def zernikemap(self, label = True):
"""
------------------------------------------------
zernikemap(self, label_1 = True):
Return a 2D Zernike Polynomials map figure
label: default show label
------------------------------------------------
"""
theta = __np__.linspace(0, 2*__np__.pi, 400)
rho = __np__.linspace(0, 1, 400)
[u,r] = __np__.meshgrid(theta,rho)
X = r*__cos__(u)
Y = r*__sin__(u)
Z = __interferometer__.__zernikepolar__(self.__coefficients__,r,u)
fig = __plt__.figure(figsize=(12, 8), dpi=80)
ax = fig.gca()
im = __plt__.pcolormesh(X, Y, Z, cmap=__cm__.RdYlGn)
if label == True:
__plt__.title('Zernike Polynomials Surface Heat Map',fontsize=18)
ax.set_xlabel(self.listcoefficient()[1],fontsize=18)
__plt__.colorbar()
ax.set_aspect('equal', 'datalim')
__plt__.show()
def aspheresurface(self):
"""
Show the surface of an asphere.
=============================================================
Try:
A = opticspy.asphere.Coefficient(R=50,a2=0.18*10**(-8),a3 = 0.392629*10**(-13))
"""
R = self.__coefficients__[0]
theta = __np__.linspace(0, 2 * __np__.pi, 100)
rho = __np__.linspace(0, R, 100)
[u, r] = __np__.meshgrid(theta, rho)
X = r * __cos__(u)
Y = r * __sin__(u)
Z = __aspherepolar__(self.__coefficients__, r)
fig = __plt__.figure(figsize=(12, 8), dpi=80)
ax = fig.gca(projection='3d')
surf = ax.plot_surface(X,
Y,
Z,
rstride=1,
cstride=1,
cmap=__cm__.RdYlGn,
linewidth=0,
antialiased=False,
alpha=0.6)
__plt__.show()
return 0
def zernikemap(self, label = True):
"""
------------------------------------------------
zernikemap(self, label_1 = True):
Return a 2D Zernike Polynomials map figure
label: default show label
------------------------------------------------
"""
theta = __np__.linspace(0, 2*__np__.pi, 400)
rho = __np__.linspace(0, 1, 400)
[u,r] = __np__.meshgrid(theta,rho)
X = r*__cos__(u)
Y = r*__sin__(u)
Z = __zernikepolar__(self.__coefficients__,r,u)
fig = __plt__.figure(figsize=(12, 8), dpi=80)
ax = fig.gca()
im = __plt__.pcolormesh(X, Y, Z, cmap=__cm__.RdYlGn)
if label == True:
__plt__.title('Zernike Polynomials Surface Heat Map',fontsize=18)
ax.set_xlabel(self.listcoefficient()[1],fontsize=18)
__plt__.colorbar()
ax.set_aspect('equal', 'datalim')
