What will you learn in this Machine Design Part I Course
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Analyze and predict mechanical component performance under static and dynamic loading.
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Apply static failure theories, including von Mises and Coulomb-Mohr, to prevent structural failures.
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Evaluate fatigue failure criteria using SN curves, endurance limits, and Miner’s Rule.
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Understand material properties such as modulus of elasticity and thermal expansion in design contexts.
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Utilize real-world case studies to connect theoretical concepts with practical engineering applications.
Program Overview
1. Material Properties in Design
⏳ 3 hours
Explore fundamental material properties like strength, modulus of elasticity, and thermal expansion. A case study on hip implant material selection illustrates practical applications.
2. Static Failure Theories – Part I
⏳ 6 hours
Review stress analysis concepts, including axial, torsional, bending, and shear stresses. Reinforce learning through targeted worksheets.
3. Static Failure Theories – Part II
⏳ 7 hours
Delve into stress concentration factors and failure theories such as Distortion Energy and Brittle Coulomb-Mohr. Analyze the Boeing 777 wing design as a case study.
4. Fatigue Failure – Part I
⏳ 6 hours
Introduce fatigue principles, focusing on SN curves and endurance limits. Examine the Aloha Airlines Flight 243 incident to understand fatigue failure implications.
5. Fatigue Failure – Part II
⏳ 8 hours
Study fatigue under fluctuating stresses using Goodman diagrams and Miner’s Rule. Conclude with a comprehensive quiz to assess overall understanding.
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Job Outlook
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Prepares learners for roles such as Mechanical Design Engineer, Structural Analyst, and Product Development Engineer.
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Applicable in industries like aerospace, automotive, biomedical devices, and heavy machinery.
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Enhances employability by providing practical skills in mechanical design and failure analysis.
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Supports career advancement in fields requiring expertise in material selection and fatigue analysis.
