Griffin Chure

Griffin Chure’s favorite memory of his time at the U was working in Dr. David Blair’s research lab. “During the summers, when class-load was low,” he says, “we characterized the flagellar protein of FIhE, a protein of unknown function." His interactions with Blair and Dr. Sandy Parkinson “firmly set” him on a path towards a career in research.

With a base of confidence provided by mentors in the School of Biological Sciences (SBS), Chure found a natural segue into biophysics, propelled by a course he took from Dr. Saveez Saffarian in 2012. That work “solidified my deep interest in the intersection of biology and physics,” he says, the area in which, after graduation with honors in 2013, he spent his entire graduate career, culminating in 2020 with his PhD in Biochemistry and Molecular Biophysics, at the California Institute of Technology Pasadena.

Griffin Chure

Currently, Chure is a postdoctoral scholar in the Department of Applied Physics at Caltech while next year he will be moving to Stanford University as a National Science Foundation Postdoc Research Fellow to work with Prof. Jonas Cremer. There he will help develop and experimentally test physiologically-grounded mathematical models of bacterial evolution.

Chure’s journey started in the small Green River-side town of Jensen (population 412), seventeen miles from the Colorado state line in Uintah County. “Being raised in rural Utah,” he says, “the option to attend a university with a strong standing in the biological sciences and [to] remain close to family and nature made my choice to attend the U an easy one.” SBS was clearly lucky to get Chure as he continues advancing academically at some of the most prestigious research universities, which like the U, are members of the American Association of Universities, composed of the nation’s top research universities.

His advice to students is to explore science and to do it outside of their comfort level. “It is also important,” he says, “to be sure to be involved in science outside the classroom.” It wasn’t until his graduate studies, he explains, that he was “exposed to the beauty that is probability theory, linear algebra, dynamical systems, and other subfields.” That coupled with extensive training in computer programming “foundationally changed the way I pursue research in biology. The future of biology will be written in the language of mathematics, and quantitative methods should become a central feature of biology education at the U.”

Looking at the larger picture of society and science, Chure is worried that we “live in a time where objective truth and reality seems to be losing its importance with the general populace, even to the point where wearing face coverings has become viewed as a political statement.” Work hard, he says, to convey the science you’re doing to the general public. Even beyond the pandemic, he believes, the only way to fight the erosion of trust in science is to help improve the communication.

Outside of research the recently-minted PhD from Utah has a passion for graphic design and art which dovetails nicely with the work of his wife Bárbara de Araujo Soares who writes Hollywood screenplays. They feel fortunate to have gainful employment during the pandemic. “Going forward, the biggest impact this virus will (hopefully) have on our world,” Chure says, “will be a paradigm shift on how we view and support social causes such as health care, homeless and veteran services, and equitable income support.”

 

 

 
by David Pace
 

Jeffrey Webster

 

Jeffrey Webster (BS'81)

A native of Chagrin Falls, OH, Jeff Webster, MD, FAAOS, found himself as an undergraduate at the University of Utah for "not the most mature reason, but it's true": the easy access to the world class skiing. He might be surprised at how common the denominator is for arriving freshmen who are held in rapture by the opportunities for outdoor recreation in the nearby Wasatch Mountains.

Whether skiing was an adjunct to the degree he sought in biology as a pre-med student ... or the reverse, will remain obscured for now. What he did find in Salt Lake City in the late 70s was that the U was his crucible for a successful life. "The U made me realize that school and life aren't easy, that you have to do solid, honest work to forge your path."

That path culminated in his career as an orthopedic surgeon, currently at the Reno Orthopedic Clinic. After graduating from the U, he attended Wayne State University for his MD followed by a residency at Indiana University. A sports medicine fellowship at Methodist Hospital in Indianapolis then propelled him back to the west near another ski town, this time at the foot of the Sierra Nevada.

