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Keywords: models (physical)
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Journal Articles
Journal:
Maritime Engineering
Maritime Engineering (2021) 174 (4): 112–123.
Published: 04 April 2021
... & water resource models (physical) renewable energy ICE Publishing: All rights reserved 2021 08 08 2019 26 02 2021 3 T i = ρ 2 K U i ( d ) U i ( d ) A d where U i ( d ) denotes the velocity of water at the disc...
Journal Articles
Journal:
Maritime Engineering
Maritime Engineering (2021) 174 (1): 4–10.
Published: 03 December 2020
... the processes and mechanisms involved in the formation of pockmarks is important for the exploitation and utilisation of seabed resources and to reduce marine disasters. Figure 3. Photograph of the pockmark in the physical model Physical simulations of submarine landslides generally adopt...
Journal Articles
Journal:
Maritime Engineering
Maritime Engineering (2018) 171 (4): 167–183.
Published: 11 January 2019
.... The core (or hearting) of these structures is poorly documented, probably quarry-run interspersed with broken blocks and chiselled scraps of the wall stones. coastal engineering models (physical) ports, docks & harbours ICE Publishing: All rights reserved 2018 17 03 2018...
Journal Articles
Journal:
Maritime Engineering
Maritime Engineering (2017) 170 (3+4): 112–121.
Published: 18 October 2017
... model that relates velocities with wave parameters and culvert geometrical characteristics was derived using experimental data. 02 06 2017 19 09 2017 ICE Publishing: All rights reserved 2017 coastal engineering models (physical) ports, docks & harbours Breakwaters...
Journal Articles
Miguel Vázquez, MSc Civil Engineer, Vicente Negro, PhD, José Santos López-Gutiérrez, PhD, José Luis Monsó, PhD
Journal:
Maritime Engineering
Maritime Engineering (2016) 169 (3): 124–139.
Published: 18 October 2016
... of 14 existing breakwaters under study) were reported due to smaller waves than design waves. maritime engineering models (physical) ports, docks & harbours Published with permission by the ICE under the CC-BY license. (http://creativecommons.org/licenses/by/4.0/) 2016...
Journal Articles
Viviana Russo, MSc, PhD, William Allsop, BSc, MICE, CEng, James Sutherland, BSc, PhD, MinstP, CPhys, Jonathan Kemp, MSc, MICE, CEng
Journal:
Maritime Engineering
Maritime Engineering (2014) 167 (4): 192–205.
Published: 01 December 2014
...). coastal engineering dynamics models (physical) 1 n v = 1 − C m ρ s in which Cm is the bulk density (kg/m3) and ρs is the material density (kg/m3). Six dry sand samples were analysed, giving porosity values falling...
Journal Articles
Journal:
Maritime Engineering
Maritime Engineering (2014) 167 (2): 68–81.
Published: 01 June 2014
... terms (Miedema and Ramsdell, 2013), the potential energy term Shr and the kinetic energy term Srs. dredging fluid mechanics models (physical) Usually the head loss equations from literature perform well if parameters are used that are close...
Journal Articles
Chaiyuth Chinnarasri, DEng, Nuttawut Thanasisathit, BEng, Anat Ruangrassamee, DEng, Sutat Weesakul, DEng, Panitan Lukkunaprasit, PhD
Journal:
Maritime Engineering
Maritime Engineering (2013) 166 (1): 14–24.
Published: 01 March 2013
... initiating a new test, water was pumped from the sump to the wave flume until the still-water depth was obtained. 04 10 2010 23 11 2011 2013 ICE Publishing: All rights reserved 2013 buildings structures & design hydraulics & hydrodynamics models (physical) Tsunamis...
Journal Articles
Journal:
Maritime Engineering
Maritime Engineering (2012) 165 (2): 81–92.
Published: 01 June 2012
... engineering maritime engineering models (physical) Erosion caused by the strong flows generated by vessel propulsion systems has become of significant importance in the design of armoured slopes under open piled quay structures. Some of the most central reasons for this erosion include increases...
Journal Articles
Journal:
Maritime Engineering
Maritime Engineering (2011) 164 (3): 95–114.
