Categories
New Courses Seminars, Workshops, Lectures

Courses of Interest to IGC in Spring 2021

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Science of Team Science

(formally known as Freshwaters in the Anthropocene)

Dr. Cayelan Carey is teaching a graduate-level course on “Science of Team Science” during the spring 2021 semester. The course analyzes literature from many disciplines – including business management, organizational psychology, philosophy, and ecology – to provide an overview of the emerging discipline of the Science of Team Science (SciTS), with a particular focus on SciTS applications for the environmental sciences.

The goal of this course is to help students gain practical skills about how best to work effectively with team members, develop their own leadership philosophy and collaborative plan, and assess team performance to produce high-impact research outcomes. The course will be centered on reading discussions, supplemented by weekly reflections and student presentations. I envision the course to be a low-stakes way to help students become more confident and effective as leaders in new scientific collaborations and strengthen existing ones.

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Example Syllabus from Spring 2020

BIOL 6064: Special Topics in Freshwater Ecology: Science of Team Science  |  T & R 9:30-10:45 am  |  CRN: 20507  |  3 credits  

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Stable Isotope Biogeochemistry

Drs. Rachel Reid and Ben Gill are offering a joint graduate/undergraduate course Stable Isotope Biogeochemistry in spring 2021. The course will explore how stable isotopes can be used to address a variety of research questions in geology, paleobiology, ecology, and other environmental sciences. Lectures will focus on the systematics and applications of carbon, nitrogen, oxygen, hydrogen, and sulfur isotopes in modern and past marine and terrestrial systems. Through individual or small group research projects, students will learn to collect, prepare, analyze, and interpret stable isotope data.

[/vc_column_text][vc_column_text]Tentative Syllabus Outline

GEOS 4984/6604: Stable Isotope Biogeochemistry  |  MWF 9:05-9:55 am  |  CRN: 20866  |  3 credits  

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Categories
Interfaces of Global Change IGEP

IGC fellows meet up for a fall hike & outdoor socializing

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October 19, 2020

Written by IGC fellow Alaina Weinheimer

To kick off the school year with the IGC’s first social event, many of us fellows wanted to gather offline in a safe way, so we organized a hike followed by a visit to Moon Hollow Brewing Company for this past Saturday, 10/17. For the hike, fellows Ernie Osburn, Lauren Maynard, and I took to the trails in Catawba. Initially planning to hike McAfee’s Knob, we had to improvise when we saw cars parked up to over a mile from the trailhead. Apparently, everyone had the same idea as us. Luckily, Dragon’s Tooth trail wasn’t too far away, and we met up there.

Although the morning temperature was a brisk 36°F, the sun was strong, and we warmed up quickly as we ascended to the top. Along with us was my parents’ dog, Roscoe. I knew he could manage hiking McAfee’s Knob, since it’s a gradual incline if you’re using the fire road, but Dragon’s Tooth proved quite daunting for the ~20-pound cock-a-poo mix. We all helped lift him over flat-faced rocks, and his tail continued to wag despite some scary moments. The trail at Dragon’s Tooth was quite crowded, but enjoyable, nonetheless. The colorful foliage was stunning, and the warmth of the sun felt sublime.

To rehydrate after the hike, we went to Moon Hollow Brewing Company in Blacksburg and met up with fellows Stephen Plont and Dave Millican. The sun continued to shine as we sat in a circle, socially distanced, and caught up on each other’s lives.

All in all, it was a terrific Saturday. We were very grateful for the good weather and beautiful leaves. To our fellow Fellows, and GCC faculty – here’s to hoping you are staying safe, practicing self care & keeping in touch![/vc_column_text][/vc_column][/vc_row][vc_row][vc_column width=”1/2″][vc_single_image image=”52460″ img_size=”large”][/vc_column][vc_column width=”1/2″][vc_single_image image=”52459″ img_size=”large”][/vc_column][/vc_row][vc_row][vc_column width=”1/2″][vc_single_image image=”52463″ img_size=”large”][/vc_column][vc_column width=”1/2″][vc_single_image image=”52464″ img_size=”large”][/vc_column][/vc_row][vc_row][vc_column][vc_separator style=”shadow”][/vc_column][/vc_row]