While in Utah the slopes had to compete with another passion of Webster's: his two years on the swim team between 1979 and the year he graduated in 1981. "Under coach Don Reddish I made lifelong friends, learned many life lessons, and met my wife Bridget Duncan Webster of over 36 years now." In the off-season he found himself at the bench doing research. I "did a student project," he explains, "self designed, regarding anabolic steroids in rats. Doc [James] Lords supervised. [It] was never published or presented, but was fun to do. The rats surely would have disagreed with the 'fun to do' part." Typical of the School of Biological Sciences' reputation for the informality with which world-class faculty and students collaboratively interact, Webster remembers sitting more than once in Lords' office where they would "shoot the breeze, talk biology, sports, whatever."

As for today, the clinic where Webster works has been, for over sixty years, a magnet for some of the best and brightest in orthopedic medicine. As one of 30 physicians, the Northern Nevada clinic boasts "the kind of comprehensive, world-class care typically only seen in major metropolitan areas." And, along with all medical practitioners right now, Webster, a Fellow of the American Academy of Orthopedic Surgeons, acknowledges the current challenges in the field because of the Covid-19 pandemic. "The impact has been tremendous, and not all in a good way," he says. "The daily inconveniences are certainly a nuisance, but tolerable. It’s the political malfeasance that’s concerning to me." Even so, he muses, the "virus situation has brought family and friends closer, allowing us to appreciate the most important things in life."

His advice to undergraduates currently navigating their education while wearing masks, social distancing and living with the uncertainty of what's next during this singular time is philosophical:  "Be humble, choose your goals, and work diligently in accomplishing them. The basic tenets of western civilization, Christianity for example, are extremely important and powerful. Lead a virtuous life. ...While not very religious per se, I’ve become more spiritual with time."

Dr. Webster quips that he still loves to ski, though he isn't ready to say if Tahoe is as good as "the greatest snow on earth" of Alta and Snowbird. Fortunately, for both this Ohio native and the School of Biological Sciences, they still share the same Great Basin, across the west desert and the salt flats, connected still by the legacy of the University of Utah.

 

 
by David Pace
 

Kurt Zilm

As Yale’s current Chair of the Chemistry Department, it seems clear that Kurt has always understood what the foundation of a successful chemistry department is built on: human connection, collaborative research, and investment in students. As a graduate student at the University of Utah, Kurt took advantage of Professor Ted Eyring’s time, knowledge, and generosity as much as Ted would endure his endless questions and curiosity. He’s spent the past 16 years as the Director of Undergraduate Studies at Yale University, and has committed to create an environment for students that allows them to indulge their curiosity--just as he was able to do with Professor Eyring.

After being at Yale for 38 years, Kurt has recently been part of a renaissance in their college of science as they renovate and build facilities that give all students the opportunities and experiences they need in order to establish themselves as serious chemists and innovators. The department’s investments have made it possible for every undergraduate in organic chemistry to have their own hood with an updated condenser system that delivers chilled water back through a seperate gravity-fed drain system--saving 150,000 gallons of water per year. Kurt has moved his lab three times in the past few years with all the renovating, but of course, is already seeing the extensive benefits to student research.

Since 1995, Yale has made a big push to provide more opportunities for women, minority, economically underprivileged, and other historically underrepresented students in STEM through their STARS Program. Zilm has seen the impact of this program on the science community, and the stats reveal that students who participate in this program continue on in the sciences with a significant impact.

Kurt’s own research is on the cusp of exciting results that he will be publishing in the near future. For one project, he’s been collaborating with a team at Dartmouth trying to figure out what it is that makes infectious prions infectious and how to differentiate them from non-infectious prions. He’s also been working with a team at Yale’s Medical School to understand the molecular mechanism of Alzheimer’s Disease--which he thinks they now understand, and have drugs that seem to work with mice.

These research projects have been 90% of Kurt’s work over the past five years, and it’s all finally starting to bear some fruit. He is quick to talk about the importance of collaboration:

“These projects are really starting to bear fruit only because we’re collaborating with these two teams, and we have the right people and the right facilities to work on this. None of us could have done it on our own.”

