30-7402-520-FL [JDSU]

Up to 660 mW Fiber Bragg Grating Stabilized 980 nm Pump Modules; 高达660 mW的光纤布拉格光栅稳定980nm泵浦模块
30-7402-520-FL
型号: 30-7402-520-FL
厂家: JDSU    JDSU
描述:

Up to 660 mW Fiber Bragg Grating Stabilized 980 nm Pump Modules
高达660 mW的光纤布拉格光栅稳定980nm泵浦模块

光纤 栅 泵
文件: 总6页 (文件大小:265K)
中文:  中文翻译
下载:  下载PDF数据表文档文件
COMMUNICATIONS COMPONENTS  
Up to 660 mW Fiber Bragg Grating Stabilized 980 nm  
Pump Modules  
3000-FL Series  
Key Features  
Very high kink-free powers up to 660 mW  
• Low-profile, epoxy-free, and flux-free 14-PIN butterfly  
planar package  
• Fiber Bragg grating stabilization  
Wavelength selection available  
• Tight tracking of fiber-coupled power  
• Integrated thermoelectric cooler, thermistor, and monitor diode  
• High dynamic range  
• Excellent low power stability  
Applications  
The JDSU 3000-FL Series 980 nm pump module features a planar construction  
with chip on subcarrier. The high-power JDSU laser chip is hermetically sealed in  
a low-profile, epoxy- and flux-free, 14-pin butterfly package and fitted with a  
thermistor, thermoelectric cooler, and monitor diode. The module meets the  
stringent requirements of the telecommunications industry, including Telcordia™  
GR-468-CORE for hermetic 980 nm pump modules.  
• Next-generation, dense wavelength  
division multiplexing (DWDM)  
erbium-doped fiber amplifiers  
(EDFAs) requiring the highest power  
with “locked” wavelength emission  
• Reduced pump-count EDFA  
architectures  
Very long distance CATV trunks and  
very high node-count distribution  
• Pump splitting (multiple EDFA stages)  
• FTTx, agile metro/ROADM  
The 3000-FL Series pump module uses fiber Bragg grating stabilization to “lock”  
the emission wavelength. It provides a noise-free narrowband spectrum, even  
under changes in temperature, drive current, and optical feedback. Wavelength  
selection is available for applications that require the highest performance in  
spectrum control with the highest available powers.  
The 3000-FL Series design also offers tight tracking of fiber-coupled power via the  
monitor diode signal.  
Compliance  
Telcordia GR-468-CORE  
NORTH AMERICA: 800 498-JDSU (5378)  
WORLDWIDE: +800 5378-JDSU  
WEBSITE: www.jdsu.com  
3000-FL SERIES  
Dimensions Diagram  
250 µm Bare Fiber Type A Wiring  
(Note: Specifications in mm unless otherwise noted; tolerance = .x .3ꢀ .xx .ꢁ0  
The module pigtail consists of ꢁ50 µm bufferedꢀ Corning PureModeTM HI-1060  
single-mode fiber.)  
