Why allergy seasons are getting worse

If you’ve been itchy, congested, and sneezy for months, you’re not alone. This year’s spring allergy season started early, broke pollen-count records in some parts of the country, and is still going strong in many areas.

In a May 9th article in TIME magazine William Anderegg, U Biology Associate Professor and Director of the Wilkes Center for Climate Science & Policy says that climate change is playing a big part.

“We’ve known for a long time that higher [carbon dioxide levels] and turning up the temperature on plants in very controlled environments makes them produce a lot more pollen and start that pollen season earlier,” says Anderegg who researches how climate change affects nature. Now, that’s happening at scale.

Anderegg’s research suggests that, from 1990 to 2018, North American pollen concentrations rose by about 20%, with allergy season starting about 20 days earlier and dragging on more than an extra week by the end of that time period. The effect is happening across the U.S., but parts of the Southeast and Midwest are particular hot spots, he says.

Read the full article in TIME magazine.

 

The Great Salt Lake’s Long-term Outlook

Dozens of researchers warned the Great Salt Lake “as we know it, is on track to disappear in five years,” in a damning report released in January. The team singled out excessive water consumption as the leading culprit, as the lake has lost 73% of its water and 60% of its surface area since 1850.

U Professor of Atmospheric Sciences Kevin Perry (pictured above) isn’t one of the report’s many authors but he also believes many people misinterpreted this study when it was first released. He explains that, yes, it would still be a Great Salt Lake in five years; however, if water consumption trends continued without much change, it wouldn’t be recognizable anymore.

“It will be dead,” he said, pointing out that salinity levels were already on the brink of killing off brine shrimp at the time the report was released. “The salinity would be so high (that) the brine shrimp and brine flies will all be gone and the birds will all be starving.”

So how did this year’s record snowpack and spring runoff impact the lake’s future?

Read the full story on KSL TV 5.

Lissy Coley Elected to National Academy of Sciences


“I first stepped foot in a tropical rainforest in 1975 and have been back every year doing research on how plants defend themselves against getting eaten by insects,” says Phyllis “Lissy” Coley, distinguished professor emerita of biology at the U. She is newly elected member of the National Academy of Sciences (NAS).

NAS Members are elected to the National Academy of Sciences in recognition of their distinguished and continuing achievements in original research. Membership is a widely accepted mark of excellence in science and is considered one of the highest honors that a scientist can receive. Current NAS membership totals approximately 2,400 members and 500 international members, of which approximately 190 have received Nobel prizes. This year, Coley is the sole U faculty member to receive the honor and is the 12th College of Science faculty member to be elected.

Coley’s colleague and current Director of the School of Biological Sciences Fred Adler said of the news, “The National Academy of Sciences was established by President Abraham Lincoln to advise the nation about science and technology, and membership recognizes extraordinary achievement in research. When it comes to understanding the complexity of ecosystems and the risks they face in today’s world, Distinguished Professor Lissy Coley is the expert I turn to get to the heart of the question.”

Coley’s expertise will now be more accessible. Concluded Adler, “I am delighted that this inspirational scientist, teacher and mentor will have the opportunity to share her wisdom with our nation at large.”

 A Dynamic Duo

Phyllis “Lissy” Coley and Tom Kursar

With the late Tom Kursar, Coley’s partner-in-life and in work, the couple blended her training in ecology and his in biophysics to work in multiple countries in both the African Congo and the Amazon as well as in Panama, Borneo and Malaysia.

Coley’s signature work on understanding the complexity of ecosystems is due to her focus on why tropical forests are so spectacularly diverse. “How can 650 tree species–more than in all of North America–live together in a single hectare of tropical forest?” she asks. Another question related to the first includes what drives speciation. “We have shown that the arms race with insect herbivores leads to extraordinarily rapid evolution of a battery of plant defenses,” she continues, “particularly chemical toxins, such that a given species of herbivore has evolved counter adaptations that allow it to feed on only plant species with similar defenses.”

It turns out that plant species with different defenses do not share herbivores and therefore can co-exist, promoting high local diversity. The concept that the high biodiversity of tropical forests is due to these antagonistic interactions is now widely accepted by her colleagues in the forest ecology sector and now acknowledged by the NAS.

“I am truly honored that my scientific research and conservation efforts are recognized,” said Coley, “but they would not have been possible without wonderful collaborators. And I am happy that the young scientists I have mentored are continuing to explore the many remaining questions in evolutionary ecology.”

Making it personal

To know Coley and Kursar (who died in 2018) is to know that their research is and has been highly personal. And their ambitions would naturally extend to beyond field research to economic opportunity for their friends and associates in Central America, linking even to social justice. Their concern about forest destruction and the peoples who live in those sites has led to bioprospecting. “We used our curiosity-driven (basic) research to create ways to have benefits from intact forests via drug discovery,” explains Coley. Young, expanding tropical leaves invest fifty percent of their dry weight in hundreds of chemicals. “We thought they could be an undiscovered source of pharmaceutical medicines.”