For Zilm, it’s all connected: from the similar molecular origins of his two projects, to the investment in students and facilities, to his beginnings at the University of Utah, and the collaborations he’s been part of in the past, present, and future.

 
by Anne Vivienne
 

Ole Jensen

On the surface, Ole Jensen’s start as an undergraduate biology major, angling for medical school, didn’t appear particularly auspicious. His one claim to fame was that as an undergraduate the Salt Lake native was tapped to be a “calf sitter,” which meant that he would sit all night with young bovine used in experiments and monitor their heart rates. The calves were a critical part of the University’s artificial organ program which would eventually produce the world’s first artificial heart in the 1980s.

Not bad for a Utah boy who, when he wasn’t fishing with his Norwegian-born father on the Provo River and elsewhere, spent much of his early life collecting what would become one of the largest insect collections in the state.

It was a heady time to be studying biology at the U. Department Chair Gordon Lark was bringing in guest lecturers and expanding the faculty at a prodigious rate, including micro-biologist Mario Capecchi who would eventually be awarded the Nobel Prize for his work in genetics. Jensen recalls his time in the early seventies as an undergraduate at the U. One day, he says, anatomy professor Stephen Durrant “threw out twenty animal bones spread over a long table and asked the students to identify […them] as part of the midterm exam.” It turned out that the students, who in class had been studying strictly land mammals, got very few correct answers. “One bone that very much perplexed me that I remember to this day,” Jensen continues, “was half of a frontal bone with an ovoid depression. It was from a dolphin: the depression access for the spout!” Needless to say, it was “a particular shock” to find a marine mammal bone in the pile, but it was an experience that Jensen still recalls with some exhilaration.

After graduating from dental school at Northwest University, Jensen continued to Michigan to study oral surgery and, as a post doc, anesthesia, which would eventually lead to a Master’s degree in anesthesiology before returning to the west where he set up practice in Denver. There he plied his trade, as both a science and an art, for the next 38 years. But research has continued to braid its way through his entire professional life—a continuous thread that has kept him at the forefront of the fast-moving field of oral and maxillofacial surgery in which technology, the life sciences and medicine converge. As with many oral surgeons, Jensen performed four-on-one implant operations, which combine bridgework with a maximum of four implants per each of the crescent arrangements or arches.

Eventually, he modified the procedure so that it was less invasive and more intuitive, underscored by his determination to see the implant not as an analogue to a tooth (or teeth) but as a function of bio-mechanical forces, mathematically determined. Eventually he would join forces with business partners to found Clear Choice Dental Implants. “Basically, for five years I wanted to die,” Jensen says of the start-up which now has forty clinics across the nation. The company nearly failed three times, including during the recession of 2008. “I wanted to practice . . . business with integrity, and to be doing things in the best interests of the patients. It’s hard to do that with this kind of work where it’s not too costly and not too difficult for doctors to perform.” In a recent DentalTown podcast, Jensen explains, “If you have a business that is related to dental implants, you’re not going to do stuff that will put the business at risk."

"So this has a business, scientific, and a clinical basis of validity," he says ". . . [and] we stand by the way we treat our edentulous patients… .” Of course success is never final. With his rigorous research background and his bias for asking lots of questions, this time about biofilm, the pervasive glue-like matrix that grows virtually everywhere and can lead to complications in bio-medical work, Jensen took on yet another professional challenge. In September he was hired as Chief Medical Officer for Israel-based NOBIO, helping to create products through Nano-technology in which particles with superior micro-biotic activities are baked into the product to prevent bacteria from growing on surgically implanted devices.

Jensen’s research questions, especially as they’ve related to medicine, have been open ones. “Almost everything I’ve done is in surgery,” he says. “Now I’m doing a project with computers,” referring to his latest adventure. Inspired by the training of pilots who learn to fly by logging many hours in flight simulators, Jensen and his team at Massachusetts General Hospital in Boston are developing a program for surgical simulations.

McKay Hyde

McKay Hyde (Honors B.A. Mathematics, B.A. Physics ’97) always enjoyed math and science, but it was taking a series of physics classes at the U, between his junior and senior year in high school, that changed his life. “I always enjoyed mathematics,” he said. “But physics showed me how mathematics could be used to solve real-world problems. That was tremendously exciting to me and still is.”

