Satellite Communications & Space

As we push the limits of global connectivity, earth observation and space science, one thing is clear: there is continuous demand for faster data rates and more precise measurements. For greater bandwidth and improved resolution in these systems we need to move beyond conventional microwave sources used today to higher frequency sources in the mmWave and Sub-THz bands as well as advanced optical sources. Traditional electronic approaches face steep hurdles—limited bandwidth, noise issues, power dissipation and bulky hardware. This makes it difficult to deliver the signals demanded by next generation applications.

Key Challenges & Drivers

  • High-Frequency Stability:

    Satellite communication requires ultra-stable, low phase noise frequency sources and laser sources.

  • Size, Weight and Power:

    Photonic solutions are smaller, lighter and more power efficient than traditional RF and electronic approaches.

  • Harsh Conditions:

    Sources must withstand radiation, temperature fluctuations, and vacuum conditions.

How Pilot Photonics Solves These Challenges

iCLA™ for mmWave & Sub-THz Applications:

Enables high-frequency carrier generation for 6G and satellite-based mmWave links.

iCLA™ for mmWave & Sub-THz Applications:

Enables high-frequency carrier generation for 6G and satellite-based mmWave links.

Pilot’s nano-iTLA

 offers fast, precise wavelength tuning for ground to satellite optical communication.

Pilot’s nano-iTLA

 offers fast, precise wavelength tuning for ground to satellite optical communication.

Pilot Photonics Enabling single-chip photonic integrated circuits with comb-enhanced capabilities at wafer scale, today.

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