The duo set their project up in Panama, with the majority of the work being done by local scientists. It has resulted in $15 million of seed money to Panama. Their discoveries have led to promising patents, research experiences for hundreds of students and the creation of more jobs than the country’s ubiquitous and potentially destructive logging.

Left to right: Mayra Ninazunta, Dale Forrister, Yamara de Lourdes Serrano Añazco, Lissy Coley, Tom Kursar

Furthermore, the project has established the island of Coiba as a protected World Heritage Site and created a new voice of Panamanian scientists helping to shape government policy and appreciation of their natural treasures.

While Coley retired from teaching in 2020, her lab and its research, until very recently, continues at the School of Biological Sciences. “I think one of the unifying principles that made our department interesting to me,” she concludes, “is that many faculty were interested at some level in evolution.”

The late K. Gordon Lark, department chair in the 70s, was the impetus for that. “Whether we’re talking about molecular or ecological systems, evolutionary/ecological interactions shape all of that. This has been an important unifier of research interest in the School,” Coley says in tribute of Lark. Along with recent hires of outstanding young faculty researchers, which she hopes will continue, this “unifier” has helped keep such a large academic unit intact. “It has been the glue.”

As Lissy Coley always cared deeply about graduate students, she established the Coley/Kursar Endowment in 2018 to fund graduate student field research in ecology, evolution and organismal biology. The endowment is indicative of her dedication, corroborated by Peter Trapa, dean of the College of Science: “Distinguished Professor Coley has advanced our understanding of plant-animal interactions and tropical ecology in spectacular ways. Election to the National Academy is a fitting recognition of her deep and impactful contributions.”

 

by David Pace

Mathematical Biology Adds Up

Mathematical Biology Adds Up


The intersection between biology and math may seem like a large divide, but in reality, these disciplines gives rise to fascinating research approaches.

Jody Reimer, an assistant professor at the U, has double appointments in biology and math. “Biology is very messy,” Reimer states. “There’s this feeling of wanting to find universal principles or general theories. There’s nothing that refines your thinking better than having to write something down as an equation.”

Reimer is from a small town in Manitoba and completed her undergraduate degree at the University of Manitoba. From there, she completed her master’s degree at the University of Oxford. “It’s like the Disneyland of academics,” she jokes, referring to the prestigious university, the oldest in the English-speaking world. “It feels like you’re in a movie about being an academic.” She then moved back to Canada and completed her PhD at the University of Alberta before coming to the U as a postdoctoral researcher to work with Fred Adler and Ken Golden. In 2022 she became an assistant professor in math and biology. 

“My work is very interdisciplinary,” Reimer says. “I typically collaborate with biologists, but it was harder to meet folks in biology while working strictly in the math department.” Her joint appointment in biology and math facilitates collaborations with faculty and researchers in both. Within the intersection of math and biology, Reimer works with ecological research projects, specifically with sea ice.

Sea ice is considered the “soil of the ocean,” as Reimer puts it. The algae within sea ice are “more similar to a terrestrial system of plants growing than they are to a marine system. So marine organisms are growing on a terrestrial-like substrate.” Reimer explains that as an environment, sea ice is very dynamic. If the air temperature changes by ten degrees, the physical characteristics of the ice changes as it melts or freezes in response to the change in temperature. That also changes the fluid permeability of the ice, thus changing the microbial habitat in dramatic ways.

“What the environment looks like determines what can grow there,” Reimer states. “The little algal cells in the ice are also ecosystem engineers. They secrete these exopolymer substances to protect themselves, and that ‘goo’ changes the physics of the ice.”

Since change in temperature affects environments like sea ice in such significant ways, it’s an important area of research in regards to climate change. Research into how remote areas, such as Antarctica and the Arctic, are impacted by climate change as the planet warms by a few degrees is important, especially for polar regions. Reimer is using mechanistic models, which are well-suited to understanding climate change and environmental change as they allow us to explore the implications of previously unobserved environmental conditions.

The policy implications of research like this includes knowing what is vulnerable to climate change and needs protecting. “It’s hard to push for protections for areas if you don't know what you're protecting,” Reimer says. “Which areas are ecologically important and which areas are ecologically vulnerable?”

A woman tags a sedated polar bear.

Photo Credit: Evan Richardson

Reimer had her work on ringed seals in Alaska used in a court case when Alaska attempted to appeal the placement of ringed seals on the Endangered Species List. “It’s kind of unprecedented,” she says, in regards to why ringed seals were placed on the list. “I think polar bears are the first species that were listed, not because they're currently in danger, but because climate change forecasts suggest future population declines.” Reimer continues, saying their listing “was partially based on mathematical modeling work actually showing our best understanding of how polar bear populations respond to Arctic warming. This is how climate change is going to influence them. And it was enough to get them listed.” Ringed seals are listed for the same reason, and Reimer was encouraged to see her own modeling work contribute to that decision.   

