May 7-15, 2020 - Survey
Input from students, faculty, and staff is solicited.
- faculty and staff survey
- student engagement through SACs
May 22, 2020 - Summary
May 29, 2020 - Draft
Draft Strategic Plan available to stakeholders (UNID required)
May 29-June 5, 2020 - Comments
Comment phase for Draft Strategic Plan
June 2020 - Update
- Summary of comments available to stakeholders
- Preliminary Strategic Plan available to stakeholders
July, 2020 - Finalize
- Presentation to College Executive Committee for approval
- Strategic Plan finalized
Hedgehogs and Undergrads
The students’ fresh, undaunted determination to scientific inquiry, combined with a lack of preconceived notions and a willingness to learn, were key factors that enabled their groundbreaking discoveries.
Corvin Arveseth, BS’21, can’t remember when he wasn’t fascinated by science and biology. So, when he came to the University of Utah and declared his majors in biology and biochemistry, he knew he wanted hands-on experience in research. “I didn’t know anything [about the] Hedgehog (Hh) signaling [pathway] until I read an advertisement put out by Ben Myers in a biology department newsletter looking for undergraduate researchers,” he says. “After reading some background information and meeting with Ben about the Hh pathway, I became intrigued with the work being done in his lab.”
The Hh pathway he’s referring to is akin to a master set of instructions for animal development and regeneration. It controls the formation of nearly every organ in the human body. Signaling pathway like Hh serve as a molecular “telephone wire” from the cell surface to the nucleus. When cells in our bodies communicate with one another, signals are relayed along these molecular telephone wires, turning on expression of genes involved in growth, differentiation, or in some cases skin and brain cancers.
The Hh pathway got its unusual name from decades-old genetic studies in fruit flies, where mutations in critical developmental genes led the flies to take on a bristly hedgehog-like appearance. However, versions of the Hh pathway operate throughout the animal kingdom, controlling development, stem cell biology, and cancer in many different contexts.
But even after many years of effort by labs all over the world, surprisingly little was known about how the Hh pathway actually works at a molecular level. Scientists knew that the signals conveyed by these molecular telephone wires were fundamental to human development and disease, but they didn’t know what the signals were, or how they were transmitted intracellularly. Consequently, health researchers’ ability to control Hh signaling in many diseases including cancer had been limited.
So, this is a story not just about a seemingly intractable research question, which is de rigeur in scientific circles, but how a team of largely undergraduate students in a four-year-old lab worked together under enormous odds to shake loose that answer. Myers says that that it was because of inexperience, not in spite of it, that the undergraduates in his lab were able to make these discoveries. These students’ fresh, undaunted determination to scientific inquiry, combined with a lack of preconceived notions and a willingness to learn, were key factors that enabled their groundbreaking discoveries.
Two papers, both with U undergraduates as first or co-first authors, were the gratifying result.
When Myers first set up his lab at the U in 2018, the key molecule in the Hh pathway that grabbed his attention was SMOOTHENED (SMO), a so-called “transmembrane protein” that spans across the cell membrane from the outside to the interior. SMO was known to be critical for transmitting signals from the cell surface to the nucleus. But what were the five or six steps between receiving the message and turning on gene expression? There was a “major disconnection about how this worked,” says Myers.
The twenty-five-year-old mystery was indeed tantalizing. It was “this interesting mystery coupled with the importance of Hh function,” says Aveseth, “in developmental and cancer biology [which] hooked me right away,”
Spearheading the project
Arveseth was the point of the spear for this project begun at the beginning of his sophomore year. But there were many others on the team, all of whom are “both incredibly smart, and also very kind and a lot of fun to work with,” according to Myers. This includes Nate Iverson, a third year chemistry major with an interest in cellular signaling. “Having HCI in close connection with the University gave me greater access to research possibilities, and I was able to find an opening in the Myers lab studying Hedgehog signal transduction.”
And then there was biology major Isaac Nelson, who worked tirelessly to produce a freezer full of carefully prepared, purified fragments of SMO for biochemical studies, only to hit a brick wall when he and Myers were unable to formulate a good hypothesis to drive an experiment. “It was only after starting up an international collaboration,” says Myers, “that the critical experiments snapped into view for us.” This led Nelson to send his samples to one of the lab’s new collaborators in Germany, and they used his samples to try an experiment that worked right away. In the midst of a raging pandemic, Nelson’s purified proteins helped to launch a new and entirely unexpected phase of the project, expanding the collaboration to include other scientists around the world.
