With 38 public universities and 35 private colleges and universities in the state and many more across the country (and the world) interested in Texas, there’s a great deal of academic scholarship focused on water in the Lone Star State. In this column, I provide brief summaries of several recent academic publications on water in Texas.

Let’s start thinking about water!
Detention basins
Ever wonder how effective those detention basins you see at newer developments or in highway medians work? Kent and pals investigated the accumulation of oil and grease pollutants in sediments collected from stormwater runoff in low impact development structures—specifically detention basins and vegetated swales—located in the Edwards Aquifer recharge and contributing zones in San Antonio, Texas. Sampling across six sites during eight rain events revealed high concentrations of oil and grease in sediments (mean values of 723 milligrams per kilogram in detention basins and 667 milligrams per kilogram in swales), with detention basins capturing significantly more sediment mass. While both structure types were effective in capturing pollutants, particle size and antecedent dry days were moderately to strongly correlated with oil and grease accumulation. The findings suggest that swales and detention basins play a crucial role in protecting groundwater from roadway pollutants in karst aquifer systems. Kent and the dirt-diggers advocate for expanded use and maintenance of such low-impact development structures, especially given the increasing urbanization and anticipated climate-driven changes in rainfall intensity.
Citation
Kent, J., Hutchinson, J.T., Kapoor, V., Matta, A., and Dessouky, S., 2025, Evaluation of oil and grease from roadway runoff in sediment from detention basins and swales within the Edwards Aquifer recharge zone, central Texas, U.S.A. Environmental Pollution, 372, 126063. https://doi.org/10.1016/j.envpol.2025.126063
Well integrity
Schulz and fellow researchers examined how different countries manage issues related to unwanted gas movement in oil and gas wells, particularly focusing on two signs of well integrity problems: sustained pressure inside well casings and gas escaping through surface vents. The authors compare government regulations and industry guidelines in major oil- and gas-producing nations, including the United States, Canada, Russia, China, Norway, and Australia. They found that regulatory practices vary widely, with some countries requiring regular monitoring and diagnostic testing, while others leave more responsibility to operators. The paper identifies common causes of well integrity failures, including mechanical breakdowns, chemical degradation, and microbial activity. It highlights the risks these failures pose to the environment through groundwater contamination and greenhouse gas emissions. To address inconsistencies and improve well safety, the authors propose a universal workflow that includes regular pressure monitoring, leak detection tests, and timely repairs. The study concludes that harmonized, enforceable practices are needed to ensure safer and more environmentally responsible well operations around the world.
Citation
Schulz, M., Talukdar, M., Pfander, I., Lackey, G., Röckel, L., Wojtanowicz, A., and Schilling, F., 2025, Global regulations and practices for well integrity management—A review: Journal of Petroleum Exploration and Production Technology, 15(5). https://doi.org/10.1007/s13202-025-01997-7
AI-driven flood statistics
Huang and gang introduce a new approach for producing high-resolution maps that estimate the likelihood of flooding at specific depths across a region without relying heavily on historical flood records or resource-intensive physical models. Focusing on Harris County, Texas, the researchers developed a method that uses machine learning to generate large numbers of synthetic rainfall events and predict their associated flood depths. By training models on previously simulated flood scenarios, they created a system that estimates flooding based on rainfall characteristics such as intensity, duration, and total volume. They generate realistic synthetic rainfall data using a data-driven model that respects known rainfall patterns, followed by prediction of flood depth at each location using a tailored machine-learning model. The result is a probabilistic map that shows the chance of flooding to various depths at a fine spatial resolution.
Citation
Huang, L., Antolini, F., Mostafavi, A., Blessing, R., Garcia, M., and Brody, S.D., 2025, High‐resolution flood probability mapping using generative machine learning with large‐scale synthetic precipitation and inundation data: Computer-Aided Civil & Infrastructure Engineering, 1. https://doi.org/10.1111/mice.13490
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