Sloan Research Fellow

LUISA WHITTAKER-BROOKS AWARDED PRESTIGIOUS SLOAN AWARD


Assistant Professor of Chemistry Luisa Whittaker-Brooks is one of the recipients of the prestigious 2021 Sloan Research Fellowship, given to researchers “whose creativity, innovation, and research accomplishments make them stand out as the next generation of scientific leaders.”

The awards are open to scholars in eight scientific and technical fields: chemistry, computational and evolutionary molecular biology, computer science, Earth system science, economics, mathematics, neuroscience and physics. Candidates must be nominated by their fellow scientists, and winners are selected by independent panels of senior scholars on the basis of a candidate’s research accomplishments, creativity and potential to become a leader in his or her field. More than 1000 researchers are nominated each year for 128 fellowship slots. Winners receive a two-year, $75,000 fellowship which can be spent to advance the fellow’s research.

Whittaker-Brooks, a 2007 Fulbright fellow, earned her doctorate from the State University of New York at Buffalo before a L’Oreal USA for Women in Science Postdoctoral fellowship at Princeton University. Among other awards, Whittaker-Brooks has received a Department of Energy Early Career Award, a Cottrell Research Scholarship, a Marion Milligan Mason Award for Women in the Chemical Sciences and was named one of C&EN’s Talented 12 in 2018.

“I was very excited as this award is a testament to all the great work that my students have accomplished throughout these years,” Whittaker-Brooks said. “I am happy to see that their endless creativity and research work ethics are highly recognized in the field.”

Her research studies the properties and fabrication processes of nanomaterials for potential applications in solar energy conversion, thermoelectrics, batteries and electronics. She and her research group are also testing hybrid concepts to simultaneously integrate multiple functions, such as a nanosystem that scavenges its own energy.

The Fellowship is funded by the Alfred P. Sloan Foundation, a not-for-profit dedicated to improving the welfare of all through the advancement of scientific knowledge. Founded in 1934 by industrialist Alfred P. Sloan Jr., the foundation disburses about $80 million in grants each year in four areas: for research in science, technology, engineering, mathematics and economics; initiatives to increase the quality and diversity of scientific institutions and the science workforce; projects to develop or leverage technology to empower research and efforts to enhance and deepen public engagement with science and scientists.

Since the first fellowships were awarded in 1955, 44 faculty from University of Utah have received a Sloan Research Fellowship.

 

first published @ chem.utah.edu

Cottrell Scholar

Gail Zasowski Named a Cottrell Scholar


Dr. Gail Zasowski, assistant professor of the Department of Physics & Astronomy, has been named a 2021 Cottrell Scholar. The Cottrell Scholar program, run by the Research Corporation for Science Advancement, honors early-career faculty members for the quality and innovation of not only their research programs but also their educational activities and their academic leadership. Each year, scholars are selected from a pool of candidates based on their research, education, leadership accomplishments, and proposed future work, as evaluated by panels of external experts.

"I'm honored to be on this list of amazing researchers,” said Zasowski. “This award will allow my group and me to try out a lot of very cool ideas, and I'm excited to be part of the really unique Cottrell Scholar community!"

Jordan Gerton, director of the Center for Science and Mathematics Education at the U and associate professor in the Physics Department, is a 2007 Cottrell Scholar. He was the keynote speaker at last year’s online annual Cottrell Scholar Conference, where he urged the “vibrant collaborative community of Cottrell Scholars to embrace their role as agents of change at their institutions.”

Zasowski, who joined the university in 2017, is an astronomer whose research focuses on understanding how galaxies produce and redistribute the heavy elements that shape the Universe and enable life in it. The 99.5% of Earth’s mass that is not made of hydrogen was actually forged in generations of stars over billions of years. This same “stardust” is responsible for most of what we observe in the Universe: from super-clusters of galaxies to stars and planets in our own galaxy. In order to understand the evolution of the Universe, we have to understand just how it has been enriched in the heavier elements (like carbon, nitrogen, and oxygen) by the stars and gas that reside inside galaxies.

