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DC power |
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Time-domain and sinusoidal
steady-state systems |
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Formal solution techniques
and useful tools |
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Laplace transforms |
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S-domains system
representation |
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Modeling the electrical properties of conductors,
insulators, & semiconductors |
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Modeling carrier transport, thermoelectric and
photoelectric effects semiconductors Static,
time-dependent and temperature dependent models of
diodes and transistors |
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AC power |
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Phasors |
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System and signal modeling |
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Fourier series and Fourier transforms |
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Filters |
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Sampling |
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Transmission of information over band limited,
noisy communication channels |
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Line codes, probability of error, intersymbol
interference |
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Modulation techniques, synchronization, and
frequency conversion |
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Diodes, Bipolar Junction Transistors, and Field
Effect Transistor theory and modeling switching
applications |
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Common transducers |
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Analog to Digital and Digital to Analog conversion |
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Analog applications |
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Common actuators |
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Displays |
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Operational amplifier (Op-Amp) models and circuits |
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Specifications for circuit design including: |
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Frequency response |
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Terminal impedance and signal characteristics |
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Feedback and gain |
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Design, analysis, fabrication, and testing of analog
linear and nonlinear
electronic circuits such as power
supplies and active bias networks |
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Application of linear integrated circuits |
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Design of linear electronic circuits including
amplifiers, oscillators, & active filters |
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Nonlinear circuit applications |
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Comparators |
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Multipliers and multivibrators |
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Optoelectronic devices |
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Design of Class D amplifiers, high-power switching
amplifiers |
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Negative-resistance oscillators |
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Low-noise transistor and operational amplifier circuits |
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Parametric amplifiers |
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Nonlinear and time-varying circuit analysis and design
techniques |