“It was another scenario,” says Myers, “where everyone worked well together.”
Recent graduate Madison “Madi” Walker, BS’21, with a cell and molecular emphasis, was also part of the team. She is still working in the Myers lab studying another critical aspect of SMO signaling, namely the interaction between SMO and the enzyme G protein-coupled receptor kinase 2. Earlier, former undergraduate Jacob Capener, BS’20, assisted in the work.
Another critical member of the Myers lab team is Will Steiner, BS’21, who is currently collaborating with Arveseth and Nelson to purify SMO in complex with its binding partners in order to work out their atomic structures. He became interested in this area of research after taking the cell biology and biochemistry course at the U. “Biochemistry was particularly compelling and got me excited about the chemical reactions behind human physiology,” he says.
It starts in the classroom
Rigorous courses were critical in preparing Myers’ undergraduate team for the hands-on research that led to their remarkable findings in the lab. He has nothing but kudos for the U’s curriculum. “Coursework before the lab experience [for undergraduate researchers] was very, very good here. In general, I’ve been lucky to attract motivated and curious students to my lab. They are inspired to push the research forward. They are all up to the challenge. And they have a great esprit de corps. They all work incredibly well together as a team to drive the science forward.”
That kind of correlated teamwork was not necessarily easy to enact under the circumstances. “Fortunately, we were able to finish the last key experiment of the first paper,” says Myers, in March 2020, just before the pandemic started to take hold and shut lab work down. He’s always believed that having undergraduates get a taste of cutting-edge research is important. They “shouldn’t have to work on something trivial… . What’s exciting about science is to push the boundaries.”
And yes, for Myers and the other senior members of his lab, including graduate students Danielle Hedeen and Aram Centeno, lab manager Ju-Fen Zhu, and former lab technician John Happ, “you have to be committed to helping everybody in your lab, even if they’re neophytes.” Clearly it’s been worth it. “And being a little bit of a neophyte is good,” he says, “because you don’t talk yourself out of doing experiments that are simple, unorthodox.”
Asking the right questions
What Myers is trying to say, and seems to have proven over the course of the past three years and now the publication of two discovery-laden papers, is that their remarkable findings stemmed from the initial naïve view that the SMO protein didn’t fit the mold of other proteins as was previously assumed. He and Arveseth took a guess that SMO might be directly coupled to a critical intracellular signaling molecule called PKA. This was a rather wild idea, since there were few if any examples of transmembrane proteins that directly interacted with PKA. “It was a guess, how it might work, and a couple of months later: big discovery. Our initial guess was on the right track. There was a whole new unexpected thing going on but that made sense.”
Though early on the team suspected what they had discovered was important, “we didn’t know if we had a full explanation of how the system worked. We weren’t sure if it was the main event or an auxiliary event.” In the first paper, published in the journal PLOS Biology last year, they explained that: what they thought they knew, and what they weren’t sure about . . . yet.
But it was only after the pandemic was in full force that the team pivoted to the second exciting phase of the project, expanding to include Susan Taylor’s lab at the University of California, San Diego, one of the world’s foremost authorities on the PKA molecule the Myers team had implicated in their research.
Taylor and her colleagues had a critical insight regarding the SMO-PKA interaction which eventually formed the basis of a second manuscript, currently in press in the journal Nature Structural and Molecular Biology. “It is a truly remarkable and inspiring collaboration that continues to this day, and I am so proud of how everybody was able to join forces and overcome so many obstacles created by the COVID-19 pandemic,” says Myers. And his team is anticipating that even more exciting discoveries are on the horizon. Eventually, this work may lead to better drugs to treat some of the diseases that result from aberrant Hh signaling, including various skin and brain cancers.
In all, with the resulting two papers, the project turned out to be a “best case scenario that wasn’t planned,” and a lesson of how important it is to keep an open mind, which often leads to big discoveries. Concludes Myers, “To be honest, it comes down to the willingness to try new things and to have the ability to work together as a team. In reality, this would have been way too much for any individual scientist, even a highly trained one, to do alone.”