"My research," said Zasowski, "takes advantage of our unique position within our own Milky Way galaxy to use the chemistry and ages of its stars, and of galaxies whose stars and gas share a similar history, to study galaxy evolution on scales that are too small to resolve throughout most of the Universe." Using a wide range of datasets, she and her group explore how and when the Milky Way's own stars enriched its interstellar gas, and how to best use the Milky Way to understand other similar galaxies.

Dr. Zasowski also serves as the spokesperson for the Sloan Digital Sky Survey's (SDSS) current generation, where she works to ensure a smooth, transparent, and inclusive functioning of the massive international collaboration of astronomers and engineers. Within the Physics Department, she is currently Chair of the Ombuds Committee and is looking forward to working with students, staff, and faculty on a student-mentoring initiative.

 

by Michele Swaner - first published @ physics.utah.edu

Carsten Rott

Carsten Rott


Professor Carsten Rott, who will join the Department of Physics & Astronomy in early 2021, has been appointed to the Jack W. Keuffel Memorial Chair, effective January 1, 2021. Rott will hold the chair through December 2025.

“It’s such a great honor to be appointed, and I’m looking forward to my arrival at the U to begin my work,” he said.

The Jack W. Keuffel Memorial Chair in Physics & Astronomy was established to honor and continue the work the late Jack W. Keuffel, a professor and pioneer in cosmic ray research at the U from 1960-1974.

More About Rott
For as long as he can remember, Rott has been fascinated by the night sky, the stars, and the planets. As a child growing up in Germany, he could see the Orion nebula, the Andromeda galaxy, and star clusters. He wondered what these objects were and what else was in the night sky waiting to be discovered.

He combined his love of astronomy with learning computer programing and was fascinated by the ability to write computer programs to model biological systems, fluid dynamics, and astrophysics. By comparing the outcomes of his simulations, he could check to see if his intuition was correct or if he got the physics right, which was invaluable in training his logical thinking skills. “As a high school student, I spent many months trying to understand why my simulations of rotating galaxies would not maintain spiral arm structures or why my models of stars weren’t stable,” he said. Struggling with such questions made him want to understand the underlying phenomena.

Rott studied physics as an undergraduate at the Universität Hannover and went on to receive a Ph.D. from Purdue University in 2004. “Becoming a physicist has at times been a challenge, but it has broadened my horizons so much, and I’m extremely happy I decided to pursue a career in science,” he said.

High-Energy Neutrinos
His research is on understanding the origins of high energy neutrinos, which are tiny, subatomic particles similar to electrons, but with no electrical charge and a very tiny mass. Neutrinos are abundant in the universe but difficult to detect because they rarely interact with matter. These particles originate from distant regions of the universe and can arrive on the Earth more or less unhindered, providing scientists with information about distant galaxies. High-energy neutrinos are associated with extreme cosmic events, such as exploding stars, gamma ray bursts, outflows from supermassive black holes, and neutron stars, and studying them is regarded as a key to identifying and understanding cosmic phenomena.

“One of my main research focuses is to look for signatures of dark matter with high-energy neutrinos. By studying them, we can explore energy scales far beyond the reach of particle accelerators on Earth,” he said.

While most of his work is considered pure research and doesn’t have immediate applications, Rott did figure out a new way to use neutrino oscillations to study the Earth’s interior composition. He spent several months at the Earthquake Research Institute at the University of Tokyo to collaborate with researchers on the topic, and he hopes this new method can help scientists better understand and predict earthquakes.

IceCube Neutrino Telescope
Rott has been a member of the IceCube Neutrino Telescope since the start of the construction of the detector in 2005. IceCube is the world’s largest neutrino detector designed to observe the cosmos from deep within the South Pole ice. The telescope uses an array of more than 5,000 optical sensor modules to detect Cherenkov light, which occurs when neutrinos interact in the ultra-pure Antarctic ice. When a neutrino interaction occurs, a faint light flash is produced, allowing them to be detected.