__plt__.show()
def __zernikepolar__(coefficient,a,r,u): """ ------------------------------------------------ __zernikepolar__(coefficient,r,u): Return combined aberration Orthonormal Rectangle Aperture Polynomials Caculation in polar coordinates coefficient: Orthonormal Rectangle Aperture Polynomials Coefficient from input r: rho in polar coordinates u: theta in polar coordinates ------------------------------------------------ """ mu = __sqrt__(9-36*a**2+103*a**4-134*a**6+67*a**6+67*a**8) v = __sqrt__(49-196*a**2+330*a**4-268*a**6+134*a**8) tau = 1/(128*v*a**4*(1-a**2)**2) eta = 9-45*a**2+139*a**4-237*a**6+210*a**8-67*a**10 R = [0]+coefficient R1 = R[1] * 1 R2 = R[2] * __sqrt__(3)/a*r*__cos__(u) R3 = R[3] * __sqrt__(3/(1-a**2))*r*__sin__(u) R4 = R[4] * __sqrt__(5)/2/__sqrt__(1-2*a**2+2*a**4)*(3*r**2-1) R5 = R[5] * 3/2/a/__sqrt__(1-a**2)*r**2*__sin__(2*u) R6 = R[6] * __sqrt__(5)/2/a**2/(1-a**2)/__sqrt__(1-2*a**2+2*a**4)*\ (3*(1-2*a**2+2*a**4)*r**2*__cos__(2*u)+3*(1-2*a**2)*r**2-\ 2*a**2*(1-a**2)*(1-2*a**2)) R7 = R[7] * __sqrt__(21)/2/__sqrt__(27-81*a**2+116*a**4-62*a**6)*\ (15*r**2-9+4*a**2)*r*__sin__(u) R8 = R[8] * __sqrt__(21)/2/a/__sqrt__(35-70*a**2+62*a**4)*\ (15*r**2-5-4*a**2)*r*__cos__(u) R9 = R[9] * (__sqrt__(5)*__sqrt__((27-54*a**2+62*a**4)/(1-a**2))/\ (8*a**2*(27-81*a**2+116*a**4-62*a**6)))*((27-54*a**2+62*a**4)*\ r*__sin__(3*u)-3*(4*a**2*(3-13*a**2+10*a**4)-(9-18*a**2-26*a**4))\ *r*__sin__(u)) r1 = 35-70*a**2+62*a**4 R10 = R[10] * (__sqrt__(5)/(8*a**3*(1-a**2)*__sqrt__(r1)))*((r1)*r**3*__cos__(3*u)-\ 3*(4*a**2*(7-17*a**2+10*a**4)-(r1)*r**2)*r*__cos__(u)) R11 = R[11] * 1/8/mu*(315*r**4+30*(1-2*a**2)*r**2*__cos__(2*u)-240*r**2+27+16*a*2-16*a**4) R12 = R[12] * (3*mu/(8*a**2*v*eta))*(315*(1-2*a**2)*(1-2*a**2+2*a**4)*r**4+\ 5*(7*mu**2*r**2-21+72*a**2-225*a**4+306*a**6-152*a**8)*r**2*__cos__(2*u)-\ 15*(1-2*a**2)*(7+4*a**2-71*a**4+134*a**6-67*a**8)*r**2+\ a**2*(1-a**2)*(1-2*a**2)*(70-233*a**2+233*a**4)) R13 = R[13] * __sqrt__(21)/(4*a*__sqrt__(1-3*a**2+4*a**4-2*a**6))*(5*r**2-3)*r**2*__sin__(2*u) R14 = R[14] * 6*tau*(5*v**2*r**4*__cos__(4*u)-20*(1-2*a**2)*(6*a**2*(7-16*a**2+18*a**4-9*a**6)-\ 49*(1-2*a**2+2*a**4)*r**2)*r**2*__cos__(u)+8*a**4*(1-a**2)**2*(21-62*a**2+62*a**4)-\ 120*a**2*(7-30*a**2+46*a**4-23*a**6)*r**2+\ 15*(49-196*a**2+282*a**4-172*a**6+86*a**8)*r**4) R15 = R[15] * (__sqrt__(21)/(8*a**3*__sqrt__((1-a**2)**3))/__sqrt__(1-2*a**2+2*a**4))*\ (-(1-2*a**2)*(6*a**2-6*a**4-5*r**2)*r**2*__sin__(2*u)+\ (5/2)*(1-2*a**2+2**a**4)*r**4*__sin__(4*u)) RW = R1 + R2 + R3+ R4+ R5+ R6+ R7+ R8+ R9+ \ R10+ R11+ R12+ R13+ R14+ R15 return RW
def doubleslit(b=0.1, a=0.4, lambda_1=632, z=0.5):
"""
Return a Young's doubleslit(Frauhofer Diffraction)
Input:
--------------------------------
b: slit of width in mm
a: slit separation of in mm
lambda_1: wavelength in nm
z: slit-to-screen distance in m.
