Teaching
Graduate Courses Taught by Marc Levenston
Mechanics of Biological Tissues
Understand the remarkable mechanics behind living systems. This course introduces the physical principles governing biological tissues, from the elasticity of bone to the viscoelastic properties of skin and cartilage. Students explore experimental techniques and constitutive modeling used to characterize healthy and diseased tissue behaviors. Essential for those interested in biomechanics, biomedical engineering, or tissue engineering.
Introduction to Biomechanics and Mechanobiology
Discover the fascinating intersection of biology and mechanics! This course explores how mechanical forces influence tissue development, adaptation, and healing. Dive into the biomechanics of soft and hard tissues, from bone mechanics to the fascinating properties of muscles and blood flow. You’ll also uncover how mechanical signals regulate tissue regeneration, aging, and disease processes. Perfect for students interested in the dynamic relationship between the body’s mechanical environment and its biological functions. Ideal for those looking to make an impact in fields like tissue engineering, regenerative medicine, or musculoskeletal health.
Undergraduate Courses Taught by Marc Levenston
Intro to Solid Mechanics
Unlock the principles of engineering design through the lens of solid mechanics. This foundational course introduces students to the tools and thinking of engineering analysis by exploring how physical systems behave under various forces. Through the study of static equilibrium in 2D and 3D, structural analysis, and axial stress and deformation, students build a strong base for advanced work in mechanical or structural engineering. Ideal for those interested in understanding how engineered systems, from bridges to biomedical devices, maintain stability and strength.
Mechanics of Materials
Analyze how materials bend, twist, and buckle under load. This comprehensive course covers stress and deformation under torsion and bending, column buckling, and pressure vessel analysis. Students are introduced to multiaxial stress states, strain transformation, and failure theories, gaining the analytical tools needed for safe and efficient structural and mechanical design. Ideal for students aiming for careers in mechanical design, structural engineering, or materials innovation.