Categories
Geology News Research

Geoscience’s Ben Gill seeks answer to how the planet changed during Triassic mass-extinction event 200 million years ago

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VT News | October 19, 2020

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Scientists don’t yet know what caused the Triassic mass-extinction event — one of the largest extinction events in the history of our planet — 200 million years ago. Some scientists point to an asteroid strike; others blame massive volcanic eruptions — each a sudden event; while still others blame a more gradual global climate change and rise in sea levels.

Ben Gill, a geoscientist within the Department of Geosciences in the Virginia Tech College of Science, prefers the volcano scenario. “The volcanic eruptions hypothesis has by far the most support,” he said.

“It’s important to note, however, that those volcanic eruptions would have led to a cascade of environmental changes that would have been bad if you were living on the Earth during that time, such as global warming, deoxygenation of the oceans, and ocean acidification. We still don’t have a good handle on which of these changes played major roles in the extinction event.”

Gill will now use a new, three-year $591,000 National Science Foundation (NSF) grant to — he hopes — solve this riddle. “Evaluating which of these changes were causes of the extinction is part of what we are trying to figure out with this project,” said Gill, an associate professor and an affiliated member of Virginia Tech’s Fralin Life Sciences Institute and Global Change Center.

Ph.D. student Selva Marroquín backpacking to the field site after being dropped off by a bush plane in Wrangell-St. Elias National Park, Alaska. Behind Marraquin is a vat mountain range with clouds.
Ph.D. student Selva Marroquín backpacking to the field site after being dropped off by a bush plane in Wrangell-St. Elias National Park, Alaska. Photo credit: Benjamin Gill

 

Collaborating on the NSF grant with Gill are researchers from Florida State University and Western Michigan State University, along with international collaborators from Germany, Canada, and the Netherlands in a connected projected.

The study has three core goals:

1)     To determine the longer-term timeline of changes in life and the environment both before and after the extinction. “Most studies have focused on the time just around the mass extinction itself — give or take a few million years. We want to see if there are longer-term trends in the climate and environment that ultimately contributed to the mass extinction,” Gill said.

2)     Determine the role that changing oxygen contents in the oceans had in the extinction event.

3)     And show what changes occurred in life and the environment in an understudied part of the planet. “Most of the studies on this extinction event have looked at locations from a relatively small part of the planet: the Tethys Ocean, an ocean that covered what is now modern-day Europe,” Gill said.

The research team and the mountainside exposures of the sedimentary rocks that preserve end-Triassic mass extinction in Wrangell-St. Elias National Park. the research group is far from the camera dwarfed by the brown-color mountains. Photo credit: Martin Aberhan (Museum für Naturkunde)
The research team and the mountainside exposures of the sedimentary rocks that preserve end-Triassic mass extinction in Wrangell-St. Elias National Park. Photo credit: Martin Aberhan (Museum für Naturkunde)

 

To accomplish all this, Gill and colleagues are investigating rocks in Alaska that were once sediment on the seafloor located in what was once the Panthalassic Ocean, the ancient version of what we now call the Pacific Ocean.

“There have not been nearly as many studies of what was going on in that ocean during this extinction,” Gill said. “So, the natural questions are: Was the extinction as severe in the Panthalassic Ocean? Is the timing the same as that in the Tethys Ocean? Did the same environmental changes occur in the Panthalassic Ocean as the Tethys?”

To pave the way for the larger NSF funded project, Gill and geosciences doctoral student Selva Marroquín have traveled to the remote Wrangell-St Elias National Park in Alaska three times, in the summers 2017, 2018, and 2019. They are part of international team of researchers from Florida State University, Western Michigan State University, The College of Charleston, the Canadian Geological Survey, Museum für Naturkunde in Berlin, and Utrecht University in The Netherlands.

