Case studies exemplify the impact that NEON can make on ecological research. Explore these stories that describe how our user community have made new, exciting discoveries about how our natural systems function.
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Kyla Dahlin and her team are using Airborne Remote Sensing data from five NEON sites to develop detailed 3D maps of forest structure. Their work, which was funded by the National Science Foundation (NSF), could provide new insights into the carbon storage potential of forests.
Land use changes and habitat loss have resulted in an overall loss of biodiversity across much of the country. Luis Carrasco, a post-doctoral fellow at NIMBioS, is leveraging NEON data to better understand the relationships between vegetation structure and density and bird biodiversity in forested ecosystems.
Imagine walking through the deciduous forests in Massachusetts early one spring, a gentle rain falling down on you. Taking a closer look, you now see thousands of hairy caterpillars in the trees.
Adlafia neoniana (Naviculaceae) may be tiny, but it's got a big name to live up to. It's the first new species to be discovered on a NEON field site and named after the NEON program. So what is this newly discovered organism? A single-celled aquatic alga with a cell wall made of silica, known as a diatom.
The exact composition of each local community is influenced by variables that include evolutionary history, current climate and interspecies competition or codependence. A new study led by Will Pearse of Utah State University is using NEON data to quantify the roles of these different variables in the assembly of ecological communities.
Michael Cramer, a small mammal researcher and the Assistant Director of the University of Notre Dame Environmental Research Center (UNDERC), has spent much of his career studying the ecology and behavior of mice and other small mammals. His latest research leverages NEON data to document how mouse populations are changing over time—and how these small fries may be changing the ecosystems around them.
How are ecosystems across the continent changing over time? What are the relationships between climate, ecosystem composition and soil organic matter? And how are soil composition and carbon storage potential likely to change in the future? The answers lie under our feet.
It's one thing to read about ecological concepts in a textbook. It's another to see them revealed by real-world data. Students at Ball State University recently explored key ecological concepts using data from the NEON program.
A new study led by François Ritter, a Ph.D. candidate at the University of Illinois–Chicago Department of Earth and Environmental Sciences, provides important insights into the frequency of dew formation across the U.S.
A new study funded through the National Science Foundation (NSF) Rapid Response to Funding (RAPID) Grant program attempts to answer critical questions about the correlations between biomass burned from wildfires and the emitted quantities of trace gases and aerosols.
How do you measure the biodiversity of an ecosystem? A paper published in Nature Ecology & Evolution examines the use of species traits as Essential Biodiversity Variables (EBVs)—and how data products from NEON and other large-scale observatory networks can be used to monitor changes in biodiversity over time.
An estimated 600 megatons of carbon are currently held by reactive minerals deep within terrestrial soils around the world —more than twice the amount of carbon that humans have added to the atmosphere since the Industrial Revolution began. Understanding the pathways and variables that influence carbon sequestration in soil could lead to new ideas to combat climate change and protect vulnerable ecosystems.
To build better models of watershed processes and calibrate remote sensing data with observations on the ground, a diverse team of researchers spent two weeks this summer gathering soil and vegetation data from hundreds of individual sites within the East River watershed near Crested Butte, CO.
A new study out of the University of Wisconsin—nicknamed "CHEESEHEAD19," for Chequamegon Heterogeneous Ecosystem Energy-balance Study Enabled by a High-density Extensive Array of Detectors 2019—seeks to explore and resolve some of the inconsistencies between local observations and the data that drive our environmental models.
A study led by Lawrence Berkley National Laboratory (LBNL) has used the NEON assignable assets program to gather airborne remote sensing data near Crested Butte, Colorado. They will use the data to study plant community distributions and canopy biochemistry to shed light on watershed systems.
The NEON project is producing a vast treasure trove of open access airborne remote sensing data. Can computer algorithms help ecologists make sense of it all? A team of ecologists and data scientists at the University of Florida thought so. To accelerate the process, they initiated a data science challenge.
Tree die-offs have a tremendous impact on local ecosystems. But could the consequences extend beyond the surrounding area? New research suggests the answer is yes.
What can the size of a deer mouse tell you about the number of species present in its environment? A lot, as it turns out. A team of ecologists turned to data from the NEON project to look for clues.
The Smithsonian Environmental Research Center (SERC) has been collecting ecological data on coastal ecosystems in the Chesapeake Bay area for more than 50 years. Hosting a NEON field site gives SERC scientists access to new local data as well as important comparative data from across the country to further their research goals.
In a collaboration with the PhenoCam Network, NEON now streams phenocam image data to the Phenocam Gallery - including tower top images and ground level images.
Kansas State University scientists and collaborators have developed a new method for studying a variety of streams — including tropical, prairie or forested streams — across continents. Walter Dodds has led the researchers in creating the Stream Biome Gradient Concept, which is a way to compare streams in different climates and different continents. The concept can improve how researchers study streams worldwide.
Understanding and predicting the effects of global change on ecosystems is a compelling frontier in ecological research, write the authors of a synthesis paper in the March 2014 issue of Ecosphere .
