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Judy Faucett holding a crab.

Students with disabilities accomplish their dreams with Distinguished Alumna-founded scholarship

By Grace Peterman

Judy Faucett (Mathematics ’70), former senior vice president of Equitable Life Assurance, clearly remembers the hiring climate when she entered the actuarial work force in the wake of the Civil Rights Act. Some companies seemed more interested in demonstrating compliance over truly reforming their hiring practices, and one incident stood out. “A decision was made to 'hire one more woman,' and if it didn’t work out, then they could document that women just weren’t smart enough to be actuaries,” she said. “At that point, I was extremely motivated to prove that women could succeed as actuaries.”

Her tenacity, determination and success helped pave the way for more women to join the profession after her. Faucett is the recipient of the 2021 Distinguished Alumni Achievement Award for her service to the actuarial profession that has brought honor, distinction and visibility to the College of Science.

"I wanted to do something for a group that didn’t have all the advantages that all the other groups have."

Having experienced challenges as part of an underrepresented group in her field, Faucett is passionate about empowering current students to achieve their dreams against the odds. She has founded the College of Science Rise Scholarship, the first scholarship at Oregon State University exclusively serving students with disabilities, and she finds joy and inspiration in hearing their stories.

“I wanted to do something for a group that didn’t have all the advantages that all the other groups have,” she said. “The folks in the College have done a wonderful job of administering the program and finding great students with needs. I couldn’t be happier with how it all turned out.”

Breaking barriers towards success in science

The Rise Scholarship serves students with all kinds of disabilities, including physical, mental and learning disabilities. With eleven percent of College of Science students self-identifying as having a disability, the group is substantial and diverse.

One of the 2021 Rise Scholarship recipients is fully blind and facing challenges like finding accessible lab space and legible supplementary materials. “One of the requests we got was for a copy of the Periodic Table in Braille,” she said. “I do think that there are special [accessibility] issues in science.”

Being given a chance to succeed can be life-changing for students with disabilities. Faucett enjoys meeting with Rise Scholarship winners and hearing first-hand about their plans and ambitions. “I have such admiration for them,” she said. “Each one of these students has an incredible story to tell.”

A brighter future together

The Rise Scholarship is an important resource for students who may not qualify for most merit-based scholarships. Especially for students with learning disabilities, “getting a B or even a C is a significant effort for them,” said Faucett. “And so they may not think ‘oh, there's a scholarship for me.’”

“It seems so wonderful to see what these students are capable of achieving"

Reflecting back on her time at Oregon State, Faucett said that awareness and accessibility for students with disabilities has come a long way. In the past, “a lot of the learning disabilities hadn’t been diagnosed yet. There really wasn’t a lot of help for these people,” she said. Students with disabilities may have been labelled or labelled themselves as not smart enough for science. The Rise Scholarship is helping to re-write that story.

Students who identify as having a neurological disability have also benefitted from the scholarship. One recent recipient was brilliant at her lab job but struggled with time management. In decades past, getting to class on time or taking a timed test might have eliminated students who would be high-performing scientists with the right accommodations. The Rise Scholarship is creating a stronger science community through making a way for students with diverse abilities and perspectives.

“It seems so wonderful to see what these students are capable of achieving,” said Faucett.

“I read through some of their bios, and I'm just grinning from ear to ear. That’s what it's done for me.”

Read more about Judy Faucett's pathbreaking career.

Michael Waterman

Genomics pioneer paves the way for first-generation students

By Grace Peterman

Photo by Leah Lee

Michael Waterman (Mathematics ’64, ’66) grew up on a ranch in rural Southwestern Oregon. A first-generation college student, Waterman said entering Oregon State as a freshman “was the doorway to the rest of the world” for him.

After College, Waterman went on to make an international impact, transforming the field of computational biology. This year, he receives the College of Science's 2021 Lifetime Achievement in Science Award for his remarkable accomplishments that have brought honor, distinction and visibility to the University. Waterman’s extensive career includes research that has been foundational to many DNA mapping and sequencing projects, including the Human Genome Project.

"I am deeply grateful to land grant universities, and Oregon State in particular, that allowed me and many others to receive an excellent education,” he said.

Waterman presented the College of Science 2021 Distinguished Lecture on November 10, 2021, in the Memorial Union, Horizon Room, at Oregon State University. The lecture discussed Waterman’s deep ties to Oregon and Oregon State and explored the connections between mathematics and the biological sciences.

Michael Waterman teaching

Michael Waterman is an Emeritus University Professor at the University of Southern California. Photo by Leah Lee.

A global reputation in genomic sequence analysis

After earning his bachelor’s and master’s degrees in mathematics at Oregon State, Waterman went on to complete a Ph.D. in statistics and probability at Michigan State University. His work, focused on applying mathematics, statistics and computer science techniques to various problems in molecular biology, continues to play an important role in DNA sequencing today.

Waterman is an Emeritus University Professor at the University of Southern California, with joint academic appointments in the Departments of Biological Sciences, Mathematics, and Computer Science, and a Distinguished Research Professor at the University of Virginia.

He is also an elected member of both the U.S. National Academy of Sciences and of Engineering, the American Academy of Arts and Sciences and both the French and Chinese Academies of Sciences. He has received the William Benter Prize in Applied Mathematics, the Gairdner Foundation International Award in Biomedical Sciences, the Dan David Future Prize in Bioinformatics and a Guggenheim Fellowship.

Reflecting on his work upon receiving the Dan David Prize, Waterman said curiosity and a love for the process motivate him and his team more than anything. “Our research was not initially in any hot-topics category. We simply found fascinating problems that were irresistible, and we were determined to pursue them.”

That’s how the first serious meeting to discuss sequencing the human genome began as well. “We thought, ‘We’re mathematicians, we should be able to say something about this!’” said Waterman. Among the team of scientists assembled at University of California Santa Cruz in 1985, no one was even sure if such a huge undertaking was feasible. Yet, the idea was too good to pass up: “I remained steady in my belief that this was barely possible and truly important,” he said. “Just deciphering the code that our ancestors passed down to us as our genetic heritage was priceless.”

