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The lecture discusses the similarities between stress and strain tensors, emphasizing their properties and the mathematical relationships. Key topics include principal directions and components, the diagonalization of matrices in principal coordinate systems, the application of Mohr's circle for strain, and strain compatibility conditions. The content underscores that concepts derived for stress tensors can also be applied to strain tensors due to their analogous framework.
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References
ch14.pdfClass Notes
Memorization
What we have learnt
Final Test
Revision Tests
Term: Stress Tensor
Definition: A mathematical representation of internal forces in a material, capturing magnitude and direction.
Term: Strain Tensor
Definition: A mathematical construct that describes the deformation of material in terms of elongation or contraction.
Term: Mohr's Circle
Definition: A graphical tool used to represent and calculate the relationships between normal and shear stresses and strains.
Term: Principal Directions
Definition: Specific orientations in materials that experience maximum or minimum stress or strain.
Term: Strain Compatibility Conditions
Definition: Mathematical requirements ensuring that a defined strain matrix corresponds to achievable displacements without causing overlaps or discontinuities.