Activity-based evaluation of ship pollutant emissions considering ship maneuver according to transportation plan
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초록
Ships that use fossil fuels produce pollutant emissions that significantly affect air quality, global climate change, disruption of marine ecosystems, loss of coastline, and devastation of human health. Thus, it is important to manage maritime pollutant emissions. The first step to manage marine pollutant emissions is to precisely evaluate the emitted quantities. This paper presents the construction of a new approach to evaluate pollutant emissions of CO2, SOX, NOX, HC, CO, and PM using an activity-based approach by simulating an autopiloted ship for a transportation plan. The evaluated pollutant emissions were analyzed according to the fuel type, draft condition, and command speed. The evaluated emissions using the suggested approach were compared with those using a simplified approach, which shows the benefit of using LNGF for CO2, SOX, and CO in comparison to HFO. Potential drawbacks for NOX, HC, and PM emissions were also recognized for some conditions.
Abstract
Ships that use fossil fuels produce pollutant emissions that significantly affect air quality, global climate change, disruption of marine ecosystems, loss of coastline, and devastation of human health. Thus, it is important to manage maritime pollutant emissions. The first step to manage marine pollutant emissions is to precisely evaluate the emitted quantities. This paper presents the construction of a new approach to evaluate pollutant emissions of CO2, SOX, NOX, HC, CO, and PM using an activity-based approach by simulating an autopiloted ship for a transportation plan. The evaluated pollutant emissions were analyzed according to the fuel type, draft condition, and command speed. The evaluated emissions using the suggested approach were compared with those using a simplified approach, which shows the benefit of using LNGF for CO2, SOX, and CO in comparison to HFO. Potential drawbacks for NOX, HC, and PM emissions were also recognized for some conditions.
참고문헌 (30)
- Bai, C., "Gaseous emissions from a seagoing ship under different operating conditions in the coastal region of China", Atmosphere, 11(3), pp.305~ (2020)[DOI]
- Ball, M., "Compendium of Hydrogen Energy e Volume 4: Hydrogen Use, Safety and the Hydrogen Economy" (2015), Woodhead Publishing
- Behrendt, C., "Comparison of model test with ship sea trial results for a given vessel series", Trans. Built. Environ, 24, pp.277~284 (1997)
- Biert, L., "A review of fuel cell systems for maritime applications", J. Power Sources, 327, pp.345~364 (2016)
- "Highlights e Issue 2" (2020)[URL]
- Electric load analysis report of 173K LNG Carrier, "DSME", ~ (2017)
- Iodice, P., "A numerical approach to assess air pollution by ship engines in manoeuvring mode and fuel switch conditions", Energy Environ, 28(8), pp.827~845 (2017)
- IMO, "MEPC.1", Circ.684 e Guidelines for the Development of the Ship Energy Efficiency Operational Indicator (EEOI), 2009
- Third IMO GHG Study 2014: Executive Summary and Final Report, "IMO", IMO, ~ (2015)
- Resolution MEPC.282(70) - 2016 Guidelines for the Development of a Ship Efficiency Management Plan (SEEMP), "IMO", ~ (2016)
- Kjemtrup, N., "Gas 2-stroke maritime engine design & operation", Greek CIMAC Association (GCA) Seminar (2015)
- Comprehensive plan on fine dust management In: Korea Environmental Policy Bulletin vol. 15, "Korea Ministry of Environment", Korea Environment Institute, ~ (2018)
- Langella, G., "Ship engines and air pollutants: emission during fuel change-over and dispersion over coastal areas", Int. J. Energy. Environ. Eng, 7, pp.307~320 (2016)
- Lee, H., "Estimation of the non-greenhouse gas emissions inventory from ships in the port of incheon", Sustainability, 12, pp.8231~ (2020)
- Lindstad, H. E., "Batteries in offshore support vessels e pollution, climate impact and economics", Transport. Res. Part D, 50, pp.409~417 (2017)
- Man, Diesel, Turbo, "MAN B&W G70ME-C9.5-GI-TII Project Guide Electronically Controlled Dual Fuel Two-Stroke Engines Edition 1.0", ~ (2017)
- "Managing methan slip" (2020)[URL]
- Murena, F., "Using A CFD model to assess the impact of cruise ship emissions on the façades of waterfront buildings in Naples", Italy. WIT Trans. Ecol. Environ, pp.189~197 (2018)
- Osterman, C., "A systemic review of shipboard SCR installations in practice", WMU J Marit Affairs, 12, pp.63~85 (2013)
- Rakke, S.G, "Ship Emissions Calculation from AIS", 석사, pp.2016
- Current Methodologies and Best Practice in Preparing Port Emission Inventories, "The United States Environmental Protection Agency", USEPA, ~ (2006)
- Wartisila, "Wartisila 34DF Product Guide", ~ (2019)
- "X-DF by WinGD e low-pressure X-DF engines FAQ" (2020)[URL]
- Yau, P. S., "Speed profiles for improvement of maritime emission estimation", Environ. Eng. Sci, 29(12), pp.1076~1084 (2012)
- 유영준, "AIS 데이터에 기반한 LNGC의 운항 성능 추정 시뮬레이션 연구", 대한조선학회 논문집, 54(4), pp.275~285 (2017), 대한조선학회[DOI]
- 유영준, "실선계측 데이터 대체를 위한 AIS 및 ECMWF 데이터베이스 조합을 이용한 LNGC의 분당 회전수 및 동력 추정에 관한 타당성 연구", 대한조선학회 논문집, 54(6), pp.501~514 (2017), 대한조선학회[DOI]
- You, Y., "Prediction of an actual RPM and engine power of an LNGC based on full-scale measurement data", Ocean Eng, 147, pp.496~516 (2018)
- 유영준, "선박의 유체동역학 특성 및 엔진 모드를 고려한 에너지효율운항지수 추정 프레임워크 개발", 대한조선학회 논문집, 55(6), pp.457~465 (2018), 대한조선학회[DOI]
- Youngjun You, "Development of a framework to estimate the sea margin of an LNGC considering the hydrodynamic characteristics and voyage", International Journal of Naval Architecture and Ocean Engineering, 12, pp.184~198 (2020), 대한조선학회[DOI]
- You, Y., "Estimation of operating profit of liner ship from integrated mathematical model considering design, hydrodynamic performance, and operation", Ocean Eng, pp.108771~ (2021)