Michael Waterman

Waterman's early work on algorithms was the breakthrough needed to decode the human genome. Photo by Leah Lee.

Pathways to success for underrepresented students

Strong science thrives on this type of bold questioning of what’s possible. How did Waterman go from a rural ranch in Oregon to debating a landmark scientific project at UC Santa Cruz? Growing up, “it’s very hard to imagine beyond what you see,” said Waterman.

As a first-generation college student starting at Oregon State, Waterman experienced a world of possibility opening up for him. That’s why he established an endowed scholarship to open doors for other first-generation college students on their own paths to success. The Michael and Tracey Waterman Scholarship — the second largest in the College’s history — ensures future students are empowered with a sense of possibility and perspective.

“I believe that those who didn’t grow up with privilege should have a chance too,” he said. “I am pleased to see Oregon State is still accepting kids from a variety of backgrounds.”

aug2021_math_alum_uses_disease_modeling

Mathematics alum uses disease modeling to help keep OSU community safe

By Department of Mathematics

Peter Banswarth originally decided to pursue a master's in mathematics to follow a career in teaching students.

Peter Banwarth (M.S. ’12) is an epidemiologist and public health data scientist with the Benton County Health Department in Oregon. He has developed models to guide county health policies on testing, safety and health measures for employees and the public to minimize infections and deaths in Corvallis and nearby areas. To keep the public informed about COVID-19 models and public health initiatives, Banwarth has presented his work with Oregon health departments for audiences at OSU and the Corvallis City Council. Banwarth's modeling suggests that the restrictions Benton County implemented during the shutdown phase have been successful in reducing the spread of the virus. Prior to joining the mathematics graduate program with Professor Tom Dick, Banwarth received an undergraduate degree in economics and a master's degree in statistics from Stanford University.

The following content has been adapted from an interview conducted by the OSU Mathematics Department Media Committee. Responses have been adapted for length.

Why did you choose to study in the mathematics department at OSU?

As an undergraduate I studied economics and then had an opportunity to do a master's in statistics. When I decided to move back to Oregon, I was thinking about what I enjoy doing. One of those things is teaching, I really like teaching. There are a lot of opportunities to teach mathematics — a lot more opportunities to teach math than there are to teach economics. Being from Corvallis, I decided to start the math program at OSU with the plan to get a degree so that I could teach math.

What is one favorite OSU mathematics department memory?

I really enjoyed the first year of my master's program, diving into the core classes with my fellow students. Just working through the homework together up at the chalkboard, three or four of us talking about the problems and figuring them out. So that's one of my favorite memories — not necessarily a specific one but I definitely enjoyed the camaraderie.

A specific memory I enjoyed was a class with Elise Lockwood on teaching. I don't remember exact title, but it was about statistics and the teaching of probability and statistics. We each developed a little module project that we presented to the class, so I developed one based on an experiment I actually did when I was in eighth grade science, but added a statistics flair. I got to present that to the class, and then submitted it to a statistics website and actually got it published there. So that's one of my favorite memories.

"It was a good opportunity for me to take my skill set and use it to build more knowledge and really ground myself in the community that I wanted to live in."

What is it that you do?

A lot of what I do is really collaborative learning, I would say. I learn from the folks I work with, their side of things, and then I help them learn the mathematical and the data side of the work that they're doing.

I monitor more overall health measures for the county and work with our community partners to try to improve the health of our community members. My role is to provide the data to help them set mileposts and understand where we are, and then monitor any changes.

I have an opportunity to do a lot of different things in my job. I've worked on some pretty intensive programming projects, like developing EpiModel of disease. I work on presenting data to different groups in different ways, everything from a community group that has no background in public health or data analytics, to other Epis around the state. And I also get to work with a really great team of professionals who are focused on extending the benefits of living in Benton County to all our community members, and not just the ones who come in privileged.

What led you to your career and how did the mathematics department at OSU prepare you for it?

I was teaching as an adjunct lecturer at OSU with a baby on the way, and as much as I enjoyed it, I knew it wasn't incredibly stable. So when this position came along for the epidemiologist at the county, I decided, hey, that's an interesting job. I knew I would learn a lot about the public health side of things, and they were also pretty clear that they were looking for someone who is really comfortable both interpreting, but also explaining, data and statistics in a public health lens. It was a good opportunity for me to take my skill set and use it to build more knowledge and really ground myself in the community that I wanted to live in.

What are you currently working on?

For the past year I have been working with public health and the health department in the county on our COVID-19 response.

Currently, I monitor our daily trends in COVID-19 cases. I've developed and maintain a public dashboard so that our community can see what the pandemic looks like at a local level. Along with some other team members, I provide recommendation and advice to our local K-12 schools as they provide education to our students in this current climate. Earlier on, when there were more questions than answers about what the pandemic would look like, I developed modeling to help us plan for different contingencies based on how we might respond from a policy standpoint and how the disease might develop. I also partner with OSU, especially the College of Science and College of Public Health, on the TRACE-COVID-19 project for monitoring COVID-19 among the OSU community and how it affects and interacts with the larger Benton County community.

"OSU students are absolutely a part of our community."

The most common question I get as an epidemiologist is, “Well, are students part of Benton County? Do we count students in our population? Do we count them in our health statistics?" OSU students are absolutely a part of our community. The population of Benton County is 93,000 people, and that includes OSU students. We include them in our health statistics, and they are as much a part of our community as anybody else who lives, works, learns or plays in Benton County. Whether someone is visiting for a single meal or living their whole life here, they're all part of the public health community and we do our best to include them in our community wellbeing.

You were interviewed as part of OSU’s Daily Barometer series “19 COVID-19 Stories” back in May 2020. One year later, how has your work changed and how do you feel about the state of things now compared to then?