The IceCube Neutrino Observatory at NSF's Amundsen-Scott South Pole Station Credit: Mike Lucibella, Antarctic Sun

Approximately 300 physicists from 53 institutions in 12 countries are part of the IceCube Collaboration, which tries to solve some of the most fundamental questions of our time, such as the origin of cosmic rays, nature of dark matter, and the properties of neutrinos. The science spectrum covered by the IceCube Neutrino Observatory is very broad, ranging from cosmic ray physics, particle physics, and geophysics to astroparticle physics.

The team of scientists has already achieved some amazing scientific breakthroughs with this telescope. For example, they discovered a diffuse astrophysical neutrino flux in 2014 and recently achieved the first step in identifying the sources of astrophysical neutrinos associated with a highly luminous blazar, which was discovered in 2018. A blazar is an active galaxy that contains a supermassive black hole at its center, with an outflow jet pointed in the direction of the Earth. Over the next years, the team looks forward to making more discoveries by observing the universe in fundamentally new ways.

Life in Korea
Before joining the U, Rott was invited to Korea to begin a tenure-track faculty position at Sungkyunkwan University (SKKU). He took the opportunity to build an astroparticle physics program at one of the major research hubs in Asia. “I was excited to be part of a university that had the vision and determination to become a world-leading university, and I was able to build one of the largest astroparticle physics efforts in Asia, while accomplishing many of my research objectives,” he said.

He enjoys Korean culture and life in Korea, which is very practical and straightforward. “In Korea, people like to get things done fast,” he said. “It’s great to get rapid feedback, for example, on a proposal. You know quickly if your proposal is funded or not.” Being based in Korea has allowed him to collaborate more closely on other projects, including the COSINE-100 dark matter experiment in Korea and the JSNS2 sterile neutrino search and Hyper-Kamiokande neutrino program in Japan. He plans to spearhead initiatives to establish stronger ties between the University of Utah and leading universities in Asia and Korea.

Future Research
Currently, the IceCube team is in the middle of preparing an upgrade to the IceCube Neutrino Telescope. This new telescope will be installed within two years in Antarctica. For the IceCube upgrade, Professor Rott’s team has designed a more accurate camera-based calibration system for the Antarctic ice. Improved calibration will be applied to data collected over the past decade, improving the angular and spatial resolution of detected astrophysical neutrino events.

“The origin of high-energy neutrinos and any new phenomena associated with their production remains one of the biggest challenges of our time,” Rott said. “I’m extremely excited about correlating observations of high-energy neutrinos with other cosmic messengers. To establish any correlation, it’s essential that we can accurately point back to where neutrinos originated on the sky.”

Rott further explains, “We hope that the IceCube upgrade will be just the first step towards a much larger facility for multi-messenger science at the South Pole that combines optical and radio neutrino detection with a cosmic ray air shower array.”

 

by Michele Swaner - Physics & Astronomy News

 

Karl Schwede

Fellow of the American Mathematical Society

Professor Karl Schwede in the U’s Department of Mathematics has been named a member of the 2021 Class of Fellows of the American Mathematical Society (AMS). The Society recognizes members who have made outstanding contributions to the creation, exposition, advancement, communication and utilization of mathematics. Schwede joins 14 other professors in the department who were previously named fellows by the AMS.

“It’s an honor to be named as a fellow of the American Mathematical Society, and I’m grateful for the recognition of my peers in the profession,” said Schwede.

Schwede received his undergraduate degree in mathematics from Whitman College and a Ph.D. in mathematics from the University of Washington. Math was originally third on his list of interests in college, but as he took more advanced math courses, his focus changed to mathematics.

