Engineered for Extreme Environments

Fiber Photonic Solutions for Defense & Aerospace Applications

Defense and aerospace systems operate in some of the world’s most challenging environments, where reliability, precision, and durability are mission-critical. Ultrafast and quasi CW fiber lasers play a key role in advanced sensing, inertial GPS denied navigation, communication, and monitoring applications, requiring stable performance under extreme temperatures, vibration, and other harsh operating conditions. Ampliconyx develops high-performance fiber laser technologies that deliver exceptional stability, robustness, and precision for demanding defense and aerospace applications.

Typical Applications

  • High-Power Fiber Amplification
  • Optical Free-Space & Satellite Communications (FSO)
  • Airborne & Defense LiDAR Integration (3D Terrain Mapping & Bathymetry)
  • Fiber Optic Gyroscopes (FOG) & Inertial Navigation
  • High-Brightness Target Illumination & Range Finding

Use Cases

LiDAR

Defense and aerospace applications demand advanced laser and amplification technologies for optical sensing, LiDAR, spectral analysis, high-power laser systems, and ultrafast signal processing. Ampliconyx addresses these requirements with high-performance fiber lasers and gain modules that deliver exceptional beam quality, high spectral and temporal stability, and efficient ultrafast and high-power fiber amplification, enabling accurate detection, reliable signal processing, and mission-critical performance in demanding environments.

Recommended Products for Defense & Aerospace

Gain Module AMPX-Tm-TGM

Key Specs:

  • Peak Power: up to 5 kW
  • Excellent Beam Quality (M² < 1.4)
  • Low non-linearity through patented Thulium T-DCF technology

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Gain Module AMPX-TGMC

Key Specs:

  • Output Power: up to 100 W
  • Single-mode Beam Quality (M² typically 1.1)
  • Large mode area T-DCF design minimizing nonlinear effects

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Gain Module AMPX-TGM

Key Specs:

  • Peak Power: Kilowatt to Megawatt level peak power handling
  • Average Output Power: up to 650 W
  • Excellent Single-Mode Beam Quality (M² < 1.4)
  • Environment: All-fiber, spliceable design resistant to severe vibration, shock, and thermal shifts
  • Key-note: Ideal as robust power amplifier stages in MOPA architectures for airborne and defense payloads

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Gain Module AMPX-TGMD

Key Specs:

  • Output Power: 140 W
  • Excellent Single-Mode Beam Quality (M² typically 1.2)
  • Low nonlinear effects through patented T-DCF technology

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Pulsed Nanosecond Laser AMPX-NsL

Key Specs:

  • Wavelength Options: 980, 1030, 1040, 1064, and 1550 nm
  • Pulse Duration Tunable from 0.5 to 3.0 ns
  • Repetition Rate: Pulse-on-Demand to 20 MHz

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FAQ – Frequently Asked Questions

The AMPX-NsL Pulsed Nanosecond Laser is specifically designed for LiDAR, optical sensing, and spectral analysis applications, offering multiple wavelength options, tunable pulse durations, and flexible repetition rates for precise signal generation.

Ampliconyx gain modules utilize patented T-DCF technology to deliver high peak and average powers while maintaining excellent beam quality and minimizing nonlinear effects, making them ideal for ultrafast laser amplification and high-power fiber laser architectures.

Ampliconyx fiber lasers and gain modules combine high spectral and temporal stability, robust fiber-based designs, and exceptional beam quality to ensure reliable performance in mission-critical sensing, communication, and monitoring systems.

Ampliconyx addresses strict SWaP-C and environmental constraints through an all-fiber, monolithic MOPA architecture that completely eliminates free-space optics, alignment drift, and mechanical vulnerability to launch vibrations or high g-forces. By leveraging patented Tapered Double-Clad Fiber (T-DCF) technology, our gain modules achieve exceptionally high clad pump absorption (>20 dB), allowing for significantly shorter active fiber lengths that drastically reduce physical package volume and mass. Additionally, T-DCF maintains a stable, single spatial mode (LP01) across extreme operating temperature ranges without suffering from Thermal Mode Instability (TMI) or nonlinear pulse distortion. This combination delivers megawatt-level peak power scalability in a compact, lightweight, and maintenance-free OEM footprint engineered for harsh field environments.