Dr. Philippe Tissot
Assistant Professor of Physics

 

Research Summary

Dr. Tissot's research presently focuses on two areas:
(1) The development and application of machine learning techniques for the modeling of environmental systems
(2) Various case studies in environmental radioactivity.


Dr. Tissot has advised students at the undergraduate and graduate level in both areas of research.

(1) Development and application of machine learning techniques for the modeling of environmental systems: Dr. Tissot is part of a group of Mathematicians and Geoscientists investigating the potential of machine learning techniques for nonlinear environmental systems. The goal is to develop new techniques that take advantage of the increasing availability of measurements generated by the Earth Observation Systems. Past and present projects have included the development, comparative performance assessment and in one case the implementation of Artificial Neural Network (ANN) models. Case studies have included predictive models of water levels and storm surges, spring flows in a karst aquifer, and indicator bacteria concentrations in coastal recreational waters. The work is conducted in close collaboration with the TAMUCC Division of Nearshore Research (DNR), the Center for Water Supply Studies (DNR), members of the Mathematics faculty and the Weather Forecasting Offices of Corpus Christi and Brownsville. A ANN based real-time water level predictive model for the coast of Texas is being implemented and is accessible through the DNR website.

(2) Case studies in environmental radioactivity: Dr. Tissot and his students operate a low radiation background gamma ray spectroscopy station complemented with coring equipment (soils and sediments) and radon monitoring equipment. A long-term project is to better understand Naturally Occurring Radionuclide Material (NORM) transport from a group of former open pit uranium mines in South Texas and its potential historical environmental impact. Other projects include monitoring radon exhalation from soils and radon concentrations in water, measuring recent (decades) sedimentation rates through radionuclide cores of sediments and soils.