"""
lambda_1 = float(lambda_1)
theta = __np__.linspace(-0.04, 0.04, 1000)
theta1 = __np__.ones(100)
[theta, theta1] = __np__.meshgrid(theta, theta1)
beta = __np__.pi * (b / 1000) / (lambda_1 / (10**9)) * __sin__(theta)
alpha = __np__.pi * (a / 1000) / (lambda_1 / (10**9)) * __sin__(theta)
y = 4 * (__sin__(beta)**2 / (beta**2) * __cos__(alpha)**2)
fig = __plt__.figure(1, figsize=(12, 8), dpi=80)
__plt__.imshow(-y)
__plt__.set_cmap('Greys')
__plt__.show()
theta = __np__.linspace(-0.04, 0.04, 1000)
beta = __np__.pi * (b / 1000) / (lambda_1 / (10**9)) * __sin__(theta)
alpha = __np__.pi * (a / 1000) / (lambda_1 / (10**9)) * __sin__(theta)
y = 4 * (__sin__(beta)**2 / (beta**2) * __cos__(alpha)**2)
y1 = 4 * __sin__(beta)**2 / (beta**2)
fig = __plt__.figure(2, figsize=(12, 8), dpi=80)
__plt__.plot(theta * z * 1000, y)
__plt__.plot(theta * z * 1000, y1, "g--")
__plt__.show()
def __zernikepolar__(coefficient,a,r,u): """ ------------------------------------------------ __zernikepolar__(coefficient,r,u): Return combined aberration Orthonormal Rectangle Aperture Polynomials Caculation in polar coordinates coefficient: Orthonormal Rectangle Aperture Polynomials Coefficient from input r: rho in polar coordinates u: theta in polar coordinates ------------------------------------------------ """ mu = __sqrt__(9-36*a**2+103*a**4-134*a**6+67*a**6+67*a**8) v = __sqrt__(49-196*a**2+330*a**4-268*a**6+134*a**8) tau = 1/(128*v*a**4*(1-a**2)**2) eta = 9-45*a**2+139*a**4-237*a**6+210*a**8-67*a**10 R = [0]+coefficient R1 = R[1] * 1 R2 = R[2] * __sqrt__(3)/a*r*__cos__(u) R3 = R[3] * __sqrt__(3/(1-a**2))*r*__sin__(u) R4 = R[4] * __sqrt__(5)/2/__sqrt__(1-2*a**2+2*a**4)*(3*r**2-1) R5 = R[5] * 3/2/a/__sqrt__(1-a**2)*r**2*__sin__(2*u) R6 = R[6] * __sqrt__(5)/2/a**2/(1-a**2)/__sqrt__(1-2*a**2+2*a**4)*\ (3*(1-2*a**2+2*a**4)*r**2*__cos__(2*u)+3*(1-2*a**2)*r**2-\ 2*a**2*(1-a**2)*(1-2*a**2)) R7 = R[7] * __sqrt__(21)/2/__sqrt__(27-81*a**2+116*a**4-62*a**6)*\ (15*r**2-9+4*a**2)*r*__sin__(u) R8 = R[8] * __sqrt__(21)/2/a/__sqrt__(35-70*a**2+62*a**4)*\ (15*r**2-5-4*a**2)*r*__cos__(u) R9 = R[9] * (__sqrt__(5)*__sqrt__((27-54*a**2+62*a**4)/(1-a**2))/\ (8*a**2*(27-81*a**2+116*a**4-62*a**6)))*((27-54*a**2+62*a**4)*\ r*__sin__(3*u)-3*(4*a**2*(3-13*a**2+10*a**4)-(9-18*a**2-26*a**4))\ *r*__sin__(u)) r1 = 35-70*a**2+62*a**4 R10 = R[10] * (__sqrt__(5)/(8*a**3*(1-a**2)*__sqrt__(r1)))*((r1)*r**3*__cos__(3*u)-\ 3*(4*a**2*(7-17*a**2+10*a**4)-(r1)*r**2)*r*__cos__(u)) R11 = R[11] * 1/8/mu*(315*r**4+30*(1-2*a**2)*r**2*__cos__(2*u)-240*r**2+27+16*a*2-16*a**4) R12 = R[12] * (3*mu/(8*a**2*v*eta))*(315*(1-2*a**2)*(1-2*a**2+2*a**4)*r**4+\ 5*(7*mu**2*r**2-21+72*a**2-225*a**4+306*a**6-152*a**8)*r**2*__cos__(2*u)-\ 