Today, Reimer has found a home in Salt Lake City as she gets settled into her new lab in the south biology building. The challenge of being posted in two different departments as a tenure-line faculty member, even in the same college, is having double the administrative load, including showing up at two different faculty meetings and being on committees. With research that relates to both biology and math, things become comparable and quantifiable when they take the form of a mathematical equation, arguably a necessary tool for the great steamship of science to keep plowing the waters of knowledge and understanding.

By CJ Siebeneck
Science Writer Intern

 

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William Anderegg Receives NSF Waterman Award

William Anderegg and National Science Foundation Dir. Sethuraman Panchanathan at Waterman Award Ceremonies, May 9, 2023. Photo provided by NSF.

William Anderegg RECEIVES Waterman Award

Associate professor of Biology William Anderegg is a 2023 recipient of the National Science Foundation‘s Alan T. Waterman Award. Anderegg, who is also Director of the Wilkes Center for Climate Science & Policy, is one of three awardees each of whom receive a medal and $1 million over five years for research in their chosen field of science. The nation’s highest honor for early-career scientists and engineers, The Waterman Award was presented to all recipients at a ceremony during the National Science Board meeting, held in Washington, D.C., on May 9. The award, established by Congress in 1975, is named for Alan T. Waterman, NSF’s first director.

“Receiving the Waterman Award is incredibly meaningful. It’s an amazing honor and I’m still stunned,” said Anderegg. “It will allow us to take on some really aspirational, creative and high-risk projects that we’ve thought about for a while but can now actually tackle. I’m immensely grateful to the wonderful mentors I’ve had throughout my career who played a huge role in my path as a scientist. I feel lucky to be surrounded by such generous and brilliant scientists, and this award has really made me reflect on how important these people have been and still are in my career.”

This is the second year the National Science Foundation has chosen to honor three researchers with the award, which recognizes outstanding early-career U.S. science or engineering researchers who demonstrate exceptional individual achievements in NSF-supported fields.

 

Read the full story by Ross Chambless in @TheU.
Listen to the National Science Foundation’s recent podcast with Bill Anderegg here.

 

Outstanding Undergrad Research Awards 2023

The University of Utah is one of the top research academic institutions in the Intermountain West, and it’s thanks in major part to the U’s undergraduate student researchers and the faculty who advise and mentor them.

Some of the university’s up-and-coming researchers and mentors were honored at the 2023 Office of Undergraduate Research (OUR) Awards, held virtually on April 3 due to a winter weather advisory in the Northern Utah area.

Every year, OUR recognizes one undergraduate student researcher from each college/school with the Outstanding Undergraduate Researcher Award, according to the office’s website. Partnering colleges and schools are responsible for selecting the awardee.

Dr. Annie Isabel Fukushima, director of the Office of Undergraduate Research and associate dean of Undergraduate Studies at the U, said the OUR recognizes that to foster a culture of future problem-solvers working in tandem with current premier researchers in their fields of study, they must also foster a culture of recognition and rewards.

This year, 16 undergraduate researchers were honored with the Outstanding Undergraduate Researcher Award, three of them from the College of Science:

Yexalen Barrera-Casas (left) Mentor: Professor Michael Morse, Dept. of Chemistry

Alison Wang (center) Mentor: Professor Caroline Saouma, Dept. of Chemistry

Nancy Sohlberg (right) Mentor: Professor Gannet Hallar, Dept. of Atmospheric Sciences

“The Outstanding Undergraduate Researcher Awards exemplify excellence in research at the University of Utah across the disciplines,” Fukushima said. “The awardees are creative thinkers, innovators, and solving pressing societal problems.”

Dr. Carena Frost, Associate Vice President for Research Integrity and Compliance at the University of Utah, gave opening remarks on behalf of the Office of the Vice President for Research (VPR). Frost told the audience there’s no doubt the student researchers will continue to innovate in science, medicine, technology and many more fields thanks to the work they do.

“Research is all about helping people,” she said. “Finding solutions for our society is what gets me most excited about the future of research at the U, and you are at the forefront of it.”

At the ceremony event, award recipients were able to thank their mentors, family and others for their support. Four students were honored for being Parent Fund Undergraduate Research Scholarship recipients.

For the first time in the event’s history, mentors were honored with the Outstanding Undergraduate Research Mentor Award. Nineteen mentors were recognized at this year’s event.

