J. Brian Anderson, associate professor of civil engineering, is collaborating with the Alabama Department of Transportation for the next three years to investigate solutions to remediate swelling clays found under roads in western Alabama while keeping the routes open. Shrinking and swelling soils, sometimes called expansive soils, are typically the result of the presence of high plasticity clays. The consequences of swelling can be significant, with moderate swelling pressures high enough to heave roadways. Expansive soils are an issue in many areas in the United States. Locally, these soils are common in the southern and western portions of Alabama. Many roads in this part of the state follow farm to market routes that were cut and built from materials in the immediate area. These roads typically serve rural areas and many have become key routes for commercial traffic. Typical permanent solutions to this problem involve closure and reconstruction of the roads from the bottom up. However, closure or detouring of these roads is often not feasible from the standpoints of economics and safety. Anderson and his team are looking at the application of a method to arrest the shrinking and swelling of these clays in place, with minimal interruption of traffic.
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AUBURN ENGINEERING NEWS
- Visiting assistant professor in electrical and computer engineering presented with Young Scientist Award September 27, 2023Clint Snider was recently presented with the award at the International Union of Radio Science’s General Assembly and Scientific Symposium in Sapporo, Japan.
- CEE professor elected to Association of Asphalt Paving Technologists Board of Directors September 26, 2023David Timm, the Brasfield & Gorrie Professor in the Department of Civil Engineering, has been elected to the Association of Asphalt Paving Technologists (AAPT) Board of Directors for the second time.
- ME professor earns prestigious award for heat transfer research September 25, 2023Mehmet Arik, associate professor of mechanical engineering, recently received the 2022 Hartnett-Irvine Award from the International Centre for Heat and Mass Transfer (ICHMT).