Fossils of ammonites (an extinct group of cephalopods) collected from the field site in Alaska. This is one group of organisms the were greatly affected by the end-Triassic extinction. Photo credit: Benjamin Gill
Fossils of ammonites (an extinct group of cephalopods) collected from the field site in Alaska. This is one group of organisms the were greatly affected by the end-Triassic extinction. Photo credit: Benjamin Gill

 

A pilot version of this study was funded from the National Geographic Society, and the College of Science’s Dean’s Discovery Fund. The national park in Alaska is so remote, Gill and Marroquín, and the rest of the team were dropped off via a small plane in alpine meadows for two to three weeks at a time.

“Enough was known about the study area to know rocks that preserved the mass extinction were there,” Gill said. “However, this pilot study was needed to establish how viable these remote sites were for a bigger study. They ended up being way better than even we expected.”

Since they were working in a national park, special collection permits were required for the group to collect fossils and rock samples to analyze in the lab. Back at Virginia Tech, geosciences undergraduate students Kayla McCabe and Michael Zigah have been involved in the subsequent lab work looking at the geochemistry of these rock to unlock what they can tell us about this mass extinction.

By understanding the causes and ramifications of this long-ago extinction event, Gill said he and other scientists will learn important context for understanding current and future global changes on our planet, Gill said.

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CONTACT:

Steven Mackay

540-231-5035

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Categories
Faculty Spotlight News

Welcome new GCC faculty affiliates, fall 2020

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Meet our newest faculty affiliates:

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Dr. Ryan Calder

Assistant Professor, Population Health Sciences

Dr. Calder is a civil engineer whose research focuses on developing tools for decision support in the setting of natural resource development and environmental management, particularly with respect to minimizing impacts on human health.[/vc_column_text][/vc_column][/vc_row][vc_row][vc_column][vc_separator][/vc_column][/vc_row][vc_row][vc_column width=”1/3″][vc_single_image image=”52297″ img_size=”250×250″ alignment=”center” style=”vc_box_shadow_3d”][/vc_column][vc_column width=”2/3″][vc_column_text]

Dr. Willandia Chaves

Assistant Professor, Fish and Wildlife Conservation

Dr. Chaves is a conservation scientist working with the human dimensions of fish and wildlife conservation.  Her research aims to understand how people make decisions about their use of natural resources and, in turn, use this understanding to foster more sustainable behaviors and influence policy.

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Dr. Gill Eastwood

Assistant Professor, Entomology

Dr. Eastwood is a vector-borne disease ecologist, with a focus on enzootic transmission cycles of arboviruses and determining the potential for emergence or spillover of infectious zoonotic diseases.[/vc_column_text][/vc_column][/vc_row][vc_row][vc_column][vc_separator style=”shadow”][/vc_column][/vc_row]

Categories
Blog Ideas IGC Interfaces of Global Change IGEP

Fellows hold first IGC Diversity, Equality & Inclusion reading group discussion

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 October 13, 2020

Written by Lauren Maynard

Monday, October 12, 2020 marked the first time the Commonwealth of Virginia celebrated Indigenous Peoples’ Day! It was also the first meeting of the IGC Diversity, Equality and Inclusion (DEI) reading group, an initiative formed from ideas generated during an IGC fellows’ town hall discussion this past summer. Twelve fellows joined the conversation—to listen and to learn. Together, we discussed two articles: What is BIPOC? and The Case for Reparations. We discussed the use of the term BIPOC (Black Indigenous People of Color), company rebranding (e.g. Washington Redskins and Aunt Jemima), our ideas for reparations, and how to make our community more inclusive. We acknowledged that racism is a “wicked problem” in our country and that the first (and hardest) step is starting the conversation.

The group will meet monthly, with our next discussion scheduled for mid-November. Currently, the group is only open to IGC fellows, but we look forward to broadening the conversation as the group progresses.[/vc_column_text][vc_single_image image=”52306″ img_size=”650×500″ alignment=”center”][/vc_column][/vc_row][vc_row][vc_column][vc_separator style=”shadow”][/vc_column][/vc_row]

Categories
Climate Change Interfaces of Global Change IGEP News Research Water

Study: Land development and climate change threaten clear water lakes, but there is hope for protecting them

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VT News | October 14, 2020

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Scientists have long known that clear water lakes are in danger from land development, pollutants, run-off from storms, and climate change because of increased nutrient pollutants that lead to algae blooms.

