Propagation Through and Characterization of Atmospheric and Oceanic Phenomena (pcAOP)
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Propagation Through and Characterization of Atmospheric and Oceanic Phenomena (pcAOP)
Propagation Through and Characterization of Atmospheric and Oceanic Phenomena (pcAOP) explores laser systems that propagate light through the atmosphere and oceans, along with novel methods of characterizing, modeling and simulating the impact of these environments on light propagation.
This topical meeting covers the effects of optical turbulence, aerosols, meteorological and other environmental phenomena on light propagation, techniques to mitigate and compensate for these effects and optical test ranges around the world. Fundamental progress in characterizing, modeling and simulating these environments enhances the community’s understanding of the impact and improves the ability to design and build more resilient optical systems that perform better. Novel techniques, including machine learning methods to address the above challenges, fall within the scope of this topical.
Presented work will include applications such as astronomical imaging, ground-based imaging of satellites, free-space optical communication, lidar, laser-based remote monitoring of the environment and long-range passive and active imaging. Presenters are encouraged to share their experiences relating to the research challenges in these application areas.
If you are looking to submit your papers for consideration by the pcAOP committee, please consider submitting to the following referenced topics in the full list of topic categories and identify pcAOP as your topical of choice:
1. New technologies and phenomena in sensing, image capture and displays
1.6. Structured illumination
2. System architecture and co-design for sensing, imaging and displays
2.2. Flow sensing
2.3. Remote sensing
3. Image and signal processing and computational techniques
3.4. Radiative transfer modeling
3.5. Real-time wavefront sensing
5. Industrial, security, agriphotonic and environmental applications
5.6. Aerosol and microplastic detection
5.7. Atmospheric and oceanic propagation modelling and studies
5.8. Underwater imaging and communications
6. Astronomy, space and remote imaging applications
6.3. Free space optical communications
6.4. Ground-based telescopes and exoplanet detection
6.7. Turbulence profiling
Committee Members
- Leda Sox, Georgia Tech Research Institute, United States