Vibro-installation is being used increasingly for the installation of monopiles for offshore wind turbines due to its efficiency, especially in sandy soils, mitigation against pile run and low acoustic emissions compared to traditional impact-hammer installation. Owing to its intrinsically complex dynamic mechanisms, significant uncertainty still remains regarding the parameters controlling vibro-drivability. Through a series of centrifuge model pile installation tests in silica sand carried out with two mini vibro-drivers designed during this research, this article explores the influence of specific parameters on vibro-installation: dynamic force ratio (which is linked to vibrational frequency), soil relative density and drainage conditions. Results show that penetration rates (in terms of advancement per cycle) do not always increase for increased dynamic force ratios, as is the case for the accelerations and cyclic movements of the pile. As expected, penetration rates increase for sands of lower relative density, although vibro-installation was possible even for dry sand with a relative density of 95%. The paper also highlights the important role of excess pore pressures, which, in the dilatant soil tested here, were shown to increase resistance to vibro-driving. The results expand significantly the publicly available database for vibro-driven cylindrical piles.
Article navigation
24 February 2026
Research Article|
January 01 2026
Vibro-driven pile installation in sand performed in a geotechnical centrifuge Available to Purchase
J. Hein Mazutti
;
*Centre for Offshore Foundation Systems, School of Earth and Oceans,
The University of Western Australia
, Perth, WA, Australia
Corresponding author J. Hein Mazutti (julia.heinmazutti@research.uwa.edu.au; julia.hein.mazutti@gmail.com)
Search for other works by this author on:
B. Bienen
;
B. Bienen
†Centre for Offshore Foundation Systems, School of Earth and Oceans,
The University of Western Australia
, Perth, WA, Australia
Search for other works by this author on:
M. F. Bransby
;
M. F. Bransby
‡Centre for Offshore Foundation Systems, School of Earth and Oceans,
The University of Western Australia
, Perth, WA, Australia
Search for other works by this author on:
M. F. Randolph
M. F. Randolph
§Centre for Offshore Foundation Systems, School of Earth and Oceans,
The University of Western Australia
, Perth, WA, Australia
Search for other works by this author on:
Corresponding author J. Hein Mazutti (julia.heinmazutti@research.uwa.edu.au; julia.hein.mazutti@gmail.com)
Publisher: Emerald Publishing
Received:
November 12 2024
Accepted:
September 12 2025
Online ISSN: 1751-7656
Print ISSN: 0016-8505
© 2025 Emerald Publishing Limited
2025
Emerald Publishing Limited
Licensed re-use rights only
Geotechnique (2026) 76 (2): 334–347.
Article history
Received:
November 12 2024
Accepted:
September 12 2025
Citation
Hein Mazutti J, Bienen B, Bransby MF, Randolph MF (2026), "Vibro-driven pile installation in sand performed in a geotechnical centrifuge". Geotechnique, Vol. 76 No. 2 pp. 334–347, doi: https://doi.org/10.1680/jgeot.24.01378
Download citation file:
Suggested Reading
Development of a mini vibro-driver for pile testing in the centrifuge
International Journal of Physical Modelling in Geotechnics (January,2025)
Free vibration of FG Lévy plate resting on elastic foundations
Proceedings of the Institution of Civil Engineers - Engineering and Computational Mechanics (November,2015)
A practical two-parameter model of pile–soil gapping for prediction of monopile offshore wind turbine dynamics
Geotechnique (April,2022)
Vertical vibration of a circular footing on a linear-wave-velocity half-space
Geotechnique (April,1998)
New PC-based vibration control system boosts performance, lowers costs, leverages Internet
Sensor Review (December,1999)
Related Chapters
Learning from physical models: Design through Experimentation
Conceptual Structural Design: Bridging the gap between architects and engineers
The new era: Design tools, methods and new materials
Conceptual Structural Design: Bridging the gap between architects and engineers
Form-finding
Tension Structures: Form and behaviour
Recommended for you
These recommendations are informed by your reading behaviors and indicated interests.
Recommended for you
These recommendations are informed by your reading behaviors and indicated interests.