15*(1-2*a**2)*(7+4*a**2-71*a**4+134*a**6-67*a**8)*r**2+\ a**2*(1-a**2)*(1-2*a**2)*(70-233*a**2+233*a**4)) R13 = R[13] * __sqrt__(21)/(4*a*__sqrt__(1-3*a**2+4*a**4-2*a**6))*(5*r**2-3)*r**2*__sin__(2*u) R14 = R[14] * 6*tau*(5*v**2*r**4*__cos__(4*u)-20*(1-2*a**2)*(6*a**2*(7-16*a**2+18*a**4-9*a**6)-\ 49*(1-2*a**2+2*a**4)*r**2)*r**2*__cos__(u)+8*a**4*(1-a**2)**2*(21-62*a**2+62*a**4)-\ 120*a**2*(7-30*a**2+46*a**4-23*a**6)*r**2+\ 15*(49-196*a**2+282*a**4-172*a**6+86*a**8)*r**4) R15 = R[15] * (__sqrt__(21)/(8*a**3*__sqrt__((1-a**2)**3))/__sqrt__(1-2*a**2+2*a**4))*\ (-(1-2*a**2)*(6*a**2-6*a**4-5*r**2)*r**2*__sin__(2*u)+\ (5/2)*(1-2*a**2+2**a**4)*r**4*__sin__(4*u)) RW = R1 + R2 + R3+ R4+ R5+ R6+ R7+ R8+ R9+ \ R10+ R11+ R12+ R13+ R14+ R15 return RW
def doubleslit(b=0.1,a=0.4,lambda_1=632,z=0.5):
"""
Return a Young's doubleslit(Frauhofer Diffraction)
Input:
--------------------------------
b: slit of width in mm
a: slit separation of in mm
lambda_1: wavelength in nm
z: slit-to-screen distance in m.
"""
lambda_1 = float(lambda_1)
theta = __np__.linspace(-0.04,0.04,1000)
theta1 = __np__.ones(100)
[theta,theta1] = __np__.meshgrid(theta,theta1)
beta = __np__.pi*(b/1000)/(lambda_1/(10**9))*__sin__(theta)
alpha = __np__.pi*(a/1000)/(lambda_1/(10**9))*__sin__(theta)
y = 4*(__sin__(beta)**2/(beta**2)*__cos__(alpha)**2)
fig = __plt__.figure(1,figsize=(12,8), dpi=80)
__plt__.imshow(-y)
__plt__.set_cmap('Greys')
__plt__.show()
theta = __np__.linspace(-0.04,0.04,1000)
beta = __np__.pi*(b/1000)/(lambda_1/(10**9))*__sin__(theta)
alpha = __np__.pi*(a/1000)/(lambda_1/(10**9))*__sin__(theta)
y = 4*(__sin__(beta)**2/(beta**2)*__cos__(alpha)**2)
y1 = 4*__sin__(beta)**2/(beta**2)
fig = __plt__.figure(2,figsize=(12, 8), dpi=80)
__plt__.plot(theta*z*1000,y)
__plt__.plot(theta*z*1000,y1,"g--")
__plt__.show()
def seidelsurface(self, label = True, zlim=[], matrix = False): r1 = __np__.linspace(0, 1, 100) u1 = __np__.linspace(0, 2*__np__.pi, 100) [u,r] = __np__.meshgrid(u1,r1) X = r*__cos__(u) Y = r*__sin__(u) W = __seidelpolar__(self.__coefficients__,r,u) fig = __plt__.figure(figsize=(12, 8), dpi=80) ax = fig.gca(projection='3d') surf = ax.plot_surface(X, Y, W, rstride=1, cstride=1, cmap=__cm__.RdYlGn, linewidth=0, antialiased=False, alpha = 0.6) fig.colorbar(surf, shrink=1, aspect=30) __plt__.show()
def zernikesurface(self, label = True, zlim=[], matrix = False):
"""
------------------------------------------------
zernikesurface(self, label_1 = True):
Return a 3D Zernike Polynomials surface figure
label_1: default show label
------------------------------------------------
"""
theta = __np__.linspace(0, 2*__np__.pi, 100)