The Hyde Family

Today Hyde is managing director in Equities Engineering for the New York office of Goldman Sachs and is responsible for building systems to manage securities inventory and collateral, working closely with teams across Engineering, as well as the Finance, Operations and Securities divisions. “I like being part of a cross-functional team, building relationships and working together to find solutions that impact the organization and the clients we serve,” he said. “The combination of using mathematics and computer science applied to practical problems is very rewarding.”

He joined Goldman Sachs in 2006 and was named managing director in 2010. At Goldman Sachs, Hyde has had a range of responsibilities. He was head of the global Market Risk Technology team within Finance and Risk Engineering. Before that, Hyde led the Trading Strats team for Interest Rate Products in New York as well as the Core Quant Strats team, which developed models, algorithmic trading methods, and pricing infrastructure used by a number of trading desks. (“Strat” is a term that originated with Goldman Sachs to describe individuals that use tools from mathematics and computer science to build financial models In his Core Quant Strat role, Hyde led the build out of the Strat teams in Bengaluru (formerly Bangalore), India, known as “The Silicon Valley of India.”

McKay Hyde, BS'97

Roots in Utah and at the U

Hyde grew up in Salt Lake City and North Salt Lake, graduating from Woods Cross High School. He met his wife, Marie, in an “outstanding” honors class taught by Professor Emeritus Jack Newell (“Education and Identity”), who served as dean and principal architect of the U’s Liberal Education Program. In his first two years at the U Hyde was also active in the U’s music program, playing the trumpet in several university bands—Concert, Marching, Pep, and Jazz.

Hyde gives credit to the education he received at the U with helping prepare him for a career in the financial sector. “I received a tremendous education in physics and mathematics, including research experience working in the Cosmic Ray group and in probability theory. The U provides great value as an institution—a quality education at a reasonable cost,” he said.

He also has great memories of three professors who made a difference for him during his undergraduate years: Davar Khoshnevisan (professor and current chair of the Math Department), Hyde’s undergraduate research advisor in mathematics; Martha Bradley, former dean of the Honors College, and the late Professor Gale Dick, whose “physics lectures were a work of art,” said Hyde.

Using Agile Principles in Undergraduate Research

Hyde believes students should be encouraged to participate in research opportunities early in their undergraduate years, and he applauds the decision of the College of Science to focus on a new program called the Undergraduate Research Initiative. “Research is very different from coursework—it’s really a separate skill,” said Hyde. “Engaging and encouraging undergrads to work together in research opportunities provides a far richer educational experience that really pays off in preparing students for demanding careers.”

To that end, Hyde thinks the same concepts and principles that teams use in Agile software development can effectively be applied to something like the Undergraduate Research Initiative program. “Creating an Agile environment—whether in software development or research—is essentially the same,” said Hyde.

“It involves developing and supporting a culture that encourages a team of people to work toward a common goal. To that end, a large project or research problem can be broken down into smaller tasks. A scrum master or team leader evaluates the special skills and talents of each individual on the team, assigns them to specific tasks, and the team comes together frequently—typically during a daily stand up —over focused sprints—typically 2-3 weeks long—to complete those tasks yielding demonstrable progress at the end of each sprint. By repeating this process, the team improves while building confidence and trust through repeated accomplishment of its goals.”

Previous Academic Career

After earning degrees at the U in 1997 Hyde completed a Ph.D. in Applied and Computational Mathematics from the California Institute of Technology in 2003. Hyde worked as a postdoc in the School of Mathematics at the University of Minnesota and later joined Rice University as an assistant professor of computational and applied mathematics.

When Hyde first left academia to work at Goldman Sachs, he wondered if he would need to dress and act like a “stereotypical banker.” But he discovered it was a much easier transition. “I found smart people from technical fields applying their skills in the area of finance,” he said. “It made me realize the importance of being open to new opportunities—taking the skills and talents you have and using them in different fields or industries to build relationships with others and do meaningful work. That’s really what it’s all about.”

Hyde and his wife, Marie, enjoy living in New Jersey and are the parents of four children: a son studying music at Berklee College of Music; a daughter at Brigham Young University (currently serving a church mission in Peru); and a son and daughter in high school.