May 2020 was about the point where the initial spread of the disease seemed to slow a little bit — at least in Oregon and in Benton County — so there was a lot of uncertainty about the future. We didn't know much about the disease, didn't know specifically how it spread, how much of it was aerosol, droplet or surface. Medical treatments were not as refined, so individuals with a severe case were at higher risk of death. And at the same time, in Benton County we were seeing maybe two cases a week. So we did not actually have a lot to do from the standpoint of case investigation or actual disease control — we were trying to figure out how to prepare for what might or might not come down the road later. We did a lot of work on seeing how the disease might progress throughout the next full year, developing some models to see, for instance, what would happen if we maintain very high restrictions? We now have a much better sense of what to expect, given a certain level of cases and depending on response, whether the case rate will grow or shrink.

"That's where epidemiology has really expanded; understanding the determinants of health requires data and analytics backgrounds."

What might people be surprised to learn about your profession and what you do?

Epidemiology is a lot more than infectious or communicable disease. When people think about epidemiologists, they think about someone like Dr. Anthony Fauci, who is an epidemiologist, in addition to being a medical doctor and the head of infectious disease at US NIAID. But most epidemiologists actually work on non-communicable disease, for example, epidemiologists who spend their careers trying to figure out the reason for higher cancer rates in a certain population. And epidemiology has really begun to recognize how far back the determinants of health go — everything from income, to the zip code where a person was born to what racial or ethnic group they identify with. Epidemiology is really now trying to figure out how to incorporate all that different information to understand what changes a person's opportunity to live a healthy life and what can we do to create the conditions so that everyone can have that opportunity.

Like most other disciplines, public health has become more data oriented. That's where epidemiology has really expanded; understanding the determinants of health requires data and analytics backgrounds.

What do you do for fun or hobbies?

I really like mountain biking. I try to mountain bike every week in McDonald Forest. I also like gardening. I've got a vegetable garden started, and I also have blueberries and some fruit trees planted. And my kid, who's five, he really loves to be out in nature and to ride his bike. So a couple of times a week we either go riding our bikes, or — I just got a couple of kayaks, so now we've started exploring the waterways around Salem. As the weather gets better, we'll go for more hikes and go camping as well.

"A lot of mathematics feels very black and white, but mathematics takes place in society and society is very colorful."

What advice or “wise words” would you like to give people?

The biggest advice I would give would be, always look for opportunities to learn from the people around you. We all bring different backgrounds, different experiences, different views and different skill sets, and it's amazing what you can learn from someone when you enter with a sense of curiosity. Honor your worldview, but also really try to see things from someone else's perspective. A lot of mathematics feels very black and white, but mathematics takes place in society and society is very colorful. Just being open to the possibility and the opportunity to learn from other people, I think, is satisfying and very professionally advantageous.

Portrait photo of Peter Banwarth.

Epidemiologist and public health data scientist

Alumni profile: Peter Banwarth

Peter Banwarth (M.S. ’12, Advisor: Tom Dick) is an epidemiologist and public health data scientist with the Benton County Health Department in Oregon. He has developed models to guide county health policies on testing as well as safety and health measures for employees and the public to minimize infections and deaths in Corvallis and nearby areas. To keep the public informed about COVID-19 models and public health initiatives, Banwarth has presented his work with Oregon health departments for audiences at OSU and the Corvallis City Council. Banwarth's modeling suggests that the restrictions Benton County implemented during the shutdown phase have been successful in reducing the spread of the virus. Prior to joining the mathematics graduate program at OSU, Banwarth received an undergraduate degree in economics and a master's degree in statistics from Stanford University.

The Mathematics Department Media Committee recently sat down with Peter for an interview. The following has been edited for length.

Q: Why did you choose to study in the math department at OSU?

I started as an undergraduate, I studied economics, and then had an opportunity to do a master's in statistics, so I moved a little more abstract, a little way from applied. And then when I decided to move back to Oregon, I was thinking about what I enjoy doing, one of those things is teaching, I really like teaching. And so I did a little thinking and I said, there are a lot of opportunities to teach mathematics, a lot more opportunities to teach math than there are to teach economics. And so I moved to Salem at the time, and Oregon State is close to Salem, and I'm from Corvallis, so had the opportunity to start the math program at OSU with the plan to get a degree so that I could teach math.

Q: What is one favorite OSU Math department memory?

I really enjoyed the first year of my master's program, diving into the core classes with my fellow students who are also diving in, and just working through the homework together, and up at the chalkboard three of us, or four of us, and talking about the problems and figuring them out. So that's one of my favorite memories, not necessarily a specific one, but I definitely enjoyed the camaraderie.

A specific memory I enjoyed was I took a class with Elise Lockwood on teaching, I don't remember exact title, but it was about statistics and teaching of probability and statistics. And we each developed a little module project that we presented to the class, and so I developed one based on actually an experiment I did when I was in eighth grade science, but added a statistics flair and got to present that to the class, and then submitted it to a statistics website and actually got it published there. So that's one of my favorite memories.

Q: What is it that you do?

A lot of what I do is really collaborative learning, I would say. I learn from the folks I work with, their side of things, and then I help them learn the mathematical and the data side of the work that they're doing.

I monitor more overall health measures for the county and work with our community partners to try to improve the health of our community members, and my role is to really provide the data to help them set mileposts and understand where we are, and then monitor any changes.

I have an opportunity to do a lot of different things in my job. So I've worked on some pretty intensive programming projects, developing EpiModel of disease. I've worked on some data science, data management applications to bring in large quantities of data and organize it so it's easily visualized. I work on presenting data to different groups in different ways, everything from a community group that has no background in public health or data analytics, to other Epis around the state. And I also get to work with a really great team of professionals who are focused on extending the benefits of living in Benton County to all our community members, and not just the ones who come in privileged.