45.04  
30.0  
1600 MIN (1900 NOM)  
1000 NOM. TO CENTER OF GRATING  
26.0  
500 NOM. TO C/L OF SPLICE (OPTIONAL)  
20.8  
17.8  
1.5  
40.5 NOM.15.5 12.7 9.0  
STRAIN RELIEF  
FLEXIBLE <=400  
MICRON RECOAT  
4.6  
4X 2.50 THRU  
12X 2.5 LEAD SPACING  
260 < RECOAT < 935 (MICRON)  
TOLERANCE IS NON-ACCUMULATIVE  
14X 0.51 LEAD WIDTH  
RED NON-XYLENE MARK  
FOR RECOAT WITH 295 35 μm  
2.8  
4.00  
1.50  
7.7 0.20  
3.9  
1.5  
5.6 TO LEAD C/L  
2X ~5  
5.26  
0.25 LEAD THICKNESS  
Pinout  
Pin  
Description  
7
8
6
9
5
4
3
2
1
1
2
3
4
5
6
7
8
Cooler (+)  
Thermistor  
Monitor PD Anode  
Monitor PD Cathode  
Thermistor  
N/C  
N/C  
N/C  
10  
11  
12  
13  
14  
9
N/C  
10  
11  
12  
13  
14  
Laser Anode  
Laser Cathode  
N/C  
Case Ground  
Cooler (-)  
3000-FL SERIES  
3
Table 1: Absolute Maximum Ratings  
Parameter  
Symbol  
Test Condition  
Minimum  
Maximum  
Operating case temperature  
Storage temperature  
LD submount temperature  
LD reverse voltage  
Top  
Tstg  
TLD  
Vr  
-
-20°C  
-40°C  
0°C  
-
75°C  
85°C  
50°C  
2.5 V  
2000 hours  
-
-
LD forward current  
LD current transient  
LD reverse current  
PD reverse voltage  
PD forward current  
Electrostatic discharge (ESD)  
TEC current  
If_max  
Unlimited time  
1 µs maximum  
-
-
-
C = 100 pF, R = 1.5 Ω, human body model  
-
-
-
-
-
-
-
-
-
-
1400 mA  
1500 mA  
10 µA  
20 V  
10 mA  
1000 V  
4.0 A  
VPD  
IPD  
VESD  
ITEC  
VTEC  
TEC voltage  
4.5 V  
Atmospheric pressure  
Storage  
-
-
5%  
-
11 kPa  
58 kPa  
95%  
Operating  
Non condensing  
260°C  
Relative humidity  
Lead soldering time  
RH  
10 seconds  
Note: Absolute maximum ratings are the maximum stresses that may be applied to the pump module for short periods of time without causing damage. Stresses in excess of the absolute maximum ratings  
can permanently damage the device. Exposure to absolute maximum ratings for extended periods, or exposure to more than one absolute maximum rating simultaneously may adversely affect device  
reliability.  
Table 2: Operating Parameters  
(BOLTcase = 0 to 75°CTLD = ꢁ5°Cꢀ -50 dB reflectionꢀ unless noted otherwise)  
Product  
Code  
Maximum  
Operating  
Power  
Maximum  
Operating  
Current  
Minimum  
Kink-Free  
Power  
Kink-Free  
Current  
Imax (mA)3  
Maximum2  
Pop (mW)1,3  
Iop (mA)  
Pmax (mW)2  
Maximum1  
30-xxxx-500-FL  
30-xxxx-520-FL  
30-xxxx-540-FL  
30-xxxx-560-FL  
30-xxxx-580-FL  
30-xxxx-600-FL  
30-xxxx-620-FL  
30-xxxx-640-FL  
30-xxxx-660-FL  
450  
460  
480  
500  
520  
540  
560  
580  
600  
1000  
1020  
1060  
1100  
1150  
1200  
1250  
1250  
1250  
500  
520  
540  
560  
580  
600  
620  
640  
660  
1100  
1150  
1200  
1250  
1300  
1350  
1400  
1400  
1400  
1. The maximum operating power (Pop) will be achieved at a device-specific maximum operating current (Iop). The individual value of Iop is noted on the hardcopy data sheet shipped with the device.  
All values of Iop are limited by the maximum value listed in Table 2.  
2. The module is kink-free up to a minimum kink-free power (Pmax) that the module will achieve at a device-specific kink-free current (Imax). The individual value of Imax is noted on the hardcopy data sheet  
shipped with the device. All values of Imax are limited by the maximum value listed in Table 2.  
3. The pump laser shall never be operated at a power higher than the Pop throughout its lifetime. At beginning of life (BOL), the operating current shall never be higher than the device-specific Iop that is  
noted on the hardcopy data sheet shipped with the device. At end of life (EOL), the operating current shall never be higher than the device-specific Imax that is noted on the hardcopy data sheet shipped  
with the device.  
