Optronic Requirements in Operational Environments

Modern security and defense systems rely on mastering the electromagnetic spectrum to monitor surroundings, detect remote events, and preserve platform integrity. However, integrators face significant constraints: traditional optical architectures, such as QCLs and OPOs, do not always simultaneously provide useful power, mechanical stability, and beam quality.

Achieving and maintaining a high-power single-mode output with conventional non-fiber sources often requires complex designs that are sensitive to environmental stress. When that single-mode beam quality is lost, it reduces the effective range and the precision of interaction with distant optical targets. Furthermore, these sources require sensitive optical alignments and bulky active cooling systems. These characteristics directly impact SWaP (Size, Weight, and Power) parameters. They complicate onboard integration and can affect operational availability, whereas platform-protection applications demand immediate, reproducible performance.

Power up to 10 W (CW / QCW)

Power up to 10 W (CW / QCW)

Compatible with active protection architectures and Directed Infrared Countermeasures (DIRCM).

Near diffraction-limited Beam Quality (M²<1.3)

Near diffraction-limited Beam Quality (M²<1.3)

Enables precise long-range optical interaction with infrared systems.

All-Fiber Architecture

All-Fiber Architecture

No critical optical alignment required; high tolerance to vibrations.

Operational readiness

Operational readiness

Nominal performance achieved without warm-up cycles, ensuring rapid response in mission-critical situations.

High Spectral Stability

High Spectral Stability

Linewidth <0.15 nm, providing the precision required for high-resolution spectroscopy and molecular sensing.

Applications

  1. Platform Protection (DIRCM / Countermeasures)
    Disrupting portable infrared missile seekers (MANPADS) to increase the survivability of aircraft and vehicles.

  2. Target Designation and Discrete Illumination
    High-precision target marking in a MWIR band that is poorly observable by conventional night vision devices.

  3. Remote Sensing
    Remote identification of hydrocarbons, explosives, and CBRN agents via spectral absorption signatures.

  4. Optronic Sensor Neutralization (Dazzling)
    Temporary or permanent reduction of adversarial observation capabilities through optical glaring.

  5. Active Night Vision Illumination
    Provides high-power, discrete illumination to enhance multispectral imaging clarity through smoke, fog, or total darkness at extended ranges.

Architecture and Integration

  1. Mechanical Stability
    Absence of free-space optics and low sensitivity to vibrations.

  2. Optimized SWaP
    Reduced volume and mass for easier onboard integration.

  3. Energy Efficiency
    Power consumption optimized for battery-powered systems.

  4. Canadian Manufacturing
    Industrial traceability and direct technical support for sensitive programs.

Technical Comparison

  LumIR Fiber Laser (2800/3200) QCL / ICL Sources OPO Systems Er:YAG
Power ••• •• •••
System Robustness ••• ••• ••
Thermal / Power Mgmt •• ••
Warm-up Time ••• •••
Beam Quality ••• •••
Ease of Integration ••• ••• ••
  Slide to compare      

Technical Note: QCL/ICL devices require precise electrical and thermal driving to maintain spectral performance. OPOs rely on stable optical alignment. Fiber architectures dissipate heat along the active length and do not require critical optical alignment, simplifying integration and improving stability in mobile environments.

A MWIR source designed for systems and platform protection.

Need a specific wavelength or integration support? Our technical teams can assist in defining your system architecture.