Date of Award
3-2023
Document Type
Thesis
Degree Name
Master of Science
Department
Department of Electrical and Computer Engineering
First Advisor
Barry E. Mullins, PhD
Abstract
This work investigates stacked optics detection methodologies to successfully detect and identify observational systems with a cyber-physical sensing tool, ODIN (Observational Device Identification Network). ODIN successfully detected the presence of stacked optics and LiDAR systems using night-vision devices with a 96.32% average accuracy rating, both overt and covertly placed, with objective lens diameters ranging from 17 mm to 50 mm at distances between 1 m to 5 m with and without commonly employed anti-reflective countermeasures. ODIN provides a foundation for counter- measure capabilities of NIR devices and stacked optical systems in stationary environments. Additionally, a pilot study on smartphone LiDAR emission was conducted to demonstrate an asymmetric threat capable of defeating traditional concealment TTPs. This work concludes by stressing the current vulnerabilities presented by modern smartphones which can be used as an adversarial espionage device or may cause inadvertent exposure in expeditionary environments. Lastly, research and technology recommendations are provided to defend against surveillance efforts, conduct counter- surveillance, obfuscate night vision capabilities, and reduce the risk of friendly fire incidents in the field.
AFIT Designator
AFIT-ENG-MS-23-M-053
Recommended Citation
Reyneke, Michael A., "Detection and Identification of Covert Devices using Infrared and Stacked Optics Detection" (2023). Theses and Dissertations. 6936.
https://scholar.afit.edu/etd/6936
Comments
A 12-month embargo was observed.
Approved for public release. Case number on file.