Q: What led you to your career and how did the Math department at OSU prepare you for it?

I was teaching as a lecturer at OSU, mathematics, and also had a baby on the way so I thought about the trajectory of my career, and as an adjunct lecturer at OSU, as much as I enjoyed it, I knew it wasn't incredibly stable. So when this position came along for the epidemiologist at the county, I decided, Hey, that's an interesting job. I always like learning something new, I knew I would learn a lot about the public health side of things, and they were also pretty clear that they were looking for someone who is really comfortable both interpreting, but also explaining, data and statistics in a public health lens, and so it was just a good opportunity for me to take my skill set and use it to build more knowledge and really ground myself in the community that I wanted to live in.

Q: What are you currently working on?

For the past year I have been working with public health and the health department in the county on our COVID 19 response.

Currently I monitor our daily trends in COVID-19 cases. I've developed and maintain a public dashboard so that our community can see what the pandemic looks like at a local level. I am, along with some other team members, we provide recommendation and advice to our local K-12 schools as they provide education to our students in this current climate, I have developed some modeling to, earlier on before, when it was more questions than answers about what the pandemic would look like, I developed modeling to help us plan for different contingencies based on how we might respond from a policy standpoint, how the disease might develop. I also partner with OSU, especially College of Science and College of Public Health and Human Services on the OSU TRACE project for monitoring COVID-19 among the OSU community, and how that affects and interacts with the larger Benton County community.

The most common question I get as an epidemiologist is, “Well, are students part of Benton County? Do we count students in our population? Do we count them in our health statistics?" And so I would encourage you to find some space to put this in the media, or the interview, is OSU students are absolutely a part of our community, they are included in our population, so the population of Benton County is 93,000 people, and that includes all the OSU students. We include them in our health statistics, and they are as much a part of our community as anybody else who lives, works, learns, or plays in Benton County. Whether someone is here visiting for a single meal, or living their whole life, they're all part of the public health community, and we do our best to include them all in our community wellbeing.

Q: You were interviewed as part of OSU’s Daily Barometer series “19 COVID-19 Stories” back in May 2020. We are a year later - How has your work changed since then and how do you feel about the state of things now compared to then?

In May 2020 there was so much uncertainty about what was happening and about how the virus may spread. May was about the point where the initial spread of the disease seemed to slow a little bit, at least in Oregon and in Benton County, and so there was a lot of uncertainty about, how are we weathering this? Is it going to get a lot worse in the fall and the winter? Didn't know much about the disease, didn't know specifically how it spread, how much of it was aerosol, how much of it was droplet, how much of it was surface. The medical treatments were not as refined, and so individuals who've got a severe disease were at higher risk of death. And at the same time in Benton County we were seeing maybe two cases a week, maybe five cases a week. So we did not actually have a lot to do from the standpoint of case investigation, or actual disease control, we were trying to figure out. How are we going to prepare for what may or may not come down the road later.

So we did a lot of work on seeing how the disease might progress throughout the next full year, developing some models to say, well, what would happen if we maintain these very high restrictions? What would happen if we relaxed the restrictions completely, things like that. In the past year, we now have a much better sense of what to expect, given a certain level of cases, what to expect coming, depending on a response, whether the case rate will grow or shrink. So at the same time, in April we were seeing a minimum of five cases a day, so instead of five cases a week, if we had only five cases in a day, we were very fortunate. During January we were seeing as many as 40 cases a day, so fortunately we have brought that down, but things were starting to trend back up in April.

So the county response overall is now we're putting a lot in public health, our two roles really are now case investigation. We have four full-time case investigators focused just on COVID 19 that we've added in the past year, and also our vaccine rollout, and our vaccine efforts, which really started in January and have ramped up to include everyone over the age of 12.

Q: What might people be surprised to learn about your profession and what you do?

Epidemiology is a lot more than infectious disease, communicable disease. So when people think about epidemiologists, they think about someone like Dr. Anthony Fauci, who is an epidemiologist, in addition to being a medical doctor and the head of infectious disease at US NIAID. But most epidemiologists actually work on non-communicable disease, so the epidemiologists who just spend their careers trying to figure out the reason for higher cancer rates, for example, in a certain population, whether it's geographic, or other connections between the population. And epidemiology has really begun to recognize how far back the determinants of health go, everything from income to the zip code where a person was born, to what racial or ethnic group they identify with. And so epidemiology is really now trying to figure out, how do we incorporate all that different information to understand what changes a person's opportunity to live a healthy life, and what can we do to create the conditions so that everyone has the opportunity to live a healthy life.

As public health, like most other disciplines, has become more data oriented, that's where epidemiology has really expanded into those other pieces, the use of data to understand those determinants of health requires data and analytics backgrounds.

Q: What do you do for fun or hobbies?

I really like mountain biking. I try to mountain bike every week in McDonald Forest. I also like gardening. So I've got a vegetable garden started, and I also have blueberries and some fruit trees planted. And my kid, who's five, he really loves to be out in nature and to ride his bike. So a couple of times a week we either go riding their bikes, or I just got a couple of kayaks, and so now we've started exploring the waterways around Salem, and as the weather gets better, we'll go for more hikes and go camping as well.

Q: What advice or “wise words” would you like to give people?

The biggest advice I would give would be, always look for opportunities to learn from the people around you. We all bring different backgrounds, different experiences, different views and different skill sets, and it's amazing what you can learn from someone when you enter with a sense of curiosity, and you honor your worldview, but you also are able to really try to see things from someone else's perspective. A lot of mathematics feels very black and white, but mathematics takes place in society and society is very colorful. And so just being open to the possibility and the opportunity to learn from other people, I think is satisfying and very professionally advantageous.

