increase usable light output by more than 40% over non
these lamps, w
when mated with the appropriate trigg
ger module an
nd
All t
wer supply, wi
ill provide ligh
hting solution
ns for the most demanding
g
pow
applications.
www
w.excelitas.com
1100 Series Flashlamps
s 8/2011 page 1 of
f 5
1100 Series
High‐Stability Short Arc Xenon Flashlamps
1100 Series
Arc
Length
(mm)
1.5
3.0
1.5
3.0
6
Type
Spectral
Distribution
(nm)
225‐1100+
190‐1100+
120‐1100+
225‐1100+
190‐1100+
120‐1100+
225‐1100+
190‐1100+
120‐1100+
225‐1100+
190‐1100+
120‐1100+
Window
Material
Borosilicate
UV Glass
MgF
2
Borosilicate
UV Glass
MgF
2
Borosilicate
UV Glass
MgF
2
Borosilicate
UV Glass
MgF
2
Energy
1
per Flash
(joules)
0.15 max
Average
Power
2
(watts)
10
Voltage
(Vdc)
350‐1000
Flash
3
Rate
(Hz)
300
Life
(flashes)
>1x10
>1x10
>1x10
>1x10
>1x10
>1x10
9
9
9
9
9
9
4
Jitter
(ns)
<200
<200
<200
<200
<200
<200
Stability
<1%CV
<1%CV
<1%CV
<1%CV
<1%CV
<1%CV
5
Power
Supply
LitePac
Type
Glass‐Body
FX‐1101
FX‐1102
FX‐1103
FX‐1104
FX‐1105
FX‐1106
Metal Can
FX‐1150
FX‐1151
FX‐1152
FX‐1153
FX‐1154
FX‐1155
PS‐1105
PS‐1110
FYD‐1101
FYD‐1101B
0.15 max
10
350‐1000
300
PS‐1105
PS‐1110
FYD‐1101
FYD‐1101B
FYD‐1150
0.50 max
20
350‐1000
300
PS‐1120
FYD‐1150B
FYD‐1150
0.50 max
20
350‐1000
300
PS‐1120
FYD‐1150B
FYD‐1150
0.50 max
20
350‐1000
Metal Can with Reflector
225‐1100+
FX‐1160
FX‐1161
FX‐1162
FX‐1163
FX‐1164
FX‐1165
300
Borosilicate
UV Glass
MgF
2
Borosilicate
UV Glass
MgF
2
1.5
3.0
190‐1100+
120‐1100+
225‐1100+
190‐1100+
120‐1100+
PS‐1120
FYD‐1150B
FYD‐1150
0.50 max
20
350‐1000
300
PS‐1120
FYD‐1150B
1
2
Input Energy or E = 1/2CV , where E = Discharge Energy (Joules), C = Discharge Capacitor Value, and V = Discharge Voltage.
2
Maximum Average Power or P
AVE
= EF, where E = Discharge Energy and F = Rate of flashes per second. NOTE: Additional cooling required when operation above
40Watts
Flash rate must be set so as not to exceed 10/20 Watts Average Power.
2
3
4
Life is primarily a function of input energy per flash (E=1/2CV ) but is also influenced by average power and peak current. See curves on following page for typical
lamp performance.
Typical for most operating conditions. Lamp output stability is dependent on a number of variable including input energy, flash rate, optics design, trigger module
and power supply
5
6
The hemispherical reflector internal to the FX‐1160 should not be confused with competitive types employing paraboloids or ellipsoids in which all of the
forward direct light is non‐recoverable and becomes a serious source of optical scattering. Excelitas’ FX‐1160 has an electrode orientation which does not block the
forward light emission and therefore does not cause a “black hole” in the output beam profile. The optical design of the FX‐1160 is ideal for use with lenses and
fiber bundles, and provides the additional advantage of reduced optical noise by preventing back‐plane scattering caused by the pin base.
CAUTION! Care should be taken when inserting or removing lamps from their sockets. Excessive side force placed on the pins of the lamp could cause the seal
around the pins to crack and the lamp to leak resulting in lamp failure.
CAUTION! Glass Lamps ‐ Caution should be taken not to mount or attached any type of hardware to the body of lamp. This could cause the lamp to crack.
CAUTION! Metal Can Lamps ‐ Caution needs to be taken not put excessive or uneven force on the body of the lamp. This can cause failures with the glass to metal
seals. Please consult an application engineer for suggestions on lamp mounting.
FPGA/CPLD
京公网安备 11010802033920号
Copyright © 2005-2026 EEWORLD.com.cn, Inc. All rights reserved
电子工程世界