Fukushima, who is also an associate professor of Ethnic Studies, was one of the mentor award honorees. She said mentoring relationships are successful because of commitment, communication, and a culture — both within a department and university-wide — that is invested in research occurring at all stages of academic, from undergraduate to faculty.

“Student-faculty collaborations are successful because mentors invest the time, and mentees are willing to risk going into the unknown and the uncomfortable,” Fukushima said. “Doing research is hard, but it can be rewarding.”

More information and criteria for both awards can be found on the OUR’s website to see OUR awards program click here.

1U4U Initiative

Browse the College of Science’s Funded 1U4U Projects for 2023

 

IU4U is designed to seed multidisciplinary faculty/student collaborations in areas of mutual research interest and opportunity. The initiative seeks innovative projects aimed at campus, education, engagement, research and scholarship that are not subject to traditional peer review. In order to receive funding priority, the project must have the potential of leading to external funding, have societal impact, and be a collaboration between health sciences and main campus.

The College of Science is pleased to announce that four of our professors have received an 1U4U award. Congratulations!

Emerging Perovskite Dosimetry for In-Situ and High-Dose Radiotherapy

CONNOR BISCHAK, CHEMISTRY


Robust radiation detectors are essential in state-of-the-art radiotherapy and cancer treatment. This project exploits an innovative perovskite detector that meets the stringent requirements for such dosimeters. Our interdisciplinary team possesses complementary expertise in chemical synthesis (Bischak), semiconductor devices (Yoon), nuclear radiation (Sjoden), and clinical medical physics (Nelson).

Metal-halide perovskites are emerging semiconductors owing to their facile synthesis, tunable bandgap, long carrier diffusion length, and high defect tolerance. Researchers have demonstrated the feasibility of perovskite detectors where the performance is comparable to or exceeds established detectors. While exciting, the stability of perovskites under high radiation doses must be better understood. The detector architecture that optimizes the complex interactions between radioactive particles with semiconductors remains challenging. This research field faces limited experimental evaluation under irradiation by high-energy particles.

Our team is ideally positioned to tackle such challenges by maximizing our expertise and resources (TRIGA reactor [n-gamma], electron/proton sources). This project will be built on a solid partnership among experts, staff, and students, providing an excellent opportunity to promote diversity, educational training, and close collaborations. This project will enable us to pursue large external grants in medical, homeland security, and space research.

 

Surgery in the Pyrocene: Examining the Risk of Wildfire Smoke to Perioperative Patient Populations in the Mountain West

DEREK MALLIA, ATMOSPHERIC SCIENCES


Across the Western U.S., the number of large wildfires has been steadily increasing since the early 1980s leading to degraded air quality. Wildfire smoke is known to worsen cardiopulmonary and neurovascular outcomes, however its impact on surgical patients is unstudied. Surgical populations are especially vulnerable to wildfire smoke due to the surgical inflammatory response which can synergize with pollution related inflammation. We hypothesize that patients presenting for surgery during wildfire smoke events will experience worsened perioperative outcomes (e.g. stroke, MI) compared to clean air days.

To characterize the health risk of wildfire smoke, linkages are needed that can attribute specific elevated smoke components (e.g PAHs, PM2.5) to specific source regions. We will leverage a smoke transport model (STILT), developed by Co-I Mallia and Wilmot, which can trace the origin of elevated PM2.5 levels to specific wildfires and use this funding to extend model timeframes. The smoke model will then be combined with perioperative outcomes, patient addresses, and traffic pollution, building on prior work from Co-I’s Pearson and Wan from the Departments of Anesthesiology and Geography. Differentiating upstream smoke events from downstream pollution will enable better understanding of the pathophysiological mechanisms behind inflammatory responses to these varied sources. This non-traditional, cross-campus collaboration will enable us to characterize the risk to patients undergoing surgery and devise countermeasures, such as in-home filtration, PPE, and dynamic surgical scheduling, based on air quality.

This team will tackle a complex problem, the impact of wildfire smoke on perioperative health, and test the feasibility of this field of inquiry while supporting student researchers. If successful, we hope to build multi-institutional collaborations and obtain extramural funding from sources such as the NIH’s Climate Change and Health NOSI (NOT-ES-22-006).

 

The pathogenic potential of Great Salt Lake dust

KEVIN PERRY, ATMOSPHERIC SCIENCES


The Great Salt Lake (GSL) is rapidly shrinking, exposing a vast lake bed and emitting dust that affects the air quality for the 1.3 million people in the Salt Lake Valley (SLV) with a disproportionate impact on underserved communities. Dust from the GSL contains heavy metals, dangerous for human health. However, the pathogenic content of GSL dust has not been characterized, an urgent gap in our understanding of the health consequences of the drying lake.

