SED topics overview#
Basic knowledge#
Main Subject |
Topics |
BSc |
MSc |
Sessions |
---|---|---|---|---|
Signal modeling |
Introduction, deterministic signal modeling |
X |
||
Signal modeling |
Random signal modeling |
X |
||
System modeling |
Introduction, definitions |
X |
||
System modeling |
Modeling of linear time-invariant dynamic systems |
X |
||
System modeling |
Modeling of nonlinear and time-invariant systems |
X |
||
Control theory |
Introduction, compensation, error-feedforward and negative feedback |
X |
||
Control theory |
Stability, Nyquist criterion, root-locus and Routh array |
X |
||
Network theory |
Introduction, elements, graphs, theorems and transformations |
X |
||
Network theory |
Nodal analysis and modified nodal analysis |
X |
||
Network theory |
Poles and zeros |
X |
||
Network theory |
Balancing, differential-mode and common-mode quantities |
X |
||
Network theory |
Two-ports |
X |
||
Network Theory |
Modeling of networks with (intended) feedback |
X |
||
Noise in electronic circuits |
Introduction, mechanisms, modeling, and characterization |
X |
||
Noise in electronic circuits |
Two-port models, evaluation of source and detector-referred noise |
X |
||
Noise in electronic circuits |
Effect of impedances in parallel or in series with the signal path |
X |
||
Correlated Double Sampling |
Modeling of the effect of CDS on the noise performance |
X |
||
Passive components |
Physical operation, modeling |
X |
||
MOS transistors |
Physical operation, modeling: EKV model |
X |
||
Bipolar transistors |
Physical operation, modeling: GP model |
X |
||
Structured Electronics Design |
Concepts from systems engineering and signal processing |
X |
||
Structured Electronics Design |
Basic functions, performance limitations and design techniques |
X |
||
Structured Electronics Design |
Specification, validation and documentation |
X |
||
Structured Electronics Design |
General design approach basic functions |
|||
SLiCAP |
Introduction, installation and myFirstRCnetwork |
X |
||
SLiCAP |
Specification and documentation |
X |
||
SLiCAP |
Symbolic and numeric noise analysis |
X |
||
SLiCAP |
Symbolic and numeric dc variance analysis |
X |
||
SLiCAP |
Symbolic and numeric analysis of linear dynamic systems |
X |
||
SLiCAP |
SLiCAP modeling and analysis of feedback circuits |
X |
||
SLiCAP |
SLiCAP root-locus techniques |
X |
||
SPICE |
Introduction to numeric simulation with SPICE |
X |
Design of application-specific negative feedback amplifiers#
Main Subject |
Topics |
BSc |
MSc |
Sessions |
---|---|---|---|---|
Amplifiers introduction |
Introduction, specification, amplification and biasing principle |
X |
||
Amplifiers introduction |
Modeling and characterization of ideal behavior (T1 matrix) |
X |
||
Amplifiers introduction |
SLiCAP test bench T1 matrix parameters |
X |
||
Amplifiers introduction |
Amplifier types, port isolation, PSRR, CMRR |
X |
||
Amplifiers introduction |
Modeling and characterization of nonideal behavior |
X |
||
Amplifiers introduction |
SLiCAP modeling of performance aspects |
X |
||
Amplifiers basic amplification |
Biased CS stage |
X |
||
Amplifiers basic amplification |
Design of noise performance CS stage |
X |
||
Amplifiers basic amplification |
Design of drive capability CS stage |
X |
||
Amplifiers basic amplification |
Dynamic performance CS stage |
X |
||
Amplifiers basic amplification |
Design of feedback stages |
X |
||
Amplifiers basic amplification |
Design of balanced stages |
X |
||
Amplifiers design type |
Design of amplifier configurations using feedback techniques |
X |
||
Amplifiers design type |
Influence of feedback networks on noise, operating point stability and power efficiency |
X |
||
Amplifiers design type |
SLiCAP budgeting of noise and dc variance contributions |
X |
||
Amplifiers design type |
Introduction to biasing techniques |
X |
||
Operational amplifiers |
Introduction, types, modeling and characterization of performance aspects |
X |
||
Operational amplifiers |
SLiCAP modeling of performance aspects of operational amplifiers |
X |
||
Operational amplifiers |
SPICE macro models for operational amplifiers |
X |
||
Amplifier controller design |
Derive controller requirements from amplifier performance requirements |
X |
||
Amplifier controller design |
Design of signal path of multi-stage controllers |
X |
||
Amplifier controller design |
Biasing of multi-stage controllers |
X |
||
Amplifier controller design |
Design of bias sources |
X |
||
Amplifier design |
Frequency stability of negative feedback amplifiers and frequency compensation requirements |
X |
||
Amplifiers frequency compensation |
Frequency compensation of negative feedback amplifiers: phantom-zero compensation |
X |
||
Amplifiers frequency compensation |
Frequency compensation of negative feedback amplifiers: other compensation techniques |
X |
||
Amplifiers frequency compensation |
Frequency compensation of amplifiers with multi-stage controllers |
X |
||
SLiCAP |
SLiCAP frequency compensation of negative feedback amplifiers |
X |
||
SPICE |
Amplifier design verification |
X |
Topics in preparation#
Design of filters, impedance matching and impedance correction networks
Design of DC references
Design of oscillators and timing circuits
Design of high-efficiency switching amplifiers
AD and DA conversion
Low EMI design
Modeling of mechatronic systems