However, a recent study from the Virginia Tech Department of Biological Sciences shows that the negative effects from climate change can be mitigated by limiting nutrient pollution from land development in clear-water lakes.

Algae, of course, are a critical part of lake food webs and the zooplankton that eat them. But too much algae in lakes can cause scums on the water, blocking out sunlight for other life in the lake. When the algae die and decompose, they release more nutrients, which can cause even more algae blooms.

“High nutrient pollution can come from many sources: fertilizers and sewage waste are some of the worst sources of nutrient pollution, as far as having the highest concentration of nutrients,” said Nicole Ward, Interfaces of Global Change IGEP fellow and a doctoral student in biological sciences, part of the Virginia Tech College of Science, who led the study.

Ward worked on the study – recently published in the journal Water Resources Research – alongside mentor Cayelan Carey, an associate professor of biological sciences, Kathleen Weathers, a scientist at the Cary Institute of Ecosystem Studies, in addition to collaborators at Dartmouth College in New Hampshire, Bates College in Maine, and the University of Wisconsin-Madison.

The nutrients Ward and Carey refer to are nitrogen and phosphorus – essential building blocks for life, found in DNA, cells, bones, and energy sources. In freshwater systems, the number of organisms living in the water is dependent on the availability of nitrogen and phosphorus. That’s a double-edged sword.

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“Erosion and landslides also transport nutrients. Phosphorus is generally bound to sediment particles, so as sediment enters the water it is bringing phosphorus with it,” Ward said. “So, when we add more nutrients, we can really quickly see a lot more life – which seems like a good thing, right? But too much of a good thing is notgood. So, we get huge algae blooms with high nutrient pollution, this can cause scums on the water, potentially harming plants and fish.”

And there’s another issue: “When the algae inevitably die, their decomposition uses up the oxygen in the water, killing organisms in the water that need oxygen,” Ward added.

Further, Ward and Carey found that the negative effects of land use and climate change on a lake depend on if yearly maximum or average phytoplankton concentrations are studied. Average phytoplankton concentrations, during typical summer conditions, show an increase with either warmer air temperatures or higher nutrient pollution. However, annual maximum phytoplankton concentration – or blooms – only increase with higher nutrient pollution.

In the study, Ward and Carey wrote, “Typical summer phytoplankton concentrations will likely increase with warmer air temperatures due to climate change alone and increase even further when combined with higher nutrient pollution. To maintain clear water lakes, nutrient pollution should be reduced even more than previously thought to compensate for increasing phytoplankton in a warmer climate.”

“Oligotrophic lakes – low-nutrient, clear-water lakes with high transparency – are disappearing due to human activities,” said Carey, an affiliated member of Virginia Tech’s Fralin Life Sciences Institute and the Global Change Center. Most of our understanding about how lakes function is from lakes that have already been degraded, so our goal in this study is to understand what factors affect their water quality to best protect them.”

The study focused on Lake Sunapee in New Hampshire, located near Carey’s alma mater, Dartmouth. It was chosen for its pristine water quality and rural location.

The lake also has a goldmine of data thanks to the hard work of the nonprofit, community-operated Lake Sunapee Protective Association. It has 31 years of water quality data, including statistics from a high-frequency buoy monitor that has collected data at 15-minute intervals since 2007. Ward called the group and its data set “critical” to the study.

Ward simulated conditions under five scenarios using the 31-year period data sets. “This study was all data analytics and modeling,” Ward said. “Modeling enables ‘experimentation’ on ecosystems that are not possible in the real world and overcomes logistical limitations of an experiment as large as a watershed. For example, just consider the time to experimentally test each scenario I did in model space: it would have taken 186 years. Our computational abilities, advances in modeling, and advances in sensor technology is completely changing the way we do environmental science.”