rho = __np__.linspace(0, 1, 100)
[u,r] = __np__.meshgrid(theta,rho)
X = r*__cos__(u)
Y = r*__sin__(u)
Z = __zernikepolar__(self.__coefficients__,r,u)
fig = __plt__.figure(figsize=(12, 8), dpi=80)
ax = fig.gca(projection='3d')
surf = ax.plot_surface(X, Y, Z, rstride=1, cstride=1, cmap=__cm__.RdYlGn,
linewidth=0, antialiased=False, alpha = 0.6)
if zlim == []:
v = max(abs(Z.max()),abs(Z.min()))
ax.set_zlim(-v*5, v*5)
cset = ax.contourf(X, Y, Z, zdir='z', offset=-v*5, cmap=__cm__.RdYlGn)
else:
ax.set_zlim(zlim[0], zlim[1])
cset = ax.contourf(X, Y, Z, zdir='z', offset=zlim[0], cmap=__cm__.RdYlGn)
ax.zaxis.set_major_locator(__LinearLocator__(10))
ax.zaxis.set_major_formatter(__FormatStrFormatter__('%.02f'))
fig.colorbar(surf, shrink=1, aspect=30)
p2v = round(__tools__.peak2valley(Z),5)
rms1 = round(__tools__.rms(Z),5)
label_1 = self.listcoefficient()[0]+"P-V: "+str(p2v)+"\n"+"RMS: "+str(rms1)
if label == True:
__plt__.title('Zernike Polynomials Surface',fontsize=18)
ax.text2D(0.02, 0.1, label_1, transform=ax.transAxes,fontsize=14)
else:
pass
__plt__.show()
if matrix == True:
return Z
else:
pass
def zernikesurface(self, label = True, zlim=[], matrix = False):
"""
------------------------------------------------
zernikesurface(self, label_1 = True):
Return a 3D Zernike Polynomials surface figure
label_1: default show label
------------------------------------------------
"""
theta = __np__.linspace(0, 2*__np__.pi, 100)
rho = __np__.linspace(0, 1, 100)
[u,r] = __np__.meshgrid(theta,rho)
X = r*__cos__(u)
Y = r*__sin__(u)
Z = __interferometer__.__zernikepolar__(self.__coefficients__,r,u)
fig = __plt__.figure(figsize=(12, 8), dpi=80)
ax = fig.gca(projection='3d')
surf = ax.plot_surface(X, Y, Z, rstride=1, cstride=1, cmap=__cm__.RdYlGn,
linewidth=0, antialiased=False, alpha = 0.6)
if zlim == []:
v = max(abs(Z.max()),abs(Z.min()))
ax.set_zlim(-v*5, v*5)
cset = ax.contourf(X, Y, Z, zdir='z', offset=-v*5, cmap=__cm__.RdYlGn)
else:
ax.set_zlim(zlim[0], zlim[1])
cset = ax.contourf(X, Y, Z, zdir='z', offset=zlim[0], cmap=__cm__.RdYlGn)
ax.zaxis.set_major_locator(__LinearLocator__(10))
ax.zaxis.set_major_formatter(__FormatStrFormatter__('%.02f'))
fig.colorbar(surf, shrink=1, aspect=30)
p2v = round(__tools__.peak2valley(Z),5)
rms1 = round(__tools__.rms(Z),5)
label_1 = self.listcoefficient()[0]+"P-V: "+str(p2v)+"\n"+"RMS: "+str(rms1)
if label == True:
__plt__.title('Zernike Polynomials Surface',fontsize=18)
ax.text2D(0.02, 0.1, label_1, transform=ax.transAxes,fontsize=14)
else:
pass
__plt__.show()
if matrix == True:
return Z
else:
pass
def seidelsurface(self, label=True, zlim=[], matrix=False):
r1 = __np__.linspace(0, 1, 100)
u1 = __np__.linspace(0, 2 * __np__.pi, 100)