Schwede does basic research in mathematics, studying algebra, geometry and particularly singularities. Much of his work is in the setting of modular arithmetic (also known as clock arithmetic), the same setting as much of our modern communication systems. For example, 5 hours after 10 is 3 or 5+10 = 3. “In this area, I have primarily studied singularities of geometric shapes by algebraic means,” said Schwede. Recently, he has begun working in mixed characteristic, which connects the positive characteristic of clock arithmetic with classical (5+10 = 15) geometric worlds.

He joined the U’s Math Department in 2014 as an associate professor and became a professor in 2018. Last spring, Schwede received a Simons Fellows Award in Mathematics from the Simons Foundation.

 

by Michelle Swaner, originally published in @theU

Sonia Sehgal

Sonia Sehgal

 

U Biology's Sonja Sehgal accepted a Beckman Scholarship this past spring to add to the trove of awards that were already sitting on her academic “mantle” at home. Collective kudos include a Biology Research Scholars Award, a College of Science Scholarship and a Utah Flagship Scholarship.

The Beckman, however, is a step up from her other awards. It represents an unprecedented opportunity, perhaps found nowhere else, in which an undergraduate researcher can hone her craft at the bench and under extraordinary mentorship. The program is a 15-month, mentored research experience for exceptional undergraduate students in chemical and biological sciences, and Martin Horvath, associate professor in the School of Biological Sciences, will serve as her mentor. (Rory Weeks, undergraduate in the Department of Chemistry is the second U Beckman Scholar for 2020-21.) Each scholar receives a $21,000 research stipend to facilitate nine academic calendar months and two three-month summers of research experience. Recipients from around the nation participate in the prestigious Beckman Symposium each summer with one another. Their research began in June 2020 and will conclude in August 2021.

“I started out as a freshman in the ACCESS,” the biology senior explains, referring to the decades-long program hosted by the College of Science Program for Women in Math and Science. “Through this program, I was able to explore various fields in STEM which really kick-started my interest in pursuing biology! Joining the Horvath Lab further sparked my curiosity and has shown me that science goes beyond the stereotypical image of a “scientist.”

Tracking toward a career in medicine

Sonia Sehgal (undergraduate, Biology Research Scholar, Beckman Research Scholar) and Martin Horvath discuss the structure of MutY

Sonia Sehgal (undergraduate, Biology Research Scholar, Beckman Research Scholar) and Martin Horvath discuss the structure of MutY.

Sehgal is far from stereotypical, as a scientist or as an undergraduate. As a woman she knows that she’s in the minority as she works through her academic career and finally a professional career in STEM (Science Technology Engineering and Mathematics). As a complement to her academic career, the Sandy, Utah native has found a job as a University Ambassador. “The ambassadors work closely with the Office of Admissions to share our experience and bring a personal perspective to prospective U of U students,” she says. “When not giving tours or working recruitment events, we can be found having a good time with each other or,” she quips, “practicing walking backwards.”

Though Sehgal finds herself walking backwards while giving tours, she is definitely moving forward in her academic career. “I’m excited to continue doing research and I also plan on attending medical school after graduation. I want to learn about the various mechanisms that can cause diseases to present themselves in different forms across individuals. I want to use this platform to relay these findings with patients and create more representation in the field to strive for a more trusting and effective patient interaction.”

But before medical school, there’s research to be done, a focus in undergraduate education in the SBS that has arguably become the School’s signature.  “In the Horvath lab,” Sehgal explains about her work, MUTYH is a DNA repair enzyme commonly related to diseases like cancer. I am currently finding the role of different biological probes to see how they can affect the activity of this enzyme. Learning more about regulating the activity of MUTYH will allow us to create better drug-targeting systems for cancer in the future.” What most people, even the scientifically-inclined, may not know about the model subject Sehgal is studying is that the MutY enzyme can be found in almost every living organism, yet there is still a lot we don’t know about it.

