Special Topics in Electrodynamics:

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Presentation transcript:

Special Topics in Electrodynamics: PHY 712 Electrodynamics 9-9:50 AM MWF Olin 105 Plan for Lecture 37: Special Topics in Electrodynamics: Tunneling between superconductors Optical properties of materials Birefringence Non-linear effects 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Mechanism for vortex detection -- Josephson junction -- tunneling current between two superconductors (Ref. Teplitz, Electromagnetism (1982)) d x Bz 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Josephson junction -- continued Supercon left Junction Supercon right Bz d 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Josephson junction -- continued Supercon left Junction Supercon right Ay d 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Josephson junction -- continued d L R x Coupling parameter 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Josephson junction -- continued 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Josephson junction -- continued JL JR JT L R x 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Josephson junction -- continued JL JR JT L R x 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Josephson junction -- continued JL JR JT L R x 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Josephson junction -- continued Supercon left Junction Supercon right Ay d 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Josephson junction -- continued JL JR JT L R x Bz 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Josephson junction -- continued JL JR JT L R w w x 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Josephson junction -- continued JL JR JT L R w w x 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Josephson junction -- continued d JL JR JT L R w w x Bz 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Josephson junction -- continued SQUID =superconducting quantum interference device IT F/F0 Note: This very sensitive “SQUID” technology has been used in scanning probe techniques. See for example, J. R. Kirtley, Rep. Prog. Physics 73, 126501 (2010). 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Scanning SQIUD microscopy Ref. J. R. Kirtley, Rep. Prog. Phys. 73 126501 (2010) 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

04/20/2018 PHY 712 Spring 2018 -- Lecture 37

pg. 481 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Change of topics – review of reflection/refraction of electromagnetic plane waves. Maxwell’s equations 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Analysis of Maxwell’s equations without sources -- continued: B0 k 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Reflection and refraction of plane electromagnetic waves at a plane interface between dielectrics (assumed to be lossless) isotropic materials m’ e’ m e k’ ki kR i R q 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Reflection and refraction -- continued m’ e’ m e k’ ki kR i R q 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Reflection and refraction -- continued m’ e’ m e k’ ki kR i R q 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Reflection and refraction -- continued m’ e’ m e k’ ki kR i R q 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Reflection and refraction -- continued m’ e’ m e k’ ki kR i R q 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Reflection and refraction -- continued s-polarization – E field “polarized” perpendicular to plane of incidence m’ e’ m e k’ ki kR i R q 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Reflection and refraction -- continued p-polarization – E field “polarized” parallel to plane of incidence m’ e’ m e k’ ki kR i R q 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Reflection and refraction -- continued m’ e’ m e k’ ki kR i R q 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

For s-polarization For p-polarization 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

i s-polarization p-polarization i 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Extension of analysis to anisotropic media -- 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

By assumption, the wave vector in the medium is Consider the problem of determining the reflectance from an anisotropic medium with isotropic permeability m0 and anisotropic permittivity e0 k where: By assumption, the wave vector in the medium is confined to the x-y plane and will be denoted by The electric field inside the medium is given by: 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Digression -- Expecting this matrix to be symmetric/Hermitian, it can be diagonalized by a similarity transformation 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Inside the anisotropic medium, Maxwell’s equations for time harmonic fields are: 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Inside the anisotropic medium, Maxwell’s equations for time harmonic fields – continued -- 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Note that, consistent with Snell’s law: The fields for the incident and reflected waves are the same as for the isotropic case. Note that, consistent with Snell’s law: Continuity conditions at the y=0 plane must be applied for the following fields: There will be two different solutions, depending of the polarization of the incident field. 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Solution for s-polarization 04/20/2018 PHY 712 Spring 2018 -- Lecture 37

Solution for p-polarization 04/20/2018 PHY 712 Spring 2018 -- Lecture 37