module utilizes a planar construction with chip on
subcarrier. The high power JDS Uniphase 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.
The 2700-TE 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 2700-TE Series design also offers tight tracking
of fiber-coupled power via the monitor diode
signal.
Key Features
•
High kink-free powers to 300 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
•
Erbium doped fiber amplifiers (EDFAs) without
a front-fiber tab for tracking
•
Dense wavelength division multiplexing
(DWDM) EDFAs for small package designs
•
High bit rate, high channel count EDFAs
•
CATV distribution
Compliance
•
Telcordia™ GR-468-CORE
2700-TE Series Pumps | 2
Dimensions Diagram
250 µm Bare Fiber Type A Wiring (Specifications in mm unless otherwise noted.)
50.9
30.0
26.0
20.8
POINT A
750 NOM. TO
CENTRE
OF GRATING
FLEXIBLE 900 µm RECOAT
7
1
12.7
9.0
8
14
STRAIN RELIEF
13.9 NOM.
4X Ø2.5 THRU
FIBRE LENGTH 1500 MEASURED
FROM POINT A
4.6
14X 0.51 LEAD WIDTH
12X 2.5 LEAD SPACING
TOLERANCE IS NON-CUMULATIVE
0.25 LEAD HEIGHT
7.7 ±0.2
1.5
5.6 TO C/L
Ø4.5
5.21
Ø1.8
Note: The module pigtail consists of 250 µm buffered, Corning PureMode
TM
HI-1060 Single-mode fiber.
Pinout
Pinout
7
6
5
4
3
2
1
Pin
1
2
3
4
5
6
7
8
9
10
11
12
13
14
Description
Cooler (+)
Thermistor
Monitor PD Anode
Monitor PD Cathode
Thermistor
N/C
N/C
N/C
N/C
Laser Anode
Laser Cathode
N/C
Case Ground
Cooler (-)
8
9
10
11
12
13
14
2700-TE Series Pumps | 3
Table 1: Absolute Maximum Ratings
Parameter
Operating case temperature
Storage temperature
LD submount temperature
LD reverse voltage
LD forward current
LD current transient
LD reverse current
PD reverse voltage
PD forward current
Electrostatic discharge (ESD)
TEC current
TEC voltage
Axial pull force
Side pull force
Fiber bend radius
Relative humidity
Lead soldering time
Note:
Symbol
T
op
T
s t g
T
L D
V
r
Test Condition
-
2000 hours
-
-
-
1 µs maximum
-
-
-
C = 100 pF, R = 1.5
Ω,
human body model
-
-
3 x 10 seconds
3 x 10 seconds
-
40 °C
260 °C
Minimum
-20 °C
-40 °C
0 °C
-
-
-
-
-
-
-
-
-
-
-
16 mm
5%
-
Maximum
75 °C
85 °C
50 °C
2V
650 mA
1000 mA
10 µA
20 V
10 mA
1000 V
2.5 A
4.0 V
5N
2.5 N
-
95%
10 seconds
V
PD
I
P D
V
E S D
I
TEC
V
TEC
R
H
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
Product
Code
Maximum
Operating
Power
P
op
(mW)
1,3
170
180
190
200
210
220
230
240
250
260
270
280
(BOL, T
case
= 0 to 75 °C, T
LD
= 25 °C, -50 dB reflection, unless noted otherwise)
Minimum
Kink-Free
Power
P
max
(mW)
2
190
200
210
220
230
240
250
260
270
280
290
300
Kink-Free
Current
I
max
(mA)
3
Maximum
2
400
420
440
460
480
500
520
540
560
580
600
600
Maximum
Operating
Current
I
op
(mA)
Maximum
1
360
380
400
420
440
460
480
500
520
540
560
560
27-xxxx-190-TE
27-xxxx-200-TE
27-xxxx-210-TE
27-xxxx-220-TE
27-xxxx-230-TE
27-xxxx-240-TE
27-xxxx-250-TE
27-xxxx-260-TE
27-xxxx-270-TE
27-xxxx-280-TE
27-xxxx-290-TE
27-xxxx-300-TE
1: The
maximum operating power
P
op
will be achieved at a device-specific current, the
maximum operating
current
I
op
. The individual value of I
op
is noted on the hardcopy data sheet shipped with the device. All
values of I
op
are limited by the maximum value listed in Table 2.
2: The module is kink-free (at least) up to a
minimum kink-free power
P
max
that the module will achieve at a
device-specific current, the
kink-free current
I
max
. The individual value of I
max
is noted on the hardcopy
data sheet shipped with the device. All values of I
max
are limited by the maximum value listed in Table 2.
3: The pump laser shall never be operated at a power higher than the
maximum operating power
P
op
throughout its lifetime. At
Begin of Life
(BOL), the operating current shall never be higher than the device-
specific
maximum operating current
I
op
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
kink-free current
I
max
that is noted on the hardcopy data sheet shipped with the device.
