MIT

Lecture 1: Introduction to Nonlinear Analysis (M-I-T)

Lecture 20: Beam, Plate, and Shell Elements II (M-I-T)

Lecture 21: Demonstration Using ADINA – Linear Analysis (M-I-T)

Lecture 22: Demonstration Using ADINA – Nonlinear Analysis (M-I-T)

"Engineering M13 Bacteriophage NIR-II Platforms for Tumor Imaging Applications" (M-I-T)

Lecture 2: Basic Considerations in Nonlinear Analysis (M-I-T)

"Inspiring the Next Generation: Women's Technology Program at MIT" (M-I-T)

Lecture 3: Lagrangian Continuum Mechanics Variables for Analysis (M-I-T)

"SWE Opportunities for High School Students" (M-I-T)

Lecture 4: Total Lagrangian Formulation – Incremental Analysis (M-I-T)

Lecture 11: The Hamiltonian formulation; introduction to waves (M-I-T)

Lecture 5: Updated Lagrangian Formulation – Incremental Analysis (M-I-T)

"What Cameras Can Do For You; and How They Do It!" (M-I-T)

Lecture 12: The wave equation; phasor representation; 3D waves (M-I-T)

Lecture 6: Formulation of Finite Element Matrices (M-I-T)

Lecture 13: 3D wave phenomena; introduction to electromagnetics (M-I-T)

Lecture 7: 2D & 3D Solid Elements; Plane Stress/Strain Conditions (M-I-T)

Lecture 14: Maxwell's equations; polarization; Poynting's vector (M-I-T)

Lecture 8: 2-Noded Truss Element – Updated Lagrangian Formulation (M-I-T)

Lecture 15: Huygens principle; interferometers; Fresnel diffraction (M-I-T)

Lecture 9: 2-Noded Truss Element – Total Lagrangian Formulation (M-I-T)

Lecture 16: Gratings: amplitude and phase, sinusoidal and binary (M-I-T)

Lecture 17: Fraunhofer diffraction; Fourier transforms and theorems (M-I-T)

Lecture 18: Spatial filtering; lens transfer functions & transforms (M-I-T)

Lecture 19: The 4F system; binary amplitude & pupil masks (M-I-T)