Rheology of Mud

An Overview for Ports and Waterways Applications

Book Chapter (2021)
Author(s)

A. Shakeel (TU Delft - Rivers, Ports, Waterways and Dredging Engineering, University of Engineering and Technology Lahore)

Alex Kirichek (TU Delft - Rivers, Ports, Waterways and Dredging Engineering)

C. Chassagne (TU Delft - Environmental Fluid Mechanics)

Research Group
Rivers, Ports, Waterways and Dredging Engineering
Copyright
© 2021 A. Shakeel, Alex Kirichek, C. Chassagne
DOI related publication
https://doi.org/10.5772/intechopen.97600
More Info
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Publication Year
2021
Language
English
Copyright
© 2021 A. Shakeel, Alex Kirichek, C. Chassagne
Research Group
Rivers, Ports, Waterways and Dredging Engineering
Pages (from-to)
1-19
ISBN (electronic)
978-1-83881-119-8
Reuse Rights

Other than for strictly personal use, it is not permitted to download, forward or distribute the text or part of it, without the consent of the author(s) and/or copyright holder(s), unless the work is under an open content license such as Creative Commons.

Abstract

Mud, a cohesive material, consists of water, clay minerals, sand, silt and small quantities of organic matter (i.e., biopolymers). Amongst the different mud layers formed by human or natural activities, the fluid mud layer found on top of all the others is quite important from navigational point of view in ports and waterways. Rheological properties of fluid mud layers play an important role in navigation through fluid mud and in fluid mud transport. However, the rheological properties of mud are known to vary as a function of sampling location within a port, sampling depth and sampling location across the globe. Therefore, this variability in rheolog-ical fingerprint of mud requires a detailed and systematic analysis. This chapter presents two different sampling techniques and the measured rheological properties of mud, obtained from laboratory experiments. The six protocols used to measure the yield stresses are detailed and compared. Furthermore, the empirical or semi-empirical models that are commonly used to fit rheological experimental data of such systems are presented. The influence of different factors such as density and organic matter content on the rheological behavior of mud is discussed. The fluidic yield stress of mud samples was observed to vary from 0.2 Pa to 500 Pa as a function of density and organic matter content.

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