Hangin' out.

That’s something that inspires rather than discourages Sehgal who will graduate with her BS in 2021. With the help of the Beckman Scholarship, the mentorship of Horvath and the broad view of higher education she gets by being an ambassador, Sehgal finds her future as she tracks toward a career in medicine, promising. And true of all of accomplished undergraduate researchers of Sehgal’s stripe, she is poised for far more awards, and accomplishments.

“The Beckman experience has been going well,” she reports. “Because of the COVID-19 pandemic, the first stage has been virtual. I have been working on coding and molecular docking. However, I look forward to getting into the lab next semester and start testing!” Of Sehgal Horvath adds, "Sonia has a gift for finding a simple clear question to address in her science. She will go far. I feel really lucky to have had the chance to work with her these past years."

Asked what her interests and “likes” she doesn’t stray very far from her time in the lab. She likes rock climbing, dogs … and getting positive results for polymerase chain reaction (PCR), a method widely used to rapidly make millions to billions of copies of a specific DNA sample.

It’s the sort of thrill that allows a budding scientist, like Sonia Sehgal, to take a very small sample of DNA and amplify it to a large enough amount to study in detail.

Beckman Abstract

  • "Finding the role of biological probes on MUTYH activity,"(S. Sehgal)
    DNA damage is implicated in many cancers, such as colorectal cancer. One form of this damage occurs when guanine becomes oxidized to form 8-oxoguanine (OG). MUTYH is a base excision repair (BER) enzyme in humans that excises adenine (A) at OG:A lesions in DNA and thus prevents mutations that may arise after rounds of replication. Interestingly, both inhibition and overactivation of MUTYH can contribute to cancer-causing activity. In this project, MUTYH will be studied through computational modeling and an activity assay to find biological probes that can bind to the protein and affect its function. These probes can later be tested in animal models and may serve as the foundation for anticancer drug discovery. In addition, through analyzing the effect of biological probes on this enzyme, the BER pathway and the dual role of MUTYH in preventing and causing cancer can be further understood. Use of these probes to control MUTYH activity and BER overall can aid with creating more efficient drug targeting systems for cancer treatment in the future.

 

 

by David Pace

 

 

Women in Mathematics

Women in Mathematics


Last spring, the Math Department’s student chapter of the Association for Women in Mathematics (AWM) planned a conference, with speakers, mini courses, breakout sessions, and professional development panels. About 60 participants were expected. Unfortunately, when the pandemic hit in March, everything changed, and the conference was canceled.

Despite the setback, the chapter still moved forward and will host a series of online activities and communications for attendees. In recognition of these remarkable efforts, the chapter was recently selected as the winner of the 2020 AWM Student Chapter Award for Scientific Excellence. Christel Hohenegger, associate professor of mathematics, serves as faculty advisor for the chapter.

"We are very thankful and excited to have won this award and receive national recognition,” said Claire Plunkett, vice president of the chapter for 2020-2021. “This is a national award from the AWM, and we are one of more than a hundred student chapters, so it’s a great honor to be chosen. We feel the award reflects how our chapter's activities have continued to grow and gain momentum over the past several years, and we’re excited to continue to sponsor events and expand our activities.”

For the academic year, the chapter has invited four speakers and all talks will be held on Zoom. Confirmed speakers include Nilima Nigam, professor of mathematics at Simon Fraser University; Kristin Lauter, principal researcher and partner research manager for the Cryptography and Privacy Research group at Microsoft Research; and Christine Berkesch, associate professor of mathematics at the University of Minnesota. The annual conference has been rescheduled for June 2021.

In addition, the chapter will continue to host joint monthly lunch discussions with the SIAM (Society for Industrial and Applied Mathematics) student chapter; a professor panel in which faculty research is shared with students; joint LaTeX (a software system for document preparation) workshops held with the SIAM student chapter; a screening of a documentary called Picture aScientist, a discussion co-hosted with other women in STEM groups; and bi-weekly informal social meetings. For more information about the U’s AWM chapter, visit http://www.math.utah.edu/awmchapter/.