2700-TE Series Pumps | 4
Table 3: Available Peak Wavelength Selection
Product Code
27-8000-xxx-TE
27-7402-xxx-TE
27-7552-xxx-TE
27-7602-xxx-TE
27-7702-xxx-TE
27-8052-xxx-TE
27-8502-xxx-TE
Minimum Peak
Wavelength
970.0 nm
973.0
974.5
975.0
976.0
979.5
984.0
nm
nm
nm
nm
nm
nm
(T
amb
= 25 ±3 °C, 50 mW < P < P
op
)
Maximum Peak
Wavelength
985.0 nm
975.0
976.5
977.0
978.0
981.5
986.0
nm
nm
nm
nm
nm
nm
Table 4: Electro-Optical Performance
Parameter
Threshold current
Forward voltage
Spectral width
Peak wavelength tuning
Side-mode suppression ratio
Relative optical power stability
Symbol
(BOL, T
case
= 0 to 75 °C, T
LD
= 25 °C, -50 dB reflection, unless noted otherwise)
Test Condition
-
I
f
= I
o p
50 mW < P < P
op
50 mW < P < P
op
50 mW < P < P
op
Peak-to-peak, T = 10 min,
50 kHz sampling, T
case
= 25 °C
20 mW < P < P
op
12 mW < P < 20 mW
3.5 mW < P < 12 mW
20 mW < P < P
op1
20 mW < P < P
op2
20 mW < P < P
op
T
case
= 75 °C
T
case
= 75 °C
-
-
T
case
= 75 °C
T
case
= 75 °C, EOL
Minimum
-
-
-
-
15 dB
Maximum
25 mA
2.5 V
2.0 nm
0.02 nm/°C
-
I
th
V
f
∆λ
RMS
∆λ
P
/∆T
amb
SMSR
Tracking error
Tracking ratio
Monitor diode responsivity
TEC current
TEC voltage
Thermistor resistance
Thermistor constant
Module power consumption
Module power consumption
TE
TR
Resp
BF
I
TEC
V
TEC
R
th
B
-
-
-
-8%
0.90
2 µA/mW
-
-
9.5 kΩ
3600 K
-
-
4%
10%
25%
8%
1.10
10 µA/mW
1.5 A
2.5 V
10.5 kΩ
4200 K
4.5 W
5.5 W
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 (20 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.
2700-TE Series Pumps | 5
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 us-
ing power supplies, the laser diode should be
connected with the main power on and the out-
put voltage at zero. The current should be in-
creased slowly while monitoring the laser diode
output power and the drive current. Careful at-
tention to heatsinking and proper mounting of
this device is required to ensure specified per-
formance 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
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.
14-PIN MODULE LABEL
01/01/02 27-ABC123
27-xxxx-xxx-TE
SHIPPING BOX LABEL
Serial:
27-ABC123
Model:
27-xxxx-xxx-TE
JDS Uniphase
3530 Bassett St
Santa Clara, CA 95054
OUTPUT POWER AND LASER EMISSION INDICATOR LABEL
DANGER
INVISIBLE LASER RADIATION -
AVOID DIRECT EXPOSURE TO BEAM
PEAK POWER 500 mW
WAVELENGTH 630 - 1,550 nm
CAUTION -
Handle with care. Easily damaged
by electrostatic discharge
INVISIBLE
LASER DIODE
AVOID EXPOSURE
This product complies with 21 CFR Chapter 1, Subchapter J
CLASS 3B LASER PRODUCT
Visible/invisible
radiation emitted
from fiber end or
fiber receptacle
Ordering Information
For more information on this or other products and their availability, please contact your local JDS Uniphase account manager
or JDS Uniphase directly at 1-800-498-JDSU (5378) in North America and +800-5378-JDSU worldwide or via e-mail at
sales@jdsu.com.
27-xxxx-xxx-TE
Minimum Kink Free Power (see Table 2)
Peak Wavelength (see Table 3)
Telcordia is a registered trademark of Telcordia Technologies Incorporated.
PureMode is a registered trademark of Corning Incorporated.
North America toll-free: 1-800-498-JDSU (5378)
Worldwide toll-free: +800-5378-JDSU
www.jdsu.com
All statements, technical information and recommendations related to the products herein are based upon information
believed to be reliable or accurate. However, the accuracy or completeness thereof is not guaranteed, and no responsibility is
assumed for any inaccuracies. The user assumes all risks and liability whatsoever in connection with the use of a product or its
application. JDS Uniphase reserves the right to change at any time without notice the design, specifications, function, fit or
form of its products described herein, including withdrawal at any time of a product offered for sale herein. JDS Uniphase
makes no representations that the products herein are free from any intellectual property claims of others. Please contact JDS
Uniphase for more information. JDS Uniphase and the JDS Uniphase logo are trademarks of JDS Uniphase Corporation. Other
trademarks are the property of their respective holders. Copyright JDS Uniphase Corporation. All rights reserved.
I copied the code to DDR space with 6410 naked running, but now I find that the interrupts have been upgraded to the interrupt function, and all interrupts are not responded. Is it necessary to make o...
I want to make a CC2530 board and use a 50 ohm whip antenna. The PCB traces need to be impedance matched. Where should I start with this matching? Should the trace from the 2.2PF capacitor C254 to the...
[size=5][color=#4b0082]A Full Facet of ADC Input Noise – Is Noise a Good Thing or a Bad Thing? [/color] [/size][size=5][color=#0000ff]All analog-to-digital converters (ADCs) have a certain amount of “...
I saw a very good article from ittbank, which explained the RF chip industry chain very clearly. I would like to share it with you.Source: ittbank official account▲Overview of the evolution of global ...
NXP MCU
京公网安备 11010802033920号
EEWORLD
