The following input will simulate a 1:1 array of GRIN rods (see Figure 2): u_aln[oIv
s$Il;
TtL2}Wdd.%
x M1>kb o|
RDM;LEN HQ%-e5 Q
TIT 1:1 GRIN ARRAY $*| :A
NAO 0.1 (D'Z 4Y
TEL ! Telecentric TQ? D*&
DIM M )Oq N\
WL 633 4#5w^
YOB -5 5 0 -10 10 i<g|+}I
PRV ! GRIN material (SELFOC form) `_]Z#X&&h
PWL 633 WUid5e2
'SLSPRV' 1.5 U*Z P>V v
SEL 1 ! Grin step size p[(VhbN
SEL C1 .076 ! First coeff. of SELFOC formula mMq T-jT
END \TG!M]D:
So 0 10.222 %Fc, $ =
RED -1 xMsos?5}
S 0 0 khl(9R4a
S 0.0 60.0 'SLSPRV' ! GRIN rod (array channels) |Xblz1>DF
STOP '0|AtO77
CIR 1.25 ! Aperture of each channel d"nz/$
! (applies to entire length A> 6 b
6
! of GRIN rod) i0 uBb%GMT
! Array definition ^R.#n[-r2
3,j)PKf
;
! ARR x_spacing y_spacing y_offset max_x max_y t"`LJE._P
ARR 2.5 2.5 0 0 0 U,C
L*qTF
S 0 0 ?) #dP8n
EAR ! End array P>=~\v nN#
S 0 10.222 [L1pDICoy
PIM 9?r|Y@xh ]
SI 0 0 w,NK]<dU@
LAY;SUR So..i;GO wTFM: N
e-4XNL[F
yhe$A<Rl=
Figure 2. 1:1 GRIN array
