Obtain Bit Error Rate (BER) and Symbol Error Rate (SER) curves over additive white Gaussian
noise (AWGN) and Nakagami- m fading channels(m=1,4,10) with the Monte Carlo Simulation for the modulation types of M-PSK( M=2,4,16), M-FSK (M=2,4,16). Verify your simulation results with the analytical results which expressions are given below.
Theorical Expressions of M-PSK:
g_(PSK)=(sin((\pi )/(M)))^(2)
For the AWGN Channel:
P_(b)(e)=Q(\sqrt((2E_(b))/(N_(0)))),P_(s)(e)=2Q(\sqrt((log_(2)ME_(b))/(N_(0)))sin((\pi )/(M)))
For the Nakagami-m Fading Channel:
P_(b)(e)=(1)/(\pi )\int_0^(((M-1)\pi )/(M)) (1+(g_(PSK)\gamma )/(m\times (sin\theta )^(2)))^(2)d\theta
The Theoretical Expressions of M-FSK:
For the AWGN Channel:
P_(s)(e)=1-\int_(-\infty )^(\infty ) (Q(-q-\sqrt((2E_(s))/(N_(0)))))^(M-1)(1)/(\sqrt(2\pi ))e^(-(q^(2))/(2))dq
For the Nakagami-m Fading Channel:
P_(s)(e)=(1)/(\sqrt(2\pi ))\int_(-\infty )^(\infty ) (1-(1-Q(y))^(M-1))\int_0^(\infty ) e^(((y-\sqrt(2\gamma ))^(2))/(2))p_(\gamma )(\gamma )d\gamma dy
p_(\gamma )(\gamma )=(\gamma ^(M-1))/((2\sigma ^(2))^(2)(M-1)!)e^(-(\gamma )/(2\sigma ^(2)))
Do the simulations with MATLAB and solve analytically.