- Cart
- |
- Personal Center
- |


1000nm Broadband Semiconductor Optical Amplifier
This product is a high-performance broadband semiconductor optical amplifier designed specifically for the 1000nm near-infrared band. Based on the InGaAs/InP material system, a quantum dot active region design is adopted, and an anti reflective coating (reflectivity<0.001%) is deposited on the end face to effectively suppress Fabry Perot oscillation. The device provides a 100nm ultra wide gain bandwidth and a small signal gain of up to 33dB, which can simultaneously amplify multiple wavelength signals within this band. It is widely used in fields such as swept frequency light sources, optical coherence tomography (OCT), fiber optic sensing, and tunable lasers
Product features:Wide gain bandwidth; high output power; low noise; broad wavelength coverage; compact design
Part Number:MP-SOA-1000-30db-100-XA
Application area:Fiber Communication | Spectral Analysis | Optical Testing | National Defense Sensing | Data Center
Add to Cart Request for Quotation Consult Favorite
Operating Wavelength Operating Bandwidth
1000nm 100nm

Detailed Specifications
Recommended Operating Conditions
@ CW, housing mounted on a heat sink at room temperature
Parameter | Min. | Typ. | Max. | Unit |
Chip Temperature | 20 | 25 | 30 | °C |
Forward Current | — | 500* | 600 | mA |
Input Optical Power | -40 | -25 | 10 | dBm |
* The current for maximum gain spectral width may vary by batch.
Gain Characteristics
@ CW, 25°C, 600 mA, input signal: -25 dBm at maximum gain wavelength
Parameter | Min. | Typ. | Max. | Unit |
Small-Signal Gain @ 400 mA | 27 | 32 | — | dB |
Saturated Output Power @ 400 mA (-3 dB) | 14 | 17 | — | dBm |
Average Gain Wavelength | 985 | 1000 | 1015 | nm |
Gain Bandwidth (FWHM) | 80 | 100 | — | nm |
Gain Spectrum Tilt | — | 1 | — | dB |
Noise Figure | — | 6.5 | — | dB |
Noise Figure Formula:
NF=10log 10(2P ase /Ghν)
[D. Baney et al., Fiber Technology, 6, 122 (2000)]
Amplified Spontaneous Emission (ASE) Characteristics
@ CW, 25°C,600 mA, no input signal
Parameter | Min. | Typ. | Max. | Unit |
Output Power (Per Port) | — | 20 | — | mW |
Forward Voltage | — | 1.7 | 2 | V |
Average Wavelength | — | 1000 | — | nm |
Bandwidth (FWHM) | — | 100 | — | nm |
Spectral Tilt | — | 1 | — | dB |
Ground State Peak Position | — | 1030 | — | nm |
Excited State Peak Position | — | 960 | — | nm |
Ripple (RMS)** | — | 0.02 | 0.2 | dB |
Polarization Extinction Ratio (PER) | 15 | 18 | — | dB |
Polarization | — | TE | — | — |
** Measured within 1 nm range near the spectral peak with 20 pm resolution.
Absolute Maximum Ratings
Parameter | Min. | Max. | Unit |
Output Optical Power | — | 500 | mW |
Input Optical Power | — | 20 | dBm |
Forward Current | — | 800 | mA |
Reverse Voltage | — | 2 | V |
TEC Current | — | 3 | A |
TEC Voltage | — | 4 | V |
Chip Operating Temperature | 10 | 40 | °C |
Housing Operating Temperature | 0 | 70 | °C |
Storage Temperature | -40 | 85 | °C |
Lead Soldering Temperature (Max. 10 s, max housing temperature 120 °C) | — | 300 | °C |
Fiber Bend Radius | 3 | — | cm |
Typical performance (for reference only)
@CW, the case is mounted on room temperature heatsink
Gain spectra at different currents
Gain and Output power vs. Input signal
Gain spectra at different input signals
Spectra of amplified optical signal
ASE spectra(no input signal)
Output power at different input signals

Thermistor Specifications | Fiber Specifications | |||||
Parameter | Value | Unit | Parameter | PM980 | HI1060 | Unit |
Type | NTC | — | Numerical Aperture, typical | 0.12 | 0.14 | — |
Resistance @ 25 °C | 10 ± 0.1 | kΩ | Cutoff Wavelength | 900 ± 70 | 920 ±50 | Nm |
Beta (25–85 °C) | 3435 ± 1% | K | Mode Field Diameter (@ 1060 nm) | 6.6 ± 0.3 | 6.2 ± 0.3 | μm |
| Cladding Diameter | 125±1 | 125±1 | μm | ||
Coating Diameter | 245±15 | 245±15 | μm | |||
Loose Tube Diameter (Optional) | 900 | 900 | μm | |||
Connector | FC/APC (narrow key) | |||||
Connector Alignment aligned with PANDA fiber | ||||||
Output light is polarized along the slow axis of the PM fiber. | ||||||
Operating InstructionsSafety and Operating Instructions
The light emitted by this device is invisible and harmful to human eyes. Do not look directly at the fiber connector during operation. Appropriate laser safety goggles must be worn when operating with the connector uncovered.
Absolute maximum ratings may only be applied to the device for a short time. Long-term operation at or simultaneous exposure to multiple maximum ratings may cause device damage and reduce reliability. Operation beyond the maximum ratings may lead to device failure and safety risks. A matched power supply shall be used to ensure that the maximum forward current is not exceeded.
Devices mounted on heat spreaders require a proper heat sink. Secure the device to the heat sink with four screws (cross-tightened with an initial torque of 0.075 N·m and a final torque of 0.15 N·m) or clamps. The flatness deviation of the heat sink surface shall be less than 0.05 mm. Indium foil or flexible thermal interface materials are recommended between the device base and the heat sink. Thermal grease is not recommended.
Avoid optical back-reflection, which may degrade spectral performance and power stability, and cause catastrophic facet damage. The use of an optical isolator is strongly recommended to suppress back-reflection.
Do not pull the optical fiber. Do not bend the fiber with a bending radius less than 3 cm. Protect the fiber end-face from contamination and damage during installation. After removing the dust cap, clean the fiber end-face in one direction with lens wipes or cotton swabs moistened with isopropyl alcohol or ethanol. Only operate the device with clean fiber connectors.
ESD Protection – Electrostatic discharge is a major cause of unexpected product failure. Strict ESD protection measures must be taken. Maintain ESD control during installation, including anti-static wristbands, grounded work surfaces and standardized anti-static operation procedures.

--
Request for Quotation
We will reply to all your information about the product in time.
⇪