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Solutions to 4 multi-choice questions of Module 5

Solutions to 4 multi-choice questions of Module 3

Solutions to 4 multi-choice questions of Module 2

Solutions of a couple of multi-choice questions

Solutions to 4 multi-choice questions of Module 4

The learning objectives of this class: - Define Jones vectors and matrix - Derive the polarization state of the output beam of light after passing a cascade of polarizing elements - Understand the reflected and refracted rays in terms of the polarization state

The learning objectives of this class: - Define the terms birefringent materials, retarders, and Stokes parameters. - Understand the principle of birefringence and how it leads to the splitting of light into two orthogonal polarization components. - Describe how retarders change the polarization of the light. - Predict the polarization state after a polarized light passes through full-wave, hal...

The learning objectives of this class: - Understand that the polarization is related to the orientation of the oscillations of the E-field - Identify multiple applications of polarization - Identify the different polarization states - Determine the polarization state given an E-field - Represent a polarization state using the Poincare Sphere - Define natural light - Understand the working princ...

The learning objectives of this class: - Simplify the Maxwell equation for monochromatic plane fields/waves - Define absorption and dispersion as processes that occur when the light travels a medium - Apply the Beer’s law to determine the amount of transmitted light - Quantify the dispersion using the Abbe value, the Cauchy equation, or the Sellmeier equation.

The learning objectives of this class: - Review of electromagnetic theory for Optics - Generalization of Maxwell equations for an arbitrary media - Introduction of polarization and magnetization fields - Describe optical electromagnetic waves in dielectric media

The Learning Objectives of this class: - Understand that a Gaussian beam becomes another Gaussian beam after propagating for an arbitrary optical system - Apply the matrix formalism in cascade to estimate the parameters of the transmitted Gaussian beam - Calculate the parameters of the newly transmitted Gaussian beam

The learning objectives of this class: - Understand the behavior of the intensity distribution of a Gaussian beam. - Recognize that the power of a Gaussian beam is constant. - Understand the behavior of the beam width of a Gaussian beam. - Calculate the beam divergence. - Define the depth of focus. - Identify the phase distribution of a Gaussian beam. - Determine the minimum number of parameter...

Learning Objectives of this class: - Describe the features of a Gaussian beam. - Define the q parameter of a Gaussian beam - Identify the observation plane and the Rayleigh range from the q parameter - Define the radius of curvature and beam width of a Gaussian beam - Determine the observation plane and the beam waist from the radius of curvature and beam width of a Gaussian beam. - Describe th...

Learning Objectives of this class: - Describe the Young double-slit experiment - Derive the total intensity distribution in the Young double-slit experiment - Deduce the condition for constructive and destructive interference in terms of the separation between the slit and screen planes

Module2 Class8: Relation ray-wave optics, interference of two waves, interferometers

Video Module2 Class7 Elementary waves

Module2: Class6 Postulates of Wave Optics

Module1 Class5 Matrix Optics and 4f Imaging system

Module1 Class4 Spherical Boundaries and Lenses

Module1 Class3 Planar Boundaries External and internal refraction Total internal reflection

Module1 Class2 Mirrors

Module1-Class1: Postulates and Rules

Algoritmo semi-heuristico para la reconstrucion de imagenes de fase en DHM

Accurate phase compensation in Digital Holographic Microscopy

PhD Dissertation RaulCastaneda (English) - PART II

PhD Dissertation RaulCastaneda (English)- PART I

(Spanish) 3D QPI-DHM - A Synergetic Computational Framework for 3D QPI in off-axis DHM

3D QPI-DHM - A Synergetic Computational Framework for 3D QPI in off-axis DHM

An Open-Source Tool for Non-Telecentric Digital Holographic Microscopy Reconstruction