Application of Maxwell-Wagner Polarisation in Monolithic Technologies

Layered structures, when supporting the Maxwell Wagner polarization mechanism, exhibit very large effective electric permittivity and thus can be used for miniaturizing purposes. However, the large interfacial dimensions evolved, limit the Maxwell Wagner polarization at relatively low frequencies. This book is a study on the waveguiding properties of laminar substrates consisting of metal-insulator-semiconductor (MIS) layers. The propagation characteristics of MIS lines are controlled by the resistivity of the substrate, the operating frequency and the ratio of the semiconductor to insulator layer thicknesses. Additionally, it is demonstrated how intentionally planted polarization states can be used for further exploiting the Maxwell Wagner polarization mechanism. Finally, potential applications of this method, such as delay lines, distributed low-pass filters, and couplers are presented.

Autorentext

Themis was born in Sydney, Australia, in 1981. He graduated from Lincoln University in 2003 and was awarded with the M.Sc. on Microelectronic Systems and Telecommunications from Liverpool University in 2004. He received his Ph.D. from the department of Electrical and Electronic Engineering at Imperial College London in 2008.

Klappentext

Layered structures, when supporting the Maxwell-Wagner polarization mechanism, exhibit very large effective electric permittivity and thus can be used for miniaturizing purposes. However, the large interfacial dimensions evolved, limit the Maxwell-Wagner polarization at relatively low frequencies. This book is a study on the waveguiding properties of laminar substrates consisting of metal-insulator-semiconductor (MIS) layers. The propagation characteristics of MIS lines are controlled by the resistivity of the substrate, the operating frequency and the ratio of the semiconductor to insulator layer thicknesses. Additionally, it is demonstrated how intentionally planted polarization states can be used for further exploiting the Maxwell-Wagner polarization mechanism. Finally, potential applications of this method, such as delay lines, distributed low-pass filters, and couplers are presented.