 - first published by the Department of Mathematics

Presidential Scholar

Presidential Scholar


Pearl Sandick

Pearl Sandick one of Four U Presidential Scholars named.

Four faculty members—a pharmacologist, a political scientist, an engineer, and a physicist—have been named Presidential Scholars at the University of Utah.

The award recognizes the extraordinary academic accomplishments and promise of mid-career faculty, providing them with financial support to advance their teaching and research work.

The 2020 recipients are: Marco Bortolato, associate professor in the Department of Pharmacology and Toxicology in the College of Pharmacy; Jim Curry, associate professor and director of graduate studies for the Department of Political Science in the College of Social and Behavioral Science; Masood Parvania, associate professor and associate chair in the Department of Electrical and Computer Engineering in the College of Engineering; and Pearl Sandick, associate professor in the Department of Physics and Astronomy and associate dean of the College of Science.

“These scholars represent the exceptional research and scholarship of mid-career faculty at the University of Utah,” said Dan Reed, senior vice president for Academic Affairs. “They each are outstanding scholars and teachers in their fields of specialty. Their scholarship is what makes the U such a vibrant and exciting intellectual environment.”

Presidential scholars are selected each year, and the recipients receive $10,000 in annual funding for three years. The program is made possible by a generous donor who is interested in fostering the success of mid-career faculty.

Pearl Sandick

Pearl Sandick, a theoretical particle physicist and associate professor in the Department of Physics and Astronomy, studies explanations for dark matter in the universe—one of the most important puzzles in modern physics.“I love that my work involves thinking of new explanations for dark matter, checking that they’re viable given everything we know from past experiments and observations, and proposing new ways to better understand what dark matter is,” she said. “I find this type of creative work and problem solving to be really fun on a day-to-day basis, and the bigger picture — what we’ve learned about the Universe and how it came to look the way it does — is just awe-inspiring.”

She has given a TEDx talk and been interviewed on National Public Radio’s Science Friday. Sandick is passionate about teaching, mentoring students and making science accessible and interesting to non-scientists. In addition to the Presidential Scholar award, she has received the U’s Early Career Teaching Award and Distinguished Mentor Award.

“One of the great joys of working at the U is our commitment to engaging students at all levels in research,” Sandick said, “and I’ve been thrilled to work with amazing undergraduate and graduate students.”

by Rebecca Walsh first published in @theU

2020 Research Scholar

Delaney Mosier

Delaney Mosier receives top College of Science award.

Delaney Mosier, a graduating senior in mathematics, has been awarded the 2020 College of Science Research Scholar Award for her cutting-edge work in the area of sea ice concentration, using partial differential equation models.

“I am humbled to receive this award,” said Delaney. “The College of Science is teeming with groundbreaking research, so it’s an overwhelming honor to be considered one of the top researchers in the College. I’m proud to be a representative of the amazing research going on in the field of mathematics.”

Delaney is also proud to receive the award as a woman. “I strive to be a positive role model for girls and women in STEM. I hope that by earning this award, I can inspire other women to consider working on mathematics research.”

In his letter of support for Delaney’s nomination, Distinguished Professor Ken Golden, who has served as her supervisor and mentor, discussed her research abilities, natural leadership skills, and mathematical prowess, indicating that Delaney is one of the most talented and advanced students he has seen in his 30+ years of mentoring.

Super Student

The College of Science Research Scholar Award, established in 2004, honors the College’s most outstanding senior undergraduate researcher. The Research Scholar must be a graduating undergraduate major of the College of Science, achieve excellence in science research, have definite plans to attend graduate school in a science/math field, and be dedicated to a career in science/math research.