Success is never final, however. And Arveseth, recipient of no less than ten scholarships and awards during his sojourn at the U, is now on his way to Washington University in St. Louis. There he will begin an MD/PhD program as a physician-scientist this fall. There he will focus on hematology and oncology. His colleagues are also pursuing their academic and research careers full-steam ahead. They, along with their mentor, Ben Myers are a testament to the notion that persistence in knowledge gathering pays off but that it must be paired and even driven by a relentlessly open mind.
- by David Pace, first published @ biology.utah.edu
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.
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.
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
Karl Gordon Lark, Distinguished Professor Emeritus at the University of Utah, passed away on April 10, 2020, after a seven-year battle with cancer. A renowned geneticist, Lark uncovered fundamental aspects of DNA replication and genetics across many systems, from bacteria to soybeans to dogs. He came to the U in 1970 as the biology department’s inaugural chair with a vision—to build a research and teaching powerhouse in the desert. In just six years he recruited 17 faculty members from all biological disciplines, establishing an institution of scientific excellence.
“Today, the tremendous impact of Gordon’s vision and leadership are felt in the School of Biological Sciences, across campus and throughout the state of Utah,” said Denise Dearing, director of the school. “Gordon was responsible for the expansion of molecular biology—a new field in those days—across the U. He will be dearly missed.”
“The [University of Utah’s] nascent research community, in every field from molecular biology to community ecology, was built by Lark in creative, often wildly unconventional small steps,” wrote Baldomero “Toto” Olivera, Distinguished Professor of Biological Sciences, in an unpublished essay for the Annual Reviews of Pharmacology and Toxicology.Olivera conducts world-renowned research on cone snail venom and pain management, and was recruited by Lark. “It is his guidance that makes me feel unconstrained in exploring unusual solutions to seemingly intractable problems.”
Lark was preceded in death by his first wife, Cynthia (née Thompson). He is survived by his four children, Clovis, Ellen, Suzanna and Caroline and his granddaughter, Willow. He is also survived by his second wife, Antje Curry, his stepdaughter, Tara, and her two children, Liam and Briar.
A life of inquiry
Curiosity and coincidence guided Lark’s lifelong pursuit of discovery. He was born on Dec. 13, 1930, in West Lafayette, Indiana, into a household that valued intellect. His father was physics chair at Purdue University and his mother was an artist and psychiatrist. Lark was precocious in his academic pursuits and enrolled at the University of Chicago a year after World War II ended at the age of 15. There, he met Leo Szilard, regarded as the father of the Manhattan Project but who had turned his attention from nuclear reactions to the newly emerging field of the molecular basis of life. Szilard suggested that Lark spend the summer at Cold Spring Harbor, a famous laboratory that helped develop the field of molecular biology. There, Lark met Mark Adams, a scientist from New York University who would become Lark’s mentor.
Adams studied phages, which are viruses that invade bacterial cells and take over various host functions to propagate themselves. He not only inspired Lark’s love of research, but also taught him how to organize effective undergraduate science education. In the fall, Lark returned to Chicago to complete his degree and had his first eureka moment—he discovered reversible changes in the physical structure of phage proteins. It would be about four more years before the field generally accepted that molecules could change a protein’s shape.
“To this day, I think it’s one of the best pieces of science I’ve ever done,” Lark reflected in comments to the U’s American West Center. “It was the bringing together of physics and chemistry and biology into one moment. I didn’t think of it that way at the time, but from then on I was hooked!”
Lark returned to Cold Spring Harbor in the summer of 1950 to work with Adams, and there he met his future wife and scientific collaborator, Cynthia. Lark completed his doctorate at NYU, spent two years as a postdoc at the Statens Serum Institut in Copenhagen, Denmark, and one year at the University of Geneva. On subsequent return visits, he met Costa Georgopoulos, a biochemist who discovered a new class of proteins called chaperones. More than 20 years after they first met, Georgopoulos would move to the Department of Biochemistry at the U.
“Gordon and I shared many old friends and colorful memories from our times in Switzerland,” Georgopoulos remembered. “Gordon’s nickname in the lab was ‘double-decker’ because his plentiful, high-rising hair resembled a double-decker bus.”
