An SDA burst-mode waveform optimized receiver

The Space Development Agency (SDA) has developed an Optical Communication Terminal (OCT) Standard to ensure system interoperability amongst a number of industry partners by defining critical technical specifications ranging from initial pointing, acquisition, and tracking to data modulation formats and error-correction protocols. In addition to continuous intensity modulated NRZ and Manchester encoded waveforms, Version 4 of the SDA standard also supports Manchester encoded burst-mode waveforms. Burst-mode waveforms offer increased power efficiency at the expense of data rate for longer range applications or SWaP constrained terminals. In the case of optical ground stations, large area, low noise avalanche photodiodes (APD) provide SWaP efficiency by relaxing pointing requirements via an increased receiver field-of-view relative to fiber-coupled receivers. Additionally, large area APDs allow for coupling of light distorted by the atmosphere so wavefront correction using adaptive optics is not required. In this work, we present initial performance characterization results of a burst-mode optimized APD-based receiver in tandem with an SDA burst-mode waveform compliant modem.

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Published
2025-09-18
DOI
https://doi.org/10.1117/12.3063860
Primary Topic
Advanced Wireless Communication Techniques
Type
article
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An SDA burst-mode waveform optimized receiver

William S. Rabinovich, Wade T. Freeman, Mike S. Ferraro, Rita Mahon et al.
Advanced Wireless Communication Techniques
article

An SDA burst-mode waveform optimized receiver

William S. Rabinovich, Wade T. Freeman, Mike S. Ferraro, Rita Mahon, Zachary T. Zern, Austin Singh, James L. Murphy, David T. Wayne
article en

Abstract

The Space Development Agency (SDA) has developed an Optical Communication Terminal (OCT) Standard to ensure system interoperability amongst a number of industry partners by defining critical technical specifications ranging from initial pointing, acquisition, and tracking to data modulation formats and error-correction protocols. In addition to continuous intensity modulated NRZ and Manchester encoded waveforms, Version 4 of the SDA standard also supports Manchester encoded burst-mode waveforms. Burst-mode waveforms offer increased power efficiency at the expense of data rate for longer range applications or SWaP constrained terminals. In the case of optical ground stations, large area, low noise avalanche photodiodes (APD) provide SWaP efficiency by relaxing pointing requirements via an increased receiver field-of-view relative to fiber-coupled receivers. Additionally, large area APDs allow for coupling of light distorted by the atmosphere so wavefront correction using adaptive optics is not required. In this work, we present initial performance characterization results of a burst-mode optimized APD-based receiver in tandem with an SDA burst-mode waveform compliant modem.

United States Naval Research Laboratory (US), United Kingdom Space Agency (GB), National Space Research and Development Agency (NG)
Openalex Percentile: Top 75%
Advanced Wireless Communication Techniques
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