[u, r] = __np__.meshgrid(u1, r1)
X = r * __cos__(u)
Y = r * __sin__(u)
W = __seidelpolar__(self.__coefficients__, r, u)
fig = __plt__.figure(figsize=(12, 8), dpi=80)
ax = fig.gca(projection='3d')
surf = ax.plot_surface(X,
Y,
W,
rstride=1,
cstride=1,
cmap=__cm__.RdYlGn,
linewidth=0,
antialiased=False,
alpha=0.6)
fig.colorbar(surf, shrink=1, aspect=30)
__plt__.show()
def aspheresurface(self): """ Show the surface of an asphere. ============================================================= Try: A = opticspy.asphere.Coefficient(R=50,a2=0.18*10**(-8),a3 = 0.392629*10**(-13)) """ R = self.__coefficients__[0] theta = __np__.linspace(0, 2*__np__.pi, 100) rho = __np__.linspace(0, R, 100) [u,r] = __np__.meshgrid(theta,rho) X = r*__cos__(u) Y = r*__sin__(u) Z = __aspherepolar__(self.__coefficients__,r) fig = __plt__.figure(figsize=(12, 8), dpi=80) ax = fig.gca(projection='3d') surf = ax.plot_surface(X, Y, Z, rstride=1, cstride=1, cmap=__cm__.RdYlGn, linewidth=0, antialiased=False, alpha = 0.6) __plt__.show() return 0
def spherical_surf(l1):
R = 1.02
l1 = l1 #surface matrix length
theta = __np__.linspace(0, 2*__np__.pi, l1)
rho = __np__.linspace(0, 1, l1)
[u,r] = __np__.meshgrid(theta,rho)
X = r*__cos__(u)
Y = r*__sin__(u)
Z = __sqrt__(R**2-r**2)-__sqrt__(R**2-1)
v_1 = max(abs(Z.max()),abs(Z.min()))
noise = (__np__.random.rand(len(Z),len(Z))*2-1)*0.05*v_1
Z = Z+noise
fig = __plt__.figure(figsize=(12, 8), dpi=80)
ax = fig.gca(projection='3d')
surf = ax.plot_surface(X, Y, Z, rstride=1, cstride=1, cmap=__cm__.RdYlGn,\
linewidth=0, antialiased=False, alpha = 0.6)
v = max(abs(Z.max()),abs(Z.min()))
ax.set_zlim(-1, 2)
ax.zaxis.set_major_locator(__LinearLocator__(10))
ax.zaxis.set_major_formatter(__FormatStrFormatter__('%.02f'))
cset = ax.contourf(X, Y, Z, zdir='z', offset=-1, cmap=__cm__.RdYlGn)
fig.colorbar(surf, shrink=1, aspect=30)
__plt__.title('Test Surface: Spherical surface with some noise',fontsize=16)
__plt__.show()
#Generate test surface matrix from a detector
x = __np__.linspace(-1, 1, l1)
y = __np__.linspace(-1, 1, l1)
[X,Y] = __np__.meshgrid(x,y)
Z = __sqrt__(R**2-(X**2+Y**2))-__sqrt__(R**2-1)+noise
for i in range(len(Z)):
for j in range(len(Z)):
if x[i]**2+y[j]**2>1:
Z[i][j]=0
return Z
def Z13(self,r,u): return __sqrt__(10)*(4*r**2-3)*r**2*__sin__(2*u)
def Z9(self,r,u): return __sqrt__(8)*r**3*__sin__(3*u)
def Z7(self,r,u): return __sqrt__(8)*(3*r**2-2)*r*__sin__(u)
def Z35(self,r,u): return 4*r**7*__sin__(7*u)
def Z19(self,r,u): return __sqrt__(12)*(5*r**2-4)*r**3*__sin__(3*u)
def Z23(self,r,u): return __sqrt__(14)*(15*r**4-20*r**2+6)*r**2*__sin__(2*u)
def Z15(self,r,u): return __sqrt__(10)*r**4*__sin__(4*u)
