Rooted in Campus History: Century-Old Trees Near Siebel Center Preserved

Five pine trees in front of the Siebel Center for Design under construction.

A row of Austrian pines borders the construction site for the new Siebel Center for Design, their weathered branches softening the modern lines of the stone and glass building.

Rooted in the university’s early history, these century-old trees have been carefully preserved through the 18-month construction project that is set to wrap up this fall.

They are remnants of a wind break that protected a vast experimental orchard planted there in the late 19th century by botanist Thomas Jonathan Burrill, a pioneer in plant pathology and the third University of Illinois President (1891-94).

More broadly, Burrill is credited with beautifying the young agricultural campus through a comprehensive planting program, some of which survives today. Early university correspondence indicates Burrill personally planted most if not all of the trees on campus during the 1870s, University Landscape Architect Brent Lewis said. Before that, trees were scarce on the prairie landscape.

“He is the one who said, ‘This campus needs to look better,’ and then set about tree planting on a massive scale,” Lewis said. The 1870 annual report to the Board of Trustees noted that 3,000 apple trees had been planted and another 143,000 trees ordered for an arboretum, shelter belts and forestry tracts.

While serving as the first Dean of the College of Agriculture, Burrill was also the first resident of Mumford House, the oldest building on campus. Later he created the land-grant university’s tenure system and sabbatical leaves, and he organized the first campus master planning effort.

The pines outside the Siebel Center construction site, above and top. Credits: Julie Wurth/iSEE

The Austrian pines sit on what planners refer to as the campus “military axis,” once a mile-long open space stretching east to west, from Lincoln Avenue in Urbana to First Street in Champaign. Early on it included the orchard, a large experimental farm, horticulture plots, and “The Forestry” now known as Illini Grove.

Given that rich history, Lewis didn’t hesitate to step in to save the trees during the planning for the Siebel Center. He has authority to review landscaping plans for construction projects and persuaded architects to build around the trees.

“As the protector of campus open space, I did not want to see them take down historic trees,” he said. “Just as the coronavirus is actively reminding us, our open spaces are just as valuable as our building spaces.”

The building’s architects weren’t thrilled, given that the trees are close together and admittedly “awkward. They’re not beautiful specimens,” Lewis said. But the project landscape architects rallied around the idea and supported him. The decision had no impact on the cost of the $48 million project.

The trees are important both aesthetically and historically, Lewis said: “You cannot take out trees that were planted by Thomas Burrill. Let’s remember our history. When people come to a campus, they want grandeur and a sense of place and history. They don’t want it to look like a strip mall with 2- or 3-inch trees in a planting island. They want to be wowed a little and know that we have been around a long time. They want to feel rooted in tradition, and old trees are our connection to the past.”

Overview of campus in 1871, showing the layout of the grounds as proposed in 1868. At center is the experimental orchard where the Siebel Center is now under construction. Source: University Library, “Historical Campus Landscaping” by Douglas Chien

Lewis dates the pines back at least 91 years, to 1929, when they appeared on a landscaping plan. But he thinks they’re much older, based on their size and other trees in the area. A nearby Austrian pine taken out just before the Siebel Center construction started was likely 120 years old, he said. Others date back to the original planting in the 1870s, including one with a 32-inch trunk near Fourth Street and Gregory Drive. The five trees near Siebel Center have smaller trunks — ranging from 16 to 24 inches — but “when you plant them close together they don’t grow as big,” Lewis said.

Plans for the experimental orchard were launched soon after the university’s founding in 1867. Once planted, the rows and rows of fruit trees were protected by a wind break of Norway spruce and Austrian pines — which also helped keep out four-legged intruders.

“The cows kept going in and grazing on the research land. It was obviously a sore spot when you read some of the old correspondence about it,” Lewis said.

Most of the trees eventually died or were cut down — one by one or en masse when the orchard was removed around the time of World War I, he said.

At that point the land transitioned from agricultural science to military science, Campus Historic Preservation Officer Dennis Craig said. Barracks and horse stables were built for military drills with cannons and armored caissons. The nearby Armory was constructed in the early 1920s, and the area became known as the military axis.  The western edge of the axis, now filled with residence halls, was once used for military parades — which is how WPGU radio got its call letters. The station originally broadcast from a building on the Parade Grounds Unit (and later the basement of Weston Hall), Craig said.