Dr. Michael Waterman

Michael Waterman, 'father of computational biology,' receives prestigious award

By Cari Longman

Genomics pioneer Dr. Michael Waterman (’64, ’66) has received the William Benter Prize in Applied Mathematics. Waterman, a distinguished College of Science alumnus, is widely regarded as a trailblazer in computational biology. The $100K biennial prize recognizes outstanding mathematical contributions that have had a direct and fundamental impact on scientific, business, finance and engineering applications.

Waterman is currently an emeritus university professor at the University of Southern California and distinguished research professor to the University of Virginia. He earned his bachelor’s and master’s degrees in mathematics at Oregon State and a Ph.D. in statistics and probability at Michigan State University, which propelled him to become a founder and leader of computational biology and a renowned human genome theorist.

Waterman’s work is focused on applying mathematics, statistics and computer science techniques to various problems in molecular biology. His work in the 1980s formed one of the theoretical cornerstones for many DNA mapping and sequencing projects, including the Human Genome Project. He also helped develop some of the most widely used tools in the field, including new technologies to solve basic problems. His work continues to play an important role in DNA sequencing.

Professor Michael Waterman's cutting-edge research on algorithms, probability, and combinatorics launched our epoch of deciphering genomes, sequencing technologies and integrating mathematics and life sciences.

“In 2001, the computational construction of the sequence of the Human Genome, where Professor Waterman’s algorithm played a pivotal role, marked the phase transition point when biology became a quantitative science,” said Sorin Istrail, professor of computational biology at Brown University and close collaborator with Waterman since 1992. “The scientific and strategic importance of genomics for life sciences, medicine, agriculture, and government agencies led to the establishment of bioinformatics centers and institutes for quantitative biology all over the world.”

“Professor Waterman’s pioneering advances in applied mathematics analysis of DNA, intertwining continuous and discrete mathematics, became quintessential for computational biology," said Istrail.

Waterman’s outstanding scientific achievements have earned him an extraordinary reputation internationally. He is member of the U.S. National Academy of Sciences, the U.S. National Academy of Engineering, the American Academy of Arts and Sciences, the French Academy of Sciences and the Chinese Academy of Sciences. He received a Gairdner Foundation International Award in Biomedical Sciences, the Dan David Future Prize in Bioinformatics, and a Guggenheim Fellowship. He is also founding editor of the Journal of Computational Biology.

I am deeply grateful to land grant universities, and Oregon State in particular, that allowed me and many others to receive an excellent education. It opened up the world for me.

Waterman previously held appointments in the Departments of Biological Sciences, Mathematics, and Computer Science at the University of Southern California, Fudan University in Shanghai, Los Alamos National Laboratory and Idaho State University, among others. He is a current member of the Oregon State College of Science Board of Advisors.

"Professor Michael Waterman's cutting-edge research on algorithms, probability, and combinatorics launched our epoch of deciphering genomes, sequencing technologies and integrating mathematics and life sciences,” said Remo Rohs, professor and chair of the new Department of Quantitative and Computational Biology at the University of Southern California. “He mentored many students, postdocs, and faculty, including myself, whose careers are unthinkable without Professor Waterman's impact. He co-founded the historically first Ph.D. Program in Computational Biology and Bioinformatics and one of the first undergraduate majors in Quantitative Biology in the country.”

A first-generation college student, Waterman grew up in rural Coos County, Oregon. He wrote a memoir, “Getting Outside: A Far-Western Childhood,” about his journey from a livestock ranch in western Oregon to Oregon State University.

"I am deeply grateful to land grant universities, and Oregon State in particular, that allowed me and many others to receive an excellent education. It opened up the world for me," said Waterman. To support other students with similar backgrounds, he established an endowed scholarship for OSU College of Science students – the second largest in the College’s history. The legacy gift, the Michael and Tracey Waterman Scholarship, supports students who are the first in their family to attend college and those from rural, less privileged backgrounds.

“I’m thankful for Dr. Waterman's commitment to supporting students in the College of Science,” said Dean Roy Haggerty. “He is helping to break down barriers for more talented first-generation Oregonians to pursue higher education and be future scientific game-changers.”

Due to travel and safety restrictions associated with the COVID-19 pandemic, Waterman will attend the award ceremony for the prize in May 2022 at the Liu Bie Ju Centre of Mathematical Sciences at the City University of Hong Kong.

Scott Clark in front of a wood fence background

Meet a Science Grad: Scott Clark

By College of Science

The following interview is part of a series the College of Science conducted with some of our alumni. While their experiences and career paths vary widely, their passion for science and love for the College and OSU tie them together.

Scott Clark

Major: Physics, Mathematics and Computational Physics (’08)
Additional Education: M.S. in Computer Science and Ph.D. in Applied Mathematics (’12), Cornell University
Occupation: CEO and Co-Founder, SigOpt, Inc.

Why did you choose to study at OSU?

OSU has a great science faculty, innovative programs and degrees, and it sets you up to succeed in your career after college.

What led you to choose your major and career path?

I always wanted to learn how the universe worked. Physics was the rules and math was the language.

How did the College of Science prepare you for your future career?

It laid the foundation for my Ph.D., which I turned into a startup that has raised tens of millions, employs dozens, and services firms around the world.

Describe your career? How are you making a difference?

I am co-founder and CEO of SigOpt, a startup that provides experimentation and optimization tools to thousands of researchers around the world helping them build the future.

What might people be surprised to learn about your profession?

When you start a company based on research, if everything goes really well you end up not getting to do research anymore because you're too busy running a company -- but it is extremely rewarding and completely worth it.

How were you involved in the OSU community?

I did undergraduate research via Undergraduate Research, Innovation, Scholarship & Creativity (URISC), Research Experience for Undergraduates (REUs), and independently with professors. I also went to every football game. :)

What is one favorite College of Science memory?

I loved how unbounded you could be within the College of Science. You could always take any class, double or triple major, and there were never any limits as long as you could do the work.

Was there a particular professor or advisor who made an impact in your undergraduate career?