To characterize the potential pathogens in the source of GSL dust, we will sample dust from a transect on the exposed lake bed. We will sieve dust and then re-aerosolize it to focus on the respirable fraction of dust that can penetrate deep into the lungs and that poses the most direct infection risk. To characterize the dust microbiome that may more proximally affect people and may contribute to increasing environmental health disparities in SLV, we will collect airborne dust using filter samplers across city transects. For both dust from the GSL lakebed and urban air, we will characterize the dust microbiome, identifying all known human bacterial and fungal pathogens, with next generation sequencing.
This proposal establishes a new multidisciplinary collaboration between researchers in the School of Pharmacy, School of Medicine, College of Mines and Earth Sciences, and College of Engineering, enabling us to collect preliminary data for an NIH proposal to study the epidemiology of GSL dust. By focusing on a major environmental and health justice challenge, our proposal advances the University of Utah’s strategic goals to develop and transfer new knowledge and to engage communities to improve health and the quality of life.

 

Understand and predict the severe drought events in the western United States and their influence on water resources and human health

ZHAOXIA PU, AYMOSPHERIC SCIENCES

 

 

 

PAUL BROOKS, GEOLOGY & GEOPHYSICS


The western United States has experienced drought in recent years. In 2022, drought conditions were most severe in the States of California, Texas, Oregon, Nevada, Utah, and New Mexico. As reported in July 2022, more than 32 percent of land in western states was classified as experiencing extreme or exceptional drought.
Drought can adversely reduce the quantity of snowpack and streamflow available, thus greatly influencing the ecosystem, human activities, and human health through environmental influence and social and economic impacts.

This project aims to better understand and predict the severe drought events in the western United States and their impacts on water resources and human health, especially in Northern Utah. We seek collaborations from climate, hydrological, ecosystem, and health science. Our objectives are to 1) develop improved drought metrics based on the historical records and current conditions of the atmosphere, land, and plant available water for an effective drought prediction method; and 2) assess the drought impacts on human health, such as lung health of toxic dust caused by a drought in Great Salt Lake. The ultimate goal of the research is to provide effective drought prediction methods for the western United States and identify significant issues, thus making suggestions for essential decision-making.

 

Development of a Science-Theater collaborative platform

SAVEEZ SAFFARIAN, PHYSICS & ASTRONOMY


“Of Serpents & Sea Spray” by Rachel Bublitz at Custom Made Theatre Co. photo by Jay Yamada.

Science and technology have transformed our lives and will disrupt and reshape jobs within our community. Yet, from genetic modifications to quantum computing, science remains enigmatic to the public. In recognition of this problem, the National Science Foundation has required every scientific proposal to incorporate elements of outreach. One way to reach wider communities is live theater. The Alfred P. Sloan Foundation supports production of plays about science. The creation of plays about science, however, remain challenging because it requires non-traditional, cross-disciplinary collaborations too elaborate for junior investigators or emerging playwrights.

Our project will develop a collaborative model that draws on the expertise of research faculty in Science, Theater and the Center for Health Ethics, Arts, and Humanities. We will test this approach by developing a play about retroviruses to be performed at the International Retrovirology Conference at Snowbird Utah in September of 2023. Our team has identified a local playwright, Rachel Bublitz, and director, Assistant Professor Alexandra Harbold (Theatre), who, will collaborate with Dr Anna Skalka (Fox Chase Medical Center in Philadelphia), Dr Saffarian’s lab, and health sciences faculty to explore the golden age of molecular biology and the ethical and social implications of retroviral research. This process will be documented to serve as a model for future investigators.
Opportunities for extramural funding include:

1- Allowing junior faculty to propose science-theater collaborations as outreach mechanisms in their NSF proposals. This retroviruses play will be directly incorporated into the next NSF proposal from Dr Saffarian’s lab.
2- Allowing playwrights to develop plays with the potential to seek additional development and production support from arts, cultural and science education foundations.

 

Overcoming Vaccine Hesitancy and Preventing Cancer ThroughAdaptive Learning Artificial Intelligence and Refinement of Reminder Interventions and Campaigns

NAINA PHADNIS, BIOLOGY


HPV is common (>80% of people), responsible for 36,000 cancer diagnoses each year in the U.S., and largely preventable. Vaccine hesitancy is a barrier to immunization and misinformation during the COVID-19 pandemic accelerated hesitancy, leading to sharp declines in adolescent immunizations, including HPV vaccination. Efforts focused on childhood vaccination, resulted in deprioritization of HPV and adolescent immunization. Patient reminder and recall (RR) strategies have been proven successful in immunization uptake; however, the effectiveness of these strategies varies by geographic and sociodemographic factors. The current study will be among the first to use state-level vaccination registry data to systematically examine missed opportunities and identify spatial and temporal trends of HPV vaccination. This project will inform the creation of an adaptive learning artificial intelligence for refinement of interactive RR strategies and interventions. Solutions arising from this study are scalable, can be tailored for diverse reminder campaigns, responsive to evolving landscapes, and designed to deliver cost-effective solutions. Both innovative and transformative, this cross-campus collaboration will address complex healthcare problems using precision public health strategies, optimized for decreasing vaccine hesitancy and increasing uptake, and provide preliminary results for high-impact NIH and NCI funding proposals.

