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From optimizing food production to feed a growing population to discovering the fundamental behaviors and processes of biopolymers, faculty in the Department of Civil and Environmental Engineering (CEE) are leveraging the interdisciplinary nature of the department to establish two new, innovative projects.

On Monday I woke to the terrifying smell of smoke. From my home south of San Francisco, I could see the entire Bay Area covered in a thick layer, obscuring the sun.

While strong seasonal hurricanes have devastated many of the Caribbean and Bahamian islands this year, geologic studies on several of these islands illustrate that more extreme conditions existed in the past. A new analysis published in Marine Geology shows that the limestone islands of the Bahamas and Bermuda experienced climate changes that were even more extreme than historical events. In the interest of our future world, scientists must seek to understand the complexities of linked natural events and field observations that are revealed in the geologic record of past warmer climates.

In 1966, an ecologist at the University of Washington named Robert Paine removed all the ochre starfish from a short stretch of Pacific shoreline on Washington’s Olympic Peninsula. The absence of the predator had a dramatic effect on its ecosystem. In less than a year, a diverse tidal environment collapsed into a monoculture of mussels because the starfish was no longer around to eat them.

“Ozone depletion is a well-known phenomenon and, thanks to the success of the Montreal Protocol, is widely perceived as a problem solved,” says University of East Anglia’s David Oram. But an international team of researchers, led by Oram, has now found an unexpected, growing danger to the ozone layer from substances not regulated by the treaty. The study is published today in Atmospheric Chemistry and Physics, a journal of the European Geosciences Union.