Earthen mounds helped ancient Dutch settlers thrive in coastal flood zones. Could historical engineering help us fight against rising seas?

Sarah Derouin
Sarah Derouin is a freelance science journalist and editor who has been writing for Eos since 2017. She has a doctorate in geology from the University of Cincinnati and is a graduate of the Science Communication Program at University of California, Santa Cruz. Sarah has written for New Scientist, Scientific American, Popular Mechanics, Science, EARTH Magazine, and Mongabay. She was the 2018–19 Science Communication Fellow for the Geological Society of America and attended Congressional Climate Science Days. Beyond writing, Sarah was an acting associate editor for EARTH Magazine. She also worked behind the scenes as an assistant producer on Big Picture Science radio show, broadcast on more than 140 public radio stations. You can find more of her work at www.sarahderouin.com or connect with her on Twitter @Sarah_Derouin.
Predicting Wave Wash Overs for Sea Turtle Nests
To better protect coastal species, researchers developed a model that predicts harmful wash overs with 83% accuracy.
Wildfire Particulates Raise Cardiopulmonary Health Concerns
New research reveals that exposure to smoky air and the particulates created in wildfires can cause increased cardiovascular and respiratory hospitalizations for people 65 and older.
Ice Drove Past Indo-Pacific Climate Variance
Researchers used both terrestrial and marine proxy data to reconstruct the dramatic and dynamic climatic changes.
Study Finds That Coastal Wetlands Excel at Storing Carbon
Shoreline environments show more promise than other marine ecosystems for mitigating climate change, the analysis shows.
Overlooked Data Source Improves Quake Intensity Maps
A new approach may fine-tune estimates of the range of shaking from earthquakes and help define areas of potential damage.
Déjà Vu? Ocean Warmth Melted Ancient West Antarctic Ice Shelf
Clues in seafloor sediments reveal that relatively warm water beneath western Antarctic ice shelves, a major factor in today's massive ice sheet retreat, also fueled some past ice loss.