 

Investigation of Polymer Functional Groups and Their Impact on Sperm Viability

 

NITIN PHADNIS, BIOLOGY


We have observed that the viability of sperm decreases depending on the polymer materials used in assisted reproductive technologies. We have done some preliminary studies and have determined that sperm can be negatively impacted by either the functional groups present on polymers, surface charge, surface morphology, and other polymer properties. We have further noted increased incidence in gamete toxicity in contact materials that were recently purchased after product substitutions became necessary due to supply chain issues. We believe this is due to the use of additives, mold release agents, and other contaminants that are present on the polymer surfaces. In this study, we propose to investigate the polymer properties of contact materials used in assisted reproductive techniques (ART) to determine their impact on the viability of sperm after exposure to different polymers over time. Following sperm exposure to various materials, we will test sperm function using the hamster egg penetration test. In addition, the Phadnis lab has developed a “sperm racetrack”, an optically clear counter-current microfluidic channel that can be used as a sensitive assay to measure other functional aspects of sperm including linear velocity, swim efficiency and longevity of motility. In this study, we aim to examine the material properties that may affect sperm viability, to determine whether there are negative impacts on sperm after exposure to specific polymer materials and to identify materials that are most compatible with gametes, with the ultimate goal of optimizing the composition of contact materials used in ART.

You can browse all of the awardees at the University of Utah here. 

Founders Day Distinguished Alumni

Distinguished AlumnI Awards

The University of Utah Office of Alumni Relations annually presents its Founders Day Distinguished Alumnus/Alumna Awards to alumni for their outstanding professional achievements, public service, and/or commitment to the U.

This year, all four recipients of the award, given out March 1, stemmed from the College of Science. A fifth individual, was presented as an “honorary alum” who has contributed significantly to the advancement of the U.

Musician trapped in scientist’s body

Clifton Sanders PhD’90, arrived in Salt Lake City from Baltimore via University of Michigan in 1977. During his appearance as the featured speaker at the Hugo Rossi Lecture Series March 15, he detailed what it was like to be one of very few Black residents in Utah. Even so, his experience in the Department of Chemistry was generally a positive experience. Today, he is the Provost for Academic Affairs and Chief Academic Officer of Salt Lake Community College, overseeing the education of more than 61,000 students annually.

A saxophonist like his father, Sanders has been called “a musician trapped in a scientist’s body.” “I look at playing music almost as a research program, just like a scientist would,” Sanders says. “There are little experiments you do and in the craft you figure out … how to make it work.” For the past five years, Sanders has volunteered as a mentor for the U’s African American Doctoral Scholars Initiative, providing a scholarly community and educational services to prepare Black Ph.D. students at the U for academic, industry, and entrepreneurial careers through mentoring, advising, and professional development. Recently, he’s back with his sax, appearing locally with the George Brown Quintet known for its unpretentious, “killin’ straight ahead” jazz.

Army 'Brat'-turned neurosurgeon

“Utah is now complimented for its ‘connectedness’” says J. Charles Rich BS’62 MD’65  “—a culture where so many have known each other for so many reasons over so many years. The University of Utah plays a central role in providing that valuable resource.” Rich served as president of both the American Association of Neurological Surgeons and American Academy of Neurological Surgeons and was vice chairman of the American Board of Neurological Surgery. 

He was also a neurosurgical delegate to the American Medical Association House of Delegates and was chief medical officer of the 2002 Salt Lake Winter Olympic Games before joining the Utah Sports Commission Board of Directors. Rich was president of the Spencer Fox Eccles School of Medicine’s Alumni Association for eight years, a member of the U Alumni Board of Directors for three years, a neurosurgical consultant to the University of Utah Athletics Department, and a member of the Crimson Club Board of Directors. 

A self-identified “army brat” growing up during WWII, Rich, a biology graduate who went on to medical school at the U, also served with his family as a foster family for basketball student-athletes and contributed to athletic scholarships for many years. 

Moving Mountains

Anke Friedrich BS’90 MS’93 is an endowed professor of geology at the Ludwig-Maximilians-University of Munich where she established a Master's degree program in geology, led international student field trips involving U students, and set up student exchange programs with several international institutions, including the U. "I benefited enormously from the vibrant and collegial environment at the University of Utah,” she says, “both as a student-athlete and a geology major. Therefore, I am very grateful to my former ski coaches, faculty mentors, and fellow students for their tremendous support and friendship over the years."

