The following input will simulate a 1:1 array of GRIN rods (see Figure 2): P DQC^2Z
&x6Z=|Ers
|s [kY
GcN[bH(@
RDM;LEN ,l/~epx4v)
TIT 1:1 GRIN ARRAY 8 g0By;h;
NAO 0.1 WO$9Svh8
TEL ! Telecentric ~2u~}v5m7
DIM M D=Ia$O 0.
WL 633 <%w)EQf4m
YOB -5 5 0 -10 10 Y3@\uM`2#
PRV ! GRIN material (SELFOC form) gS{hfDpk,h
PWL 633 SNqw 2f5
'SLSPRV' 1.5 u~SvR~OE
SEL 1 ! Grin step size c1 aCN
SEL C1 .076 ! First coeff. of SELFOC formula xPMTmx?2
END 7|Z=#3INw
So 0 10.222 7^1yZ1(
RED -1 4@ EY +p
S 0 0 s
zBlyT
S 0.0 60.0 'SLSPRV' ! GRIN rod (array channels) 6r
STOP ~nYp*t C'
CIR 1.25 ! Aperture of each channel ~*"]XE?M
! (applies to entire length pT3p!/pl3
! of GRIN rod) ]^aOYtKX
! Array definition #9{ N[t
`;KU^dH
! ARR x_spacing y_spacing y_offset max_x max_y F<FNZQ@<U
ARR 2.5 2.5 0 0 0 Mn$w_Z?
S 0 0 ZqT8G
EAR ! End array jw63sn
S 0 10.222 .quui\I3
PIM DD 8uG`<
SI 0 0 w7Fz(`\
LAY;SUR So..i;GO )@lZ~01~d
y[QQopy4:
st~
1[in
Figure 2. 1:1 GRIN array
