On the Localized superluminal Solutions to the Maxwell Equations
arXiv:0709.2191 · doi:10.1109/JSTQE.2002.808194
Abstract
In the first part of this article the various experimental sectors of physics in which Superluminal motions seem to appear are briefly mentioned, after a sketchy theoretical introduction. In particular, a panoramic view is presented of the experiments with evanescent waves (and/or tunneling photons), and with the "Localized superluminal Solutions" (SLS) to the wave equation, like the so-called X-shaped waves. In the second part of this paper we present a series of new SLSs to the Maxwell equations, suitable for arbitrary frequencies and arbitrary bandwidths: some of them being endowed with finite total energy. Among the others, we set forth an infinite family of generalizations of the classic X-shaped wave; and show how to deal with the case of a dispersive medium. Results of this kind may find application in other fields in which an essential role is played by a wave-equation (like acoustics, seismology, geophysics, gravitation, elementary particle physics, etc.). This e-print, in large part a review, was prepared for the special issue on "Nontraditional Forms of Light" of the IEEE JSTQE (2003); and a preliminary version of it appeared as Report NSF-ITP-02-93 (KITP, UCSB; 2002). Further material can be found in the recent e-prints arXiv:0708.1655v2 [physics.gen-ph] and arXiv:0708.1209v1 [physics.gen-ph]. The case of the very interesting (and more orthodox, in a sense) subluminal Localized Waves, solutions to the wave equations, will be dealt with in a coming paper. [Keywords: Wave equation; Wave propagation; Localized solutions to Maxwell equations; Superluminal waves; Bessel beams; Limited-dispersion beams; Electromagnetic wavelets; X-shaped waves; Finite-energy beams; Optics; Electromagnetism; Microwaves; Special relativity]
LaTeX paper of 37 pages, with 20 Figures in jpg [to be processed by PDFlatex]
References in corpus (21)
- On Localized "X-shaped" Superluminal Solutions to Maxwell Equations
- Measurement of Superluminal optical tunneling times in double-barrier photonic bandgaps
- Superluminal effects for quantum tunneling through two successive barriers
- On the propagation speed of evanescent modes
- New localized Superluminal solutions to the wave equations with finite total energies and arbitrary frequencies
- Superoscillations and tunneling times
- Multibarrier tunneling
- Superluminal motions? A bird-eye view of the experimental situation
- Bounds and enhancements for the Hartman effect
- More About Tunnelling Times, the Dwell Time, and the ``Hartman Effect"
- About Superluminal motions and Special Relativity: A Discussion of some recent Experiments, and the solution of the Causal Paradoxes
- Localized Superluminal solutions to Maxwell equations propagating along a normal-sized waveguide
- Superluminal X-shaped beams propagating without distortion along a coaxial guide
- Superluminal Localized Solutions to Maxwell Equations propagating along a waveguide: The finite-energy case
- Basics of Superluminal Signals
- Pulsed light beams in vacuum with superluminal and negative group velocities
- Subluminal and superluminal solutions in vacuum of the Maxwell equations and the massless Dirac equation
- Classical solutions of Maxwell equations and the tunneling photon effect
- An atom optics experiment to investigate faster-than-light tunneling
- Limited-Diffraction Solutions to Maxwell and to Schroedinger Equations
- Optical Tachyons in Parametric Amplifiers: How Fast Can Quantum Information Travel?
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- Unified time analysis of photon and (nonrelativistic) particle Tunnelling, and the Superluminal group-velocity problem
- Theory of Frozen Waves
- What is the maximum differential group delay achievable by a space-time wave packet in free space?
- Sub-luminal wave bullets: Exact Localized subluminal Solutions to the Wave Equations
- Diffraction-Attenuation Resistant Beams: their Higher Order Versions and Finite-Aperture Generations
- Unidirectional decomposition method for obtaining exact localized waves solutions totally free of backward components
- Time-diffracting beams: On their nature, diffraction-free propagation as needles of light, and nonlinear generation
- Localized Waves: A not-so-short Review
- Focused X-shaped (Superluminal) pulses
- The X-shaped, localized field generated by a Superluminal electric charge
- Production of Dynamic Frozen Waves: Controlling shape, location (and speed) of diffraction-resistant beams
- On the generation and the nonlinear dynamics of X-waves of the Schroedinger equation
- V-Waves: Spatio-temporally induced group-velocity dispersion in free space
- Chirped optical X-shaped pulses in material media
- Photon localization barrier can be overcome
- A simple and effective method for the analytic description of important optical beams, when truncated by finite apertures
- The spectral and polarization characteristics of the nonspherically decaying radiation generated by polarization currents with superluminally rotating distribution patterns
- Transient Cherenkov radiation from an inhomogeneous string excited by an ultrashort laser pulse at superluminal velocity
- Morphology of the nonspherically decaying radiation beam generated by a rotating superluminal source
- Localized Waves: A scientific and historical introduction
- Refraction of space-time wave packets: I. Theoretical principles
- Droplet-shaped waves: Causal finite-support analogs of X-shaped waves
- Electromagnetic Field Theory in Superluminal Spacetime
- Refraction of space-time wave packets: III. Experiments at oblique incidence
- Generation of entangled 3D localized quantum wave-packets via optical parametric amplification