An adjunct professor at the U's Department of Geology & Geophysics, Friedrich received the department’s Distinguished Alumni Award in 2019. She played a crucial role in establishing one of the world's first continuously operating space-geodetic networks which served to monitor the tectonic activity around Yucca Mountain, the then-proposed nuclear waste repository site. 

Friedrich volunteered for the Salt Lake Olympic Games in 2002 before moving to Potsdam and helping to establish the first research group in Active Tectonics at a geological institute in Germany. As a student, she was a member of the U’s alpine ski team, earning All-American honors by winning three individual NCAA championships in giant slalom and slalom.

Catalyst for education and growth

James S. Hinckley BS’71 MS’77 is chairman of the Hinckley Institute of Politics Board of Directors and Investment Committee, positions he has held since 1990. Both he and his wife Lyn Hinckley (BS’73), a former elementary school teacher and, currently, a community advocate for the McCluskey Center for Violence Prevention, received the award. 

Graduating with his bachelor’s at the U in biology, Jim joined the family business early on selling cars. He was a member of the Chrysler Corporation West Region Dealer Council 1982 through 1990 and the Chrysler Corp. National Truck Advisory Board from 1988 through 1992. He was president of the Utah Automobile Dealers Association from 1988 through 1989 and was inducted into the Utah Automobile Hall of Fame in 2013. 

An alumnus of what is now the College of Science’s School of Biological Sciences, Jim is a sustaining member of the U’s National Advisory Council and has been a member of the National History Museum of Utah’s Board of Advisors since 2018. “I love learning and sharing my enthusiasm for knowledge by creating opportunities for education and growth,” he says. “My involvement in both academic and community-facing organizations at the U has allowed me to engage with and support students of all ages throughout their educational journeys.”

Flashing the 'U'

Legendary Utah fan John Bircumshaw popularized the “Flash the U” gesture. His passion for the University of Utah Gymnastics program has led him to become a staple in the Utah gymnastics world; he travels with the team, provides a community for the gymnasts’ parents, and is the person that out-of-town parents can depend on to help their daughters. John was hired by Utah Power in 1973 as a meter reader. He apprenticed and became a journeyman lineman before becoming director of apprentice training from 1996 through 2015.  John received the Spirit of Excellence Award from the company for his involvement in building the Olympic Rings for the 2002 Olympic Games, where he served as venue captain at the figure skating and short track speed skating venue. John also served as a Park City volunteer firefighter, a member of the Volunteer Ski Patrol at the Park City Ski Resort, and volunteer director of the resort’s Saturday Patrol.

“The University of Utah provides a high-quality education for all of the Student Athletes who have the opportunity to attend school and participate in sports,” says Bircumshaw who was presented an honorary distinguished alumni award during the Founders Day celebration.

 

Are you an alumni of the newly-merged College of Science | College of Mines & Earth Sciences? We want to hear from you. Contact or Development Team at travis.mcmullin@utah.edu to share your story.

Balance & Bliss: Aria Ballance

Aria Ballance


“At first, I didn’t really know what you could do with a chemistry degree,” says Aria Ballance. “But I loved it so much that I stuck with it, and it has paid off. I’m glad I followed my ‘bliss.’” 

Lead climbing, Big Cottonwood Canyon

A graduate student in chemistry at the U, Ballance is the recent recipient of the National Defense Science and Engineering Graduate Fellowship. Her love for chemistry has led her to research a wide variety of topics, from water-purifying titanium dioxide clay pots to nanoparticles and chiral molecules in Dr. Jennifer Shumaker-Parry’s nanomaterials lab. 

While applying for the fellowship, Ballance made a remarkable connection between her previous research and a U.S. Air Force project focused on distinguishing between Earth and extraterrestrial molecules. Though her research originally focused on the medical sphere, Ballance’s curiosity and love for space exploration inspired her to advance her research toward the Space Force project’s objective. Ballance explains, “They released a Broad Agency Announcement asking for a proposal that could enhance the signal of potential extraterrestrial molecules from meteorites. And I thought, ‘Oh, okay! My nanoparticles could probably do something like that.” 

Ballance’s current research involves fabricating gold crescent shaped nanostructures she refers to as "nanocrescents." When the nanocrescents interact with an incident light, they create plasmons that she is using to try to enhance the molecular signal of small chiral molecules. She recalls the exciting moment when she made the connection: “One of the things they are looking for when searching for extraterrestrial molecules and signs of life is chirality,” a geometric property in which an object or molecule cannot be superimposed on its mirror image. “A lot of nanoparticles are used to enhance molecular signals, so I was shocked that no one was using them to find aliens!” 

