STRLCPY/wirelesscomm

Modified numbering of units.
Sundeep Rangan committed 3 years ago

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README.md

1		-	# Wireless Communications
	1	+	# ECE-GY 6023. Introduction to Wireless Communications
2	2
3		-	This repository is currently a collection of lectures I am preparing for a short wireless communications class. The class is intended to be for MS and PhD students in Electrical Engineering. Right now, it only has two lectures... Sorry. I will soon add a few more lectures. Eventually, I may add sufficient material including problems and labs for a real course.
	3	+	This repository is currently a collection of lecture material for
	4	+	ECE-GY 6023 Introduction to Wireless Communications at NYU taught by
	5	+	Prof. Sundeep Rangan. The class is intended to be for MS and PhD students in
	6	+	Electrical Engineering. Right now, only a small amount of material is available,
	7	+	but we are hoping to add more over the course of the semester.
4	8
5	9		# Pre-requisites
6	10
		skipped 2 lines
9	13		Additionally, some lecture notes (and problems to be added later) assume you have access to MATLAB along with the communications, phased array and antenna toolboxes.
10	14
11	15		# Lecture Sequence
12		-	These are the first lectures that I will add to this short course
	16	+	The tentative plan for the lectures are below. Right now, only a few lectures
	17	+	have full material. We will be hoping to add to this material over the course
	18	+	of the semester. Other topics may be added at the end depending on time.
13	19
14		-	* Basics of Antennas and Free-space Propagation
	20	+	* Course Introduction
	21	+	* Unit 1. Basics of Antennas and Free-space Propagation
15	22		* Lecture: [[PDF]](./lectures/Unit01_Antennas.pdf) [[PPT]](./lectures/Unit01_Antennas.pptx)
16		-	* Demo: Calculating and displaying antenna patterns [[PDF]](./antennas/demo_antennas.pdf) [[Matlab]](./antennas/demo_antennas.m)
17		-	* Problems: [[PDF]](./antennas/prob/prob_antennas.pdf) [[Latex]](./antennas/prob/prob_antennas.tex)
18		-	* Lab: Simulating a 28 GHz antenna for a UAV [[PDF]](./antennas/lab_uav_antenna_partial.pdf) [[Matlab]](./antennas/lab_uav_antenna_partial.m)
19		-	* Non-LOS Propagation and Link-Budget Analysis
	23	+	* Demo: Calculating and displaying antenna patterns [[PDF]](./unit01_antennas/demo_antennas.pdf) [[Matlab]](./unit01_antennas/demo_antennas.m)
	24	+	* Problems: [[PDF]](./unit01_antennas/prob/prob_antennas.pdf) [[Latex]](./unit01_antennas/prob/prob_antennas.tex)
	25	+	* Lab: Simulating a 28 GHz antenna for a UAV [[PDF]](./unit01_antennas/lab_uav_antenna_partial.pdf) [[Matlab]](./unit01_antennas/lab_uav_antenna_partial.m)
	26	+	* Unit 2. Non-LOS Propagation and Link-Budget Analysis
20	27		* Lecture: [[PDF]](./lectures/Unit02_Propagation.pdf) [[PPT]](./lectures/Unit02_Propagation.pptx)
21	28		* Demo: Propagation and rate modeling [[PDF]](./propagation/demo_path_loss_model.pdf) [[Matlab]](./propagation/demo_path_loss_model.m)
22	29		* Problems: [[PDF]](./propagation/prob/prob_propagation.pdf) [[Latex]](./propagation/prob/prob_propagation.tex)
23	30		* Lab: Propagation modeling from ray tracing data [[PDF]](./propagation/lab_prop_modeling_partial.pdf) [[Matlab]](./propagation/lab_prop_modeling_partial.m)
24		-	* Multipath Fading
	31	+	* Unit 3. Multipath Fading
25	32		* Lecture: [[PDF]](./lectures/Unit03_Fading.pdf) [[PPT]](./lectures/Unit03_Fading.pptx)
26	33		* Demo: Simulating fading [[PDF]](./fading/demo_fading.pdf) [[Matlab]](./fading/demo_fading.m)
27	34		* In-class exercises: [[PDF]](./fading/fading_inclass_partial.pdf) [[Matlab]](./fading/fading_inclass_partial.m)
28	35		* Lab: 5G channel sounding with Doppler [[PDF]](./fading/partial/lab_chan_sounder.pdf) [[Matlab]](./fading/partial/lab_chan_sounder.m)
29		-	* Diversity
30		-	* Capacity of Fading Channels and MAC-Layer Concepts
31		-	* Multiple Antennas and Beamforming
	36	+	* Unit 4. Diversity
	37	+	* Unit 5. Capacity of Fading Channels and MAC-Layer Concepts
	38	+	* Unit 6. Channel Estimation and Equalization
	39	+	* Unit 7. Multiple Antennas and Beamforming
32	40		* Lecture: [[PDF]](./lectures/Unit06_Beamforming.pdf) [[PPT]](./lectures/Unit06_Beamforming.pptx)
33	41		* Demo: Visualizing and simualting arrays [[PDF]](./beamforming/demo_bf.pdf) [[Matlab]](./beamforming/demo_bf.m)
34	42		* In-class exercises: [[PDF]](./beamforming/bf_inclass_partial.pdf) [[Matlab]](./beamforming/bf_inclass_partial.m)
35	43		* Lab: 5G NR downlink simulation with beamforming [[PDF]](./beamforming/partial/lab_pdsch_bf.pdf) [[Matlab]](./beamforming/partial/lab_pdsch_bf.m)
36		-	* Introduction to MIMO
	44	+	* Unit 8. Beam Tracking and Directional Estimation
	45	+	* Unit 9. Introduction to MIMO
	46	+
37	47
38	48

