Synthesis of active distributed RC networks.
Synthesis technique for RC network using two distributed RC elements, one negative impedance converter and one lumped capacitor
NETWORK SYNTHESIS↗
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A generalized method of active RC network synthesis.
A completely general active RC network synthesis technique using a grounded gyrator and a summing amplifier is described. The technique overcomes serious limitations of previous RC-gyrator realizations and offers advantages o ver other general active RC synthesis methods. The technique is well suited for construction using thin-film RC networks and integrated circuit operational amplifiers, and provides a configuration which is quite insensitive to element variations.
Leach, D. P.↗
An annotated bibliography for distributed RC networks
Annotated bibliography on distributed RC networks
Huelsman, L. P.↗
A comparison of numerical techniques for determining the parameters of distributed RC networks
Numerical techniques for modeling distributed RC networks
Huelsman, L. P.↗
The modeling of distributed RC networks
Modeling of general three terminal distributed RC networks
Huelsman, L. P.↗
Computation of signal delays in RC networks
A model for signal delay computation in RC networks is presented. The strength of the paradigm is its generality and simplicity. The definition of delay is applicable to RC meshes with potential resistive attenuating paths to ground. The algorithms can also be applied to undriven circuits (static charge sharing) and circuits with initial charge. To compute the delays, each node in the network is explored locally to derive a system of sparse linear equations. The solutions of the system are delay values based on the Elmore time constant at each point in the circuit.
Hidalgo, Juan Carlos↗
A three-layer distributed RC network with two transmission zeros
Three layer distributed RC network with two transmission zeros
Huelsman, L. P.↗
N-port rectangular-shaped distributed RC NETWORKS.
Necessary and sufficient condition derived for generating rational functions of n-port rectangular structure for distributed RC networks
RC NETWORK↗
N-port rectangular-shaped distributed RC NETWORKS
Dielectric material between resistive thin film and pure conductor considered as n-port distributed RC network
DIELECTRIC MATERIAL↗
Lumped element modeling of two-dimensional distributed RC networks
Lumped element modeling of two-dimensional distributed RC networks
Huelsman, L. P.↗
Active rc networks of low sensitivity for integrated circuit transfer function
Active RC network is capable of extremely high Q performance with exceptional stability and has independently adjustable zeros and poles. The circuit consists of two integrators and two summers that are interconnected to produce a complete second-order numerator and a second-order denominator.
Huelsman, L. P.↗
Synthesis of active RC networks containing distributed and lumped elements
Procedure for synthesizing active RC networks containing distributed and lumped elements
Kerwin, W. J.↗
Synthesis of low-pass linear-phase active circuits using distributed RC networks
Low pass linear phase active feedback circuit synthesis using distributed RC networks to realize flat magnitude response
Mahdi, H.↗
Equal-valued-capacitor active-RC-network realisation of a 3rd-order lowpass Butterworth characteristic
Active RC network realization of third order lowpass Butterworth characteristic with all capacitors having same value
Huelsman, L. P.↗
Use of a three-layer distributed RC network to produce two pairs of complex conjugate zeros
The properties of a three layer distributed RC network consisting of two layers of resistive material separated by a dielectric are described. When the three layer network is used as a three terminal element by connecting conducting terminal strips across the ends of one of the resistive layers and the center of the other resistive layer, the network may be used to produce pairs of complex conjugate transmission zeros. The location of these zeros are determined by the parameters of the network. Design charts for determining the zero positions are included as part of the report.
Huelsman, L. P.↗
A three-layer distributed RC network with two transmission zeros
This report describes the properties of a three-layer distributed RC network consisting of two resistive layers separated by a dielectric which may be used to realize two zeros of transmission on the j-omega axis of the complex frequency plane. The relative location of the two zeros is controlled by the location of a contact placed on one of the resistive layers.
Huelsman, L. P.↗
An equal-valued capacitor active RC network realization of a fourth-order low-pass Butterworth characteristic
This letter describes an active RC network which realizes a fourth-order low-pass Butterworth characteristic. It requires one active element and has the practical advantage that all capacitors have the same value. A design chart is included.
Huelsman, L. P.↗
Synthesis of active distributed RC networks
Open-circuit transfer function of two-port network expressed as rational function with real coefficients
TRANSFER FUNCTION↗