Studying the Behavior of Sea Ice

Delaney studies patterns in the behavior of sea ice in polar regions. She’s interested in how physical processes affect these patterns on a short-term basis and how climate change can affect them in the long-term.

The primary goal of her research with Dr. Golden is to understand better how and why sea ice is changing over time. Considered relatively low order, their model allows them to study intimately the details of the sea ice pack, which can provide insights that might not yet be apparent to the climate science community. Her work tries to answer one of the most important research questions of the modern age: Why is polar sea ice melting so rapidly and will it ever recover?

She has always been passionate about the environment and finds the project exciting because it incorporates mathematics along with studying climate. “My project is very dynamic,” she noted. “Each time I meet with Dr. Golden, we discuss something new to incorporate into our model or seek a new way to understand it. It’s thrilling to be a part of such unique and innovative work.”

Utah Strong

She became seriously interested in math because of her 7th grade algebra teacher. “Mrs. Hein fostered an exploratory environment—I collaborated with my peers and was often challenged to explore the world of mathematics for myself,” she said. “I couldn’t get enough of it. To this day, math remains the one activity that I can completely lose myself in. Math challenges my mind in exhilarating and motivating ways.”

Mentors at the U

Delaney credits Dr. Golden with helping her pursue a variety of opportunities that have furthered her career as a mathematician. She also has praise for Dr. Courtenay Strong, associate professor of atmospheric sciences, and Dr. Jingyi Zhu, associate professor of mathematics, who have served as mentors and helped guide her research.

“My friend and roommate, Katelyn Queen, has been a wonderful mentor and inspiration to me throughout my journey,” said Delaney. “She is always willing to give me advice and support me in my endeavors. I have watched her excel in her first year of graduate school, and that has inspired me in moving forward.” She also thanks fellow students and her parents for their love and support. “My parents are simply the best,” said Delaney.

Her favorite teacher at the U is Dr. Karl Schwede, professor of mathematics. “I had Dr. Schwede for several classes and learned so much,” she said. “He has high standards for his students, which motivated me and helped me to retain the material. He is also supportive and helpful.”

When she isn’t studying or doing research, she loves to dance and listen to music. She was a competitive Irish dancer from ages 11 – 17. She is also an avid reader, especially during the summer.

The Future

Goodbye Salt Lake City

Delaney will begin her Ph.D. studies in applied mathematics this fall. She hasn’t yet decided if she will work in industry, continue with climate research, or become a professor. “Whatever I decide to do, my goal is to use mathematics to have an impact on the world,” she said.

 

by Michele Swaner

 

 

2020 Churchill Scholar

Michael Xiao

Five for Five.

Michael Xiao brings home the U's fifth straight Churchill Scholarship.

Five years after the University of Utah became eligible to compete for the prestigious Churchill Scholarship out of the United Kingdom, the university has sported just as many winners. All of them hail from the College of Science, and all were facilitated through the Honors College which actively moves candidates through a process of university endorsement before applications are sent abroad. The effort has obviously paid off.

“These students are truly amazing,” says Ginger Smoak, Associate Professor Lecturer in the Honors College and the Distinguished Scholarships Advisor. “They are not merely intelligent, but they are also creative thinkers and problem solvers who are first-rate collaborators, researchers, learners, and teachers.”

The most recent U of U winner of the Churchill Scholars program is Michael Xiao of the School of Biological Sciences (SBS).

While early on he aspired to be a doctor, Xiao’s fascination with how mutations in the structure of DNA can lead to diseases such as cancer led him to believe that while it would be one thing “to be able to treat someone, to help others, it would be quite another to be able to understand and study the underpinnings of what you’re doing and to be at its forefront.” This is particularly true, right now, he says, with the advent of the coronavirus.

Michael Xiao

The underpinnings of Xiao’s recent success started as early as eighth grade in the basement of his parent’s house where he was independently studying the effects of UV light damage on DNA. To quantify those effects he was invited to join a lab at nearby BYU where faculty member Kim O’Neill, Professor of Microbiology & Molecular Biology mentored him through high school, even shepherding him through a first-author paper.

