Research News

New tool could help explain Earth’s changing biodiversity

Maps show distribution of tropical montane cloud forests, as estimated using cloud cover data from satellites.

These maps show the distribution of tropical montane cloud forests, as estimated using cloud cover data from satellites. Satellites that observe the Earth provide many types of data about the planet’s ecosystems, and the Map Of Life will begin incorporating these data to improve geographic knowledge of where species live. Image: Adam Wilson and Walter Jetz, PLOS Biology, 2016

By CHARLOTTE HSU

Published September 28, 2017 This content is archived.

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headshot of Adam Wilson.
“Right now, the Map of Life can tell us where plants and animals are, but not why they are there. ”
Adam Wilson, assistant professor
Department of Geography

As the Earth’s climate changes, shifting weather patterns will affect where plants and animals can live.

Some species — such as polar bears, frogs and even bumblebees — may see habitats shrink. Others may be forced to relocate to new environs.

To help us understand the massive changes underway, UB ecologist Adam Wilson is helping to develop a new tool for visualizing how plant and animal populations worldwide are responding to fluctuations in climate.

Wilson, assistant professor of geography in the College of Arts and Sciences, is working with the Map of Life, an online resource led by Yale University and the University of Florida. The platform currently enables everyone from schoolchildren to researchers to see where different species are located in the world — where plants and animals have been observed on every continent, and how far their habitats extend.

The Map of Life team wants to expand the system to include environmental and climatic data so that users can visualize and analyze links between climate and habitat change on the level of individual species.

Wilson is playing a key role in this project: He is developing models that will enable the Map of Life team to integrate weather observations, such as rainfall, temperature and cloud cover patterns, into the platform, making this data mappable and searchable.

It’s a challenge because climate observations have what researchers call different spatial and temporal resolutions: Air temperature may be recorded hourly but monitored only in populated areas, while cloudiness may be recorded twice daily but monitored all over the world, including in regions where few humans live. Fusing this patchwork of data into one system that the Map of Life can understand is tricky.

But when it’s done, scientists will have a new tool for understanding how climate change is affecting biodiversity.

“Right now, the Map of Life can tell us where plants and animals are, but not why they are there,” Wilson says. “What we want to do is to broaden the Map of Life to explain these patterns so that we can see how climate is influencing where different species are found.”

The research is funded by a $1.2 million grant from NASA to the Map of Life team, with $114,793 going to Wilson’s team at UB. Much of the data Wilson is integrating into the system comes from NASA, which collects climate data, such as information on cloud cover, via satellites.