In 1956, Lark accepted a position at St. Louis University Medical School. Here, Lark had what he called his second epiphany—an experiment to show that in the absence of protein synthesis, replication of DNA stopped at a particular point on the bacterial chromosome. The experiment set the course of his research for the next two decades. In 1963, the Larks moved on to the physics department at Kansas State University where they focused their research on the process of DNA replication in bacteria. They pioneered how to measure the point when DNA begins replicating, how to track the progression of replication in living cells and developed the technique of measuring the size of cells before they begin to replicate. In 1965, the American Association for Microbiology honored Lark with the Ely Lilly Award, given each year to recognize landmark research in microbial physiology.
Building scientific and teaching excellence in Utah
In 1970, the U’s Robert Vickery recruited Lark to build a powerful new biology department in what would become the School of Biological Sciences in 2014. And build he did. During his time as chair from 1970-77, he hired 17 new tenure-track faculty, including Mario Capecchi who would subsequently become a Nobel Prize laureate, Raymond Gesteland and Ray White, who went on to establish new departments in the School of Medicine.
“As chair, Gordon was an unusually skilled administrator, combining a rare insight into the environment that different members of faculty and staff needed to succeed and the energy to provide it,” said Capecchi. “I was attracted to the young Utah biology department in part by Gordon’s support of long-term studies aimed at significant problems, but without the promise of immediately publishable results, quite different from the ‘publish-or-perish’ policies imposed at many other places.”
Lark also impressed the importance of teaching to the biology faculty, both by personal example and with innovative programs. In the department’s very early days, he hired one of the world’s most charismatic young science personalities, David Suzuki, as a visiting scholar to teach the introductory course in genetics. He implemented video recordings of well-taught introductory courses so they could be offered more frequently to more students. For several years as chair, he funded an annual program in which a prominent faculty member from outside the College of Science taught a course in their own area, designed for biology students.
“During Gordon’s final years after retirement and while battling cancer, he voluntarily and unpaid taught an Honors course for a general student audience. With biographical and autobiographical readings, he introduced the human sides of pioneers in the exciting advances of 20th century physics and chemistry, several of whom Gordon had known personally,” said Larry Okun, professor emeritus of biology. “He taught that course right through 2019, his own last fall semester.”
In Utah, the Larks turned their attention from bacteria to plant cells and tissues, particularly soybeans, for the next decade. In the early 1990s, disaster and serendipity struck—the Lark lab was destroyed while the building was under renovation. After a year of trying to salvage their work, they switched to studying whole soybean plants in agricultural fields, focusing on the genetics underlying certain traits, such as the ability of the crop to adapt to different climates. Overall, their laboratory identified genes that increased the yield of soybeans by 10%.
In 1996, tragedy and serendipity struck again. The Lark’s Portuguese water dog, Georgie, had died of an autoimmune anemia disease. Heartbroken, the Larks connected to a dog breeder, Karen Miller, to buy another puppy. When the time came, Miller gave Lark the $1,500 dog for free hoping to guilt him into studying the breed’s genetics.
It worked. Miller coordinated with Portuguese water dog owners from around the country to send Lark blood samples and X-rays of their pets. What became known as “The Georgie Project,” eventually identified genes that determine the size and shape of the head, thickness of the thigh bone, shape of the pelvis and characteristics of the lower foreleg.
A legacy that spans generations
Lark formally retired from the U as a Distinguished Professor in 1999, but his legacy in biology reaches beyond his direct collaborators. The next generation of biologists also feels his influence.
“The magnitude of Gordon’s accomplishments is hard to really capture in today’s world,” said David Grunwald, professor of human genetics at the U’s School of Medicine. “Individuals can have a big effect on an institution. They can either set a precedent that honors creativity, respect and excellence, or they can make everyone feel like a cog in a machine. Gordon built a place that engendered creativity.”
The K. Gordon Lark Fund was established in 2018 by the School of Biological Sciences in anticipation of growing it to a fully endowed-chair in his name. To honor his memory, donors can make gifts to the endowment here.
- by Lisa Potter
"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.
COVID-19 Student Resources
This situation is unprecedented, and every day brings new information requiring our collective best efforts and flexibility. We know communication about campus updates is key. With that in mind, here is a collection of recent updates we’ve shared that you might have missed, as well as a summary of how to interact with most student services.