 - First Published in Discover Magazine, Fall 2019

Jim Sugihara

“I have lived by the principle that one ought to give back more than they receive.” - Jim Sugihara

 

James M. Sugihara, first Ph.D. recipient at the University of Utah and long-time faculty member in Chemistry, passed away on Nov. 12, 2019. He was 101.

Jim Sugihara, 1947

Sugihara holds an important place in the University’s history, as well as Utah’s history.

In 1942, shortly after the bombing of Pearl Harbor, when Sugihara was just 24, he and his family were relocated from California to the Topaz Mountain internment camp in central Utah. The family lost their home and business.

However, Sugihara was granted a leave from Topaz Mountain to pursue an education, since he had already earned a bachelor’s degree in chemistry at UC-Berkeley in 1939. He enrolled at the U in 1944 and studied chemistry with professor Henry Eyring.

In 1946, Sugihara’s 84-page Ph.D. dissertation on “The Reactions of Mercaptans on Sucrose and Molasses,” included only three approval signatures: Walter D. Bonner, Lloyd E. Malm and Elton L. Quinn. (Henry Eyring had not yet started work as dean of the Graduate School by that date.)

May and Jim Sugihara, 1964

Sugihara received his doctorate degree in Chemistry in 1947. The University catalog in 1948-1949 then listed the following chemistry faculty: professors Elton Quinn, Lloyd Malm, and Henry Eyring; associate professors Vic Beard, Randall Hamm, Bill Burke, Jim Horton; and assistant professors Stuart Haynes, George Hill, Austin Wahraftig, Ransom Parlin, Bruno Zwolinski, and James Sugihara.

 

“Scientific progress has moved in ways that one could not expect. Research in genetics has become paramount, leading to improvements in medicine and human health that one could not imagine just 10 or 20 years ago.”

- Jim Sugihara at 100 years of age

 

In 1964, Sugihara moved to North Dakota State University and became dean of the College of Science and Mathematics. He was named Dean of the Graduate School and Director of Research in 1974. In 1998, he retired as Professor Emeritus.

In 2010, the James M. Sugihara Scholarship – a permanent named scholarship – was established in the Chemistry Department at the U. It provides financial support for an undergraduate who is studying chemistry and who is living on campus in the Crocker Science House located on Officers Circle in Fort Douglas.

 

Sugihara with scholarship winners Shwan Javdan and Elizabeth Fine

Connor Morgan

What does a former Student Body President and Biology alum do after graduating from the U? You start by moving to New Hampshire as a boots-on-the-ground organizer for a presidential candidate.

Connor Morgan (BS,2019) has hung up his cap and gown, and his sojourn at the office of the Associated Students of the University of Utah where he served as president to join candidate and former U.S. Naval Reserve officer Pete Buttigieg, the young mayor of South Bend, IN. Buttigieg, the nation’s first openly gay presidential candidate for a major party, is seeking the Democratic nomination and Morgan is there to help him win the race.

“Right now,” says Morgan, “we’re trying to build relationships with those on our turf, recruiting volunteers who support the mayor and training them on how to recruit their own teams of volunteers.” He says he’s not super excited for the New England winter coming up when there will be more door-to-door canvassing in one of the first states where these sorts of outings either get “legs” or don’t. “But I guess, it’s not too much worse than Utah’s.”

Earlier, at the College of Science convocation and commencement, the double-major (biology and political science) baccalaureate says his face was hurting from smiling so much as he assisted in handing out diplomas and shaking thousands of hands. “But I had a great time.”

While he loved ninety-five percent of the job being student body president, he says he’s now “happy to pass on that other five percent of the job. I’m guessing it will be one of the best jobs I’ve ever had working with student leaders, administrators, faculties, in a collaborative approach with many partners around the U.” One of his ambitions during his own 2018 campaign to represent 32,000 students was to move beyond just developing programs and events, but to have his executive team work internally to create a culture of student advocacy.

“I think student government is unique among other student organizations,” he says. “It was incumbent upon us to advocate on behalf of the student body.”  Through this lens, a movie night became a partnership with the resource office at the Student Union among other collaborations that leveraged the full plate of University offerings.

