
About Course
Introduction to Materials Science and Engineering is intended for students who want to learn about the nature of solid substances and, especially, for beginning engineering students making their first serious contact with the structure and properties of real solids.
It represents, clearly and logically, the chemical and physical principles on which the properties of materials depend. The basic relationships introduced in general chemistry and physics courses are reviewed and extended to permit the student to relate the properties of ceramic, metallic, and polymeric solids to their internal structure and external environment.
When steel is produced, it will undergo some process. Depending on this process, the properties of steel will change. You will obtain different properties by applying a different heat-treatment process. So, I’ve started to share information about mechanical properties of material like yield strength, ultimate tensile strength, modulus of elasticity, ductility.
What is hardness, and how can we measure the hardness of material? In the last of the first part, I’ve talked about the type of material (Ferrous metallic material, non-ferrous metallic material, ceramics, and plastics). In the second part, this course will help you to understand the heat-treatment process. You’ll learn how you can use the iron-carbon equilibrium and TTT (Time-Temperature-Transformation) diagram. And finally, I’ve talked about the type of heat-treatment process.
I hope to see you in this Materials Science course! Lean back and understand all details of material science!
Who this Materials Science course is for:
Engineering Students and Engineer (Engineering Department of Mechanical, Material, Chemistry, Industrial)
Course Content
Introduction to Materials Science & Engineering
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Quantum Mechanics
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Elastic and plastic deformation at the atomic scale
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Macroscopic elastic and plastic deformation
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Mechanical Properties Definitions
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Macroscopic Stress Strain Behavior
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Diffussion: Activated Process
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Diffusion: Mechanisms
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Diffusion: Steady state
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Diffusion: Fick’s first law
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Electrical Properties: Formation of electronic bands
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Electrical Properties: Types of Band Structures
00:00 -
Optical Absorption in Materials
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Magnetic Domains
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Atomic Origins of Magnetization
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Thermal Conductivity
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Heat Capacity
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Thermal Expansion
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Electrical properties: Dopants/Alloying
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Electrical properties: Temperature and resistivity
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Screw Dislocations
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Edge Dislocations
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Crystallographic Directions
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Crystallographic Planes
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Crystallographic Points
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Families of directions/planes
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Single Crystal, Polycrystalline, Amorphous
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Interatomic Forces & Energy Curves
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Atomic Bonding
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Orbital Filling
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Atomic densities and Packing Factors
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FCC structure
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Point Defects
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Phase Diagrams: The Lever Rule
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Intro to Phase Diagrams
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Polymers: Stereoisomers
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Polymers: Geometric Isomer
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Structures of polymers
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Interstitial Sites
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Ionic crystal structures
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Optical Emission
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