Isaac Martin awarded prestigious Goldwater Scholarship.
During middle school and most of high school, Isaac lived in Dubai with his family, where he attended an online high school, allowing him to focus on science and math classes. When his family moved to Utah the summer before his senior year, he decided to attend Salt Lake Community College (SLCC) instead of finishing high school, taking as many math and physics classes as he could.
“It was incredible because I had never had teachers like that before,” said Isaac. “My professors at SLCC were more than happy to talk with me after class and during office hours. They were the main reason I was able to complete SLCC's catalog of math and physics courses in a year. They were instrumental in my decision to switch out of my pre-declared computer engineering major into a math and physics double major at the U.”
Transition to Math
During Isaac’s first four semesters at the U, he intended to pursue a physics Ph.D. and focused primarily on physics classes; however, after brief stints in two different labs, he realized mathematics is a better fit for his talents and interests.
Last summer, Isaac participated in a Research Experience for Undergraduates (REU) program at the University of California, Santa Barbara, and his work has since resulted in a publication. Isaac has been planning to attend the University of Chicago’s REU math program this summer, but if that doesn’t happen due to COVID-19 concerns, he will continue working on positive characteristic commutative algebra with his U supervisors, Thomas Polstra, a National Science Foundation postdoc, and Professor Karl Schwede.
He is indebted to professors in the Math Department, including Dr. Adam Boocher, previously a postdoc at the U and now assistant professor of mathematics at the University of San Diego; Professor Srikanth Iyengar; Dr. Schwede, Dr. Polstra; and Professor Henryk Hecht. “The thing I appreciate most about my mentors is their willingness to take time out their day to talk to me and offer advice,” said Isaac. “My conversations with them are mathematically insightful, but they also reassure me that I'm worth something as a person and am good enough to pursue a career in math.”
When he’s not doing math, Isaac is most likely either playing piano, rock climbing, running in the foothills, or beating his roommates in Smash Bros Ultimate. “I used to have a huge passion for video game programming and would compete in game jams, which are game development competitions held over 36- or 48-hour time intervals,” said Isaac. “I haven’t been able to do that much in the last few years, but would like to pick it up again as a hobby.”
Isaac hopes to have a career in academia as a pure mathematics researcher. “I'd especially like to study problems in commutative algebra and representation theory with relevance to mathematical physics,” he said. Isaac also remains interested in the world of condensed matter. “There is so much novel mathematics dictating theoretical condensed matter, and I expect many exciting breakthroughs will happen there in the near future.”
The Goldwater Scholarship
As the result of a partnership with the Department of Defense National Defense Education Programs (NDEP), Mrs. Peggy Goldwater Clay, Chair of the Board of Trustees of the Barry Goldwater Scholarship and Excellence in Education Foundation, announced that the Trustees of the Goldwater Board have increased the number of Goldwater scholarships it has awarded for the 2020-2021 academic year to 396 college students from across the United States. “As it is vitally important that the Nation ensures that it has the scientific talent it needs to maintain its global competitiveness and security, we saw partnering with the Goldwater Foundation as a way to help ensure the U.S. is developing this talent,” said Dr. Jagadeesh Pamulapati, Director of the NDEP program, as he explained the partnership. With the 2020 awards, this brings the number of scholarships awarded since 1989 by the Goldwater Foundation to 9047 and a scholarship total to over $71M.
From an estimated pool of over 5,000 college sophomores and juniors, 1343 natural science, engineering and mathematics students were nominated by 461 academic institutions to compete for the 2020 Goldwater scholarships. Of students who reported, 191 of the Scholars are men, 203 are women, and virtually all intend to obtain a Ph.D. as their highest degree objective. Fifty Scholars are mathematics and computer science majors, 287 are majoring in the natural sciences, and 59 are majoring in engineering. Many of the Scholars have published their research in leading journals and have presented their work at professional society conferences.
Goldwater Scholars have impressive academic and research credentials that have garnered the attention of prestigious post-graduate fellowship programs. Goldwater Scholars have been awarded 93 Rhodes Scholarships, 146 Marshall Scholarships, 170 Churchill Scholarships, 109 Hertz Fellowships, and numerous other distinguished awards like the National Science Foundation Graduate Research Fellowships.
by Michele Swaner