Syllabus
Systematics and mobility analysis of compliant mechanisms. Discrete and distributed compliance. Methods of elastostatic and elastodynamic analyses including multi-axial stiffness, pseudo-rigid-body, and spring-mass-lever models. Non-dimensional analysis of compliant topologies. Energetics including mechanical advantage and efficiency; static and dynamic balancing; bistability and multistabillity. Synthesis and design methods including rigid-body replacement, topology optimization, building blocks, constraint theory, and selection maps. Applications in automotive, aerospace, biomedical, consumer products, and microelectromechanical systems
Course objectives
After taking this course, the students will be able to:Books and references
Prerequisites
Multivariable calculus and programming experience in MATLAB are preferred. Familiarity with kinematics and mechanisms as well as finite element analysis is recommended.
Additional information
This course is open to doctoral and master's students interested in kinematics, dynamics, structural mechanics, and optimization. Undergraduate students with sufficient background can approach the instructor.