def Z17(self,r,u): return __sqrt__(12)*(10*r**4-12*r**2+3)*r*__sin__(u)
def Z27(self,r,u): return __sqrt__(14)*r**6*__sin__(6*u)
def Z21(self,r,u): return __sqrt__(12)*r**5*__sin__(5*u)
def Z31(self,r,u): return 4*(21*r**4-30*r**2+10)*r**3*__sin__(3*u)
def Z25(self,r,u): return __sqrt__(14)*(6*r**2-5)*r**4*__sin__(4*u)
def __zernikepolar__(coefficient,r,u): """ ------------------------------------------------ __zernikepolar__(coefficient,r,u): Return combined aberration Zernike Polynomials Caculation in polar coordinates coefficient: Zernike Polynomials Coefficient from input r: rho in polar coordinates u: theta in polar coordinates ------------------------------------------------ """ Z = [0]+coefficient Z1 = Z[1] * 1*(__cos__(u)**2+__sin__(u)**2) Z2 = Z[2] * 2*r*__cos__(u) Z3 = Z[3] * 2*r*__sin__(u) Z4 = Z[4] * __sqrt__(3)*(2*r**2-1) Z5 = Z[5] * __sqrt__(6)*r**2*__sin__(2*u) Z6 = Z[6] * __sqrt__(6)*r**2*__cos__(2*u) Z7 = Z[7] * __sqrt__(8)*(3*r**2-2)*r*__sin__(u) Z8 = Z[8] * __sqrt__(8)*(3*r**2-2)*r*__cos__(u) Z9 = Z[9] * __sqrt__(8)*r**3*__sin__(3*u) Z10 = Z[10] * __sqrt__(8)*r**3*__cos__(3*u) Z11 = Z[11] * __sqrt__(5)*(1-6*r**2+6*r**4) Z12 = Z[12] * __sqrt__(10)*(4*r**2-3)*r**2*__cos__(2*u) Z13 = Z[13] * __sqrt__(10)*(4*r**2-3)*r**2*__sin__(2*u) Z14 = Z[14] * __sqrt__(10)*r**4*__cos__(4*u) Z15 = Z[15] * __sqrt__(10)*r**4*__sin__(4*u) Z16 = Z[16] * __sqrt__(12)*(10*r**4-12*r**2+3)*r*__cos__(u) Z17 = Z[17] * __sqrt__(12)*(10*r**4-12*r**2+3)*r*__sin__(u) Z18 = Z[18] * __sqrt__(12)*(5*r**2-4)*r**3*__cos__(3*u) Z19 = Z[19] * __sqrt__(12)*(5*r**2-4)*r**3*__sin__(3*u) Z20 = Z[20] * __sqrt__(12)*r**5*__cos__(5*u) Z21 = Z[21] * __sqrt__(12)*r**5*__sin__(5*u) Z22 = Z[22] * __sqrt__(7)*(20*r**6-30*r**4+12*r**2-1) Z23 = Z[23] * __sqrt__(14)*(15*r**4-20*r**2+6)*r**2*__sin__(2*u) Z24 = Z[24] * __sqrt__(14)*(15*r**4-20*r**2+6)*r**2*__cos__(2*u) Z25 = Z[25] * __sqrt__(14)*(6*r**2-5)*r**4*__sin__(4*u) Z26 = Z[26] * __sqrt__(14)*(6*r**2-5)*r**4*__cos__(4*u) Z27 = Z[27] * __sqrt__(14)*r**6*__sin__(6*u) Z28 = Z[28] * __sqrt__(14)*r**6*__cos__(6*u) Z29 = Z[29] * 4*(35*r**6-60*r**4+30*r**2-4)*r*__sin__(u) Z30 = Z[30] * 4*(35*r**6-60*r**4+30*r**2-4)*r*__cos__(u) Z31 = Z[31] * 4*(21*r**4-30*r**2+10)*r**3*__sin__(3*u) Z32 = Z[32] * 4*(21*r**4-30*r**2+10)*r**3*__cos__(3*u) Z33 = Z[33] * 4*(7*r**2-6)*r**5*__sin__(5*u) Z34 = Z[34] * 4*(7*r**2-6)*r**5*__cos__(5*u) Z35 = Z[35] * 4*r**7*__sin__(7*u) Z36 = Z[36] * 4*r**7*__cos__(7*u) Z37 = Z[37] * 3*(70*r**8-140*r**6+90*r**4-20*r**2+1) Z = Z1 + Z2 + Z3+ Z4+ Z5+ Z6+ Z7+ Z8+ Z9+ \ Z10+ Z11+ Z12+ Z13+ Z14+ Z15+ Z16+ Z17+ Z18+ Z19+ \ Z20+ Z21+ Z22+ Z23+ Z24+ Z25+ Z26+ Z27+ Z28+ Z29+ \ Z30+ Z31+ Z32+ Z33+ Z34+ Z35+ Z36+ Z37 return Z