Over the years, the military axis filled in with buildings, starting with McKinley Health Center in the late 1920s — and later, Lincoln Avenue Residence (LAR) Hall in the 1940s, Champaign residence halls and Allen Hall in the ’40s and ’50s, and agricultural, art and education buildings from the ’60s on. But a smattering of trees survived.

The forest tract, now Illini Grove, used to extend all the way up Lincoln Avenue to Nevada Street, where McKinley and LAR now sit. Burrill kept meticulous records with sketches showing which species were planted where, Craig said. Some of the original trees remain around those buildings as well as the Child Development Laboratory and Department of Dance studio on Nevada.

Until recently, the Siebel Center had seven surviving Austrian pines — six clustered together and one closer to Huff Hall at the corner of the construction site. “We lost the one at the corner right as we started to design this project. It was unfortunately the best specimen,” Lewis said.

Another died soon after construction started, and now one of the five survivors is looking ragged. The suspect? Diplodia blight, a common disease for Austrian pines. The construction wear and tear doesn’t help, Lewis said.

Saving the trees is more important than ever, he said. The campus has lost more than 11 percent of its trees in the last 10-15 years, from climate change and a campus construction boom.

“All of our old trees are dying at a fairly rapid pace,” he said. “What we’re losing are the large ones with the bigger canopies. When we do put new ones in, they’re young and very small. The net effect is an exponential deficit in the environmental benefit of the trees.”

When possible, Lewis has offered up trunks from old trees for reuse, which have made their way into student and faculty projects over time. “Anything we can do to hold onto a piece of history is better than the alternative of chipping them for campus mulch,” he said.

Beyond aesthetics, the trees are “a link to the past and history of this university that I think we should cherish as long as we have them,” Craig said.

— Article and photos by iSEE Communications Specialist Julie Wurth

Megan Matthews: Growing our Soybean Models

Crop researchers worldwide are constantly advancing our understanding of the plants we rely on. One approach that many scientists take is the development of in silico models — computational models meant to simulate the mechanics of biological systems. However, an incredible depth of knowledge is needed to model even one small part of a plant. Modeling entire crops is a massive collaborative effort involving the skills of many specialists from different backgrounds and the integration of various models with each other.

Megan Matthews, a Postdoctoral Research Associate at the University of Illinois and member of iSEE’s Crops in silico (Cis) team, is developing and integrating multiscale crop models that will help us optimize crop growth even as the climate changes.

Matthews began her academic career at North Carolina State University, where she earned her bachelor’s degree in electrical engineering. Her interest in biology sparked during the final semester of her undergrad, when she took a biological modeling course as an elective. The course focused on the techniques used to model traditional applications of electrical engineering, such as circuits and power systems, and how those techniques can also be applied to model and study biological systems.

“It was almost like a lightbulb moment,” she said. “I had never thought of biology on those terms — being able to quantitatively model and study biological systems. I think that’s really cool!”

Matthews found herself so engaged with this new application of her skills, she went on to join her professor’s lab and pursue a master’s degree in electrical engineering with a focus on estimating regions of stability in biological models. Essentially, she studied why some biological systems tend to be more robust and stable than others.

Diving into biological modeling is no easy feat, however. Until taking that biological modeling elective, Matthews hadn’t taken a biology class since high school.

“It was doable, but it was a lot of extra work too,” she said. “I took several additional courses, because I needed to learn the language.”

When she moved on to her Ph.D. work, Matthews went from studying general models to studying a specific biological pathway. She joined a project with collaborators in the N.C. State University Forestry Department, where she worked on developing a multiscale model of the lignin biosynthesis pathway. Lignin is an organic polymer that plants produce to form structural tissues, but it is a waste product in biofuel production. Her team studied what gene modification strategies might result in better lignin and wood bioenergy traits. The team already had a model of the metabolic processes, but without models of the rest of the plant, it’s hard to relate how making changes at the gene expression level can cascade to changes at the organismal level, hence the need for a multiscale model.

In 2019, Matthews came to the University of Illinois, where she joined the Amy Marshall-Colón Lab and became a part of the Crops in silico team.

“I really wanted to study and develop models to understand how crops are going to change in the future climate scenario,” she said. “Can we identify strategies to improve how they will behave in a rapidly changing climate?”

