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Course

MSE-101(a): Materials:from chemistry to properties

Lectures in this course (104)

Introduces fatigue and wear in materials science, exploring stress variations, endurance limits, and deformation during fatigue.

Explores phase diagrams in materials science, covering phase transitions, system composition, solvents, and solutes.

Explores phase transformations, surface energy, microstructure formation, and phase diagrams in materials science.

Explores the effect of temperature on materials, thermal expansion, and thermomechanical constraints, leading to practical consequences.

Delves into the diffusion of matter, atoms, and heat in materials.

Covers the history, consumption, and recycling of materials, emphasizing their properties and selection criteria for sustainability.

Introduces the fundamentals of atomic structure, including the Bohr model, quantum mechanics, and the wave-particle duality of light.

Introduces materials science, covering crystal structures, metal alloys, defects in crystals, and ceramics.

Explores linear elastic deformation, modulus of elasticity, material behavior under stress, and measurement methods for elastic properties.

Explores plasticity, elasticity, and deformation in materials, covering tensile stages, shear modulus, and work hardening.

Explores metal hardening mechanisms, grain boundaries, plasticity of polymers, ceramics, and hardness testing methods.

Covers yield strength, hardness, defects, dislocations, plasticity mechanisms, and hardening in materials science for mechanical engineering.

Covers stress intensity, fracture, and toughness of materials, including the behavior of ductile and brittle materials.

Explores stress in material fatigue, endurance limits, crack propagation, and real-world applications.

Explores friction coefficients and wear mechanisms in materials due to contact-movement between surfaces.

Explores mechanical properties of materials and case studies on material selection for pressure tanks.

Explores the design aspects of pressure tanks, emphasizing material selection, wall thickness, and structural integrity for optimal performance.

Explores the electronic configuration of atoms, including orbitals, energy levels, and the periodic table of elements.

Explores thermodynamics, state functions, internal energy, and enthalpy, emphasizing energy conservation and heat exchange in various systems.

Explores thermodynamics principles, enthalpy of reactions, and chemical equilibrium with practical examples.

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