Quantum LiDAR Raytracing

Developing quantum-enhanced LiDAR requires a deep understanding of the water medium’s optical properties, which vary with environmental factors. To address this, an oceanic model was created to estimate system performance based on water’s scattering and absorption traits, though it currently simplifies these as identical. In the proposed project, this will be refined. System analysis is equally vital, focusing on beam behavior, optical compatibility, and signal processing using Phantom Photonics’ interferometric approach. A raytracing-based scattering model is being developed to optimize pulse duration and ensure device stability. In parallel, a fiber-based LiDAR system is in development to improve precision, data quality, and SWaP metrics, allowing deployment at depths up to 6000 meters. Interns will support this work, especially by adapting existing free-space optics models for underwater use. These combined efforts aim to boost performance, reliability, and the commercial appeal of Phantom Photonics’ LiDAR systems.

Faculty Supervisor:

Thomas Jennewein

Student:

Partner:

Phantom Photonics

Discipline:

Mathematics

Sector:

Manufacturing; Professional, scientific and technical services

University:

University of Waterloo

Program: