Selected Publications (1977-)
Davies A.G., 1977. A mathematical model of sediment in suspension in a uniform reversing tidal flow. Geophysical Journal of the Royal Astronomical Society, 51, 503-529.
Davies A.G., 1979. The potential flow over ripples on the seabed. Journal of Marine Research, 37, 4, 743-759.
Davies A.G., 1980. Field observations of the threshold of sand motion in a transitional wave boundary layer. Coastal Engineering, 4, 1, 23-46.
Davies A.G., 1982. On the interaction between surface waves and undulations on the seabed. Journal of Marine Research, 40, 2, 331-368.
Davies A.G., 1982. The reflection of wave energy by undulations on the seabed. Dynamics of Atmospheres and Oceans, 6, 207-232.
Davies A.G., 1983. Wave interactions with rippled sand beds. Pp. 1-65
in Physical Oceanography of Coastal and
Davies A.G. and A.D. Heathershaw, 1984. Surface wave propagation over sinusoidally varying topography. Journal of Fluid Mechanics, 144, 419-443.
Heathershaw A.D. and A.G. Davies, 1985. Resonant wave reflection by transverse bedforms and its relation to beaches and offshore bars. Marine Geology, 62, 321-338.
Davies A.G., 1985. Observations of the stability of oscillatory flow above the seabed and of sand ripple formation. Continental Shelf Research, 4, 5, 553-580.
Davies A.G., 1985. Field observations of the threshold of sediment motion by wave action. Sedimentology, 32, 685-704.
Davies A.G., 1986. A model of oscillatory rough turbulent boundary layer flow. Estuarine, Coastal and Shelf Science, 23, 353-374.
Davies A.G., 1986. A numerical model of the wave boundary layer. Continental Shelf Research, 6, 6, 715-739.
Davies A.G., Soulsby R.L. and H.L. King, 1988. A numerical model of the combined wave and current bottom boundary layer. Journal of Geophysical Research, 93, C1, 491-508.
Davies A.G., Guazzelli E. and M. Belzons, 1989. The propagation of long waves over an undulating bed. Physics of Fluids, A, 1, 1331-1340.
Davies A.G.,
Davies, A.G., 1990. A model of the vertical structure of the wave and current bottom boundary layer. Chapter 10, pp.263-297, in Modeling Marine Systems, Volume II, ed. Davies, A.M., CRC Press, Boca Raton.
O'Hare T.J. and A.G. Davies, 1990. A laboratory study of sand bar evolution. Journal of Coastal Research, 6, 3, 531-544.
Davies A.G., 1991. Transient effects in wave-current boundary layer flow. Ocean Engineering, 18, 1/2, 75-100.
Davies, A.G., 1992. Modelling the vertical distribution of suspended sediment in combined wave-current flow. Chapter 22 in Dynamics and Exchanges in Estuaries and the Coastal Zone. A.G.U. Coastal and Estuarine Studies, Vol. 40, ed. D. Prandle, 441-466.
O'Hare T.J. and A.G. Davies, 1992. A new model for surface-wave propagation over undulating topography. Coastal Engineering, 18, 251-266.
O'Hare T.J. and A.G. Davies, 1993. A comparison of two models for surface-wave propagation over rapidly-varying topography. Applied Ocean Research, 15, 1-11.
O'Hare T.J. and A.G. Davies, 1993. Sand bar evolution beneath partially-standing waves: laboratory experiments and model simulations. Continental Shelf Research, 13, 11, 1149-1182.
Villaret C., Simonin O. and A.G. Davies, 1995. Suspended sediment
transport modelling using a two-phase flow model and a turbulent kinetic energy
model. Proceedings of 8th Int. Conf. on Transport and Sedimentation of Solid
Particles,
Davies A.G., 1995. Effects of unsteadiness on the suspended sediment flux in collinear wave-current flow. Continental Shelf Research, 15, 8, 949-979.
Rey V., Davies A.G. and M. Belzons, 1995. On the formation of bars by the action of waves on an erodible bed: a laboratory study. Journal of Coastal Research, 11, 4, 1180-1194.
Villaret C. and A.G. Davies, 1995. Modelling sediment-turbulent flow interactions. Applied Mechanics Reviews, 48, 9, 601-609.
Li Z. and A.G. Davies, 1996. Towards predicting sediment transport in combined wave-current flow. J. Waterway, Port, Coastal and Ocean Engineering, 122, 4, 157-164.
Davies A.G. and C. Villaret, 1997. Oscillatory flow over rippled beds: Boundary layer structure and wave-induced Eulerian drift. Chapter 6 in Gravity Waves in Water of Finite Depth, ed. J.N. Hunt, Advances in Fluid Mechanics, Computational Mechanics Publications, 215-254.
Davies A.G. and Z. Li, 1997. Modelling sediment transport beneath regular symmetrical and asymmetrical waves above a plane bed. Continental Shelf Research, 17, 5, 555-582.
Davies A.G., Ribberink J.S., Temperville A. and J.A. Zyserman, 1997. Comparisons between sediment transport models and observations made in wave and current flows above plane beds. Coastal Engineering, 31, 1-4, 163-198.
Li Z. and A.G. Davies, 1997. Closure to Discussion of 'Towards predicting sediment transport in combined wave-current flow'. J. Waterway, Port, Coastal and Ocean Engineering, 123, 6, 363-364.
Malarkey J. and A.G. Davies, 1998. Modelling wave-current interactions in rough turbulent bottom boundary layers. Ocean Engineering, 25, 2-3, 119-141.
Peet A.H. and A.G. Davies, 1998. Convection and diffusion of sediment under large waves. Proceedings of Coastal Dynamics '97, Plymouth, ed. E.B. Thornton, American Society of Civil Engineers, 28-37.
Villaret C. and A.G. Davies, 1998. Effect of bed roughness on net sediment transport by asymmetrical waves. Proceedings of Coastal Dynamics '97, Plymouth, ed. E.B. Thornton, American Society of Civil Engineers, 235-244.
Li Z. and A.G. Davies, 1998. Effect of grain size gradation and reference concentration on sediment transport beneath large waves. Proceedings of Coastal Dynamics '97, Plymouth, ed. E.B. Thornton, American Society of Civil Engineers, 245-254.
Davies A.G. and C. Villaret, 1998. Wave-induced currents above rippled
beds. Pp. 187-199 in Physics of Estuaries and Coastal Seas, ed. J. Dronkers and
M. Scheffers, publ. A.A. Balkema,
Davies A.G. and C. Villaret, 1999. Eulerian drift induced by progressive waves above rippled and very rough beds. Journal of Geophysical Research, 104, C1, 1465-1488.
Davies A.G., 1999. Local sediment transport modelling for waves and currents. Flood and Coastal Defence, publ. by Ministry of Agriculture, Fisheries and Food, Issue No. 11, Dec. 1999, 4-5.
Davies A.G. and C. Villaret, 2000. Sand transport by waves and currents:
Predictions of research and Engineering models. Proceedings of 27th
International Conference on Coastal Engineering,
Villaret C., Davies A.G. and J.M. Frey, 2000. Sand transport rate
predictions using a two-phase flow model. Proceedings of 27th International
Conference on Coastal Engineering,
Villaret C., Davies A.G. and J.M. Frey, 2000. Présentations à la 27ème
Conférence ICCE (
Li Z. and A.G. Davies, 2001. Turbulence closure modelling of sediment
transport beneath large waves. Continental
Shelf Research, 21, 3, 243-262.
Van Rijn L.C., Davies A.G., van
de Graaff J. and J.S. Ribberink (Eds.), 2001. SEDMOC : Sediment
Transport Modelling in Marine Coastal Environments. Aqua Publications,
Davies A.G., 2001. Mathematical modelling of transport by combined waves and currents in the rippled regime. Pp. AI 1-9 in ‘SEDMOC : Sediment Transport Modelling in Marine Coastal Environments’, by L.C. Van Rijn, A.G. Davies, J. van de Graaff and J.S. Ribberink (Eds.), Aqua Publications, Amsterdam.
Malarkey J. and A.G. Davies, 2001. A one-phase sheet flow model of sediment transport. Pp. BG 1-8 in ‘SEDMOC : Sediment Transport Modelling in Marine Coastal Environments’, by L.C. Van Rijn, A.G. Davies, J. van de Graaff and J.S. Ribberink (Eds.), Aqua Publications, Amsterdam.
Davies A.G. and C. Villaret, 2001. Sand transport modelling for combined waves and currents: predictions of research and engineering models. Pp. CH 1-11 in ‘SEDMOC : Sediment Transport Modelling in Marine Coastal Environments’, by L.C. Van Rijn, A.G. Davies, J. van de Graaff and J.S. Ribberink (Eds.), Aqua Publications, Amsterdam.
Davies A.G., 2001. Intercomparison of research models. Pp. CL 1-7 in ‘SEDMOC : Sediment Transport Modelling in Marine Coastal Environments’, by L.C. Van Rijn, A.G. Davies, J. van de Graaff and J.S. Ribberink (Eds.), Aqua Publications, Amsterdam.