Morgan also worked to have full participation with the University senators, one each from the colleges and the academic advising center. One of the legacy policies that he and his team led was a push to work more closely with the sustainability and facilities team to recommit to the climate commitment initially made by the University at the end of 2008. The goal? For the University of Utah to be a carbon-neutral campus by 2050 if not by 2032 which is the city of Salt Lake’s target. Before leaving office, Morgan helped set up a task force to reassess the way forward, including the money, infrastructure, energy sources, and sustainable living practices to be folded into the curriculum.

Another related initiative, certainly helped by the nation’s raucous and controversial 2016 presidential election, was to increase the vote in the university community. Under his leadership, campus voting booths increased from six in 2016 to twenty during the most recent mid-terms. “Students are more engaged than they have been in recent memory,” he says. "[Many have felt] disenfranchised and not particularly infatuated with the way things are going–more the [general] direction of things, [than just political] parties. They are eager to do something [about it].”

From the beginning campus safety was a priority for Morgan, so it was deeply ironic that just weeks into fall semester, Lauren McCluskey, a college track star, was murdered on campus by a former acquaintance. Morgan recalls that the days following October 23rd were some of the most formative for him, days that were deeply traumatic. “I didn’t know Lauren personally, and I don’t want to appropriate from her friends, but it was very hard to balance being a twenty-one year-old college student myself with doing my part  to console the student body.”

Morgan visited with McCluskey’s friends, helped plan and then attended the vigil. The October 24th event, he says, was “a really good coping mechanism, especially for student athletes.” The biggest lesson from the tragic ordeal for Morgan was when University trustees expressed their gratitude to him for doing his part. “I thought, ‘Why gratitude for showing up?’ The most important things for a leader to do is not to give a speech or to have the best policy ideas, but to show up. I didn’t know that.” He does now, which triggered new policies and a statement embedded in the ubiquitous class syllabi that looks at campus safety through the lens of interpersonal violence.

There are a lot of things that this twenty-two year old U alumnus now knows, and much of it has been shaped by his generation. "We are very different from our parents,” he muses. “In some sense we have more opportunities like having the breadth of the world’s knowledge at our fingertips; the boom in tech and service jobs, for those who are educated enough in these areas; increasing standard of living for many sectors in our generation. But at the same time in some ways we are more limited [by the] challenges.”

He gives the example that for millennials the country has always been at war. “Most of our adult lives have been dealing with the economic shock of 2008/9. We’ve had a much harder time getting first jobs that can provide for the cost of living, to buy a house. We are the first generation that is expected to have a lower life expectancy and make less money than our parents.”

And then there are the political, social and environmental challenges. “The onus on us is to solve problems through science and [by being] civically engaged.” In important ways, he continues, the democratic process isn’t working for his generation and the ones just ahead of his. “An especially prominent concern with many of the people I grew up with … is that we’ve been in a highly educated bubble: the real world isn’t that bubble.”

As a biology graduate, he is deeply concerned about ignorance over science and the scientific method, but “active distrust of science. In the past science has been labeled elitist, [but] now [it’s] being considered by some as 'fake news.'” While he believes society should heed scientific findings, particularly local and global environmental degradation, it is the job of the new generation to better communicate that science to the public. “Yes, peer reviewed communications are critical,” he says, “but equally if not more important is to share those findings with the public.” Morgan had a great model for outreach and working against what he calls the “science deficit model of communication” from Biology professor Nalini Nadkarni. A forest ecologist, Nadkarni knows from working with populations that range from church-goers to the incarcerated that people don’t like to be lectured to. Instead, her model is to engage and integrate communities, with a two-way collaborative, relational and approachable way of sharing data and experiences.

“The everyday person when they hear that ninety-nine percent of scientists believe in [human-induced] global change … will agree [with them].  The first time I took a step back on how people engage with science it was through rose-colored glasses as a sophomore. I thought that everybody believed in science. That wasn’t true. What are some of the issues are in science communication and how we can bridge some of those gaps?"

