A set of FDTD numerical experiments is presented for a homogeneous spherical head and a simple dipole, in order to quantitatively assess the effect of antenna numerical representation and Absorbing Boundary Conditions on simulated parameters of interest, referring to both dosimetric and antenna performance studies. A semi-analytical technique based on the theory of dyadic Green's function in conjuction with the Method of Auxiliary Sources is used for further validation and comparison of the FDTD results.
A study of uncertainties in modeling the handset antenna and human head interaction using the FDTD method / K. S., Nikita; N. K., Uzunoglu; Bernardi, Paolo Italo; Cavagnaro, Marta; Pisa, Stefano; Piuzzi, Emanuele; G. I., Krikelas; J. N., Sahalos. - (2000), pp. 1025-1028. (Intervento presentato al convegno IEEE MTT-S International Microwave Symposium (IMS2000) tenutosi a BOSTON, MA nel JUN 11-16, 2000) [10.1109/mwsym.2000.863531].
A study of uncertainties in modeling the handset antenna and human head interaction using the FDTD method
BERNARDI, Paolo Italo;CAVAGNARO, Marta;PISA, Stefano;PIUZZI, Emanuele;
2000
Abstract
A set of FDTD numerical experiments is presented for a homogeneous spherical head and a simple dipole, in order to quantitatively assess the effect of antenna numerical representation and Absorbing Boundary Conditions on simulated parameters of interest, referring to both dosimetric and antenna performance studies. A semi-analytical technique based on the theory of dyadic Green's function in conjuction with the Method of Auxiliary Sources is used for further validation and comparison of the FDTD results.I documenti in IRIS sono protetti da copyright e tutti i diritti sono riservati, salvo diversa indicazione.