Professors Rubin Landau (emeritus, Physics) and Malgorzata Peszynska (Mathematics) gave me my first opportunities in real research and it changed my life.

What did you do for fun to de-stress from schoolwork?

I played video games, attended football games and worked out at Dixon Rec Center.

If you could give a future College of Science student advice, what would it be?

Try everything, take lots of science electives, learn interdisciplinary things between fields, there is still lots to discover and big impact to be had.

Read more about Scott in this story when he was listed on the Forbes' 30 Under 30 list.

Carrie Manore standing in front of a whiteboard.

Math alumna’s disease modeling at national lab aiding public health initiatives to combat COVID-19

By Srila Nayak

Carrie Manore (Mathematics, Ph.D. '11) is a mathematical epidemiologist at Los Alamos National Laboratory.

The ongoing COVID-19 pandemic has placed mathematical models in the spotlight as they have become central to public health interventions, planning, resource allocation and forecasts. OSU mathematics alumni have made important contributions to COVID-19 modeling and research at both national and regional levels.

Mathematics alumna Carrie Manore (Ph.D. ’11) is at Los Alamos National Laboratory working as part of the COVID-19 modeling team. Manore is a mathematical epidemiologist in the Information Systems and Modeling Group at LANL since 2013. Her work focuses on modeling mosquito-borne diseases such as Zika, chikungunya, dengue and West Nile virus. The LANL COVID-19 forecasts are part of the modeling New Mexico Department of Health officials have been using since April to prepare for and tackle the COVID-19 outbreak.

“I got a really strong background in math at OSU, which not only helped me acquire mathematical skills, but also a way of thinking. It prepared me to work on real problems in the world like I am doing now.” — Carrie Manore

For more than a decade, LANL scientists have modeled infectious disease outbreaks, such as smallpox, HIV, Ebola and influenza, across the world and have developed mathematical and computational models to track and forecast their spread. The LANL COVID-19 model is among the forecasts the Center for Disease Control (CDC) has used throughout the pandemic to create health guidelines.

A compilation of LANL and other New Mexico-based models of SARS-CoV-2 virus’s transmission patterns have proven to be successful in helping New Mexico contain the spread of COVID-19. In an article in September, Scientific American reported that “New Mexico’s models and its system for collecting and tracking data allow its policy makers to make forward-looking, evidence-based decisions.” The COVID-19 numbers in New Mexico are far lower than that of its neighbors Texas and Arizona. The scientific expertise and contagion forecasts of LANL epidemiologists like Manore have played an important role in shaping the state’s fight against the coronavirus. Due to her work on the LANL COVID-19 model, Manore has received mention in New Mexico media, as well as the New York Times.

The Los Alamos model is a part of the CDC’s ensemble forecasts to understand the impact of the virus. An ensemble forecast combines models from multiple teams and organizations into one aggregate forecast to get a reliable estimate of total COVID-19 infections and deaths over the next four weeks.

LANL COVID-19 model

Through 2020-10-04, there have been 30,477 confirmed cases in New Mexico. The LANL modeling team provides weekly, short-term as well as six-week forecasts. Source: LANL.

Mapping epidemics from Zika to COVID-19

Manore was modeling the spread of infectious diseases like Zika and West Nile virus at the beginning of 2020 when news about the novel coronavirus in China got the team’s attention. Manore’s modeling team started working on the COVID-19 outbreak in late January and their efforts intensified in mid-March when the infection started emerging globally and within the U.S. As their primary forecasting model has become stable, automated, requiring less day-to-day work, Manore and her team have moved on to answering other questions about a second wave of infections and different possible scenarios for reopening schools.

Manore’s work on forecasting models is primarily based on data, predicting what will happen, given current trends of positive cases and deaths. The national and global COVID-19 models by the team are made publicly available every Monday and Thursday to project case counts for every state in the U.S. as well as every country that has more than 100 cases.

As a mathematical epidemiologist, Manore helps ensure the model accurately captures the transmission dynamics of COVID-19 to forecast the national and global spread of the disease. Manore and her team utilize a probabilistic artificial intelligence computer model for COVID-19, developed by a Los Alamos statistician, that garnered national recognition when a version of it won the CDC’s flu forecasting challenge in 2019, beating 23 other teams.

“We needed to revise and adapt this model for COVID-19 forecasting because we have 20 years of flu data but only a few months of data for COVID-19,” said Manore. The Los Alamos model offers distinct advantages and stands out among other models because “it is truly data driven,” Manore observed. “Quite a few of the other models have a lot of assumptions about how people may behave and their possible decisions. Our model is just really driven by the data on cases and deaths. In particular, that gives more accurate short-term forecasts than some of the other models.”

In response to the reopening of businesses as well as many schools, Manore’s team has also moved forward simultaneously with other models and simulations that account for asymptomatic people, changes in people’s behavior and the consequences of relaxing restrictions. “We do think there is a lot of utility in having multiple models with multiple assumptions. Because we really don’t know what’s going to happen. So, that can give us an idea for the range of possible outcomes,” Manore said.

Manore got her start in disease modeling in the mathematics department at OSU, which she joined in 2006 after studying mathematics at Whitworth University and Eastern Washington University for her undergraduate and master’s degrees. At OSU, she was an NSF IGERT (Integrative Graduate Education and Research Traineeship Program) Fellow in Ecosystem Informatics and worked at the intersection of mathematics, biology, geosciences and computer science. Manore was advised by Vrushali Bokil, a professor of mathematics, and completed her dissertation on population dynamics and epidemiology.

“I got a really strong background in math at OSU, which not only helped me acquire mathematical skills, but also a way of thinking,” Manore said. “The IGERT program was truly interdisciplinary as it involved working collaboratively with academics from different disciplines and I found that extremely useful in my training as a mathematical epidemiologist. It prepared me to work on real problems in the world like I am doing now.”

Manore was an NSF postdoctoral fellow involved with emerging infectious diseases research at Tulane University before joining LANL.

