1-Introduction
2-Fading channel characterization and modeling
3-types of communication
4-Alternative representations of classical functions
5-Useful expressions for evaluating average error probability performance
6-New representation of some PDF`s and CDF`s for correlative fading applications
7-Optimum receivers for fading channels
8-Performance of single channel receivers
9-Performance of Multichannel receivers
10-optimum combining:A Diversity techniques for communication over fading channels in the presence of interference
11-Direct-sequence code-division multiple Access
12-Coded communication ovr fading channels
1-Fundamentals2-Processing of smart materials3-Sensors for smart systems4-Actuators for smart systems5-Design examples for sensors and actuators6-Introductory concepts in modeling7-Introduction to the finite element method8-Modeling of smart sensors and actuators9-Active control techniques10-Silicon fabrication techniques for MEMS11-Polymeric MEMS fabrication techniques12-Integration and packaging of smart microsystems13-Fabrication examples of smart microsystems14-Structural health monitoring applications15-Vibration and noise-control applications
1-Radio communication systems
2-Electrical noise
3-Resonant circuits and impedance transformation
4-Small-signal high-frequency amplifiers
5-Sinewave oscillators
6-Phase-locked loops
7-Mixers
8-Modulation
9-Amplitude modulation receivers
10-FM and PM receivers
11-Television receivers
12-Linear power amplifiers
13-Tuned power amplifiers
14-High-efficiency power amplifiers
15-CW,FM,and AM transmitters
1-Radio communication systems2-Electrical noise3-Resonant circuits and impedance transformation4-Small-signal high-frequency amplifiers5-Sinewave oscillators6-Phase-locked loops7-Mixers8-Modulation9-Amplitude modulation receivers10-FM and PM receivers11-Television receivers12-Linear power amplifiers13-Tuned power amplifiers14-High-efficiency power amplifiers15-CW,FM,and AM transmitters
