Transduction of Motion: Optical Lever and Interferometer Detection

Related lectures (32)

Explains the Thévenin and Norton theorems for simplifying electrical circuits with equivalent sources and impedances.

Explores 3D elasticity, beam bending, and buckling phenomena in slender structures.

Explores normal stresses in beams, bending moments, neutral axis, and maximum stresses.

Explores stresses and strains in beams under pure bending, covering neutral axis, normal stress, moment of inertia, and maximum stress.

Covers stress analysis in circular torsion and bending of straight beams.

Covers voltage divider, internal impedance, phase shift, and parallel circuits in sinusoidal steady state.

Covers the analysis of RL, RC, and RLC circuits, focusing on impedance calculations and current determination.

Explains impedance, Kirchhoff laws, and handling sources with different frequencies.

Covers the analysis of AC circuits, focusing on complex impedance and phase differences between current and voltage.

Covers internal equilibrium of solids, stress analysis, beam deformation, and rupture criteria.

Explores linear circuits in sinusoidal regime, covering phasors, impedance, power calculations, Thevenin/Norton equivalents, and frequency analysis.

Explores various methods of transduction for detecting motion and deformation in microscale applications.

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