代码搜索:Raspberry Pi

找到约 10,000 项符合「Raspberry Pi」的源代码

代码结果 10,000
www.eeworm.com/read/182284/9209164

m mxa.m

function [A]=MXA_up(M,T0,Tb,detaPHI1,Be,Bo,G) A=zeros(2*M); for I=1:(2*M) f1=(I-M-1)/T0; for J=1:(2*M) f2=(J-M-1)/T0; H1f1=(exp(-j*4*pi*f1*Tb)+exp(-i*pi/4)*exp(
www.eeworm.com/read/182284/9209249

m mxa.m

function [A]=MXA(M,T0,Tb,detaPHI,Be,Bo,G) A=zeros(2*M); for I=1:(2*M) f1=(I-M-1)/T0; for J=1:(2*M) f2=(J-M-1)/T0; H1f1=(exp(-j*2*pi*f1*Tb)+exp(j*detaPHI))/2;%H1
www.eeworm.com/read/182284/9209259

m mxa_up.m

function [A]=MXA_up(M,T0,Tb,detaPHI1,Be,Bo,G) A=zeros(2*M); for I=1:(2*M) f1=(I-M-1)/T0; for J=1:(2*M) f2=(J-M-1)/T0; H1f1=(exp(-j*4*pi*f1*Tb)+exp(-i*pi/4)*exp(
www.eeworm.com/read/182284/9209265

m mxa_down.m

function [A]=MXA_down(M,T0,Tb,detaPHI2,Be,Bo,G) A=zeros(2*M); for I=1:(2*M) f1=(I-M-1)/T0; for J=1:(2*M) f2=(J-M-1)/T0; H1f1=(exp(-j*4*pi*f1*Tb)+exp(i*pi/4)*exp
www.eeworm.com/read/182284/9209282

m mxa.m

function [A]=MXA(M,T0,Tb,detaPHI,Be,Bo,G) A=zeros(2*M+1); for I=1:(2*M+1) f1=(I-M-1)/T0; for J=1:(2*M+1) f2=(J-M-1)/T0; H1f1=(exp(-j*2*pi*f1*Tb)+exp(j*detaPHI))
www.eeworm.com/read/378919/9212958

m corner.m

% CORNER Provides the antenna gain GA (in dBi), the radiation % intensities UE (E-plane) and UH (H-plane) for a corner % reflector. % % [UE, UH, GA] = CORNER(
www.eeworm.com/read/378919/9212960

m stubs.m

% STUBS Provides the line lengths L and stub length LT. % % [L,LT] = STUBS(ZL,ZO,ZD,ST) % % ZL, ZO and ZD are the load, characteristic and desired % imped
www.eeworm.com/read/378919/9212965

m fdipoles.m

% FDIPOLES Provides the dipole length in meters and the capacitors % values in pF for a folded dipole. % % [LT, C] = FDIPOLES(A,F,ZD) % % A is the dipole diameter in me
www.eeworm.com/read/378919/9212982

m mstrip.m

% MSTRIP Provides the ratio line width - substrate thickness W and % the effective permittivity EEFF for a microstrip line. % % [W, EEFF] = MSTRIP(ZO,ER) % % ZO is the
www.eeworm.com/read/378919/9212996

m dipole.m

% DIPOLE Provides the radiation intensity U, input impedance ZIN % and diretivity D for normalized dipole length and radius. % % [U,ZIN,D]= DIPOLE(L,A,TH0) % % L a