Syllabus

Experiment 1 – Hardness measurement of metallic materials using Vickers, Rockwell, Brinell, and Poldi hardness testing machines
Experiment 2 – Microhardness testing of two and/or multiphase alloy systems
Experiment 3 – Tensile tests of low-carbon steel (annealed), high-carbon steel (annealed), and a non-ferrous alloy
Experiment 4 – Development of true stress – true strain diagram/s using tensile data and determination of strain hardening exponent
Experiment 5 – Compression testing of ceramics, powder metallurgy specimens
Experiment 6 – Three-point bend test of non–metallic materials
Experiment 7 – Wear studies of different materials
Experiment 8– High cycle fatigue test and development of S – N curve
Experiment 9 – Determination of plane strain fracture toughness (K-IC) of brittle materials using indentation fracture toughness test method

To learn different tests for the determination of mechanical behavior

To learn to work in a group for material testing

To comprehensively write a report on the test results related to mechanical properties

To improve communication skills through in-process discussions and viva

CO1: Demonstrate the ability to operate mechanical testing equipment and conduct standard tests to determine material properties
CO2: Analyze and interpret experimental data to evaluate the mechanical behavior of materials under various loading conditions
CO3: Compare the mechanical properties of different materials and identify their suitability for specific engineering applications
CO4: Design and conduct experiments to assess material properties, adhering to standard testing procedures and ensuring safety
CO5: Collaborate effectively within a team to complete laboratory assignments, emphasizing problem-solving and communication skills
CO6: Explain the principles behind mechanical testing methods and their significance in material selection and engineering design

G. E. Dieter, Mechanical Metallurgy, McGraw-Hill