Structural Mechanics covers three aspects of modern eng: the foundation of structural mechanics, the solution to urgent industrial problems, the reconstruction of major accidents. It offers 6 case studies identifying the most imp phase of the collapse or fracture of a complex system, develop a tractable model and offer solutions.
Structural Mechanics covers three aspects of modern eng: the foundation of structural mechanics, the solution to urgent industrial problems, the reconstruction of major accidents. It offers 6 case studies identifying the most imp phase of the collapse or fracture of a complex system, develop a tractable model and offer solutions.
Professor Tomasz Wierzbicki earned his MS degree from the Department of Mechanical Engineering at the Warsaw University of Technology, followed by a PhD from the Institute of Fundamental Technological Research. He then pursued postdoctoral studies at Stanford University, delving into innovative research in crashworthiness. This expertise garnered him an invitation from Volvo, where he contributed to various projects. In 1981, he ascended to the position of Full Professor at the Polish Academy of Sciences before relocating to the United States later that year. Joining MIT in 1983, he directed the Impact and Crashworthiness Lab. His contributions have been widely recognized with over 250 papers published in leading international journals. In 1986, he was honored with the Alexander von Humboldt senior US Scientist Award, marking the beginning of a fruitful collaboration with the BMW R&D Department in Munich, focusing primarily on fracture mechanics. Professor Wierzbicki's legacy is evident in the numerous industry-oriented programs he has spearheaded at MIT, garnering support from over 76 major automotive, steel, aluminum, offshore, shipbuilding, and consumer electronics companies. His research interests span dynamic plasticity, structural failure, crashworthiness, ultralight materials, ductile fracture, and, more recently, a pioneering program on modeling lithium-ion batteries. He has also served as an Associate Editor of the International Journal of Impact Engineering for many years. Dr. Jiayin Ling serves as a Senior Services Manager at GE HealthCare. Before this role, he held various engineering positions at GE, where he played key roles in developing innovative medical devices such as photon-counting CT scanners and helium-free MRI magnets. Dr. Ling earned his Ph.D. in Mechanical Engineering from the Massachusetts Institute of Technology and his B.S. in Physics from Tsinghua University.
Inhaltsangabe
Part I From Continuum Mechanics to Elastic Structures Lecture 1: The concept of strain Lecture 2: The Concept of Stress, Generalized Stresses and Equilibrium Lecture 3: Development of Constitutive Equations of Continuum, Beams and Plates Lecture 4: Solution Method for Beam Deflections Lecture 5: Moderately Large Deflection Theory of Beams Lecture 6: Bending Response of Plates and Optimum Design Lecture 7: Energy Methods in Elasticity Lecture 8: Stability of Elastic Structures Lecture 9: Advanced Topic in Column Buckling Lecture 10: Buckling of Plates and Sections Part II Plastic Analysis of Plates and Shells, and Ductile Fracture Lecture 11: Fundamental concepts in plasticity Lecture 12: Von Mises yield condition Lecture 13: Tresca yield condition Lecture 14: Yield condition in generalized stresses Lecture 15: Principle of virtual velocity and Limit Analysis Lecture 16: Fundamental concepts of ductile fracture Lecture 17: Fracture Calibration and Experimental Validation Part III Dynamic Loading and Failure of Structures Lecture 18: Space Shuttle Challenger mid-air break-up (1986) Lecture 19: Denting Analysis of Short Tubular Members Lecture 20: Buckle Propagation In Undersea Pipelines (1987) Lecture 21: Grounding Damage of Exxon Valdez (1989) Lecture 22: Airplane Wing Cutting Into Twin Tower External Columns(2003) Lecture 23: Fracture And Collapse of the BP Horizon Oil Rig (2010) Lecture 24: Road Debris Impact on EV Battery Pack (2014) Appendix
Part I From Continuum Mechanics to Elastic Structures Lecture 1: The concept of strain Lecture 2: The Concept of Stress, Generalized Stresses and Equilibrium Lecture 3: Development of Constitutive Equations of Continuum, Beams and Plates Lecture 4: Solution Method for Beam Deflections Lecture 5: Moderately Large Deflection Theory of Beams Lecture 6: Bending Response of Plates and Optimum Design Lecture 7: Energy Methods in Elasticity Lecture 8: Stability of Elastic Structures Lecture 9: Advanced Topic in Column Buckling Lecture 10: Buckling of Plates and Sections Part II Plastic Analysis of Plates and Shells, and Ductile Fracture Lecture 11: Fundamental concepts in plasticity Lecture 12: Von Mises yield condition Lecture 13: Tresca yield condition Lecture 14: Yield condition in generalized stresses Lecture 15: Principle of virtual velocity and Limit Analysis Lecture 16: Fundamental concepts of ductile fracture Lecture 17: Fracture Calibration and Experimental Validation Part III Dynamic Loading and Failure of Structures Lecture 18: Space Shuttle Challenger mid-air break-up (1986) Lecture 19: Denting Analysis of Short Tubular Members Lecture 20: Buckle Propagation In Undersea Pipelines (1987) Lecture 21: Grounding Damage of Exxon Valdez (1989) Lecture 22: Airplane Wing Cutting Into Twin Tower External Columns(2003) Lecture 23: Fracture And Collapse of the BP Horizon Oil Rig (2010) Lecture 24: Road Debris Impact on EV Battery Pack (2014) Appendix
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