Villaret C. and A.G. Davies, 2001. Two-phase flow model description and
applications to sand transport. Département Laboratoire National d’Hydraulique et Environment,
Electricité de France, Report HP-75/2001/073/A, 52pp.
Davies A.G., Van Rijn L.C., Damgaard J.S., van de Graaff J. and J.S. Ribberink, 2002. Intercomparison of research and practical sand transport models. Submitted to Coastal Engineering, 46, 1-23. [Click here for pdf file]
Thorne P.D., Williams J.J. and A.G. Davies, 2002. Suspended sediments under waves measured in a large-scale flume facility. Journal of Geophysical Research (Oceans), 107 (C8), 10.1029/2001JC000988, 16pp.
Davies A.G. and C. Villaret, 2002. Prediction of sand transport rates by waves and currents in the coastal zone. Continental Shelf Research, 22, 18-19,2725-2737. [Click here for pdf file]
Malarkey J. and A.G. Davies, 2002. Use of Routh’s correction in the cloud-in-cell discrete vortex method. Journal of Computational Physics, 181, 753-759.
Malarkey J. and A.G. Davies, 2002. Discrete vortex modelling of oscillatory flow over ripples. Applied Ocean Research, 24, 3, 127-145.
Davies A.G. and P.D. Thorne, 2002. 1DV-model of sand transport by waves and
currents in the rippled bed regime. Proceedings of 28th International
Conference on Coastal Engineering,
Thorne P.D., Davies A.G. and J.J. Williams, 2002. Measurements of bed forms
and sediments in suspension under waves. Proceedings of 28th International
Conference on Coastal Engineering,
Malarkey J., Davies A.G. and Z. Li, 2002. A simple model of oscillatory
sheet flow. Proceedings of 28th International Conference on Coastal
Engineering,
Malarkey J., Davies A.G. and Z. Li, 2003. A simple model of unsteady sheet flow sediment transport. Coastal Engineering, 48, 3, 171-188. [Click here for pdf file]
Davies A.G. and C. Villaret, 2003. Sediment transport modelling for coastal morphodynamics. Proceedings of Coastal Sediments’03, held May 18-23, in Clearwater, Florida, East Meets West Productions, 14pp. [Click here for pdf file]
Thorne P.D., Davies A.G. and J.J. Williams, 2003. Measurements of intra-wave
sediment entrainment over a rippled bed. Proceedings of Coastal
Sediments’03, held May 18-23, in
Malarkey J. and A.G. Davies, 2003. A non-iterative procedure for the Wiberg and Harris (1994) oscillatory sand ripple predictor. Journal of Coastal Research, 19, 3, 738-739.
Faraci C., Malarkey J., Foti E. and A.G. Davies, 2003. On sea bed roughness
variability in presence of a rippled bed" 3rd IAHR Symposium
on River, Coastal and Estuarine Morphodynamics.
Thorne P.D., Davies A.G. and J.J. Williams, 2003.
Measurements of near-bed intra-wave sediment entrainment above vortex ripples.
Geophysical Research Letters, 30, 20, 2028,doi:10.1029/2003GL018427. [Click here for pdf file]
Van Rijn L.C., Soulsby R.L., Hoekstra P. and
Davies A.G. (Eds.), 2005. SANDPIT, Sand Transport and Morphology of Offshore
Mining Pits. Aqua Publications, The
Magar V. and Davies A.G., 2005. Suspended sediment
dynamics over rippled beds in oscillatory flows based on a 2DHV discrete-vortex
/ particle-tracking model. Pp. AG 1-9 in SANDPIT, Sand Transport and Morphology
of Offshore Mining Pits, by L.C. Van Rijn, R.L. Soulsby, P. Hoekstra and A.G.
Davies (Eds.), Aqua Publications, The
Malarkey J. and Davies A.G., 2005. UWB 1DV Sand
Transport Model. Pp. AI 1-8 in SANDPIT, Sand Transport and Morphology of
Offshore Mining Pits, by L.C. Van Rijn, R.L. Soulsby, P. Hoekstra and A.G.
Davies (Eds.), Aqua Publications, The
Grasmeijer B.T., Davies A.G., Guizien K., van der
Werf J.J., van Rijn L.C.,Walther R., Sutherland J. and J. Biegowski, 2005.
Intercomparison results of sand transport models based on ‘blind’
benchmarking test cases Pp. AM 1-10 in SANDPIT, Sand Transport and Morphology
of Offshore Mining Pits, by L.C. Van Rijn, R.L. Soulsby, P. Hoekstra and A.G.