Ward added, “Even though this huge global issue of climate change is happening, and we know it is changing water quality across the globe from other research, we can have hope of saving our clear-water lakes from large changes in water quality if we focus on local nutrient pollution. By limiting nutrient availability in the water, the negative climate effects have less ability to wreak havoc.”

The study was funded by a grant from the National Science Foundation’s Coupled Human Natural Systems program. It was part of a larger project to look at several lakes and their water quality under the banner of the project CNH-Lakes, or the Coupled Natural and Human Systems Project, spearheaded by Carey and fellow Virginia Tech faculty Kelly Cobourn, an associate professor in the Department of Forest Resources and Environmental Conversation, part of the College of Natural Resources and Environment, and Kevin Boyle, a professor in the Department of Agriculture and Applied Economics in the College of Agriculture and Life Sciences.

Related stories

To ensure safe drinking water, experts forecast the health of lakes and reservoirs

Study explores connections between land management, water quality, and human response in lake catchments

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CONTACTS:

Steven Mackay

540-231-5035

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Categories
Energy News

Long-distance transmission of Canadian hydropower is a cost-effective complement to U.S. renewable energy transitions

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October 13, 2020

[/vc_column_text][vc_column_text]Department of Population Health Sciences faculty member and Global Change Center affiliate Ryan Calder released today a policy report evaluating economic and environmental costs and benefits of diverse scenarios for renewable energy transitions for the New York City Area. The report found that a proposed long-distance transmission line, the Champlain-Hudson Power Express, would likely pay for itself in terms of avoided direct and environmental costs.

Long-distance transmission lines could bring hydropower generated in Canada to markets in the US. These projects have large upfront costs, but the study demonstrates that these costs are lower than those for wind and solar.[/vc_column_text][vc_row_inner][vc_column_inner width=”1/2″][vc_column_text]While New York State has ample renewable energy resources, these are concentrated Upstate. Statewide demand is driven by the New York City area where fossil fuel generation predominates. While New York State has recently pledged to decarbonize its electricity sector by 2040, this has been complicated by the early closure of Indian Point Energy Center, a nuclear power plant roughly 40 miles north of New York City.

Calder and colleagues at Duke University’s Department of Civil and Environmental Engineering, Mark Borsuk and Celine Robinson, undertook a comprehensive assessment of the options available to replace generation supplied by Indian Point, which will be fully decommissioned in 2021.[/vc_column_text][/vc_column_inner][vc_column_inner width=”1/2″][vc_single_image image=”52191″ img_size=”medium” add_caption=”yes” alignment=”center” onclick=”custom_link” img_link_target=”_blank” link=”https://chpexpress.com/project-overview/route-maps/”][/vc_column_inner][/vc_row_inner][/vc_column][/vc_row][vc_row][vc_column][vc_column_text]

The study assembled all publicly available information on environmental and direct costs and benefits for the relevant technological options (including existing legacy generators) and modeled a variety of scenarios using probabilistic simulation. Options evaluated include no action, development of a new gas plant, development of long-distance transmission from Canada and build-out of local wind and solar.

Indian Point will likely accrue roughly $17 billion in costs associated with increased output of legacy fossil fuel generators. While long-distance transmission represents an upfront investment of upwards of $3.7 billion, savings in direct and environmental costs more than outweigh this such that total costs are more than $4 billion less than no action. When paired with planned build-out of solar and wind projects, savings of long-distance transmission rise to more than $10 billion, driven in part by greenhouse gas emissions that are avoided during the many years of buildout of offshore wind.

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Quantified environmental impacts include emissions of greenhouse gases and criteria air pollutants. Economic values were calculated for both of these endpoints for each of the energy scenarios evaluated. Both long-distance hydropower transmission and development of wind and solar have large climate and local air pollution benefits. Long-distance transmission of hydropower avoids roughly 100 million tonnes of CO2 equivalents by 2050 (economic value of approximately $4.5 billion) and thousands of tonnes per year of diverse air pollutants (economic value of approximately $100 million).

