MAFA 1000 Series Erbium Doped Fiber Micro Amplifier
EMCORE’s MAFA 1000 Series Erbium Doped Fiber micro Amplifier (μEDFA)
Gain Block Module is an ideal building block for OEM system integrators. The
family of MAFA 1000 EDFA Gain Blocks is designed to meet the most demanding
noise performance requirements of fiber optic communications and control
systems, and performs all the functions required of an optical amplifier for system
integration.
MAFA 1000 series EDFA Gain Blocks provide input and output optical isolation for
stable, low noise operation. The input and output optical signal power levels are
detected for monitoring and control. The input optical signal is amplified with
active gain control for a constant output power level or with active output power
control for constant gain mode operation.
The MAFA 1000 series EDFA Gain Blocks also provide monitors and associated
alarms for all critical operating parameters. The optical output of the MAFA 1000
series EDFA Gain Blocks can be split into multiple ports by optional external
splitter. Optional back reflection monitoring feature enables safe output optical
power managing.
The compact mechanical footprint of the MAFA 1000 allows using this unit to be
installed in small space environments.
Applications
CATV Systems
Long Distance RF/Microwave Fiber
Optic Communication Links
Sensing and Control Systems
High Performance Supertrunking Links
High Power Distribtuion Networks
Redundanct Ring Architectures
FTTx Networks
Features
Full Function Fiber Optic Amplifier
Ready for Integration
Low Noise Figure (Typ < 4.5 dB)
Pin: -6 dBm to +12 dBM
Pout: +14 dBm to +23 dBm
RS-232 Monitor and Control Interface
(SNMP V.1 is also possible)
Standard and Optional Gain Flatness
Low Electrical Power Consumption
Input/Output Isolation >40/40 dB
Polarization Dependant Gain < 0.1 dB
Polarization Mode Dispersion < 0.2 ps
Input & Output Return Losses < -40 dB
Output Residual Pump Power < -30 dBm
Back Reflection Monitoring
|
REV 2012.09
Information contained herein is deemed reliable and accurate as of the issue date. EMCORE reserves the right to change the design or specification at any time without notice.
MAFA 1000 Series EDFA
DATASHEET | SEPTEMBER 2012
FIBER OPTICS
Optical/Electrical Characteristics
1
Property
Unit
Limit
1014
Operating Input Power
Operating Input Power
Output Power
Noise Figure
Static Gain Flatness
Dynamic Gain Flatness
Output Power Stability
Power Consumption
(Steady state)
Pin (dBm)
Pin (dBm)
Po(dBm)
NF (dB)
ΔGs
(dB)
ΔGd
(dB)
(dB)
Psys(W)
Max
Min
Nominal
Typ
Max
Max
Max
Max
12
-6
14
+/-.25
4.0 dB
+/-0.5
+/-1.0
+/- 0.1
2
Models
1017
12
-6
17
+/- .25
4.0 dB
+/-0.5
+/-1.25
+/- 0.1
3
Comments
1022
12
-6
22
+/- .25
4.0 dB
+/-0.5
+/-2.0
+/- 0.1
6
1020
12
-6
20
+/- .25
4.0 dB
+/-0.5
+/-1.5
+/- 0.1
5
1023
12
-6
23
+/- .25
4.0 dB
+/-0.5
+/-2.0
+/- 0.1
8
Typical
(May vary for some models)
Note 2
@ Pin = 0 dBm, no Pin monitoring
(Notes 3, 7, 8)
(Notes 4)
(Notes 5, 7)
(Note 6)
70 C Case
o
Notes:
1. Unless stated otherwise, all specifications apply over the full operating temperature and humidity ranges
0 dBm. Measuring with 1 input optical signal with Pin
≈
0 dBm and
≈
1550 nm is also available
4. Measured with a swept Probe Signal (Pp), where Pp
≈
0 dBm @ 25C
5. Measured with a swept Probe Signal (Pp), and a fixed Tone Signal (Pt) @ ~ 1550 nm; (Pt
≈
Pp+20 dB; Pt + Pp
≈
0 dBm)
@ 25C; Gain Flattened Options with
ΔG ≤
+/-0.75dB or
ΔG ≤
+/-1.0dB are available (for
some models and for defined
input optical power only)
6. Over polarization and temperature
7. Specific
ΔG
can be guaranteed at a single specified Input Optical Power Level (Pin = Pt + Pp) equal or different from 0
dBm
8. If input power monitoring and input isolation are required then typical NF (Typ) for all units @ Pin = 0 dBm as
4.5 dB
General and Mechanical Specifications
Property
Operating Wavelength
Operating Case Temperature
Storage Temperature
Operating Humidity
Voltage Supply Range
Optical Connectors
Dimensions (mm)
Requirement
1532nm ~ 1565nm
0C to 50C
-40C to 85C
20% to 85%
+12VDC/+5VDC/+3.3VDC
SC; FC; E2000
70 x 90 x 15
Comments
Standard
Standard*
Standard
Non-condensing
All versions**
User Specified
All versions
* - Extended temperature range of –40C to +75C is also possible
** Transient Pulse to +X.XVDC + 5% for < 100 msec
|
REV 2012.09
Information contained herein is deemed reliable and accurate as of the issue date. EMCORE reserves the right to change the design or specification at any time without notice.
