative fuels’, Chemical Reviews, 120(12), 5352–5436.

Liu, J., Zhao, J., Zhu, Q., Huo, D., Li, Y. & Li, W., 2024, ‘Methanol-based fuel boiler: Design, process, emission, energy consumption, and techno-economic analysis, ’ Case Studies in Thermal Engineering, 54, 103885.

Schüppel, M. & Gräbner, M., 2024, ‘Pyrolysis of heavy fuel oil (HFO) – A review on physicochemical properties and pyrolytic decomposition characteristics for application in novel, industrial-scale HFO pyrolysis technology’, Journal of Analytical and Applied Pyrolysis, 179(March).

Shahnazari, S., Astaraki, M.A., Sobati, M.A. & Ghassemi, H., 2023, ‘Atomization characteristics of different water/heavy fuel oil emulsions in a pressure-swirl injector’, Journal of the Energy Institute, 108, 101204.

Svanberg, M., Ellis, J., Lundgren, J. & Landälv, I., 2018, ‘Renewable methanol as a fuel for the shipping industry’, Renewable and Sustainable Energy Reviews, 94, 1217–1228.

Taghavifar, H. & Perera, L.P., 2023, ‘Life cycle emission and cost assessment for LNG-retrofitted vessels: The risk and sensitivity analyses under fuel property and load variations’, Ocean Engineering, 282, 114940.

Tian, Z., Wang, Y., Zhen, X. & Liu, Z., 2022, ‘The effect of methanol production and application in internal combustion engines on emissions in the context of carbon neutrality: A review’, Fuel, 320, 123902.

Yin, L., Qi, M., Ju, Y. & Moon, I., 2022, ‘Advanced design and analysis of BOG treatment process in LNG fueled ship combined with cold energy utilization from LNG gasification’, International Journal of Refrigeration, 135, 231–242.

Zannis, T.C., Katsanis, J.S., Christopoulos, G.P., Yfantis, E.A., Papagiannakis, R.G., Pariotis, E.G., Rakopoulos, D.C., Rakopoulos, C.D. & Vallis, A.G., 2022, ‘Marine exhaust gas treatment systems for compliance with the IMO 2020 global sulfur cap and tier III NOx limits: a review’, Energies, 15(10), 3638.

Zhang, C., Zhu, J., Guo, H., Xue, S., Wang, X., Wang, Z., Chen, T., Yang, L., Zeng, X. & Su, P., 2024, ‘Technical Requirements for 2023 IMO GHG Strategy’, Sustainability, 16(7), 2766.

Zincir, B. & Deniz, C., 2021, ‘Methanol as a fuel for marine diesel engines’, Alcohol as an Alternative Fuel for Internal Combustion Engines, pp. 45–85, Springer.