unalfaruk

# -*- coding: utf-8 -*-
"""
Created on Fri Sep  9 13:43:13 2022

@author: faruk.unal
"""

import scipy.constants as sc
import numpy as np
from scipy import signal

unalfaruk

# -*- coding: utf-8 -*-
"""
Created on Thu Jun 23 21:45:31 2022

@author: personF
"""
import numpy as np
import matplotlib.pyplot as plt

class Resistor:

unalfaruk

# -*- coding: utf-8 -*-
"""
Created on Thu Jun 23 21:45:31 2022

@author: personF
"""
import numpy as np
import matplotlib.pyplot as plt

class Resistor:

unalfaruk

#include "stm32wlxx_hal.h"
#include "arm_math.h"                   // ARM::CMSIS:DSP

#define SIG_LENGTH 250
#define IMP_RSP_LEN 29
#define NUM_TAPS 29
#define BLOCK_SIZE 32

uint32_t freq; //it is just for trace.. not related to DSP

unalfaruk

# -*- coding: utf-8 -*-
"""
Created on Fri Feb  4 15:20:49 2022

@author: unalf
"""

import numpy as np
import matplotlib.pyplot as plt

unalfaruk

% Generating 4-level pulse amplitude modulation, quadrature amplitude modulation,
% and quadrature phase shift keying waveforms

% Define parameters
len = 10000; % Length of binary string
nvar = 0.15; % Noise variance

% Generate the random bit streams that have already been demultiplexed from
% a single high speed data stream
bin_str1 = round(rand(1,len)); % Inphase data stream

unalfaruk

% Decoding QAM waveform using I/Q receiver

% Define parameters
N_samp = 1000; % Number of samples per symbol
N_symb = 10; % Number of symbols in transmission
cfreq = 1/10; % Carrier frequency of cosine and sine carriers

% Generate inphase and quadrature channels with 2-PAM waveforms
chI = 2*round(rand(1,N_symb))-1;
chQ = 2*round(rand(1,N_symb))-1;

unalfaruk

% Define parameters
len = 100000; % Length of original binary data stream
N1 = 3; % First repetition factor; should be odd to avoid tie
N2 = 5; % Second repetition factor; should be odd to avoid tie
N3 = 7; % Third repetition factor; should be odd to avoid tie

% Generate binary data stream
bin_str = round(rand(1,len));

% Employ repetition code with repetition factors N1, N2, N3

unalfaruk

% Define parameters
len = 10000; % Length of binary data stream

% Have two binary sources, one 50/50 and the other 90/10 in terms of ones
% and zeros
bin1 = round(rand(1,len)); % 50/50 binary
bin2 = round(0.5*rand(1,len)+0.45); %90/10 binary

 % Encode strings of ones in terms of the length of these strings
 enc_bin1 = [];

unalfaruk

%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
% Sending binary data via sinusoidal signal manipulation

% Parameters
sig_len = 1000; % Signal length (in samples)
sampl_per_bin = 100; % Samples per binary representation
bin_data_len = sig_len/sampl_per_bin; %length of binary stream is a multiple of signal length
bin_data = round(rand(1,bin_data_len));

sig_carrier_base = sin(2*pi*(0:(1/sampl_per_bin):(1-(1/sampl_per_bin)))); % Baseline carrier