Results 41 to 50 of about 7,839 (285)
Axiomatic derivation of Maxwell's equations [PDF]
The derivation of Maxwell's equations commencing with Coulomb's law can be carried out in several ways by extending the work of Page. However, their derivation without assuming any experimental results of electromaglletics like Coulomb's law has not so ...
Seshagiri, N.
core +1 more source
Efficient method for the solution of Maxwell’s equations for nanostructured materials [PDF]
The calculation of the electromagnetic field in nanostructured materials and nano-optoelectronic devices, when the wavelength of the incident radiation is comparable with the size of the structural elements, requires the exact solution of Maxwell's ...
Semenikhin Igor
doaj +1 more source
Derivations of relativistic force transformation equations [PDF]
The correct general form of relativistic transformation equations for the three-vector force is derived without using four-vectors, via the relativistic Newton's second law. The four-vector approach to the problem is also presented.
Davidovic, Dragomir +8 more
core +1 more source
We use scanning nitrogen vacancy magnetometry to directly image the weak in‐plane magnetic moments in mixed phase BiFeO3 at the nanoscale and quantify the local magnetic moments to be 18.8±2.0 μB/nm2 in the rhombohedral‐like phase and 1.5±0.6 μB/nm2 in the well‐known non‐magnetic tetragonal‐like phase.
Lei Wang +14 more
wiley +1 more source
Parametric co-linear axion photon instability
Axions and axion-like particles generically couple to QED via the axion-photon-photon interaction. This leads to a modification of Maxwell's equations known in the literature as axion-electrodynamics.
K.A. Beyer +4 more
doaj +1 more source
Nanoengineering and Maxwell’s Equations
It is shown that the fine structure of currents, electric and magnetic fields, energy fluxes in nanostructures can be studied on the basis of the new solution of Maxwell’s equations.
openaire +1 more source
Solving Maxwell's Equations Using Fractional Wave Equations
In this paper, Maxwell's equations are transformed into a set of uncoupled, scalar first order differential equations. The spatial derivative operator in the transformed differential equations is a fractional Laplacian.
Warnick, Karl F.;Russer, Peter
core +1 more source
Reduced Graphene Oxide Transparent Electrodes Enabling Compact Soft Tunable Lenses
By spray‐coating an elastomeric membrane with reduced graphene oxide (rGO) at various surface densities, elastomeric actuators are manufactured. Electro‐mechano‐optical characterizations show the suitability of rGO as an effective material for compliant, semi‐transparent electrodes, enabling soft electrically tunable lenses with a compact form factor ...
Giacomo Sasso +4 more
wiley +1 more source
Background. The initial-boundary value problems for the system of Maxwell’s equations are needed in the context of describing and calculating a non-stationary electromagnetic field (non-harmonic time dependent field).
Sergey V. Marvin
doaj +1 more source
Finite-Difference Time-Domain Simulation of Light Propagation in 2D Periodic and Quasi-Periodic Photonic Structures [PDF]
Ultra-short pulse is a promising technology for achieving ultra-high data rate transmission which is required to follow the increased demand of data transport over an optical communication system. Therefore, the propagation of such type of pulses and the
N. Dadashzadeh, O. G. Romanov
doaj +1 more source