Published: 01 September 2011
... conditions. Such changes would not considerably affect the existing water mass exchange and the dissolved oxygen distribution. 16 12 2009 16 3 2011 ICE Publishing: All rights reserved 2011 mathematical modelling models (physical) ports, docks & harbours Split...
Journal Articles
Maria Teresa Reis, Engenheira Civil, MSc(Eng), PhD, Maria Graça Neves, Engenheira Civil, MSc, PhD, Miguel Robert Lopes, Engenheiro Civil, Keming Hu, MSc, PhD, FCIWEM, CSci, Luís Gabriel Silva, Engenheiro Civil
Journal:
Maritime Engineering
Maritime Engineering (2011) 164 (1): 15–32.
Published: 01 March 2011
..., although Amazon tended to slightly overpredict the discharges, especially for solution 2. The empirical methods overpredicted these discharges to a great extent, warning of the fact that direct application of these methods is limited to particular structural configurations and wave conditions. models...
Journal Articles
J. M. Grassa Garrido, R. Gutiérrez Serret, M. J. Martín Soldevilla, A. Ruiz Mateo, J. C. Santás López
Journal:
Maritime Engineering
Maritime Engineering (2009) 162 (2): 57–72.
Published: 01 June 2009
... and the Cabo Prioriño could have upon the breakwater, especially with respect to its design and the position of its head. © 2009 Thomas Telford Ltd 2009 maritime engineering models (physical) ports, docks & harbours At the construction stage of the project, the port authority conducted...
Journal Articles
Journal:
Maritime Engineering
Maritime Engineering (2008) 161 (2): 73–87.
Published: 01 June 2008
... alternatives of the river system described above will enhance salt water intrusion into the system. 31 08 2007 12 02 2008 © 2008 Thomas Telford Ltd 2008 maritime engineering mathematical models models (physical) 3 D u → D t = F − g ∇ η + ∂ ∂ z...
Journal Articles
Journal:
Maritime Engineering
Maritime Engineering (2008) 161 (1): 33–42.
Published: 01 March 2008
... 2005 25 09 2007 © 2008 Thomas Telford Ltd 2008 hydraulics & hydrodynamics models (physical) pipes & pipelines NOTATION A projected area a amplitude of oscillation Ca added mass coefficient CD...
Journal Articles
Journal:
Maritime Engineering
Maritime Engineering (2006) 159 (3): 113–120.
Published: 01 September 2006
... to the site are designated as natural recreational areas. coastal engineering failures models (physical) 26 09 2005 03 04 2006 © 2006 Thomas Telford Ltd 2006 Proceedings of the Institution of Civil Engineers Maritime Engineering 159 September 2006 Issue MA3 Pages 113 120 Paper...
Journal Articles
Journal:
Maritime Engineering
Maritime Engineering (2005) 158 (4): 163–172.
Published: 01 December 2005
... sediment, leading to an inappropriate representation of the prototype sediment characteristics. 10 01 2005 23 09 2005 © 2005 Thomas Telford Ltd 2005 coastal engineering hydraulics & hydrodynamics models (physical) NOTATION A the plan area of sand...
Journal Articles
Journal:
Maritime Engineering
Maritime Engineering (2005) 158 (4): 137–145.
Published: 01 December 2005
... that the throw velocity can be up to seven times the inshore wave celerity for breaking waves, whereas a factor of 2·5 is typical for non-breaking waves. 9 © 2005 Thomas Telford Ltd 2005 coastal engineering models (physical) sea defences Fig. 3. Test set-up at the GWK (Hanover, Germany...
Journal Articles
Journal:
Maritime Engineering
Maritime Engineering (2005) 158 (3): 91–102.
Published: 01 September 2005
... in Table 1 . 21 12 2004 06 07 2005 © 2005 Thomas Telford Ltd 2005 coastal engineering hydraulics & hydrodynamics models (physical) There have been several laboratory studies in the past designed to understand the hydrodynamics and morphological processes in the lee...
Journal Articles
Journal:
Maritime Engineering
Maritime Engineering (2005) 158 (2): 47–58.
Published: 01 June 2005
... requiring further development were identified. The ultimate aim is to provide a reliable, practical and cost effective means by which engineers can minimise saline intrusion through optimised outfall design. Fig. 1. Outfall operating procedure models (physical) mathematical modelling sewage...