Patrick Franklin in front of white backdrop

Knowledge is more important than grades says math alumnus and American Express chief technologist

By Srila Nayak

Alumnus Patrick Franklin (’89)

If, as the prevailing wisdom goes, a four-year college degree should prepare students for the next 40 years of working life, and for a future that few of us can imagine, then Patrick Franklin’s (’89) undergraduate mathematics degree has paid off handsomely. Patrick’s Oregon State mathematics education gave him several foundational capacities that have helped him adapt and thrive in some of the most competitive and iconic work places in America: Intel, Microsoft, Amazon, Google and General Electric.

He is executive vice president and chief technology officer at American Express Company, the behemoth New York-based Financial Services Corporation.

Patrick’s time as an undergraduate student in the mathematics department was a “very positive experience.” He was mentored by John Lee, emeritus professor of mathematics. “Studying mathematics set me up for success,” Patrick observed.

One of Patrick’s pet dinner table conversation themes is comparing a mathematics degree to a degree in computer science. The latter can teach you about algorithms, data structures and the mechanics of coding, he says. But a degree in math taught him “how to think deeper and much more critically and helped me learn a more analytical and thoughtful way to approach things.”

“I wasn’t the strongest student in class. But I learned a lot. For me, the grades were secondary to the knowledge I obtained.” — Patrick Franklin

Math courses taught him what to code, as well as how to approach and break down a problem, and how to prove things. Learning mathematics made it easy for him to transfer his skills to other fields. “I became instantly a software person with my first job at Intel.”

At OSU, he studied probability, statistics and other “fun mathematical stuff” with former math professor Robby Robson and took a pivotal multi-variable class with John Lee.

Patrick studied mathematics for the simple reason that he loved the subject. At first, he wanted to major in electrical engineering, unsure how to use a mathematics degree to procure a job. But he was dissuaded from doing so. “My wife kept saying, ‘You love math. Why don’t you just stay with math.’”

Patrick came to OSU as a married, 21-year-old undergraduate student after two years in a community college. Raised in Tacoma, Washington, Patrick’s life is an inspiring model of turning failure into success. After failing high school, Franklin enrolled in community college and earned a high school diploma, before joining OSU and turning a chapter in his life. “I wasn’t the strongest student in class. But I learned a lot. For me, the grades were secondary to the knowledge I obtained.”

He absorbed lessons from his academic experiences that he applies to his professional and personal life even today. “I have never asked somebody for their GPA when I interview them. I like to know how they solve problems. After 5 to 7 years of job experience, it just doesn’t matter.”

Patrick put himself through college without much guidance or financial support from his parents. That has given him a richer perspective on the things that matter in the long run and how one may overcome personal struggles. “I think it is important that students have a responsibility for their own education. It’s not an interruption to your studies if you have to take an extra year to get to school because you have to work. Graduating without student loans or debt is more important.”

Taking the lead with technology

At his first job at Intel, which he joined in 1989, Patrick made a path-breaking contribution. He was a founding member of the P6 microprocessor that we know today as Pentium II. Franklin was instrumental in creating the PC’s microprocessor that is the basis of the microprocessor architecture in Pentium II. He was one of only 7 VLSI architects on the project and was responsible for the retirement logic, the performance monitoring hooks as well as the silicon and user debug hooks.

“The system transformation was not as much of a software exercise as it was a puzzle or logic or design problem. That’s what math teaches you. I don’t think you can get that in other disciplines.”

“We built it and it has become the way computing works today. Intel was a great place to get my engineering chops as a mathematician,” noted Patrick. After Intel, he joined Microsoft as a software developer and architect and led the Advanced Configuration and Power Interface (ACPI) initiative that brought reliable plug-n-play and power management to Windows 2000. He was the co-inventor of hibernate — a mode whereby the PC saves all the open programs and data and uses much less power than the sleep mode.

One of his greatest professional achievements came at Amazon, which he joined in 2007 to lead its retail catalog that manages the lifecycle for the products Amazon buys and sells on its website. He was in charge of scalability for the retail systems teams and greatly enjoyed the challenges of large-scale systems. There he led the Amazon Fresh Engineering Team and was the CTO for Amazon consumables.

In 2007, Amazon was a smaller company with a $10 billion market cap. Patrick made positive changes to the retail systems. “The system transformation was not as much of a software exercise as it was a puzzle or logic or design problem. How are going to solve this problem that has lots and lots of complexity in a way that reduces complexity and increases the likelihood of success?” Patrick found his answers in mathematics. “That’s what math teaches you. I don’t think you can get that in other disciplines.”

Patrick has a message for students: “Don’t worry so much about grades. Make sure you understand the material. Make sure you are learning. Learn the fundamentals well because everything builds from the fundamentals.” Patrick’s career is certainly a great example of the latter. His professional life mirrors the arc of technological transformations in our society. He moved up from working on a processor at Intel to e-commerce in the age of the internet.

Patrick has two adult sons who have inherited his love for computers and technology. One works in machine learning and the other is a React (a java script programming language) developer. As a member of the College of Science Board of Advisors, Patrick cherishes the opportunity to deepen his ties to his alma mater.


Read more stories about: alumni and friends, mathematics, careers


Thomas Cavaiani in front of wooden door

Planned gift by alumnus will establish first endowed professorship in mathematics

By Srila Nayak

Thomas Cavaiani, mathematics alumnus

Over a period of about 17 years, Thomas Cavaiani earned two bachelor’s degrees, a master’s degree and a doctorate from Oregon State University. He earned his first degree, a bachelor of science degree in mathematics, in 1971 and bid a final farewell to OSU with a Ph.D. in mathematics education in 1989. His second bachelor’s (’74) and master’s (’79) degrees were in math education.

