Mean value first principle engine model for predicting dynamic behaviour of two-stroke marine diesel engine in various ship propulsion operations
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초록
Analysis of ship propulsion system performance is often performed using detailed hydrodynamic models to assess load changes, which are subsequently compared to static engine limits, or by detailed engine models that are rarely integrated with sufficiently detailed propulsion models for load change estimation. To investigate the dynamic engine (overloading) behaviour and ship propulsion performance under various heavy operating conditions, a Mean Value First Principle Parametric (MVFPP) engine model is integrated into a ship propulsion system model in this paper. An upgraded thermodynamic-based MVFPP model for two-stroke marine diesel engines is presented, in particular a newly developed MVFPP gas exchange model. Based on the integrated propulsion system model of a benchmark ocean-going chemical tanker, the engine dynamic behaviour during ship acceleration, deceleration and crash stop has been investigated. Results show that, during dynamic processes, the engine could be thermally overloaded even if the engine power trajectory is inside the static engine operating envelope. The paper contributes to finding proper indicators for thermal overloading of modern two-stroke marine diesel engines. It is demonstrated that when matching the engine with the propeller and designing the ship propulsion control system, not only the static engine operating envelope, but also the dynamic engine behaviour should be considered.
Abstract
Analysis of ship propulsion system performance is often performed using detailed hydrodynamic models to assess load changes, which are subsequently compared to static engine limits, or by detailed engine models that are rarely integrated with sufficiently detailed propulsion models for load change estimation. To investigate the dynamic engine (overloading) behaviour and ship propulsion performance under various heavy operating conditions, a Mean Value First Principle Parametric (MVFPP) engine model is integrated into a ship propulsion system model in this paper. An upgraded thermodynamic-based MVFPP model for two-stroke marine diesel engines is presented, in particular a newly developed MVFPP gas exchange model. Based on the integrated propulsion system model of a benchmark ocean-going chemical tanker, the engine dynamic behaviour during ship acceleration, deceleration and crash stop has been investigated. Results show that, during dynamic processes, the engine could be thermally overloaded even if the engine power trajectory is inside the static engine operating envelope. The paper contributes to finding proper indicators for thermal overloading of modern two-stroke marine diesel engines. It is demonstrated that when matching the engine with the propeller and designing the ship propulsion control system, not only the static engine operating envelope, but also the dynamic engine behaviour should be considered.
참고문헌 (51)
- Baldi, F., "Development of a combined mean valueezero dimensional model and application for a large marine four-stroke diesel engine simulation", Appl. Energy, 154, pp.402~415 (2015)
- Continuous Processes, "The Modelling and Simulation of Combined Discrete", pp.1992, Barton, P. I.
- Cagin, S., "A new reduced model of scavenging to optimize cylinder design", Simulation, 92(6), pp.507~520 (2016)
- Carlton, J., "Future Ship Powering Options: Exploring Alternative Methods of Ship Propulsion" (2013), Royal Academy of Engineering
- Carlton, J. S., "Marine Propellers and Propulsion" (2019), Butterworth-Heinemann
- Development of a single cylinder compression ignition research engine, "Chen, S. K.", SAE, ~, pp.SAE Technical Paper 650733 (1965)
- Colonna, P., "Dynamic modeling of steam power cycles : Part Idmodeling paradigm and validation", Appl. Therm. Eng, 27(2), pp.467~480 (2007)
- Dang, J., "The Wageningen C-And D-Series Propellers", 12th International Conference on Fast Sea Transportation FAST2013 (2013)
- Ding, Y., "Characterising Combustion in Diesel Engines Using Parameterised Finite Stage Cylinder Process Models", pp.2011
- Ding, Y., "Two-zone simulation modeling of gas exchange process of super-long-stroke low-speed diesel engine (in Chinese)", J. Harbin Eng. Univ, 40(1), pp.210~216 (2019)
- Foteinos, M. I., "A three-zone scavenging model for large two-stroke uniflow marine engines using results from CFD scavenging simulations", Energies, 12(9), pp.1719~ (2019)
- Geertsma, R. D., "Pitch control for ships with diesel mechanical and hybrid propulsion: modelling, validation and performance quantification", Appl. Energy, 206, pp.1609~1631 (2017)
- Geertsma, R. D., "Adaptive pitch control for ships with diesel mechanical and hybrid propulsion", Appl. Energy, 228, pp.2490~2509 (2018)
- Georgescu, I., "Dynamic Behaviour of Gas and Dual-Fuel Engines: Using Models and Simulations to Aid System Integration", CIMAC Congress 2016 (2016)
- Grimmelius, H., "The Use of Diesel Engine Simulation Models in Ship Propulsion Plant Design and Operation", CIMAC Congress (2007)
- Grimmelius, H. T., "Control Optimisation and Load Prediction for Marine Diesel Engines Using a Mean Value Simulation Model", ENSUS Conference 2000 (2000)