MAFA 1000 Series EDFA
DATASHEET | SEPTEMBER 2012
FIBER OPTICS
Outline Drawing (dimensions in mm)
Compliance and Reliability Information
FCC: Subpart B. Part 15 class “A”: Unintentional Radiators
EN 55013: Sound and Television Broadcast receivers and associated equipment – Radio disturbance characteristics- limits
and methods of measurements – Electric Field Radiation Emissions (2001)
Fit Rate: 90% level of confidence - 290 @ 25C
|
REV 2012.09
Information contained herein is deemed reliable and accurate as of the issue date. EMCORE reserves the right to change the design or specification at any time without notice.
MAFA1014-SC-00-S-2: 14 dBm gain block with SC/APC optical connectors, standard NG/GF, standard temperature range,
+5VDC power supply
Note:
Only some models can be order with Gain Flattened options. (-01 suffixes).
Please contact your Sales Representative
for details
|
REV 2012.09
Information contained herein is deemed reliable and accurate as of the issue date. EMCORE reserves the right to change the design or specification at any time without notice.
MAFA 1000 Series EDFA
DATASHEET | SEPTEMBER 2012
FIBER OPTICS
Laser Safety Information
This product meets the applicable requirements of 21 CFR 1010 & 1040 and is classified as a Class IV laser product based
on the maximum optical output power shown below. During use as intended, the laser energy is fully contained within the
fiber network such that there is no accessible laser radiation and would meet the requirements for a Class I laser product.
The laser product report has been submitted to the CDRH and the accession number is expected by October 2006.
Wavelength = 1535 ~ 1565 nm (dependant on input source)
Maximum Output Power = 0.2 W (single output, 23 dBm model)
|
REV 2012.09
Information contained herein is deemed reliable and accurate as of the issue date. EMCORE reserves the right to change the design or specification at any time without notice.
The 14-series and 14-parallel driving schematic is as follows:
Flyback type, output 51v constant current 420ma;
There is a 3-4 second delay when powering on;
If the starting resistors R9, R10, R21, R2...
APM32 has a built-in RTC as shown belowIt says that you can choose LSI, so I want to test the accuracy of using LSI.
I have used ST products, and LSI products are not very accurate either. Some produc...
In the typical half-bridge, full-bridge, and push-pull circuits shown in the figure (the topology of the secondary side is the same, so I would like to ask questions about this together) [/size] [size...
I connected a capacitor to the output of the signal generator and then connected it to the microcontroller pin. I tried to measure the frequency, but it didn't work. If I don't connect the capacitor, ...
Entering the information age after the millennium, the huge demand for semiconductor chips has made China the world's largest semiconductor market. According to relevant data, the scale of my count...[Details]
On April 20, Alibaba Group announced that it would acquire
the
chip
company Zhongtian Microelectronics and invest in six
chip
companies. Yesterday, JD.com CEO Liu Qiangdong said in a...[Details]
China Energy Storage Network News:
According to reports, in order to reduce carbon emissions, a group of Japanese technology and energy companies are launching a pilot project that aims to al...[Details]
1. Test conditions Hardware: STM32L432KC Main frequency: 80MHz Compiler: IAR 8.20.1 Compiler options: High Speed no size constraints CRC generator polynomial: 0x782f 2. Test Method The softwar...[Details]
A few days ago, Hanergy Chairman Li held a grand launch of Hanwa new products, which once again attracted the attention of the mass media to the development of photovoltaics. The unique Hanergy has gr...[Details]
The application of millimeter wave technology in mobile communications also involves a series of technical problems, including the large propagation loss of millimeter waves and the susceptibility ...[Details]
This routine is also a classic routine on the development board. I modified the framework of the program to make it more suitable for future calls. The specific 4*4 keyboard scanning principle is rel...[Details]
From small households to large enterprises, energy consumption has always been a concern for everyone. The energy consumption of Chinese enterprises has always been high, and the country has also wor...[Details]
On May 16, in response to
the public opinion storm caused by
Lenovo's
"
5G
voting" incident,
Lenovo
Holdings Chairman and
Lenovo
Group Founder Liu Chuanzhi, Lenovo Gr...[Details]
As shown in the figure, the author soldered a STM32F207VET6 board using a TQFP (32-100PIN) 0.55MM to direct plug adapter board. The board leads out the SWD debug interface (only PA13 and PA14 are occ...[Details]
Here is the temperature added in the previous chapter The above figure is the temperature calculation formula: where Vsense is the ADC value collected from the temperature channel. The stm32f407 ...[Details]
Use common anode digital tube and independent keyboard to connect P1 and P2 ports of single chip to realize answering machine The procedure is as follows: #include reg52.h void delay(unsigned char n)...[Details]
Single-chip microcomputer experiment design: It is required to use 8951 series single-chip microcomputer, design a pulse generator with a pulse width duty cycle of 50%, 25% adjustable, and a period o...[Details]
Assume that both the augend NA and the addend NB are three-byte compressed BCD codes, which are stored in the internal RAM units 20H~22H and 30H~32H, respectively, with the low digit first and the hi...[Details]