We anticipate bringing on at least one new student in fall 2026, most likely as a Research Assistant, pending funding decisions which should be clearer by late October 2025. The projects will involve the multi-instrument synthesis of optical, radio measurements of lightning with weather radar measurements, and will include hands-on work with instruments and support of field measurements, as well as and treatment of optical signal propagation through clouds. These efforts are aimed at developing an integraed understanding of how flashes develop in response to charge structures generated by meteorological processes, and how small- and large-scale current flows in lightning result in observable signals in research-grade and operational instruments. The Lightning Modeling Grand Challenge our group is helping lead is aimed at a wider, coordinated community effort to tackle these challenges. For further details, please send an email indicating your interest!
Lightning meteorology refers to the relationship of storm electrification and lightning to the thermodynamics, microphysics, kinematics, and dynamics of thunderstorms. We seek relationships of thunderstorm electricity to storm processes that are more than a statistical, empirical best fit. The laws of physics describe and predict the dynamics of the physical coupling of thunderstorm electricity to kinematic and thermodynamic processes that operate in the atmosphere. Study of the problem from this perspective is a harder road, but one that has paid off before in the fruitful post-WW II era in which meteorology was placed on a firm physical-dynamical basis, and ultimately led to the enormous improvement in weather forecasts over the last hundred years. Modern lightning observations position us to make many of the same advances in the study of lightning and storm electricity today.
The physics in question encompass the the conditions for microscale electrification, the distribution of electrical energy, and the means by which it is dissipated:
Practically, the group works extensively in the Python programming language and open-source scientific computing ecosystem that has grown up around it, and every other summer attends the SciPy conference.
Eric received his B.S. and Ph.D. (2008) from the University of Oklahoma while a research assistant at the National Severe Storms Laboratory. From 2008-2010, he worked as a Research Associate at the University of Maryland's Cooperative Institute for Climate and Satellites in the Earth System Science Interdisciplinary Center with the GOES-R Geostationary Lightning Mapper program. He joined the Atmospheric Science faculty at Texas Tech in Fall 2010, where he is currently a Full Professor.
Having watched more of the Weather Channel than the average high schooler, he realized that meteorology was a great fit for his love of math, physics, maps, and computers. As a freshman meteorology major, he got into lightning as a byproduct of taking the first research opportunity he was offered, which exposed him to atmospheric ballooning and the first ever lightning mapping data collected in a major field project. He loves the fractal detail of lightning channels, and the process of lining up 3D lightning datasets with other balloon and radar observations of thunderstorms.
Dr. Bruning received an NSF CAREER award in 2014 to relate the distribution of lightning flash sizes and lightning initiation to the deformation of charge structures by turbulence in thunderstorms, and worked with the painter Tina Fuentes to develop a public art exhibit depicting this relationship. Since 2018 he has developed and supported the data processing method used to create operational displays of GLM data in the US NWS, resulting in ongoing service on the similar EUMETSAT Meteosat Third Generation Lightning Imager mission advisory group. In 2018 he was awarded the 2018 American Geophysical Union Atmospheric and Space Electricity Section Early Career Award, and in 2025 the AMS Electricity STAC Technological Accomplishments Award. He currently serves as President-Elect of the AGU ASE Section.
Observational analyses of ground- and space-based lightning, lightning instrumentation, modeling of optical scattering in thunderstorms
Lightning's relation to the mesoscale environment, radar-inferred kinematics and microphysics.
GLM calibration and validation; West Texas LMA data stewardship; Lightning in lake effect snowstorms.
Radar polarimetry of scattering from lightning plasmas (M.S. 2023–2025 on the TRACER campaign; Ph.D. 2025–)
Modeling of electrification during the Lake Effect Electrification field campaign (2023-)
Cross-sensor validation of operational, research, and photographic lightning datasets (2022-)
Studies of lightning with polarimetric phased array radar (2023-)
Dr. Jessica Souza (2025), Dr. Vicente Salinas (2020), Dr. Vanna Chmielewski (2017)
Matthew Miller (with Jen Henderson), David PeQueen, David Newbern, Cameron Nixon, Kelley Murphy, Candace Wood, Matthew Brothers, Samantha Berkseth, Jennifer Daniel, Phillip Ware, Camaron Plourde, Natalie Gusack
Cooper Gray