3000-FL SERIES  
4
Table 3: Available Peak Wavelength Selection  
(Tamb = ꢁ5 3°Cꢀ 50 mW < P < Pop)  
Product Code  
Minimum Peak Wavelength  
Maximum Peak Wavelength  
30-7402-xxx-FL  
30-7602-xxx-FL  
30-8000-xxx-FL  
973.5 nm  
975.0 nm  
973.5 nm  
975.0 nm  
977.0 nm  
985.0 nm  
Table 4: Electro-Optical Performance  
(BOLTcase = 0 to 75°CTLD = ꢁ5°Cꢀ -50 dB reflectionꢀ unless noted otherwise)  
Parameter  
Symbol  
Test Condition  
Minimum  
Maximum  
Threshold current  
Laser diode temperature  
Forward voltage  
Ith  
TLD  
Vf  
-
-
-
35 mA  
30°C  
2.6 V  
20°C  
-
If = Iop  
Operating power  
Pop  
If = Iop  
20 mW  
Pop  
Kinkfree output power  
Wavelength  
Pump in pump band  
Spectral width  
Wavelength tuning vs. temperature  
Optical power stability  
Pmax  
λm  
Ppump  
ΔλRMS  
Δλ/T  
ΔPf_t  
If = Imax  
-
Pump band = λm 1.5 nm  
-
500 mW  
973.5 nm  
90%  
-
-
660 mW  
985 nm  
-
2.0 nm  
0.02 nm/°C  
-
Over Pf range, DC to 50 kHz,  
50 kHz sampling, Tcase = 25°C  
20 mW < Pop < 100 mW  
100 mW < Pop < 600 mW  
50 mW < P < Pop1  
50 mW < P < Pop2  
-
If = Imax,TLD = 25°C, see table on next page  
Tset = 25°C  
-
-
-
4%  
2.5%  
15%  
1.15  
10 µA/mW  
-
Tracking error  
Tracking ratio  
Monitor diode responsivity  
TEC cooling capacity  
Thermistor resistance  
Thermistor constant  
TE  
TR  
IBF  
ΔTEC  
Rth  
B
-15%  
0.85  
1 µA/mW  
50°C  
9.5 kΩ  
3600 K  
10.5 kΩ  
4200 K  
1. The tracking error is defined as the normalized change of output power relative to the operating power over case temperature range (0°C to 75°C), at constant back-face monitor current corresponding  
to the operating power at 25°C.  
2. The tracking ratio is a measure of the front-to-back tracking when the output power is varied. On a plot of optical power versus back-face photocurrent, a straight line is drawn between the minimum  
power (50 mW) and the operating power (Pop) points. The tracking ratio is defined as the ratio between measured optical power (shown as data points on the plot) to the value derived from the straight line.  
3000-FL SERIES  
5
Table 5: TEC and Total Module Power Consumption  
(For ΔT = 50°Cꢀ BOLTcase = 75°CTld = ꢁ5°C unless noted otherwise)  
Product Code  
TEC Current  
Imax (A)  
TEC Voltage  
Vmax (V)  
TEC Power Consumption  
Pmax (W)  
Total Module Power  
Consumption Pmax (W)  
30-xxxx-500-FL  
30-xxxx-520-FL  
30-xxxx-540-FL  
30-xxxx-560-FL  
30-xxxx-580-FL  
30-xxxx-600-FL  
30-xxxx-620-FL  
30-xxxx-640-FL  
30-xxxx-660-FL  
1.94  
1.97  
2.01  
2.03  
2.06  
2.09  
2.20  
2.20  
2.20  
2.69  
2.73  
2.76  
2.78  
2.80  
2.83  
2.90  
2.90  
2.90  
5.22  
5.38  
5.55  
5.64  
5.77  
5.91  
6.38  
6.38  
6.38  
7.17  
7.38  
7.66  
7.87  
8.14  
8.45  
9.19  
9.19  
9.19  
Ordering Information  
For more information on this or other products and their availability, please contact your local JDSU account manager or  
JDSU directly at 1-800-498-JDSU (5378) in North America and +800-5378-JDSU worldwide, or via e-mail at  
customer.service@jdsu.com.  
