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EE Reading List - Comprehensive (Qualifying) Exam


Revised: May 2003

 

ENEE 601 Signal and Linear Systems Theory

*      Contemporary Linear Systems using MATLAB, by R. D. Strum & D. E. Kirk, ISBN 0-534-37172-8, Brooks/Cole, 2000.

*      Linear System Theory and Design, 3rd Ed, by C.-T. Chen, ISBN 0-19-511777-9, Oxford Univ. Press, 1999.

 

Topics:

*      Representations and domains of CT/DT signals

*      CT/DT transforms and regions of convergence

*      Causal and anti-causal systems

*      Conversion between CT and DT signals, and sampling theorem

*      Basic linear space concepts: vectors, matrices, quadratic forms,

*      matrix calculus, eigenvalues & eigenfunctions

*      Correlation and convolution

*      Differential & difference equations

*      State-variable equations

*      Input-output representations: impulse response, transition matrix,

*      transfer function

*      Time-invariant vs. time-variant systems

*      Linear feedback

*      Signal flow graph concepts and direct form structures

*      Stability, controllability, observability

 

ENEE 620 Probability and Random Processes

*      Processes: A Mathematical Approach for Engineers, by R.M. Gray and L.D. Davission, Random Prentice-Hall, 1986. [Also available on Internet.]

*      Probability and Random Processes with applications to signal Processing, by H. Stark and J.W. Woods, 3rd ed., Prentice-Hall, 2002.

 

Topics:

*      Random Variables and Vectors

*      Functions of Random Variables

*      Conditional Probabilities

*      Conditional Expectation

*      Random Sequences

*      Convergence modes (Random Processes)

*      Second-order random processes

*      Stationary processes

*      Wide-sense stationary processes

*      Independent increments processes (Wiener processes, Gaussian-Markov processes)

 

ENEE 621 Detection and Estimation Theory

*      Fundamentals of Statistical Signal Processing, by Steven M. Kay, Volume 1: Estimation Theory (1993) & Volume 2: Detection Theory (1998), Prentice Hall.

 

Additional Reference:

*      An Introduction to signal Detection and Estimation, Springer-Verlag, by H.V. Poor, 2nd ed., 1994.

 

Topics:

*      Parametric Estimation Theory

o       Minimum Variance Unbiased Estimation

o       Cramer-Rao Lower Bound

o       Linear Models

o       General Minimum Variance Unbiased Estimation (Sufficient statistics, Neyman-Fisher, Rao-Blackwell-Lehman-Scheffe theorems)

o       Maximum Likelihood Estimation

o       Least Squares Estimation

o       Best Linear Unbiased Estimators

o       Bayesian Estimators

o       General Bayesian Estimators (MMSE and MAP estimators)

o       Linear Bayesian Estimators (Linear MMSE estimation, Wiener filtering)

o       Kalman Filters

*      Statistical Decision Theory

o       Neyman-Pearson Theorem

o       Operating Characteristics

o       Bayes risk

o       Minimax approach

o       Matched Filters

o       Estimator-correlators

o       Binary and M-ary detection

o       Composite Hypothesis Testing (Bayesian approach, Generalized likelihood ratio tests)

o       Performance evaluation

 

ENEE 622 Information Theory

*      Elements of Information Theory, by T. M. Cover and J A Thomas, Wiley, 1991.  [Most of the material included in the topic section below is discussed in Chapters 2, 3, 4, 5, 8, 9, 10, and 13 of this book].

 

Additional References:

*      Information Theory and Reliable Communication, by R. G. Gallager, Wiley, 1968.

*      A First Course in Information Theory, by R. W. Yeung, Kluwer, 2002.

Topics:

*      Shannon's information measures: entropy, differential entropy, entropy rate, information divergence, mutual information, and their basic properties.

*      Stationary sources, Markov sources, Discrete-alphabet memoryless  (i.i.d.) sources.

*      Asymptotic equipartition property.  Weak and strong typicality.  Joint typicality.

*      Shannon’s source coding theorem and its converse.

*      Uniquely decodable and prefix-free source codes.  Huffman and Shannon codes.

*      Source-coding with a fidelity criterion: the rate-distortion function and its achievability.

*      Discrete-alphabet memoryless channels.  Channel capacity.

*      Shannon’s channel coding theorem and its weak converse. 

*      Feedback capacity.

*      Joint source-channel coding.

*      Discrete- and continuous-time additive Gaussian channels.  Parallel additive Gaussian channels: waterfilling.

 

Topics not to be examined:

ü      Numerical techniques for the computation of channel capacity and the rate-distortion function.

ü      Rate-distortion function for continuous-alphabet sources


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