As a recent graduate, Morgan’s advice to his fellow Utes is to take advantage of the resources the University of Utah offers. For him being a member of the UtahSwimming and Diving Club helped hi find his passion. “Do academics,” he advises, “but remember college is about much more than that.” Aside from being a great de-stresser, the back-stroker (with a little freestyle and individual medley thrown in) says that clubs also provide an “incredible network of friends” to move forward in life.

Headed eventually for law school, a “couple of years from now,” Morgan hopes that with his background in biology he will be “a scientifically informed policy maker,” whether as an officer in a federal department, or working at the local or state level. A run for public office is a possibility. Currently, being in the petri dish of a presidential campaign in the early weeks of a run for a major party nomination will most likely help him make that decision. Speaking as the public servant that he seems destined to be, he remarks that wherever he ends up he “hopes to be able to do whatever is most needed to be useful.”

Lynn Miller

Throughout the University of Utah’s remarkable 169-year history, there have been many outstanding alumni who have made a significant impact in Utah, the country, and the world.

College of Science alumnus Lynn C. Miller, BS’ 63 in Mathematics, is an excellent example. As the Chief Actuary at E.F. Hutton Life, in 1978, he was instrumental in the development of a revolutionary form of life insurance known as Universal Life.

Lynn grew up in Salt Lake City near the University of Utah campus. His father, Clyde Miller, BA’34 in Business, spent the majority of his career in Utah politics. Clyde ascended the legislative ranks and eventually served as the Secretary of State and Lieutenant Governor for the State of Utah from 1965-1977. Although Lynn did not follow in his father’s footsteps in the political forum, Lynn’s mastery of diplomacy would become a great asset to complement his mathematics skills.

Lynn was a fervent University of Utah basketball fan and he attended many games at the Einar Nielsen Field House. His enthusiasm for basketball would fuel his passion for mathematics and statistics. For example, he used probability modeling to create a dice game that could statistically simulate a basketball game. His interest in mathematical analysis and statistics would eventually lead to a career in mathematics and actuarial science.

However, when Lynn enrolled at the U as a student, it wasn’t always smooth sailing. “I lacked the focus and confidence to initially thrive,” says Miller. “In fact, due to my early academic struggles, I was placed on academic probation!”

During his junior year, Lynn found the confidence and commitment to academics, due to the kindness and encouragement of Mathematics Professor J.D. Smith. Professor Smith took a special interest in Lynn’s success and encouraged him to realize his true potential.

“I credit the University for supporting me. In addition to my degree, I also received valuable life lessons of hard work, dedication, and perseverance,” says Miller.

After graduating from the U, Lynn began his professional career at the Hercules Powder Company in Magna, Utah. His job allowed him to apply his mathematical skills to analyze test firings for quality control.

While at Hercules, one of his colleagues witnessed Lynn’s mathematical brilliance and mentioned that he should look into becoming an actuary, a specialized math discipline based on the measurement and management of risk and uncertainty.

Lynn seized upon an opportunity at Surety Life Insurance in Salt Lake City and began his career as an actuary. For eight years Lynn juggled his advanced actuary classes and exams, worked long hours, and along with his wife, helped to raise his young family. Ultimately, due to the job at Surety Life, Lynn found himself leveraging his mathematics and actuary skills to the pathway of disrupting the life insurance industry.

In 1972, Lynn discovered that E.F. Hutton had an opening for a Senior Vice President and Chief Actuary position. Observing the grand opportunity that presented itself, Lynn interviewed and, eventually, won the position. During his time at E.F. Hutton, Lynn became one of the key individuals to reinvent the life insurance industry. Lynn shared that a big part of his career growth was due to his awareness of opportunities and faith in his abilities to succeed.

In the late 1970s, traditional whole life insurance came under heavy criticism from the investment community. Policy cash values were being credited with very low interest rates in the 2-3% range, while external new money rates exceeded 10%. In addition, the rigid nature of a typical contract made it difficult to adapt to changing needs of the client. This created the ideal environment for the creation of the universal life product that offered the following:

  • An open, fully disclosed architecture that allows flexibility in the amount and timing of premium payments and in the balance between the savings (cash value) and pure insurance elements.
  • An earnings rate on cash values that reflected the high investment yields available at that time. This provided a significant advantage over established companies who were burdened with investment portfolios earning well under new money rates.