Ballance points to science fiction as one of her sources of inspiration in her work and credits her love of Star Trek for inspiring her to apply for the highly competitive fellowship. Additionally, Ballance cites other sources of inspiration in her day-to-day life, including her fellow lab members, Amy Morren and Anh Nguyen, and her mentor, Dr. Shumaker-Parry, for making her experience at the University of Utah so fulfilling. “Dr. Shumaker-Parry has given me so many opportunities and has helped me grow exponentially as a scientist. Her incredible work with nanoparticles is what inspired me to apply to graduate school and become a chemist.” When the deadline for the fellowship came around, Ballance was going through a difficult personal matter and almost did not apply. But with the support and encouragement of her mentor, she submitted the application. She’s glad she did. 

Ballance emphasizes that submitting the application even under less-than-ideal circumstances taught her how much you can achieve when you let go of the fear of failure and really trust yourself. As a self-proclaimed over thinker, Ballance points out that the pressure to do things perfectly the first time can often hold her back. “If I just trust the process, I do better,” she says. “I think I would’ve done better on tests in high school if they could see all the things I had erased,” she says, jokingly. For Ballance, embracing imperfection and welcoming the unknown are keys to her success. “There are so many variables in chemistry, science, and life in general that you can change, and it's just not linear. And I really think that people should be making mistakes.” 

Above all, Ballance feels the most support and love from her mom and younger sister. “My mom raised me and my sister alone and taught us how to love the world around us even when things feel like they may be falling apart.” As for her sister, “she is the bravest, strongest person I know, and the closest friend I have in the world.”

Growing up in Santa Barbara, California, Ballance remembers her high school years being filled with academic competition and the pressure to perform perfectly. After deciding to take a summer chemistry course at a local college to fix a mistake in her schedule, she found herself surrounded by adults in a lab filled with chemicals she’d never worked with. “It was terrifying,” Ballance said, “especially the labs, because everyone knew what they were doing. I was scared of that class for so long, but I was determined to finish it. “I ended up doing really well and learning more about myself and the course material than I had in any other class.” Her triumph in the class gave her the confidence she needed, and she’s been enamored with the world of chemistry ever since. 

Hiking in Switzerland.

Along with her undergraduate chemistry degree from Lewis & Clark College, Ballance also completed a minor in theater, discovering a refreshing “balance” between the two fields. “I feel like I can lose a lot of creative energy being in the science world, where you are dependent on repetition of trials and replicating your experiments. And that’s why I really want to encourage the science and art worlds to combine. I think it's really important that people go to see art and performances to spark that creative energy.”

Balance and Bliss

Drawn to the U by her love for the outdoors and her desire to get involved with research, Ballance applied and was accepted into the Research Experience for Undergraduates (REU) program in Dr. Shumaker-Parry’s lab after her senior year at Lewis & Clark College. Determined to continue doing research, she hunted for more experience back home in Santa Barbara before applying to graduate school, and was accepted into the U later that year. 

Ballance makes the most of her time living in Utah, going backpacking, hiking, climbing, and skiing whenever she can. “I really love the outdoors,” she says. “If I had a dream job it would be working outside and doing chemistry.” 

Following graduate school, Aria Ballance plans to achieve her dream of living abroad while completing a post-doctoral fellowship. In the meantime, she’ll continue to explore her love of chemistry while she carefully plans her new chapter of adventures.

 “I haven’t figured out where I’m going to go yet, but my plan is to work hard, not give up and to follow my bliss.” Right now, her bliss is decidedly a chemical one. 


By Julia St. Andre

Science Writer Intern

 

 

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Revisiting Carbon Offset Protocols

Revisiting carbon off-set protocols


When you walk through a forest, you are surrounded by carbon. Every branch and every leaf, every inch of trunk and every tendril of unseen root contains carbon pulled from the atmosphere through photosynthesis.

And as long as it stays stored away inside that forest, it’s not contributing to the rising concentrations of carbon dioxide that cause climate change. So it’s only natural that we might want to use forests’ carbon-storage superpower as a potential climate solution in addition to reducing human greenhouse gas emissions.

But climate change itself might compromise how permanently forests are able to store carbon and keep it out of the air, according to a new study led by University of Utah researchers. A study of how different regions and tree species will respond to climate change finds a wide range of estimates of how much carbon forests in different regions might gain or lose as the climate warms. Importantly, the researchers found, the regions most at risk to lose forest carbon through fire, climate stress or insect damage are those regions where many forest carbon offset projects have been set up.

“This tells us there’s a really urgent need to update these carbon offsets protocols and policies with the best available science of climate risks to U.S. forests,” said William Anderegg, study senior author and director of the U’s Wilkes Center for Climate Science and Policy.

The study is published in Nature Geoscience. Find an interactive tool showing carbon storage potential in forests in the U.S. here.

 

Read about a multi-perspective modeling approach and what we still need to know about climate offset protocols in our attempts to mitigate climate change in the full story by Paul Gabrielsen in @The U

 

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