Davies (Eds.), Aqua Publications, The Netherlands.
Davies A.G., Berx B.E., Brown J.M. and Villaret C.,
2005. Morphological modeling of trenches and pits in wave-current flows.
Walstra D.J.R., Chesher T., Davies A.G., Ribberink J.,
Sergent P., Silva P., Vittori G., Walther R. and L.C. van Rijn, 2005.
Intercomparison of the state of the morphological models, Pp. AY 1-23 in
SANDPIT. Sand Transport and Morphology of Offshore Mining Pits, by L.C. Van
Rijn, R.L. Soulsby, P. Hoekstra and A.G. Davies (Eds.), Aqua Publications, The
Van Rijn L.C., Davies A.G., Foti E. and M.G.
Kleinhans, 2005. EC Fifth Framework Programme project SANDPIT, State of
the Art Review: Processes and prediction models. Report Z3079, WL|Delft Hydraulics,
Malarkey J. and A.G. Davies, 2006. A transport model
of graded sands in the oscillatory sheet-flow regime. Proceedings of 5th
International Conference on Coastal Dynamics,
Thorne P.D. and A.G. Davies, 2006. Sounding out
sediment transport – observations and modelling of ripple-generated
vortices. Ocean Challenge, 14,3,15-21. [Click
here for pdf file]
Davies A.G. and J.M. Brown, 2007. Field measurement and modelling of scour pit dynamics in a sandy estuary. Coastal Sediments’07: proceedings of the 6th International Symposium on Coastal Engineering and Science of Coastal Sediment Processes, May 2007, New Orleans, American Society of Civil Engineers, 1609-1622. [Click here for pdf file]
Brown J.M. and A.G. Davies, 2007. Flood/ebb tidal dominance in an estuary: sediment transport and morphology. In Proceedings of 5th IAHR International Symposium on ‘River, Coastal and Estuarine Morphodynamics’, University of Twente, Enschede, The Netherlands, 17-21 September 2007, 2:779-787. [Click here for pdf file]
Thorne P.D. Davies
A.G. and Bell P.S., 2007. Acoustic measurements of vortex ripple
entrainment and sediment diffusivity over a sandy rippled bed under waves.
Published in the 'Underwater Acoustic Measurements: Technologies and Results'
Conference CDrom, held on
Davies A.G. and Thorne P.D., 2008.
Advances in the Study of Moving Sediments and Evolving Seabeds. Surveys in
Geophysics, DOI 10.1007/s10712-008-9039-x, 36pp. [Click
here for pdf file]
Available at: http://dx.doi.org/10.1007/s10712-008-9039-x
Thorne, P. D., A. G. Davies, and P. S. Bell (2009),
Observations and analysis of sediment diffusivity profiles over sandy rippled
beds under waves, J. Geophys. Res., 114, C02023, doi:10.1029/2008JC004944. [Click here
for pdf file]
Brown J.M. and A.G. Davies, 2009. Methods for medium-term
prediction of the net sediment transport by waves and currents in complex
coastal regions. Continental Shelf
Research, 29, 11-12, 1502-1514. [Click here for pdf file]
Malarkey, J., S. Pan, M.
Li, T. O'Donoghue, A.G. Davies and
B.A. O'Connor, 2009. Modelling and observation of oscillatory sheet-flow
sediment transport. Ocean Engineering, 36(11), 873-890.
[Click here for pdf file]
Van der A D.,
O’Donoghue T., Davies A.G. and
J.S. Ribberink, 2008. Effects of acceleration skewness on rough bed oscillatory
boundary layer flow. In Proceedings of the 31st International Conference on
Coastal Engineering,
Neill S.P., Litt, E.J., Couch S.J. and Davies A.G., 2009. The impact of tidal stream turbines on large-scale sediment dynamics. Renewable Energy, 34, 2803-2812. [Click here for pdf file]
Robins P.E. and Davies, A.G., 2009. Morphodynamic processes in shallow estuaries: influence of tidal flats and channels on sand transport. In Proceedings of the 6th IAHR Symposium on River, Coastal and Estuarine Morphodynamics (RCEM 2009), Santa Fe, Argentina, 21-25 September 2009, CRC Press/Balkema, Volume 1, 161-167. [Click here for pdf file]
Villaret C., Hervouet J.M.,
Huybrechts N., Van
Brown J.M.
and Davies A.G., 2010. Flood/ebb tidal asymmetry in a shallow sandy
estuary and the impact on net sand transport. Geomorphology, 114, 431-439. [Click here
for pdf file]
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