def Z29(self,r,u): return 4*(35*r**6-60*r**4+30*r**2-4)*r*__sin__(u)
def Z1(self,r,u): return 1*(__cos__(u)**2+__sin__(u)**2)
def Z33(self,r,u): return 4*(7*r**2-6)*r**5*__sin__(5*u)
def Z3(self,r,u): return 2*r*__sin__(u)
def __zernikepolar__(coefficient,r,u): """ ------------------------------------------------ __zernikepolar__(coefficient,r,u): Return combined aberration Zernike Polynomials Caculation in polar coordinates coefficient: Zernike Polynomials Coefficient from input r: rho in polar coordinates u: theta in polar coordinates ------------------------------------------------ """ Z = [0]+coefficient Z1 = Z[1] * 1*(__cos__(u)**2+__sin__(u)**2) Z2 = Z[2] * 2*r*__cos__(u) Z3 = Z[3] * 2*r*__sin__(u) Z4 = Z[4] * __sqrt__(3)*(2*r**2-1) Z5 = Z[5] * __sqrt__(6)*r**2*__sin__(2*u) Z6 = Z[6] * __sqrt__(6)*r**2*__cos__(2*u) Z7 = Z[7] * __sqrt__(8)*(3*r**2-2)*r*__sin__(u) Z8 = Z[8] * __sqrt__(8)*(3*r**2-2)*r*__cos__(u) Z9 = Z[9] * __sqrt__(8)*r**3*__sin__(3*u) Z10 = Z[10] * __sqrt__(8)*r**3*__cos__(3*u) Z11 = Z[11] * __sqrt__(5)*(1-6*r**2+6*r**4) Z12 = Z[12] * __sqrt__(10)*(4*r**2-3)*r**2*__cos__(2*u) Z13 = Z[13] * __sqrt__(10)*(4*r**2-3)*r**2*__sin__(2*u) Z14 = Z[14] * __sqrt__(10)*r**4*__cos__(4*u) Z15 = Z[15] * __sqrt__(10)*r**4*__sin__(4*u) Z16 = Z[16] * __sqrt__(12)*(10*r**4-12*r**2+3)*r*__cos__(u) Z17 = Z[17] * __sqrt__(12)*(10*r**4-12*r**2+3)*r*__sin__(u) Z18 = Z[18] * __sqrt__(12)*(5*r**2-4)*r**3*__cos__(3*u) Z19 = Z[19] * __sqrt__(12)*(5*r**2-4)*r**3*__sin__(3*u) Z20 = Z[20] * __sqrt__(12)*r**5*__cos__(5*u) Z21 = Z[21] * __sqrt__(12)*r**5*__sin__(5*u) Z22 = Z[22] * __sqrt__(7)*(20*r**6-30*r**4+12*r**2-1) Z23 = Z[23] * __sqrt__(14)*(15*r**4-20*r**2+6)*r**2*__sin__(2*u) Z24 = Z[24] * __sqrt__(14)*(15*r**4-20*r**2+6)*r**2*__cos__(2*u) Z25 = Z[25] * __sqrt__(14)*(6*r**2-5)*r**4*__sin__(4*u) Z26 = Z[26] * __sqrt__(14)*(6*r**2-5)*r**4*__cos__(4*u) Z27 = Z[27] * __sqrt__(14)*r**6*__sin__(6*u) Z28 = Z[28] * __sqrt__(14)*r**6*__cos__(6*u) Z29 = Z[29] * 4*(35*r**6-60*r**4+30*r**2-4)*r*__sin__(u) Z30 = Z[30] * 4*(35*r**6-60*r**4+30*r**2-4)*r*__cos__(u) Z31 = Z[31] * 4*(21*r**4-30*r**2+10)*r**3*__sin__(3*u) Z32 = Z[32] * 4*(21*r**4-30*r**2+10)*r**3*__cos__(3*u) Z33 = Z[33] * 4*(7*r**2-6)*r**5*__sin__(5*u) Z34 = Z[34] * 4*(7*r**2-6)*r**5*__cos__(5*u) Z35 = Z[35] * 4*r**7*__sin__(7*u) Z36 = Z[36] * 4*r**7*__cos__(7*u) Z37 = Z[37] * 3*(70*r**8-140*r**6+90*r**4-20*r**2+1) Z = Z1 + Z2 + Z3+ Z4+ Z5+ Z6+ Z7+ Z8+ Z9+ \ Z10+ Z11+ Z12+ Z13+ Z14+ Z15+ Z16+ Z17+ Z18+ Z19+ \ Z20+ Z21+ Z22+ Z23+ Z24+ Z25+ Z26+ Z27+ Z28+ Z29+ \ Z30+ Z31+ Z32+ Z33+ Z34+ Z35+ Z36+ Z37 return Z
def Z5(self,r,u): return __sqrt__(6)*r**2*__sin__(2*u)
