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High Performance Semiconductor Optical Amplifier (SOA) PULSE and CW Mode Control Electronics and Mounting Module

  • Pulse Driver for SOA Semiconductor Optical Amplifier
  • Pulsed SOA Laser Driver
  • diode laser pulse driver set up graphic
  • SOA Driver - Pulsed Driver for lasers
  • High Performance SOA Pin Configuration

$4995.00  
sku / item#: SOA-HPP / Control and Mount Module
ships: 1 to 2 weeks

Key Features
  • The High Pulse Performance SOA pulse driver allows the user to employ a semiconductor optical amplifier (SOA) to create a high speed, high dynamic range fiber optic modulator. It is a high performance alternative to an AOM or an EOM fiber modulator.
  • HOW IT WORKS: A CW laser diode source (customer supplied) is used as the input to the SOA. The SOA (customer supplied) is mounted in the SOA-HPP unit. When the bias current driving the SOA is switched ON/OFF in a high repetition rate pulsed mode, the result is a fiber optic modulator which offers multiple advantages over traditional modulator technologies.
  • Offered by AeroDIODE, a Laser Lab Source Marketplace Seller
  • Sold & Supported in North America by: LaserDiodeControl.com, part of the
    Laser Lab Source Marketplace Group

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MODEL SOA-HPP / Control and Mount Module
PRICE $4995.00
SOA PULSED DRIVER SPECIFICATIONS
  • Pulsed Output Current Range: 0 - 3500 mA
  • CW Output Current CW (continuous) Mode: 0 – 1000 mA
  • User Ajustable Pulse-Width Range: sub-1 nanosecond to CW
  • Output Voltage Maximum: 4.8 Volts
  • Set-point Resolution @ 500 mA: 0.1mA
  • Repetition Rate Range: 1 Hz to 250 MHz
  • Jitter: < 8 psec
PULSE GENERATION MECHANISMS ( 3 MODES)
  • Internal Pulse Generator: On-board pulse generator
  • External Trigger to Internal Pulse Generator: User supplied LVTTL signal triggers (on the rising edge) the internal generator to deliver the pulse. The pulse parameters are set in the internal pulse generator and the pulse is delivered from the internal generator.
  • External Trigger Pulse Generator: Pulse duration is the same as the external trigger pulse duration
USER INTERFACE, POWER INPUT & DIMENSIONS
  • USB with Control Software GUI Included
  • DLL Library for C programming and Hexadecimal Protocol are available at no charge
  • Analog (0 – 3.3V) Remote Signal Peak Power Adjustment and Front Panel Adjustment Knob
  • Input Power Supply: 12VDC (220V/110V adapter included)
  • Dimensions: 146mm (W) x 130mm (L) x 37mm(H)

Product Overview:

Using a High Pulse Performance SOA-HPP Unit to Create a
High Performance Fiber Optic Modulator:

The SOA pulse driver allows the user to employ a semiconductor optical amplifier to create a high speed, high dynamic range fiber optic modulator. It is a high performance alternative to an AOM or an EOM fiber modulator.

A CW laser diode is used as the input to the SOA. When the bias current driving the SOA is switched ON/OFF in a pulsed mode (with adjustable speed up to > 1 GHz), the result is a fiber optic modulator which offers multiple advantages over traditional modulator technologies. These units can be configured for wavelengths from 750 nm to 1700 nm. It is a lossless, high extinction ratio and highly polarized modulator solution.

The "SOM" Semiconductor Optical Modulator:

When configured with a CW laser diode input and with and an SOA installed in the pulser, the user creates an "SOM". SOM stands for Semiconductor Optical Modulator. Here are a few of the many advantages an SOM offers relative to an AOM, EOM or directly pulsed laser diode solution:

  • The dynamic range of an SOM is higher than that of an EOM or an AOM. An AOM / EOM is typically limited to < 30 dB, and often less since there is a strong polarization dependency. An SOM offers a higher dynamic range, typically > 48 dB with a high extinction ratio > ~ 50 dB

  • An SOM has no polarization rotation dependencies, whereas both an EOM and an AOM typically are highly susceptible to polarization dependencies

  • The spectrum of an SOM remains the same along the entire pulse, whereas when directly pulsing a laser diode, the user must consider the undesirable spectral effects which can occur from coupling of the frequency/phase spectrum and intensity profile

  • The SOM is the only commercially available solution which also functions as an optical isolator for the laser input source

  • Type-1 Standard SOA Pin Configuration:

    The SOA-HPP can be ordered for any butterfly package pin configuration. Because most SOA devices are offered in Type-1 packages, SOA-HPP is pre-configured for this package type. Impedance matching is a critical factor in delivering clean high speed pulse performance. This is why the SOA-HPP unit is pre-set for your SOA's pin configuration. Please refer to the image carousel above to view available pin settings.

    Pre-Set Impedance Matching Improves your SOA's Pulse Mode Performance:

    When the impedance from the pulsed current source PCB is not properly matched to the SOA butterfly package pins, significant pulse degradation can occur. This is often seen as distortion of the SOA output pulses and/or overshoot of the pulses. The SOA-HPP unit is designed to reduce and/or eliminate this pulse degradation by matching the nominal impedance of the butterfly package with the pulse transmission line. Current sources inherently have a high output impedance and SOA's have very low impedance. The most important requirement of proper impedance matching is matching the impedance of the load to the impedance of the transmission line. The inductance of a butterfly packaged SOA ranges from a few nanohenries to tens of nanohenries. From inductance theory, 𝑑𝑖/𝑑𝑡 is the rate of change in current over a specific period in amperes per second. The voltage increases with the inductance and with the rate of the change of the current. Energy stored in the inductor's magnetic fields during the pulse has to be released when the pulse ends. This creates a voltage, which in turn creates a new current, which in turn creates a new magnetic field on the transmission path. This creates a “loop” which manifests as “ringing” on the pulse waveform and on other distortions to the pulse shape. The SOA-HPP current output transmission path has been carefully designed to match the current source impedance to the butterfly packaged SOA.

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