The following input will simulate a 1:1 array of GRIN rods (see Figure 2): us/x.qPy2
,9=a(j"
g4Tc (k#
~}uTC36C\
RDM;LEN %KqXtc`O
TIT 1:1 GRIN ARRAY Oq[t gmf
NAO 0.1 q
K]Wk +
TEL ! Telecentric t;
"o,T
DIM M 4PNl3N3,n
WL 633 5=l Ava#
YOB -5 5 0 -10 10 cBU>/
zI p
PRV ! GRIN material (SELFOC form) q" )}vN
PWL 633 n:HF&j4C,
'SLSPRV' 1.5 kYx|`-PA<r
SEL 1 ! Grin step size dqcfs/XhP
SEL C1 .076 ! First coeff. of SELFOC formula @zE_fL
END J3C"W7 94}
So 0 10.222 z1s9[5
RED -1 [}.OlR3)
S 0 0 Bisht%]^
S 0.0 60.0 'SLSPRV' ! GRIN rod (array channels) w
J; y 4
STOP UL(#B TK
CIR 1.25 ! Aperture of each channel p5E|0 p
! (applies to entire length LvB -%@n
! of GRIN rod) eQA89 :j,
! Array definition wuI+$?
hmQD-E{Ab
! ARR x_spacing y_spacing y_offset max_x max_y 7R ;!
ARR 2.5 2.5 0 0 0 Drc\$<9c@
S 0 0 ?NJ\l5'
EAR ! End array 5ZUqCl(PX)
S 0 10.222 )0YMi!&j`
PIM AS ~O*(po
SI 0 0 %*zgN[/w
LAY;SUR So..i;GO *SL v$A
ur"cku G!9
/=i^Bgh4
Figure 2. 1:1 GRIN array
