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function [sol,val] = gaMichEval(sol,options) val = 21.5 + sol(1) * sin(4*pi*sol(1)) + sol(2)*sin(20*pi*sol(2)); %G=zeros(0); %val = sqrt(sol(1)) * sin(2*sol(1)) + sqrt(sol(1))*cos(5*sol(1))+5;

function [sol,val] = gaMichEval(sol,options) val = 21.5 + sol(1) * sin(4*pi*sol(1)) + sol(2)*sin(20*pi*sol(2)); %G=zeros(0); %val = sqrt(sol(1)) * sin(2*sol(1)) + sqrt(sol(1))*cos(5*sol(1))+5;

clear all; % 清所有的变量 clf; % 清屏 N=1224; % 设置数据点数 f1=200; % 设置信号1频率 f2=700; % 设置信号2频率 f3=1100; % 设置信号3频率 dt=1/1024; % 设置采样时间 sample=

function [h,a] = firrcos(N,f0,df,Fs) %FIRRCOS Raised Cosine FIR Filter design. % FIRRCOS(N,F0,DF,Fs) returns an order N low pass linear phase FIR filter % with a raised cosine transition ban

function [h,a]=firls(N,F,M,W,ftype); % FIRLS Linear-phase FIR filter design using least-squares error minimization. % B=FIRLS(N,F,A) returns a length N+1 linear phase (real, symmetric % coeffic

function yp=equation(x,y); % %BBI 99 global K fi fo RC=25/(2*pi*fo); %滤波器的时间常数 yp(1)=y(2); yp(2)=K/RC*sin(2*pi*fi*x).*cos(2*pi*po*x+y(1))-y(2)/RC; v=version;v=v(1); if strcmp(v,'5');yp=yp';e

function yp=equation(x,y); % %BBI 99 global K fi fo RC=25/(2*pi*fo); %滤波器的时间常数 yp(1)=y(2); yp(2)=K/RC*sin(2*pi*fi*x).*cos(2*pi*po*x+y(1))-y(2)/RC; v=version;v=v(1); if strcmp(v,'5');yp=yp';e

/* +++Date last modified: 05-Jul-1997 */ /* ** FRAND.C - Public domain by Larry Hudson */ #include #include #include "snipmath.h" #define TEN_PI 31.41592653589793 #def

function [sol,val] = gaMichEval(sol,options) val = 21.5 + sol(1) * sin(4*pi*sol(1)) + sol(2)*sin(20*pi*sol(2)); %G=zeros(0); %val = sqrt(sol(1)) * sin(2*sol(1)) + sqrt(sol(1))*cos(5*sol(1))+5;

%The received signal clear %Duration t = 0 : 1/1e3 : 0.999; %Source a = randint(1, 20, 2); a=[1,1,1,0,0,0,0,1,1,0,0,1,1,1,0,1,0,1,1,1]; %Serial to Parallel Ai = 2*a(1:2:20) - 1; Aq