DocumentCode
771374
Title
Transfinite cascades
Author
Zemanian, Armen H.
Author_Institution
Dept. of Electr. Eng., State Univ. of New York, Stony Brook, NY, USA
Volume
38
Issue
1
fYear
1991
fDate
1/1/1991 12:00:00 AM
Firstpage
78
Lastpage
85
Abstract
Just as the natural numbers can be extended to the transfinite ordinals, so too can ladder networks and cascaded three-terminal networks be extended beyond infinity-so long as appropriate assumptions are imposed on their parameters. The author establishes the existence of such transfinite, linear or nonlinear, resistive, electrical networks. In particular, there are cascades of three-terminal networks whose nodes are sequentially numbered form the input to the output first by the natural numbers and then by transfinite ordinals all the way out to ωp, where ρ is any natural number and ω is the first transfinite ordinal. Upon specifying an appropriate source or load at the input (node 0) and also at the output (node ωp ), one obtains as a result a unique set of voltages and currents along the nodes of the cascade. This implies, in turn, that an output load far beyond infinity can be perceived by an observer at the input of the cascade. In fact, these ideas can be extended to cascades that reach still further, for example, out to ωw and beyond. All this is a natural extension of a certain kind of infinite ladder network whose load at infinity is perceptible to an observer at the input to the ladder. Such ladder networks arise in practical applications as models of various physical phenomena taking place in infinite domains
Keywords
cascade networks; ladder networks; multiterminal networks; network analysis; cascaded three-terminal networks; ladder networks; linear networks; nonlinear networks; resistive electrical networks; transfinite cascades; Circuits; Current measurement; Current supplies; Electrical resistance measurement; H infinity control; Voltage;
fLanguage
English
Journal_Title
Circuits and Systems, IEEE Transactions on
Publisher
ieee
ISSN
0098-4094
Type
jour
DOI
10.1109/31.101305
Filename
101305
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