Her first goal when she started on the project was to create a soybean-specific version of BioCro, a crop growth model for simulating and optimizing photosynthesis. Now that she’s created the base model, she’s working to integrate it with some other more detailed models, such as a model of the photosynthesis pathway, which operates from the leaf level all the way down to the gene regulatory level. She hopes to expand the scope of the model so that it can model the development of entire fields of crops over time.

“The goal is to be able to identify gene modification strategies and metabolic modification strategies that may improve the plant’s health, photosynthesis, or soybean production,” she said.

Matthews is also working with Cis collaborators at Penn State University who are creating a highly detailed 3D functional and structural model of root growth and nutrient uptake in soybean plants. She’s working to integrate this root growth model with the BioCro model, as the current BioCro model only features a simplistic representation of root growth.

By integrating these models, researchers can better understand the full dynamics of crops and see how a change at the gene regulatory level will affect an entire plant. This wouldn’t be possible without diverse research teams working to develop specialized models.

“You have these labs creating these great models, but they’re usually very specific and if you can’t figure out ways of integrating them with each other, that’s a barrier in moving the field forward,” Matthews said.

Working with such a diverse team also presents the opportunity to regularly interact with other talented researchers from a variety of fields, from physiology to photosynthesis.

“I really liked working on the interdisciplinary team,” she said. “I learned a lot working on this project, just from being able to talk to be people who had much different areas of expertise than I did. All the groups I’ve worked with have been very supportive environments.”

Matthews is also a member of the Stephen P. Long Lab, where she collaborates on the Bill and Melinda Gates Foundation-funded RIPE (Realizing Increased Photosynthetic Efficiency) project.

Between the variety of projects she’s involved in and the passion with which she pursues her work, the field of crop modeling and modification looks a little brighter with researchers like Matthews providing their enthusiasm and expertise.

“When you do discover or create something that adds previously unknown information to the public … that’s the most satisfying thing about research to me,” she said.

Introductory Statement from Interim iSEE Director Madhu Khanna

Dear iSEE Community,

I am excited to have this opportunity to build upon the strong foundation laid by Evan DeLucia for promoting interdisciplinary research, education, and outreach in sustainability and for making our campus more sustainable.

The Institute has established vibrant interdisciplinary networks of scholars working on water, energy, and global climate change issues that have enhanced our capacity to respond to external funding opportunities. Through seed grants and professional support for proposal development, iSEE has created externally funded research programs in these areas. Most recently, iSEE is contributing to the campus’s emergence as a national leader in smart and sustainable agriculture research, with more than $10 million secured in federal funding during the past year. And soon we will launch an initiative in regenerative agriculture in collaboration with the College of ACES, the Department of Crop Sciences, and a consortium of foundations.

While continuing to grow our successful campuswide sustainability honors minor, the SEE Fellows Program, and the undergraduate Certificate in Environmental Writing, we are working on a new initiative: the Environmental Leadership Program. This program will engage undergraduate students in thinking critically about sustainability issues and learning how to communicate about these issues with policy makers, the public, and the media. We will also be exploring opportunities to make the SEE Fellows Program a statewide minor.

iSEE will continue to help the campus maintain its trajectory toward meeting its goals for carbon neutrality and sustainability outlined in the 2020 Illinois Climate Action Plan (iCAP) — which will be published next month.

With the participation of faculty from across campus and diverse external stakeholders, iSEE has been conducting an annual Critical Conversation to build shared understanding of the complexity of addressing globally important and locally relevant grand challenges. Our next Critical Conversation, planned for May 2021, is timely and relevant: exploring the role of nuclear power in a clean energy future.

The annual iSEE Congress has grown in popularity and showcases the breadth of our interdisciplinary research on campus while building connections with distinguished scholars nationally and internationally. The next Congress, on the “Future of Water,” is slated for Spring 2021.

I am so grateful to the large community of researchers, educators, and students, faculty, and staff who have given their time in support of our three-fold mission. They truly make iSEE a community of innovative thinkers and doers. And our gracious donors — Joel Friedman and Erika Cornelisen of the Baum Family Fund, Stuart and Nancy Levenick, and Janelle Joseph — have directly influenced our past, current, and future success. iSEE has also been fortunate to have a dedicated team of staff and interns to implement its mission.

I look forward to working with iSEE’s many supporters to implement our shared vision for the Institute’s future.

Best wishes,

Madhu Khanna

Institute for Sustainability, Energy, and Environment
350 National Soybean Research Center
1101 W. Peabody
Urbana, IL 61801
217-333-4178
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