The following input will simulate a 1:1 array of GRIN rods (see Figure 2): \ar.( J
ydBoZ3 }
I nr ~9hz
/X8b=:h
RDM;LEN o%CBSm]
TIT 1:1 GRIN ARRAY Vrz<DB^-e
NAO 0.1 0Wk}d(f
TEL ! Telecentric M a_! 1Y
DIM M +-xA/nU.c
WL 633 RU#Q<QI(
YOB -5 5 0 -10 10 ) D(XDN
PRV ! GRIN material (SELFOC form) `Ol*"F.+I
PWL 633 C [&L h_F\
'SLSPRV' 1.5 A D~\/V&+
SEL 1 ! Grin step size JTdK\A >l
SEL C1 .076 ! First coeff. of SELFOC formula .XS rLb?
END utRvE(IbmV
So 0 10.222 w Gw}a[a
RED -1 o#E
z_D[
S 0 0 .lRO; D
S 0.0 60.0 'SLSPRV' ! GRIN rod (array channels) Lt=#tu&d
STOP nuXaZRH
CIR 1.25 ! Aperture of each channel o u @Dd4
! (applies to entire length wgI$'tI
! of GRIN rod) E]"ePdZZ/
! Array definition [L9e.n1
5P+3D{
! ARR x_spacing y_spacing y_offset max_x max_y XPb7gd"% W
ARR 2.5 2.5 0 0 0 KXYq|w
S 0 0 ?6~ RGg
EAR ! End array #y2="$ V
S 0 10.222 /ptIx e
PIM < gJ|Wee
SI 0 0 Y# C=ku
LAY;SUR So..i;GO +5 @8' t
d0IHl !X
9KD2C>d<
Figure 2. 1:1 GRIN array