- Guan, C., "Computational investigation of a large containership propulsion engine operation at slow steaming conditions", Appl. Energy, 130, pp.370~383 (2014)
- Hangos, K., "Process Modelling and Model Analysis" (2001), Academic Press
- He, F., "Numerical Simulation of Scavenging Process of Large 2-Stroke Marine Diesel Engine", 2nd International Conference on Automatic Control and Information Engineering. ICACIE 2017 (2017)
- Holt, P., "Preliminary assessment of increased main engine load as a consequence of added wave resistance in the light of minimum propulsion power", Appl. Ocean Res, 108, pp.102543~ (2021)
- Fourth IMO GHG Study 2020 - Final Report, "IMO", International Maritime Organization, ~ (2020)
- Design of Propulsion and Electric Power Generation Systems, "Klein Woud, H.", IMarEST, Institute of Marine Engineering, Science and Technology, ~ (2002)
- Liu, H., "Evaluation analysis of scavenging process of twostroke marine diesel engine by experiment and simulation", J. Therm. Sci. Technol, 9(2), pp.T12~ (2014)
- MAN B&W S35ME-B9.3-TII Project Guide - Electronically Controlled Two-Stroke Engines with Camshaft Controlled Exhaust Valves, "MAN", MAN Diesel & Turbo, ~ (2014)
- MAN, "MAN B&W S35ME-B9.5-TII Project Guide - Electronically Controlled Two-Stroke Engines", ~ (2014)
- Basic Principles of Ship Propulsion, "MAN", MAN Diesel & Turbo, ~ (2018)
- Nanda, K. S., "Fundamental analysis of thermal overload in diesel engines: hypothesis and validation", Energies, 10(3), pp.329~ (2017)
- Payri, F., "A complete 0D thermodynamic predictive model for direct injection diesel engines", Appl. Energy, 88(12), pp.4632~4641 (2011)
- Sapra, H., "Hydrogen-natural gas combustion in a marine lean-burn SI engine: a comparitive analysis of seiliger and double Wiebe function-based zeroedimensional modelling", Energy Convers. Manag, 207, pp.112494~ (2020)
- Sapra, H., "Experimental and simulation-based investigations of marine diesel engine performance against static back pressure", Appl. Energy, 204, pp.78~92 (2017)
- Schulten, P., "The Interaction between Diesel Engines, Ship and Propellers during Manoeuvring", pp.2005
- Mean value modeling of the gas exchange of a 4-stroke diesel engine for use in powertrain applications, "Schulten, P. J. M.", SAE, ~, pp.SAE Technical Paper. No. 2003-01-0219 (2003)
- Seiliger, M., "Graphische Thermodynamik Und Berechnen Der Verbrennungs-Maschinen Und Turbinen" (1922), Julius Springer
- Seiliger, M., "Die Hochleistungs-Dieselmotoren" (1926), Julius Springer
- Sher, E., "Scavenging the two-stroke engine", Prog. Energy Combust. Sci, 16(2), pp.95~124 (1990)
- Shi, W., "Dynamics of Energy System Behaviour and Emissions of Trailing Suction Hopper Dredgers", pp.2013
- Scavenge Model for Diesel Engine Simulation: Simultaneous Cooling and Cleaning in Perfect Mixing Element (Internal Report), "Stapersma, D.", Royal Netherlands Naval College, ~ (1999)
- Stapersma, D., "The Influence of Turbo Charger Matching on Propulsion Performance", INEC 2008, Embracing the Future. HT Grimmelius (2008)
- Stapersma, D., "Diesel Engines - a Fundamental Approach to Performance Analysis, Turbocharging, Combustion, Emissions and Heat Transfer", Performance Analysis, Part I: Diesel Engines a - Performance Analysis and Turbocharging (2010)
- Stapersma, D., "Diesel Engines - a Fundamental Approach to Performance Analysis, Turbocharging, Combustion, Emissions and Heat Transfer", Turbocharging, Part I: Diesel Engines a - Performance Analysis and Turbocharging (2010)
- Stapersma, D., "Diesel Engines - a Fundamental Approach to Performance Analysis, Turbocharging, Combustion, Emissions and Heat Transfer", Emissions and Heat Transfer, Part II: Diesel Engines B - Combustion, Emissions and Heat Transfer (2010)
- A General Model for Off-Design Performance of a Single Stage Turbomachine, "Stapersma, D.", Delft University of Technology, ~, pp.KIM-PFS-97-111 (2013)
- Sui, C., "Fuel consumption and emissions of ocean-going cargo ship with hybrid propulsion and different fuels over voyage", J. Mar. Sci. Eng, 8, pp.8~ (2020)
- Sui, C., "Mean value modelling of diesel engine combustion based on parameterized finite stage cylinder process", Ocean Eng, 136, pp.218~232 (2017)
- Sui, C., "Energy effectiveness of ocean-going cargo ship under various operating conditions", Ocean Eng, 190, pp.106473~ (2019)
- Thacker, B. H., "Concepts of Model Verification and Validation", pp.41~ (2004), United States
- Theotokatos, G., "Development of an extended mean value engine model for predicting the marine two-stroke engine operation at varying settings", Energy, 143, pp.533~545 (2018)
- Review of Maritime Transport 2019, "UNCTAD", UNITED NATIONS PUBLICATION, ~ (2019)
- van Putten, H., "Dynamic modeling of steam power cycles: Part II e simulation of a small simple Rankine cycle system", Appl. Therm. Eng, 27(14), pp.2566~2582 (2007)
- A universally applicable equation for the instantaneous heat transfer coefficient in the internal combustion engine, "Woschni, G.", SAE, ~ (1967)
- Kevin Koosup Yum, "Simulation of a two-stroke diesel engine for propulsion in waves", International Journal of Naval Architecture and Ocean Engineering, 9(4), pp.351~372 (2017), 대한조선학회