EE511 Fall 2012 Class Schedule
Last updated: 11-28-12
Bolded,
Underlined, Italic Text is NOT YET UPDATED.
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Room RGAN 203 |
11:00am-11:50am |
11:00am-11:50am |
11:00am-11:50am |
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Month |
Monday |
Wednesday |
Friday |
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8=August |
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(22) Course description, organization. Lecture 1: Introduction to Communications |
(24) Lecture 2: Signal functions, Integration, orthogonality. |
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8=August |
(27) Lecture 2A: power, energy signals. HW #0: Send email to lgh@engr.uky.edu from an email address you would like to
receive course information. Just put ee511 in subject. |
(29) Lecture 3: Fourier Transforms V1: Use MATLAB to determine and plot the
magnitude of the FFT of a rectangle function, and a sine wave. The duty cycle
of the rectangle function is about 1/10 and the discrete frequency of the
sine wave should be kc=8.
Where we have f(t)=cos(2p kc n / N) for a sequence length of N. Let N=1024 |
(31) Lecture 4: FT functions HW #1: 2.2 Dirac delta functions, 2.9 E&P signals, 2.26 signal synthesis, 2.30 FT, Problems of interest: 2.2, 2.6, 2.9, 2.10, 2.26, 2.27, 2.30 |
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9=September |
(3) NO CLASS LABOR DAY |
(5) V2 preview. |
(7) NO CLASS |
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9 |
(10) Lecture 5: Fourier Series HW #2A: 2.31, 2.35, 2.38, 2.39 Problems of interest: 2.31, 2.33, 2.35, 2.38, 2.39 |
(12) Lecture 6: Orthogonality PSD,
autocorrelation, LTI HW#2B: V2: AM modulation and demodulation. Download and follow directions from V2 Word Doc. |
(14) Lecture 7: Linear Time-Invariant Systems |
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9 |
(17) Lecture 7B: Hilbert Transform |
(19) Lecture 8 and 8B: Filter Design and Nodal Analysis HW #3B:V3 Double Side Band Suppressed Carrier Modulation |
(21) Lecture 7C complex envelope and 9 DFT HW #3A: 2.40, 2.44, 2.49, See web site for HW3 nodal analysis problem ( use fo=40Khz, Q=10 and Ao=-1 and C=0.001uf). Problems of interest: 2.40, 2.41, 2.42, 2.44, 2.49, 2.50 |
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9 |
(24) Lecture 9: DFT |
(26) Lecture 10: Sampling Theory HW #4A:V4 FM Modulation |
(28) Lecture 11 and 12: Natural Sampling HW #4B: 2.68, 2.73, 2.74 Problems of Interest: 2.67, 2.68, 2.72, 2.73, 2.74 |
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10=October |
(1) Lecture 12: Flat Top Sampling. Discussion of Flat Top Project |
(3) Review for exam. Did square wave laser demo. |
(5) EXAM 1: 1 crib sheet both sides, FT table will be provided. No text books, no notes, no communication devices. |
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10 |
(8) Lecture 13: Double Side Band Suppressed Carrier (DSBSC) (EOD)Project A: Flat Top Sampling Model: Will count ¼ of your final project grade. |
(10) DSBSC continued HW #5A: V5 Spread Spectrum Modulation/Demodulation.
Just send m files as you did in V4. No write up is necessary |
(12) Lecture 14: AM HW #5B: 3.2, 3.3, 3.13 Problems of intererest: 3.1, 3.5, 3.14, 3.19 |
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10 Midterm |
(15) Lecture 15: SSB |
(17) Lecture 16 & 17: Super Heterodyne and VSB. HW #6A: Computer Exercises: 3.2 |
(19) Lecture 18 & 19: Weavers Method, FM & PM HW #6B: 3.1, 3.3, 3.14, 3.19 OOPS: 3.3 repeat Problems of interest: 3.1, 3.3, 3.7, 3.14, 3.18, 3.19 |
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10 |
(22) Lecture 19 & 20: more FM |
(24) Lecture 21: FM/AM demodulation |
(26) HW #7: 3.24, 3.28, 3.32, 3.37 Problems of interest: 3.21, 3.28, 3.32, 3.36, 3.37 |
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11=November |
(29) PLL |
(31) Quadrature
modulation, Costas Receiver |
(2) EXAM 2: open book, open notes,
no communication devices. |
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11 |
(5) Lecture 22: PLL |
(7)Lecture 22B: Quadrature and Costas Receiver HW #8: V8 Compare Performance of AM, DSBSC, FM and DSSS Modulation and Demodulation with the same Channel. Find maximum frequency of each that will have zero error. |
(9) |
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11 |
(12) |
(14) HW #9A: 3.42, 3.47, 3.52 Problems of Interest: 3.42, 3.44, 3.47, 3.49, 3.52, 3.53 |
(16) |
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11 |
(19) |
(21) NO CLASS, THANKSGIVING |
(23) NO CLASS THANKSGIVING |
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12 |
(26) |
(28) |
(30) EXAM 3: open book, open
notes, no communication devices. |
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12=December Dead Week |
(3) |
(5) FINAL PROJECT: Send in (at least) the Baseline files “create,
modulator and demodulator”. You will need a group name and members. Send
these to me and I will post on the web. |
(7) |
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12. Finals |
(10) |
(12) FINAL PROJECT DUE 9pm |
(14) |
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