scispace - formally typeset
Open AccessBook

Advanced Mechanics of Materials

Reads0
Chats0
TLDR
In this paper, the authors present a review of elementary mechanics of materials and their application in the field of energy engineering, including failure and failure criteria, stress, principal stresses, and strain energy.
Abstract
1. Orientation, Review of Elementary Mechanics of Materials. 2. Stress, Principal Stresses, Strain Energy. 3. Failure and Failure Criteria. 4. Applications of Energy Methods. 5. Beams on an Elastic Foundation. 6. Curved Beams. 7. Elements of Theory of Elasticity. 8. Pressurized Cylinders and Spinning Disks. 9. Torsion. 10. Unsymmetric Bending and Shear Center. 11. Plasticity in Structural Members. Collapse Analysis. 12. Plate Bending. 13. Shells of Revolution with Axisymmetric Loads. 14. Buckling and Instability. References. Index.

read more

Citations
More filters
Journal ArticleDOI

Mechanical characterization of fourth generation composite humerus

TL;DR: The presented results support the use of the fourth-generation composite humerus as a tool for modelling and experimentation and add to published construct rigidity data.
Journal ArticleDOI

A fatigue damage model for the cement–bone interface

TL;DR: A combination of the creep damage model (to describe the damage process) with a constant final equivalent strain (as a failure criteria) could be used to assess the cement-bone failure response of cemented implant systems.
Journal ArticleDOI

Parylene cantilevers integrated with polycrystalline silicon piezoresistors for surface stress sensing

TL;DR: In this article, a parylene cantilevers integrated with polycrystalline silicon piezoresistors for the detection of chemical or biological molecules based on the surface stress sensing principle is presented with theoretical calculations along with finite element simulation.
Journal ArticleDOI

Dynamical theory of shear bands in structural glasses.

TL;DR: This work shows how shear bands arise dynamically by the coupling of activated dynamics of configurationally rearranging regions with elastic strain transport, and explains the non-Newtonian flow of glasses.
Journal ArticleDOI

Active learning of constitutive relation from mesoscopic dynamics for macroscopic modeling of non-Newtonian flows

TL;DR: The method demonstrated here obtains only a local viscosity from the polymer dynamics, but it can be extended to other multiscale models of complex fluids whose macro-rheology is unknown.