lectures/Unit01_Antennas.pptx

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antennas/CP_patch_downwards_m100_3D_coord.png unit01_antennas/CP_patch_downwards_m100_3D_coord.png

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antennas/demo_antennas.m unit01_antennas/demo_antennas.m

		skipped 6 lines
7	7		% * Perform basic manipulations in spherical coordinates
8	8		% * Define simple antennas using MATLAB's antenna toolbox
9	9		% * Plot antenna patterns in 2D and 3D
	10	+	% * Compute free-space path loss
10	11		% * Use the antenna patterns and free-space path loss functions to
11	12		% compute the path loss along a trajectory
12	13
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35	36		% Note: In MATLAB, all values are in metric units m, s, Hz, etc.
36	37		% Not GHz or MHz.
37	38		fc = 2.3e9; % Carrier frequency
38		-	vp = physconst('lightspeed'); % speed of light
	39	+	vp = physconst('lightspeed'); % speed of light
39	40		lambda = vp/fc; % wavelength
40	41
41	42		%% Dipole antenna
		skipped 53 lines
95	96		polarplot(deg2rad(az), dir(iel,:),'LineWidth', 3);
96	97		rlim([-30, 15]);
97	98		title('Directivity (dBi)');
	99	+
	100	+	%% Computing free-space path loss
	101	+	% Suppose we want to compute the omni-directional free-space path loss,
	102	+	% meaning the path loss without antenna gain at some distance d:
	103	+
	104	+	d = 500; % distance in meters
	105	+
	106	+	% We can compute the FSPL manually from Friis' law
	107	+	% Note the minus sign
	108	+	plOmni1 = -20*log10(lambda/4/pi/d);
	109	+
	110	+	% Or, we can use MATLAB's built in function:
	111	+	plOmni2 = fspl(d, lambda);
	112	+
	113	+	fprintf(1,'Omni PL - manual: %7.2f\n', plOmni1);
	114	+	fprintf(1,'Omni PL - MATLAB: %7.2f\n', plOmni2);
98	115
99	116
100	117		%% Creating a custom antenna pattern
		skipped 75 lines

antennas/demo_antennas.pdf unit01_antennas/demo_antennas.pdf

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antennas/demo_spherical.m unit01_antennas/demo_spherical.m

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antennas/lab_uav_antenna_partial.m unit01_antennas/lab_uav_antenna_partial.m

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antennas/lab_uav_antenna_partial.pdf unit01_antennas/lab_uav_antenna_partial.pdf

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antennas/patch_bottom_data.mat unit01_antennas/patch_bottom_data.mat

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antennas/prob/mcode.sty unit01_antennas/prob/mcode.sty

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antennas/prob/prob_antennas.pdf unit01_antennas/prob/prob_antennas.pdf

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antennas/prob/prob_antennas.tex unit01_antennas/prob/prob_antennas.tex

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Modified numbering of units.