Mechanics of Materials I: Fundamentals of Stress and Strain and Axial Loading offered by Georgia Institute of Technology
- Public University
3 Campuses- Estd. 1885
Mechanics of Materials I: Fundamentals of Stress and Strain and Axial Loading at Georgia Institute of Technology Overview
Mode of learning | Online |
Schedule type | Self paced |
Official Website | Go to Website  |
Course Level | UG Certificate |
Mechanics of Materials I: Fundamentals of Stress and Strain and Axial Loading at Georgia Institute of Technology Highlights
- Taught by Experts in the Field
- Grow Your Professional Network
- Learn how the fundamentals of stress and strain is applied to Mechanics of Materials.
- Develop stress-strain diagrams, discuss material properties, and look in depth at shear stress and strain.
- Create stress transformation equations for inclined planes
Mechanics of Materials I: Fundamentals of Stress and Strain and Axial Loading at Georgia Institute of Technology Course details
- For mechanical engineers looking for a refresher on basic concepts
- Stress and strain fundamentals
- Strain diagrams, material properties, and shear stress and strain
- Stresses on inclined planes
- Stress concentrations, Mohr?s Circle for Plane Strain, and measuring strains
- Generalized Hooke?s Laws, factor of safety, nonlinear behavior and plasticity, statically indeterminate structures, and thermal effects
- This course expands on subjects covered in the Introduction to Engineering Mechanics and in Applications in Engineering Mechanics courses
- Focus on axial loading and gain an understanding of what causes stress and strain on solid objects, which will help you problem solve and plan according to design-stable structures
- Learn methods that are used to predict the response of engineering structures to various types of loading, and to analyze the vulnerability of these structures to various failure modes
Mechanics of Materials I: Fundamentals of Stress and Strain and Axial Loading at Georgia Institute of Technology Curriculum
Welcome
Course Introduction
Stress and Strain Fundamentals
General Analysis Approach
Internal Forces due to External Loads
Normal Stress/Shear Stress
Maximum Normal and Shear Stress on Inclined Planes for Uniaxial Loading
General State of Stress at a Point (3D)
Two-Dimensional (2D) or Plane Stress
Nominal (Engineering) Stress and True Stress
Normal Strain
Stress-Strain Diagrams, Material Properties, and Shear Stress and Strain
Tension Test and Stress-Strain Diagram10
Internal Properties and Hooke?s Law
0.2% Offset Yield Stress
Strain Hardening/Permanent Set
Poisson?s Ratio
Shear Stress/2D Pure Shear
Shear Strain
Stresses on Inclined Planes
Stresses on Inclined Planes ? Sign Convention
Transformation Equations for Plane Stress
Principal Stresses/Principal Planes
Principal Stresses/Principal Planes (cont.)
Maximum and Minimum In-Plane Principal Stresses
Maximum In-Plane Shear Stress
Introduction to Mohr?s Circle
Mohr?s Circle for Plane Stress
Determine Principal Stresses, Principal Planes, and Maximum Shear Stress using Mohr?s Circle
Stresses on any given plane using Mohr?s Circle
Principal Stresses and Principal Planes by solving Eigenvalue Problem
Stress concentrations, Mohr?s Circle for Plane Strain, and measuring strains
Stress Concentration Factors/Saint-Venant?s Principle
Determine Maximum Stress at Discontinuities using Stress Concentration Factors
Two-Dimensional (2D) or Plane Strain
Transformation Equations for Plane Strain
Transformation Equations for Plane Strain (cont.)
Mohr?s Circle for Plane Strain
Determine Principal Strains, Principal Planes, and Maximum Shear Strain using Mohr?s Circle
Strains on any given plane using Mohr?s Circle
Find Strains using Experimental Analysis Techniques
Find In-Plane Strains using Strain Gage Measurements
Find Principal Strains, Maximum Shear Strain, and Principal
Generalized Hooke?s Laws, Factor of Safety, Non-linear behavior and Plasticity, Statically Indeterminate Structures, and Thermal Effects
Generalized Hooke?s Laws for Isotropic Materials
Modulus of Elasticity, Modulus of Rigidity, and Poisson?s Ratio relationship for Isotropic Materials
Factor of Safety
Design to meet specified Factor of Safety
Idealized Elastoplastic Material Assumption
Solve a Statically Indeterminate Structure under Axial Loading
Temperature Effects on Engineering Materials
Solve an Engineering Problem with Thermal Effects
Course Conclusion
Mechanics of Materials I: Fundamentals of Stress and Strain and Axial Loading at Georgia Institute of Technology Entry Requirements
- Prerequisites: DL 0001M - Introduction to Engineering Mechanics course
- DL 0004M - Applications in Engineering Mechanics course
- Not mentioned
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