[/vc_column_text][/vc_column][vc_column width=”1/2″][vc_single_image image=”52194″ img_size=”full” add_caption=”yes” alignment=”center”][/vc_column][/vc_row][vc_row][vc_column][vc_column_text]The study also quantified likely local economic activity associated with different energy scenarios. All energy investments are likely to stimulate on the order of billions of dollars of economic output and thousands of jobs. Long-distance hydropower would likely generate over 5,000 job-years, while development of offshore wind would likely generate over 25,000 job-years.

The report will be published by the Nicholas Institute of Environmental Policy Solutions at Duke University. An advance copy has been made available by the authors on ResearchGate.[/vc_column_text][vc_separator style=”shadow”][/vc_column][/vc_row]

Categories
Accolades Biodiversity Faculty Spotlight Food & Agriculture Grants News Research Sustainable Agriculture

Grant awarded to study how plants affect microbiomes

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VT News | October 6, 2020

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For centuries, scientists have worked above ground, studying plants and their effect on biodiversity. Lying below the scientists’ feet, though, is a world with even richer biodiversity — the soil.

There are an estimated 1 billion cells and thousands of species of microbes in a single gram of soil, making it an extremely complex microbiome.

To help understand the complexity of soil microbiomes and how cover crops can help manage them, a four-year $500,000 grant was awarded to a team of Virginia Tech interdisciplinary researchers by the United States Department of Agriculture National Institute of Food and Agriculture.

The project integrates key agricultural concepts of cover crops – the microbiome, biodiversity, yield, and soil health – to build a whole-system perspective. The project is being led by Brian Badgley, an associate professor of environmental microbiology, and Jacob Barney, associate professor of invasive plant ecology — both in the School of Plant and Environmental Sciences in the College of Agriculture and Life Sciences; and Brian Strahm, an associate professor of forest resources and environmental conservation in the College of Natural Resources and Environment. All three are affiliated faculty members of the Global Change Center and Fralin Life Sciences Institute.

The soil microbiome has strong effects on how ecosystems function but is difficult to directly alter. The team is researching whether or not crop mixtures can be designed to change it indirectly with predictable outcomes and benefits.

The team will conduct their work at the College of Agriculture and Life SciencesKentland Farm.

The underlying principle behind the work is to examine how plants affect soil microorganisms, which has mostly been researched looking at only how a single plant affects the soil.

The research team will conduct their work on soil microbiomes at Kentland Farm. Photo credit: Olivia Coleman
The research team will conduct their work on soil microbiomes at Kentland Farm. Photo credit: Olivia Coleman

 

“We don’t have a really good understanding of the aggregate effect on soil microorganisms when we combine multiple plant species,” Badgley said. “By investigating underlying rules about how that happens, we hope to better understand how those effects scale up as you add more plant diversity.”

Cover crops make an excellent model for that because a cover crop mixture could comprise up to five plant species, which, when compared to a giant field of nothing but corn, is quite a bit of diversity.

“On the other hand, cover crop systems are still relatively simple plant communities that will, hopefully, make it easier to see some of these important signals about which parts of the soil microbiome are changing,” Badgley said. “What we learn about cover crops and agricultural sustainability has the added benefit to farmers of direct application in the field. However, by identifying the underlying relationships, we hope that results will also have applied benefits in other contexts, such as ecosystem restoration and potentially even landscaping and gardening.”

Each of the researchers brings a unique perspective into the mix, allowing them to analyze the whole complex system.

“In the end, we want to design mixtures that maximize plant diversity in different ways – either plant characteristics or the diversity of soil microorganisms that they recruit – based on results from individual plants,” Badgley said. “We then hope to understand whether different types of plant diversity ultimately change how the whole system will function.”

If that’s achieved, the research team could mix plants in the field for particular effects on soil microorganisms.

To better support the research, the grant will fund two Ph.D. candidates during its four-year run.

— Written by Max Esterhuizen

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[/vc_column_text][/vc_column][/vc_row][vc_row][vc_column][vc_separator][/vc_column][/vc_row][vc_row][vc_column][vc_column_text]CONTACT:

Suzanne Irby

Michael Stowe
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