Article
STRATEGY TO REDUCE POLLUTION FROM SERBIAN PUSHBOATS
1 / 2 / 59-72 Pages
Author(s)
Aleksandar Radonjić - University of Belgrade, Faculty of Transport and Traffic Engineering, Vojvode Stepe 305, 11 000 Belgrade, Serbia -
Abstract
Moving a cargo by ships from one point to another point is a fuel efficient method and certainly presents the lowest pollutant emission mode of transport of all transport systems if we consider long distance movement per tonne basis. Diesel engines are already efficient and while highly efficient, ships are not an insignificant source of carbon emissions at a global level. A strategy for overall decrease in pollution from ships through fuel consumption was presented in this paper. Combining ship hull form characteristics and propulsion plant parameters it has been shown that there are more options for reducing the carbon impacts of ships through lower fuel consumption. The study is based on self-assessment of hull powering performance using propulsion shaft torque data from torsion meters installed on ships and ship speed data obtained from experimental measurement. Periodic speed/power measurement could enable ship’s crew to forecast an appropriate time for hull maintenance in order to achieve the minimizing of fuel consumption, as well as reducing pollution from ships. The concept of speed measurement for assessing power performance is not a new concept. The results for Serbian pushboats were presented. The results showed that this procedure could be applied over time during the operating life of a ship.
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Keywords:
component;
fuel consumption;
full-scale measurement;
transport efficiency;
fuel efficiency;
ship powering;
References:
Anastassios N. P.; Athanasios D. 2008. A survey of short sea shipping and its prospects in the USA, Maritime Policy Management 35(6): 591–614.
Colic, V. 2006. Research of navigation, transportation, energy and propulsion parameters of the Danube pushboats (in Serbian). Belgrade: Faculty of Transport and Traffic Engineering. University of Belgrade. 200 p.
King, K.; Yasukawa, H.; Hirata, N.; Kose, K. 2008. Maneuvering simulations of pusher-barge systems, Journal of Marine Science and Technology 13(3): 117-126.
Lewis, E. 1988. Principles of Naval Architecture: Resistance, Propulsion and Vibration, Vol. II. Society of Naval Architects & Marine Engineers. 327 p.
Markle, S.; Brown, A. 1996. Naval Ship Engine Exhaust Emission Characterization, Naval Engineers Journal, 108(5): 37–47.
Radmilovic, Z.; Maraš, V. 2011. Role of Danube Inland Navigation in Europe, International Journal for Traffic and Transport Engineering 1(1): 28-40.