G. Will, N. Masciocchi, et al.
Zeitschrift fur Kristallographie - New Crystal Structures
This analysis shows the order of magnitude of the highest frequency and power to be expected from a single tunnel diode generator. An optimization on the circuit level indicates how to make the best use of a given device. The influence of the dimensions and the geometry is considered and relates the performances of the circuit with bulk and junction properties of the semiconductor. On the basis of empirical data, a correlation between bulk and junction properties is established and relates all of them to the doping level and the basic semiconductor used. Numerical data show the physical limitations to be expected with germanium and gallium-arsenide in relation with two idealized cavity geometries. As dimensions cannot be arbitrarily reduced, nor the impedance be arbitrarily low, they introduce other limitations which prevent in some cases the possibility of optimum performances and show comparable merits of the two geometries. It is concluded that a power output of 5 mw at 30 kMc for a GaAs tunnel diode generator is an optimistic figure close to the technical limit. COPYRIGHT © 1963—THE INSTITUTE OF ELECTRICAL AND ELECTRONICS ENGINEERS, INC.
G. Will, N. Masciocchi, et al.
Zeitschrift fur Kristallographie - New Crystal Structures
William Hinsberg, Joy Cheng, et al.
SPIE Advanced Lithography 2010
R. Ghez, J.S. Lew
Journal of Crystal Growth
O.F. Schirmer, W. Berlinger, et al.
Solid State Communications