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This lecture explains about the phenomenon of piezoelectricity, their constitutive relations, manufacturing methods and about piezo sensors and actuators.

This lecture explains about Fiber-reinforced composites such as Polymer matrix composites, Metal matrix composites, Ceramic matrix composites and Carbon-Carbon composites.

It also discusses about Structural composites with special emphasis on Laminated composites.

This lecture explains about some of the advanced & exotic materials- Smart Materials Bio-materials Aerogels Superconductors Carbon nanotube

This lecture introduces various Non-ferrous materials such as Aluminium, Titanium, Zinc, Copper, Nickel, Cobalt and their alloys.

This lecture explains the concept of Glass transition temperature, experimental methods to determine it and discusses the factors which affect it.

This lecture discusses composites making methods such as Hand lay up, Spray lay up technique, Pultrusion, Prepreg, Resin Transfer moulding, Pressure and Vacuum bag techniques.

This lecture explains the Stress-strain relationship for polymers describing their viscolelastic behaviour using various mechanical models such as Kelvin-Voight, Maxwell and their modifications. Further fracture, fatigue and parameters affecting mechanical properties has also been discussed.

This lecture explains about the optical properties of materials including the concepts of absorption, reflection, refraction, transmission, energy band gap and applications such as Luminescence, photo-conductivity, lasers.

This lecture deals with classification of ferrous alloys, types of steel, effect of impurities on steel properties and cast iron.

This lecture explains about Shape Memory Effect (SME), One – Way SME, Pseudoelasticity, Two – Way SME, Applications of SMA

This lecture explains about one of the application of optical properties of material, i.e. Optical fiber, its working principle, design, types, properties and applicability.

This lecture introduces to the domain of the Composites, its classification, properties and calculation Longitudinal and Transverse modulus.

In this lecture the approach for the selection of material for cantilever beam of Scanning probe microscope (SPM) has been explained using Ashby method.

This lecture explains about mechanical properties such as: Hardness, Creep, Damping

This lecture explains about processing of ceramics, calculating Elastic and Weibull modulus, about fracture toughness and failure in ceramics.

This lecture deals with various strengthening mechanism for metals. It also introduces various Corrosion types and its prevention.

This lecture explains about Concept of Tensors, Hooke's law, Tensile testing, Engineering & True Stress-strain curves, Mechanical properties - brittleness, ductility, resilience, toughness, impact testing.

In this lecture a numerical problem has been solved using Ashby approach to choose material for a connecting rod such that it sustains both buckling and fatigue load.

In this lecture electric properties such as Dielectric Concept, it's application to capacitors, frequency dependence of the dielectric constant, dielectric strength and further a numerical problem has been solved using the Ashby approach to select material for the heat sink of a microchip.

This lecture introduces to the basics of Polymers, their classifications and application over wide domains.