Birefringencia, Quantum Entanglement, Surface Plasmon Polaritons
III-1 PROPAGATION OF GAUSSIAN BEAMS
III-2 Propagation of PLANE WAVES inside an anisotropic (birefringent) material
PART IV QUANTUM MECHANICS EXPERIMENTS with LIGHT
IV-1 THE HEISENBERG UNCERTAINTY PRINCIPLE . . (29-04-2025)
Understanding the Uncertainty Principle through (the Fourier analysis of) universal property of waves
Fourier spectral-decomposition of the wave-function
The wavefunction of a free-particle (the non-relativistic and the relativistic cases)
Appendix: Plane waves
IV-2 THE PRINCIPLE of COMPLEMENTARY: Quantum Behavior of Photons, Electrons and Atoms 6/Mayo/2025
Complementary distinguishes the world of quantum phenomena from the realm of classical
Two observables are ‘complimentary’ if precise knowledge of one of them implies that all
possible outcomes of measuring the other one are equally probable.
IV-2 THE AMPLITUDE PROBABILITY . (6-Mayo-2025)
Amplitude probabilities in the two-slit experiment ( Attempts to watch electron’s "trajectories")
When to add “probabilities” and not “amplitude-probabilities”
Dirac's Bra and Ket notation
IV-3 QUANTUM ENTANGLEMENT (8-Mayo-2025)
Detailed illustration of entanglement process: Case of the Annihilation of the Positronium
Disintegration of the spin-zero state of the positronium
Polarization of the photons (Right and left circular polarization)
Conservation of parity in the positronium decay
The inversion operator
Conservation of parity
Joint and Conditional Probabilities
(This lecture follows closely the Feynman's lecture https://www.feynmanlectures.caltech.edu/III_18.html )
IV-4 QUANTUM TELEPORTATION .
Working principle of the quantum teleportation method proposed by Bennett
Light propagation in birefringent materials
Spontaneous parametric down-conversion process
Matching conditions: Type-I and Type-II nonlinear crystals
Classical and Quantum Bits (QUBITS
Generation of a Pair of Qubits (A two-photon system)
How to generate entangled two-qbit states (EBITS)
Bell States
Analytical description of the proposed quantum teleportation
Implementation of Bell-states measurement
Surface Plasmon Polaritons at a Metal/Dielectric Interface
PART-V Electromagnetic Fields and Waves
V-1 THE MAXWELL EQUATIONS AND ELECTROMAGNETIC WAVES
V-2 LIGHT PROPAGATION IN NON-MAGNETIC MATERIALS
Complement: - Summary about the Maxwell Equations
- Combining the ME to obtain the WAVE EQUATION: Case of no free charges nor free-current
V-3 REFLECTION AND REFRACTION AT a DIELECTRIC / DIELECTRIC PLANE INTERFACE
V-4 SURFACE PLASMON POLARITONS AT a METAL / DIELECTRIC INTERFACE
Transport of information via optical means (rather than via electron particles) in nano-devices.
Data transmission via optical means imply much higher bandwidth operation.
V-1 QUANTUM STATISTICS for PHOTONS AND FERMIONS
V-2 SEMICONDUCTOR MATERIALS Band - gap, chemical potential
V-3 CLASSICAL VIEW of LIGHT
V-4 EINSTEIN'S LAW OF RADIATION: THE QUANTUM VIEW OF LIGHT (06-06-2024)
V-5 OPTOELECTRONIC DEVICES: LASER DIODE
_________________________________________________________________________________________________________________ I-1 LIGHT: WAVE or PARTICLE? Maybe BOTH?
I-2 The wave Equation, Phasors, Wave Packets, Interference, Diffraction Enero 21, Enero 23
I-3 The Origin of the Index of Refraction Enero 23 , Enero 28
PART-II GEOMETRICAL OPTICS: The Koehler Illumination
RAYS and OPTICAL BEAMS
II-1 OPTICS and the VARIATIONAL PRINCIPLE Enero 16
II-2 REFRACTION at ASPHERICAL SURFACES
II-3 REFRACTION AT SPHERICAL SURFACES
II-4 ABERRATIONS
II-5 DESIGN OF OPTICAL INSTRUMENTS
The Koehler illumination * * * * * Application