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--- start [2016/12/28 17:55] – egz
+++ start [2017/01/15 18:47] (current) – egz
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 ====== Course Description ======
+{{:screen_shot_2016-12-28_at_1.23.50_pm.png|}}
-{{:signal-00-000.png|}}
 ===== Description  =====
-The course introduces continuous-time (analogue) signals including an analysis and design of continuous-time systems. After reviewing core concepts in complex numbers, trigonometry, and functions, the course considers three alternate representations (differential equations, impulse response, and Laplace/Fourier transfer function) for linear, time invariant (LTI) systems in the continuous-time domain. The analysis of LTI systems is covered for each of the three representations. Frequency-selective filters are introduced as a special class of LTI systems for which design techniques are covered. Applications of continuous-time systems in communications and controls are also presented..
+The course introduces continuous-time (analogue) signals including an analysis and design of continuous-time systems. After reviewing core concepts in complex numbers, trigonometry, and functions, the course considers three alternate representations (differential equations, impulse response, and Laplace/Fourier transfer function) for linear, time invariant (LTI) systems in the continuous-time domain. The analysis of LTI systems is covered for each of the three representations. Frequency-selective filters are introduced as a special class of LTI systems for which design techniques are covered. Applications of continuous-time systems in communications and controls are also presented.
+===== Course Learning Outcome =====
+By the end of the course, the students will be able to:
+  * Describe a physical process in terms of signals and systems, and describe the properties.
+  * Calculate the frequency representations of periodic and aperiodic CT signals.
+  * Compute the steady state outputs of linear time-invariant systems in the continuous-time domain using three different but equivalent techniques: (i) solving differential equations, (ii) convolution with the impulse response, and; (iii) the Fourier (or, alternatively, the Laplace) transform.
+  * Represent a CT linear time invariant system using its magnitude and phase spectrum.
+  * Design CT frequency selective filters based on given specifications for the system.
+  * Analyze practical applications in controls and communication systems using the analysis techniques covered in the course.
+  * Represent CT signals/systems as discrete-time signals/systems and use MATLAB to analyze and design the CT signals/systems for selected real-world applications.
+===== Lecture and Lab Time =====
+  * Lectures: Every Tuesdays and Thursdays 13:00-14:30 at CB115
+  * Labs: BRG 336
+  * LAB01, Monday 12:00-15:00
+  * LAB02, Friday 12:00-15:00
+  * LAB03, Wednesday 14:30-17:30