In this paper, two new floating inductor simulators (FISs), both using two differential difference current conveyors, are considered. The proposed FISs do not suffer from passive component matching constraints and employ a minimum number of passive elements. They use a grounded capacitor; accordingly, they are suitable for integrated circuit technology. They have good low- and high-frequency performances. Simulations are performed with the SPICE program to verify the claimed theory. Moreover, for the first FIS used in a second-order low-pass filter, a stability test is performed as an example
In this paper, a new active circuit for realizing lossless floating inductor using current controlle...
In this study, two new lossless grounded inductor simulators (GISs) made up of a single plus-type se...
In this paper, new floating immittance function simulators employing second-generation current contr...
In this paper, two new floating inductor simulators (FISs), both using two differential difference c...
In this paper, two new floating inductor simulators (FISs), both using two differential difference c...
In this paper, a number of simulated floating inductors (FIs) employing second-generation current co...
A circuit for realizing floating inductance, grounded to a floating admittance converter, floating f...
In this paper, a novel lossless floating inductor simulator with four resistors, a grounded capacito...
In this paper, five novel and minimum number count floating inductor simulators (FIs) are proposed. ...
In this paper, new topologies for realizing lossless and lossy floating inductors using current cont...
A circuit for realizing floating inductance, grounded to a floating admittance converter, floating f...
In this study, a new general floating element simulator circuit employing two voltage differencing c...
In this paper, five novel and minimum number count floating inductor simulators (FIs) are proposed. ...
In this paper, the nonideality effects such as nonideal gain and parasitic-impedance effects on the ...
In this article, a novel simulator circuit using two differential voltage current conveyors (DVCCs) ...
In this paper, a new active circuit for realizing lossless floating inductor using current controlle...
In this study, two new lossless grounded inductor simulators (GISs) made up of a single plus-type se...
In this paper, new floating immittance function simulators employing second-generation current contr...
In this paper, two new floating inductor simulators (FISs), both using two differential difference c...
In this paper, two new floating inductor simulators (FISs), both using two differential difference c...
In this paper, a number of simulated floating inductors (FIs) employing second-generation current co...
A circuit for realizing floating inductance, grounded to a floating admittance converter, floating f...
In this paper, a novel lossless floating inductor simulator with four resistors, a grounded capacito...
In this paper, five novel and minimum number count floating inductor simulators (FIs) are proposed. ...
In this paper, new topologies for realizing lossless and lossy floating inductors using current cont...
A circuit for realizing floating inductance, grounded to a floating admittance converter, floating f...
In this study, a new general floating element simulator circuit employing two voltage differencing c...
In this paper, five novel and minimum number count floating inductor simulators (FIs) are proposed. ...
In this paper, the nonideality effects such as nonideal gain and parasitic-impedance effects on the ...
In this article, a novel simulator circuit using two differential voltage current conveyors (DVCCs) ...
In this paper, a new active circuit for realizing lossless floating inductor using current controlle...
In this study, two new lossless grounded inductor simulators (GISs) made up of a single plus-type se...
In this paper, new floating immittance function simulators employing second-generation current contr...