EE511
FALL 2004 COURSE SCHEDULE
Updated
Laurence G. Hassebrook
Class Room 265 FPAT
BOLD-ITALIC-UNDERLINED
ARE NOT UPDATED
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Time |
10am - 10:50am |
10am-10:50am |
10am-10:50am |
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Month |
Monday |
Wednesday |
Friday |
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Aug |
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(25) Lecture 1: First Day of Classes: Overview of syllabus, discussion of generic communication system. |
(27) Lecture 2: C2: Overview modulation. Discuss basic usage of integration for comparison and time average of signals. |
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Aug/Sept |
(30) Lecture 3: C2: Evaluate orthogonality, "dc", power and energy. |
(1) Lecture: C2: Introduce FT and some of its properties. Present Duality, shifting, convolution, correlation and multiplication properties. Functions of the FT: Dirac Delta, unit step, sine waves, rectangle, Parsevals theorem. |
(3) Lecture: (section 2.3) Continue discussion of Fourier Transforms. HW#1: 2-4 dc, rms and power of a periodic wave, 2-22 Fourier Transform, 2-36 proofs of Fourier Xform, 2-39 FT multiplication rule. (covers sections 2.1-2.2 ) V1: Use MATLAB to determine and plot the magnitude of the FFT of a rectangle function, and a sine wave. The window size for the rectangle function should be 10 times its width and the discrete frequency of the sine wave should be k=4. Where we have cos(2 pi k / N) for a sequence length of N. Other problems of interest: 2-2, 2-18, 2-35. |
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Sept |
(6) Labor Day, NO CLASS |
(8) Lecture: continue discussion of Fourier Transforms. Begin FS: (sections 2.4-2.5) Orthogonal and Fourier Series. Collect Data for V2. |
(10) Lecture: (section 2.6) Linear Systems |
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Sept |
(13) Lecture: Identity for getting PSD from Cn, Square Wave synthesis, Bandlimited Signals. |
(15) V2 discussion |
(17) Square and Triangle Wave synthesis HW #2: 2-49 Orthogonal Signals, 2-53 FS of periodic square wave, 2-61 PSD analysis(use MATLAB to PLOT), 2-68 Linear System analysis. (covers sections 2.3-2.6 ) V2: Process class data as a binary spread spectrum signal. Prob of interest: 2-51,2-64,2-69 |
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Sept |
(20) Waveform synthesis |
(22) Lecture: Sampling Theory |
(24) Lecture: Sampling Theory. HW #3: 2-55 FS of waveform, 2-82 Sampling, 2-83 DFT zero padding, 2-85 DFT of pulse, 2-84 DFT. Problems of interest: 2-54, 2-81, 2-86 |
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Sept/Oct |
(27) Lecture: DFT |
(29) Lecture: Delta Modulation |
(1) Fall Break, NO CLASS |
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Oct |
(4) Lecture: Odds and ends of chapter 3: cosine rolloff, differential encoding, circular convolution HW #4: 3-3 Natural and Flat Top Sampling, 3-4 PAM, 3-50 Delta-mod, 3-56 TDM with cosine-roll off, 3-57 TDM & PAM. Problems of interest: 3-2, 3-5, 3-6, 3-49, 3-57. |
(6) Lecture: DFT based convolution, circular and linear (zero padding). |
(8) Lecture: Equivalent Filtering and opamp filter design. |
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Oct |
(11) Lecture: DSBSC modulation and demodulation. |
(13) Lecture: PLL HW#5: 4-1 Filter, 4-3 DSBSC, 4-5 BPF,4-6 BPF, Problems of interest: 4-2,4-4,4-7,4-9,4-10 |
(15) Review for exam |
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Oct |
(18) EXAM 1 MONDAY NIGHT, Lecture: Take problems for review for test. |
(20) Lecture: Tie up Chapter 4. Lecture: Discussion of filter Design. |
(22) AM and Superheterodyne Receiver |
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Oct |
(25) Chapter 5: Discuss AM and SSB and IF. |
(27) Quadrature Demodulation |
(29) Review of Exam I HW #6: 4-12 bandpass & quadrature mixing, 4-14 filter analysis, 4-24 PLL, 4-26 PLL, 4-30 PLL. Problems of interest: 4-12,4-23, 4-25, 4-29, 4-40 |
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Nov |
(1)
Quadrature. |
(3)
Lecture: |
(5) Lecture: VSB and NTSC |
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Nov |
(8) Lecture: FM, wide band and narrow band, shift keying modulation. HW#7: 5-5 AM, 5-8 DSBSC, 5-9 DSB, 5-11 Hilbert Transform, 5-12 Weaver’s method of SSB. V7: Mixer and modulation simulation. Download instructions from EE511 web site. Problems of interest: 5-6, 5-7, 5-10, 5-12, 5-18. |
(10)
Lecture: Flat Top Sampling |
(12) |
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Nov |
(15) BPSK, QAM, MSK HW#8: 5-26 PM, 5-36 PM derivation, 5-41 FM, 5-50 PSK BW, 5-52 DPSK. Problems of interest: 5-27, 5-29, 5-44, 5-51, 5-52. |
(17) Email: submit visualization as test run for the final project. One submission per group and include all group member names. V8: Run the baseline final project with just 16 bits of data. For each stage, make a plot of a signal that most represents that stage. For example, the channel04.m might be best represented by its Figure 1. |
(19) |
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Nov |
(22) Do HW 9 as a group, preferably your final project group HW #9:5-60 BPSK design, MATLAB: 5-66, 5-69, 5-70, 5-71. Problems of interest: 5-59, 5-66, and 5-75. |
(24) NO CLASS |
(26) Thanks Giving break, No Class |
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Nov/Dec |
(29) Lecture: MSK, OFDM and DSSS methods |
(1) Review for Exam II EXAM II, Wednesday 12-1-04, 7pm to 9:30pm, room 323 Robotics Bldg, Open Book and Open Notes. |
(3) LASER QUEST Field Trip. Meet at
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Dec. |
(6) NO CLASS Dead
Week, Vestigial Sideband, Discussion of Final Project. Final
Project Preliminary Ranking: Send modulator, demodulator and detector. |
(8) NO CLASS. |
(10) NO CLASS ECE Day Event |
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Dec |
(13) Finals Week |
(15) Final Project Contest Ends at |
(17)
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