It’s not surprising that universal life created significant controversy, turmoil, and resistance from established insurance companies.

In fact, Mass Mutual and other large mutual companies launched expensive ad campaigns that tried to disparage and rebuke the new product. Lynn met with many groups and key individuals including the IRS, U.S. Treasury, federal and state legislators, tax attorneys, and even fellow industry antagonists to convince them of the attributes and legitimacy of universal life.

In 1981, the IRS provided a Private Letter Ruling, which held that universal life was a legitimate insurance product. The ruling was challenged in 1984. This led to an effort to permanently enact into law what constitutes a legitimate life insurance product. Lynn was extensively involved in this effort and was one of the original authors of the federal income tax definition of what constitutes life insurance for policyholder and company tax purposes, enacted in the DEFRA Tax Act of 1984.

Universal life has since become the dominant form of life insurance for the past quarter century. Last year it represented more than 60% of permanent cash value type life insurance sales.

In 1999, Lynn moved to Pacific Life Insurance Company and became the Chief Actuary for the Life Insurance Division. In 2002, he was promoted to Executive Vice President and Head of the Life Insurance Division. He retired in 2012.

His stellar career positively impacted millions of life insurance customers, and their families, who have benefited from universal life insurance.

Lynn and his wife, Sue, reside in San Diego, CA, and are strong supporters of Utah athletics. They have season football tickets and attend many home games in Rice-Eccles stadium.

 

Ryan Watts

Dr. Ryan Watts, BS’00 in Biology, is the CEO and Co-Founder of Denali Therapeutics, a biotechnology company focused on finding treatments and cures for neurodegenerative illnesses, such as Alzheimer’s and Parkinson’s disease.

Watts and his colleagues at Denali are passionate about discovering drug therapies to help over 22 million people across the world who are fighting crippling neurodegenerative illnesses. In fact, Alzheimer’s disease and other age-related neurodegenerative diseases are reaching epidemic proportions. Expressed solely in financial terms, the cost of treating people with Alzheimer’s and other dementias is estimated to exceed $260 billion by 2020 in the U.S. alone.

Watts graduated from Cottonwood High School and came to the University of Utah, reflecting his desire to attend a top-tier research institution. As an undergraduate, Watts received the opportunity to conduct research in the Department of Biology. It was there that Ryan discovered the passion that would determine his career path. Along with his undergraduate research experience, Ryan served as a teaching assistant for Dr. Baldomero “Toto” Olivera and was a Pediatric Technician in Surgery at Primary Children’s Medical Center.

Watts was particularly impacted by his interactions with Dr. Olivera because he recognized how Olivera’s biochemical insights could be translated into treatments for pain. Ryan excelled in the lab and the classroom, and upon graduation was accepted into Stanford University’s Biological Sciences doctoral training program.

At Stanford, Ryan continued to distinguish himself in research and received his Ph.D. in 2004, focusing on the molecules that regulate nervous system development. Afterwards, he accepted a position at Genentech. During his eleven-year tenure there, Watts focused initially on developing therapies for cancer, then switched his attention to neurodegenerative diseases. He led Genentech’s entry into Alzheimer’s disease discovery and drug development, eventually building and leading their newly created Neuroscience Labs.

Watts and a select group of neuroscientists and investors eventually formed a biotech startup named Denali Therapeutics. In contrast to the broad approach of companies like Genentech, Denali would be fully specialized in solving the mystery of neurodegeneration.

Founded in 2015, and headquartered in South San Francisco, Denali Therapeutics has already raised more than $349 million and grown to more than 110 employees. As the name Denali suggests, the treatment and study of neurodegenerative diseases pose significant challenges. These conditions, and therefore the therapies targeting them, are difficult to track. In contrast to cancer, neurodegeneration is both more difficult to target than cancerous tumors and has fewer and less well-defined biomarkers.

Reflecting on his time as a student at the U, Watts has some advice for the current generation of students. “Build connections with the incredible faculty at the U and explore opportunities to get in the research lab as soon as possible. Top notch research universities like the U offer a unique chance to discover original insights as part of your education.”