An Active High Impedance Surface for Low Profile Tunable and Steerable Antennas
Filippo Costa, Agostino Monorchio, Salvatore Talarico et al.
Classical Physics papers — page 164
physics.class-phBrowse archive
Magnetic influence on classical dispersion
T. N. C. Mendes, Reinaldo de Melo e Souza, C. FarinaThermal Radiation Effect in the Free Expansion of an Ideal Gas and Gibbs' Paradox in Classical Thermodynamics
A. PagliettiA non-linear hardening model based on two coupled internal hardening variables: formulation and implementation
Nelly Point, Silvano ErlicherBouc-Wen-type models with stiffness degradation: thermodynamic analysis and applications
Silvano Erlicher, Oreste S. BursiPseudo-potentials and loading surfaces for an endochronic plasticity theory with isotropic damage
Silvano Erlicher, Nelly PointOn the derivation of structural models with general thermomechanical prestress
Silvano Erlicher, F. BourquinSynthèse sonore de la clarinette avec modèle de résonateur à trous latéraux optimisé sur des impédances d'entrée d'une clarinette réelle
Fabrice Silva, Philippe Guillemain, Jean Kergomard et al.Lateral vibration of footbridges under crowd-loading: Continuous crowd modeling approach
Joanna Bodgi, Silvano Erlicher, Pierre ArgoulRelativistic Entropy and Related Boltzmann Kinetics
G. KaniadakisA bead on a hoop rotating about a horizontal axis: a 1-D ponderomotive trap
Andrew K. Johnson, James A. RabchukThe covariant formulation of Maxwell's equations expressed in a form independent of specific units
Jose A. Heras, G. BaezRigorous treatment of electrostatics for spatially varying dielectrics based on energy minimization
O. I. Obolensky, T. P. Doerr, R. Ray et al.Quasistatic behavior and force transmission in packing of irregular polyhedral particles
Émilien Azema, Farhang Radjaï, Gilles SaussineAn alternative to relativistic transformation of special relativity based on the first principles
Young-Sea HuangDerivation of the self-interaction force on an arbitrarily moving point-charge and of its related energy-momentum radiation rate: The Lorentz-Dirac equation of motion in a Colombeau algebra
Andre GsponerThe exact relation between the displacement current and the conduction current: Comment on a paper by Griffiths and Heald
Jose A. HerasAuthor's response
Jose A. HerasCan Maxwell's equations be obtained from the continuity equation?
Jose A. HerasReply to "Comment(s) on `Preacceleration without radiation: The non-existence of preradiation phenomenon," by J. D. Jackson [Am. J. Phys. 75, 844-845 (2007)] and V. Hnizdo [Am. J. Phys. 75, 845-846 (2007)
Jose A. HerasSimultaneous inference of Jefimenko's and Maxwell's equations from retardation
J. -M. ChungMultipole radiation fields from the Jefimenko equation for the magnetic field and the Panofsky-Phillips equation for the electric field
R. de Melo e Souza, M. V. Cougo-Pinto, C. Farina et al.Mossbauer Experiment in a Rotating System on the Time Dilation Effect
Alexander L. Kholmetskii, Tolga Yarman, Oleg V. Missevitch et al.The Coulomb static gauge
Jose A. HerasUnified Statistical Description of Quasithermodynamic Systems in and out of Equilibrium
E. D. Vol