Roithner DUV-FW18 Deep ultraviolet light emission source Datasheet

rev.2.0 07.05.15
DUV-FW18
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Deep Ultraviolet Light Emission Source
265, 280, 310, 325, 340 nm
TO18 metal can
Flat SiO2 window
Beam angle 113 deg.
Description
DUV-FW18 is a series of AlGaN based single emitter DEEP-UV LEDs in a hermetically sealed TO18 package, utilizing a flat quartz
glass window with a beam angle of 113 degree. DUV-FW18 is available from 265 nm up to 340 nm peak wavelength with an optical
output power of typically 0.8 mW.
Maximum Rating (T
CASE
Parameter
Forward Current (TA=25°C)
= 25°C)
Symbol
Values
Min.
Unit
Max.
IF
40
mA
Operating Temperature
TOPR
- 20
+ 80
°C
Storage Temperature
TSTG
- 40
+ 100
°C
Soldering Temperature (max. 5s)
TSOL
+ 300
°C
Electro-Optical Characteristics (T
Parameter
Symbol
CASE =
25°C, IF =20 mA)
DUV265 DUV280 DUV310 DUV325 DUV340
-FW18
- FW18 - FW18 - FW18 - FW18
Unit
Peak Wavelength
λP
265 ±5
280 ±5
310 ±5
325 ±5
340 ±5
nm
Radiated Power
PO
0.4
1.2
0.7
0.8
0.8
mW
Spectral Width (FWHM)
∆λ
9
11
9
8
9
nm
Forward Voltage
VF
10
7
6.5
5
4
V
Reverse Voltage (IR=10µA)
VR
>4
>2
>10
>10
>10
V
Reverse Current (VR=5V)
IR
<50
<200
<1
<1
<1
µA
Viewing Angle
Thermal resistance
2Ө1/2
113
deg.
RӨJ-REF
190
°C/W
Rise time*
tR
/
/
16
20
12
ns
Fall time*
tF
/
/
8
9
9
ns
* frequency=100kHz, duty cycle=1%, IFP=200mA
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Performance Characteristics
Forward Current vs. Forward Voltage
Spectrum
Forward Voltage vs. Ambient Temp.
Wavelength Shift vs. Ambient Temp.
Radiant Flux vs. Ambient Temp.
Forward Current vs. Relative Radiant Flux [%]
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Performance Characteristics
Junction Temp. vs. Forward Current
Radiation Pattern
Outline Dimensions
TO18
all dimensions in mm
Device Materials
Pin #
Material
Glass A
SiO2
Cap
Stem ring
Glass B
Leads
Fe-Ni alloy, Ni plating
Fe-Ni alloy, Au plating
Hard-glass (Black)
Fe-Ni alloy, Au plating
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Precautions
Soldering:
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Do avoid overheating of the LED
Do avoid electrostatic discharge (ESD)
Do avoid mechanical stress, shock, and vibration
Do only use non-corrosive flux.
Do only solder the leads. Soldering of header or cap will damage the LED
Do only cut the leads at room temperature with an ESD protected tool
Do not solder closer than 3 mm from base of the header
Do form leads prior to soldering
Do not impose mechanical stress on the header when forming the leads
Do not apply current to the LED until it has cooled down to room temperature after soldering
Static Electricity:
LEDs are sensitive to electrostatic discharge (ESD). Precautions against ESD must be taken when handling or
operating these LEDs. Surge voltage or electrostatic discharge can result in complete failure of the device.
UV-Radiation:
During operation these LEDs do emit high intensity ultraviolet light, which is hazardous to skin and eyes, and may
cause cancer. Do avoid exposure to the emitted UV light. Protective glasses are recommended. It is further advised
to attach a warning label on products/systems that do utilize UV-LEDs:
Class 1
Operation:
Do only operate LEDs with a current source.
Running these LEDs from a voltage source will result in complete failure of the device.
Current of a LED is an exponential function of the voltage across it. Usage of current regulated drive circuits is
mandatory
© All Rights Reserved
The above specifications are for reference purpose only and subjected to change without prior notice
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