06EE661 Network Synthesis and Active Filter Design syllabus for EE


Part A

Unit-1 & 2 Elements of passive network synthesis 18 hours

Hurwitz polynomials, LC admittances, LC ladders, realization & Foster test for Hurwitz, LC- RC transformation and RC synthesis, L ladder N/W & its transmission poles, transmission zeros of LC&RC ladders dual of ladder network & OF RC ladder, positive real functions, synthesis of RLC N/W by Darlington method, determination of driving point impedance from its real part.


Unit-2 & 3 Elements of passive network synthesis 18 hours

Hurwitz polynomials, LC admittances, LC ladders, realization & Foster test for Hurwitz, LC- RC transformation and RC synthesis, L ladder N/W & its transmission poles, transmission zeros of LC&RC ladders dual of ladder network & OF RC ladder, positive real functions, synthesis of RLC N/W by Darlington method, determination of driving point impedance from its real part.

Unit-4 Image impedance 9 hours

Image impedances, L sections- Relation to symmetrical T and п networks, propagation constant for iterative networks, propagation constant for image terminated networks

Part B
Unit-5 Classical fitters 9 hours

classical filters & low pass prototype, m derived filters, impedance & frequency scaling frequency transformation: high pass & band pass filters

Unit-6 & 7 Modern filter theory & active RC filters 16 hours

Approximation to ideal LP filter, maximally flat magnitude function, Butterworth functions & synthesis, chebychev’s filter, operations using OPAMP configuration, Active RC networks, and low pass active filters, GC-CG transformations, parameter variations & sensitivity consideration for active RC circuits

Unit-7 & 8 Approximation to ideal LP filter 16 hours

Approximation to ideal LP filter, maximally flat magnitude function, Butterworth functions & synthesis, chebychev’s filter, operations using OPAMP configuration, Active RC networks, and low pass active filters, GC-CG transformations, parameter variations & sensitivity consideration for active RC circuits

Last Updated: Tuesday, January 24, 2023