Logo image
Cones to model foundation vibrations; incompressible soil and axi-symmetric embedment of arbitrary shape
Journal article   Peer reviewed

Cones to model foundation vibrations; incompressible soil and axi-symmetric embedment of arbitrary shape

J. P. Wolf and A. J. Deeks
Soil dynamics and earthquake engineering (1984), Vol.24(12), pp.963-978
2004

Abstract

body waves compressibility elastic waves Engineering geology foundations half-space materials models S-waves seismic waves Seismology soil mechanics stiffness strength velocity vibration
The recently streamlined strength-of-materials approach using cones to calculate vibrations of foundations embedded in layered half-spaces and full-spaces is applied to incompressible and nearly-incompressible soil and to axi-symmetric embedments of arbitrary shape. For incompressible soil the axial-wave velocity in the cones is limited to twice the shear-wave velocity and a trapped mass for the vertical motion and a trapped mass moment of inertia for the rocking motion moving as a rigid body with the under-most disk of an embedded foundation are introduced. In the case of a fully embedded foundation, a mass and a mass moment of inertia are also assigned to the upper-most disk. For an axi-symmetric embedment of arbitrary shape, the disks have varying radii. No modifications to the formulation are, however, required. For these two extensions the strength-of-materials approach using cones leads to the same sufficient engineering accuracy as is achieved in other more conventional cases. This is demonstrated in a vast study. Thus the same other advantages also apply: physical insight with conceptual clarity, simplicity and sufficient generality. Abstract Copyright (2004) Elsevier, B.V.

Details

UN Sustainable Development Goals (SDGs)

This output has contributed to the advancement of the following goals:

#11 Sustainable Cities and Communities

Source: InCites

Metrics

InCites Highlights

These are selected metrics from InCites Benchmarking & Analytics tool, related to this output

Collaboration types
Domestic collaboration
International collaboration
Citation topics
7 Engineering & Materials Science
7.133 Geotechnical Engineering
7.133.114 Soil-Structure Interaction
Web Of Science research areas
Engineering, Geological
Geosciences, Multidisciplinary
ESI research areas
Engineering
Logo image