Since then Xiao has matured into a formidable researcher, beginning his freshman year in the lab of Michael Deininger, Professor of Internal Medicine and the Huntsman Cancer Institute, followed by his move to the lab of Jared Rutter, a Howard Hughes Medical Institute Investigator in biochemistry. With Rutter he studied the biochemistry of PASK and its roles in muscle stem cell quiescence and activation of the differentiation program. His findings provided insight into the role and regulation of PASK during differentiation, as well as a rationale for designing a small molecule inhibitor to treat diseases such as muscular dystrophy by rejuvenating the muscle stem cell population.

Early experience in a research lab is not only about engaging the scientific method through new discoveries but also about making academic connections that lead to auspicious careers.

Sir Winston Churchill

One of those connections for Xiao was with Chintan Kikani now at the University of Kentucky. In fact the two of them are currently finishing up the final numbers of their joint PASK- related research.

The Churchill award, named after Sir. Winston Churchill, will take Xiao to Cambridge University beginning in October. While there, Xiao plans to join the lab of Christian Frezza at the MRC Cancer Unit for a master’s in medical science. After returning from the UK, Xiao plans to pursue an MD/PhD via combined medical school and graduate school training in an NIH-funded Medical Scientist Training Program.

Xiao is quick to thank his many mentors as well as SBS and the Honors College, the latter of which, he says, taught him to think critically and communicate well, especially through writing. Honors “was very helpful in helping me improve in a lot of areas,” he says, “that are important to my work and my personal life as well.”

Denise Dearing, Director of the School of Biological Sciences at the University of Utah describes Michael Xiao as one who “epitomizes how early research opportunities are transformative and how they ‘turbo-charge’ the likelihood of creating world-class scientists. The School is first in line to congratulate him on receiving this extraordinary award.”

 

by David Pace

 

- First Published in OurDNA Magazine, Spring 2020

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Christoph Boehme

Christoph Boehme

Dean Peter Trapa announced that Professor Christoph Boehme has accepted an offer to serve as chair of the Department of Physics & Astronomy, effective July 1, 2020.

"Professor Boehme is deeply knowledgable and committed to the research and educational missions of the department, and has served with distinction as interim chair this year," Trapa said. "Christoph has my full and unwavering confidence and support, as well as that of SVPAA Dan Reed, in leading the department forward."

Previously, Boehme served as associate chair of the department from 2010-2015. His research is focused on the exploration of spin-dependent electronic processes in condensed matter. The goal of his work is to develop sensitive coherent spin motion detection schemes for small spin ensembles that are needed for quantum computing and general materials research.

A child of the 1970s, Christoph was born and raised in Oppenau, a small town in southwest Germany, 30 miles east of the French city of Strasbourg. After obtaining an undergraduate degree in electrical engineering, and committing to 15 months of civil services caring for disabled people (chosen to avoid the military draft), he moved to Heidelberg, Germany in 1994 to study physics at the University of Heidelberg.

In 1997 Boehme won a Fulbright Student Scholarship which brought him to the United States for the first time, where he studied at North Carolina State University and met his wife Kristie. In 2000 Christoph and Kristie moved to Berlin, Germany where they lived for 5 years while he worked for the Hahn-Meitner Institut, a national laboratory. He finished his dissertation work as a graduate student of the University of Marburg in 2002 and spent an additional three years working as a postdoctoral researcher.

Christoph moved to Utah in 2006 to join the Department of Physics & Astronomy as an Assistant Professor. He was promoted into the rank of Associate Professor and awarded tenure in 2010, and promoted to the rank of Professor in 2013. Boehme received the U’s Distinguished Scholarly and Creative Research Award in 2018 for his contributions and scientific breakthroughs in electron spin physics and for his leadership in the field of spintronics.