非常感謝啊,我手上也有zernike多項式的擬合的源程序,也不知道對不對,不怎么會有
X//=OpS` function z = zernfun(n,m,r,theta,nflag)
4^ZbT %ZERNFUN Zernike functions of order N and frequency M on the unit circle.
1CS\1[E % Z = ZERNFUN(N,M,R,THETA) returns the Zernike functions of order N
$WsyAUl % and angular frequency M, evaluated at positions (R,THETA) on the
4@Bl 1b[< % unit circle. N is a vector of positive integers (including 0), and
$/Llzpvny % M is a vector with the same number of elements as N. Each element
QF$s([ % k of M must be a positive integer, with possible values M(k) = -N(k)
_*wlK;` % to +N(k) in steps of 2. R is a vector of numbers between 0 and 1,
n -xCaq % and THETA is a vector of angles. R and THETA must have the same
L!Gpk)}[i % length. The output Z is a matrix with one column for every (N,M)
ziv*4 % pair, and one row for every (R,THETA) pair.
bDq<]h_7 %
Yd<9Y\W%? % Z = ZERNFUN(N,M,R,THETA,'norm') returns the normalized Zernike
,S&p\(r. % functions. The normalization factor sqrt((2-delta(m,0))*(n+1)/pi),
,be$~7qS % with delta(m,0) the Kronecker delta, is chosen so that the integral
$kxu- % of (r * [Znm(r,theta)]^2) over the unit circle (from r=0 to r=1,
g2YE^EKU~ % and theta=0 to theta=2*pi) is unity. For the non-normalized