Digital Communication Systems Using — Matlab And Simulink
% Plot results semilogy(EbNo_dB, ber, 'bo-'); grid on; xlabel('Eb/No (dB)'); ylabel('BER'); title('BPSK over AWGN Channel'); hold on; semilogy(EbNo_dB, berawgn(EbNo_dB, 'psk', M, 'nondiff'), 'r-'); legend('Simulated', 'Theoretical');
% Add AWGN snr = EbNo_dB(idx) + 10*log10(log2(M)); % Convert Eb/No to SNR rxSig = awgn(modSig, snr, 'measured'); Digital Communication Systems Using Matlab And Simulink
% Compute BER [~, ber(idx)] = biterr(data, rxBits); end % Plot results semilogy(EbNo_dB, ber, 'bo-'); grid on;
% Demodulate rxBits = pskdemod(rxSig, M); Simulink offers a graphical
Introduction In the modern era of 5G, IoT, and satellite internet, digital communication systems form the invisible backbone of global connectivity. From streaming high-definition video to controlling a Mars rover, the reliability and efficiency of these systems depend on sophisticated design, rigorous simulation, and relentless optimization.
– Generate random bits using a Bernoulli Binary Generator.
Enter and Simulink —two industry-standard platforms that have revolutionized how engineers design, simulate, and prototype digital communication systems. While MATLAB provides a script-based environment for algorithmic exploration and numerical computing, Simulink offers a graphical, model-based design framework for system-level simulation and hardware implementation.