Sample: 30-7402-620-FL  
30-  
-
-FL  
Code  
740ꢁ  
760ꢁ  
8000  
Peak Wavelength  
973.5 to 975.0 nm  
975.0 to 977.0 nm  
973.5 to 985.0 nm  
Code  
500  
5ꢁ0  
540  
560  
580  
600  
6ꢁ0  
640  
660  
Minimum Kink-Free Power  
500 mW  
5ꢁ0 mW  
540 mW  
560 mW  
580 mW  
600 mW  
6ꢁ0 mW  
640 mW  
660 mW  
3000-FL SERIES  
User Safety  
Safety and Operating Considerations  
The laser light emitted from this laser diode is invisible and may be harmful to the human eye. Avoid looking directly into the  
fiber when the device is in operation.  
CAUTION: THE USE OF OPTICAL INSTRUMENTS WITH THIS PRODUCT INCREASES EYE HAZARD.  
Operating the laser diode outside of its maximum ratings may cause device failure or a safety hazard. Power supplies used with  
this component cannot exceed maximum peak optical power.  
CW laser diodes may be damaged by excessive drive current or switching transients. When using power supplies, the laser  
diode should be connected with the main power on and the output voltage at zero. The current should be increased slowly  
while monitoring the laser diode output power and the drive current. Careful attention to heatsinking and proper mounting  
of this device is required to ensure specified performance over its operating life. To maximize thermal transfer to the heatsink,  
the heatsink mounting surface must be flat to within .001” and the mounting screws must be torqued down to 1.5 in.-lb.  
ESD PROTECTION—Electrostatic discharge (ESD) is the primary cause of unexpected laser diode failure. Take extreme precaution  
to prevent ESD. Use wrist straps, grounded work surfaces, and rigorous antistatic techniques when handling laser diodes.  
Labeling  
21 CFR 1040.10 Compliance  
14-Pin Module Label  
Because of the small size of these  
devices, the output power and laser  
emission indicator label shown below is  
attached to the individual shipping  
container. All labels are illustrated here  
to comply with 21 CFR 1040.10 as  
applicable under the Radiations Control  
for Health and Safety Act of 1968.  
02/09/08 30-ABC123  
30-xxxx-xxx-FL  
Made in China  
Shipping Box Label  
Serial:  
30-ABC123  
JDS Uniphase (Shenzhen) Ltd  
3 Hongmian Road  
Futian Free Trade Zone  
Shenzhen, China 518038  
Made in China  
Model:  
30-xxxx-xxx-FL  
Output Power and Laser Emission Indicator Label  
DANGER  
INVISIBLE  
LASER DIODE  
INVISIBLE LASER RADIATION -  
AVOID DIRECT EXPOSURE TO BEAM  
PEAK POWER 660 mW  
WAVELENGTH 630 - 1,550 nm  
AVOID EXPOSURE  
CAUTION -  
Handle with care. Easily damaged  
by electrostatic discharge  
Visible/invisible  
radiation emitted  
from fiber end or  
fiber receptacle  
This product complies with 21 CFR Chapter 1, Subchapter J  
CLASS 3B LASER PRODUCT  
NORTH AMERICA: 800 498-JDSU (5378)  
WORLDWIDE: +800 5378-JDSU  
WEBSITE: www.jdsu.com  
Product specifications and descriptions in this document subject to change without notice. © 2009 JDS Uniphase Corporation 30149387 001 0309 3000FLPUMP.DS.CC.AE  
PureMode is a registered trademark of Corning Incorporated. Telcordia is a registered trademark of Telcordia Technologies Incorporated.  
March 2009  

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