Encouraged by Gene Craven, an OSU professor of math and science education, Cavaiani decided to pursue degrees in mathematics education. He was subsequently persuaded to stay on for a Ph.D. “Every time I finished my degree, my professors asked me to continue,” recalled Cavaiani. He completed his dissertation under the guidance of Howard Wilson, currently professor emeritus of mathematics and mathematics education.

Born in New Orleans, La., Cavaiani had a peripatetic childhood because of his father’s career in the U.S. Navy. He attended school in California, Kansas and Nebraska. After his parents settled in Redding, Calif., Cavaiani made up his mind to study at a Pac-12 university which brought him to the University of California, Berkeley.

Finding Berkeley “too big and impersonal,” Cavaiani left after one year. A friend in Redding asked him to accompany him to OSU because he was a student there and, thus, began Cavaiani’s long association with mathematics at OSU. Cavaiani had yearned for a more supportive academic environment and mentorship at Berkeley, something he easily found at OSU.

In the mathematics department at OSU, Cavaiani found plenty of encouragement and opportunities for enriching interactions with faculty that deepened his understanding of the subject. He recalls his meetings with Clifford Kottman, a former professor of mathematics (1970-76).

“I didn’t do well on a midterm exam in his class. When I went to meet him, he listened carefully. I couldn’t believe how well he clarified things for me,” said Cavaiani, who also remembers the invigorating conversations he enjoyed with professors Edward Waymire and Bob Burton. “These were people who would drop everything to talk to a student.”

Cavaiani was an undergraduate student when the first generation of faster and smaller computer systems began to make an appearance. He had a memorable numerical analysis class that blended mathematics and computing. This opened his eyes to the world of applied mathematics and computer science.

“My math education helped me think linearly—how to solve a problem by breaking it down, how to structure a solution and acquire the ability to think in a way that solves a knotty issue,” said Cavaiani. “This scientific method of problem solving has proven useful throughout my career in teaching and corporate training.”

Although Cavaiani studied at 13 different schools, he was always a successful student, primarily because he enjoyed mathematics and did very well in the subject. His mathematical ability and training paved the way for a fulfilling life and career.

“Math helps you think logically and make better decisions, even better life decisions,” said Cavaiani, who also attributes his success to not ever giving up and persisting in the face of obstacles.

Cavaiani recently retired as faculty from Boise State University (BSU) where he taught courses in programming, statistics, networking and telecommunications in the Department of Information Technology and Supply Chain Management. He leads a busy and active life in retirement. In addition to gardening and woodworking, Cavaiani is a skier in the winter and enjoys water sports like kiteboarding and windsurfing in the summer.

Working at the confluence of math and computer science

Interspersed with his studies at OSU, Cavaiani pursued careers in teaching at Boise State University in Idaho and as a graduate teaching assistant in mathematics at OSU. He also enjoyed stints teaching computer science and mathematics in Oregon — Chemeketa Community College in Salem and Linn-Benton Community College in Albany — and in Boise public schools.

At BSU, Cavaiani, in addition to teaching, led the implementation of computer network support program for students and faculty in the College of Technology. Besides playing an important role in developing educational technology, Cavaiani has enjoyed a rewarding and multi-faceted career as an informational technology expert and a corporate training consultant for various companies.

After obtaining his doctorate, Cavaiani worked as a systems administrator at Hewlett-Packard in Boise for a few years. Through the 1990s, he worked as a corporate training consultant for several companies, teaching programming, software applications and computer networking, thus ushering hundreds of employees into the era of computers and automation.

Helping students succeed

A passionate proponent of STEM learning, Cavaiani’s generous gift to the mathematics department will move the dial on research, teaching and achievement in the discipline. He has made a planned bequest to establish the Thomas P. Cavaiani Endowed Professorship, which will support a faculty position dedicated to innovative teaching and research in mathematics. This would be the first endowed professorship in the mathematics department.

At first keen on making a gift for student scholarship, Cavaiani eventually decided that a gift to support an endowed professorship would benefit more students.

“Innovative ideas and ways of teaching and doing research will expand the horizons of mathematics students. I have always been intrigued by how people learn things,” remarked Cavaiani.

The endowed position will expand the research and teaching capacity of faculty and enrich the learning experiences of mathematics students. “Innovative teaching, as I envision it, will be suitable for all sorts of students and accommodate different learning styles,” he added.

Cavaiani’s philanthropic gift will help a greater number of students succeed in mathematics as well as inspire more students to major in the subject.

“I thought this way you can get more young people to study math. There is no instant gratification,” Cavaiani observed. “My years of teaching have taught me that you have to be disciplined, keep going and keep learning year after year.”

Nancy Scherich mid performance flipping with other dancers

Communicating math through aerial acrobatics

By Srila Nayak

Nancy Scherich performing aerial silks acrobatics

Mathematics alumna Nancy Scherich (M.S., ’13) has bridged the worlds of art and math to great acclaim. In the summer of 2017, she was adjudged the overall winner of the international “Dance Your Ph.D.”contest. The 10-year-old competition is a challenge laid down by Science Magazine and the American Association for the Advancement of Science for researchers to explain their work with dance moves. In all, 53 scientists from around the world submitted dances.

Currently a doctoral student at the University of California, Santa Barbara, Scherich’s research is in topology with a focus on representations of the braid group.

Science wrote of Scherich, “She spends her days with ‘paper and pencil’ to find the rules that determine the unique representations of twists and knots in high-dimensional spaces. So naturally, she created a dance to explain it with aerial silk acrobatics and glowing hula hoops.”

Scherich began learning aerial silks acrobatics at the Santa Barbara Dance Center in 2016, which allowed her to combine her love of dance with mathematics in a math-dance video for the competition. She is trained in ballet, modern and ballroom dance and musical theater. Her award-winning dance, “Representations of the Braid Groups,” has been viewed over 81,000 times on YouTube.

Scherich’s unusual and creative interpretation of mathematics through the medium of dance has been featured in prestigious media outlets. She was interviewed by WGN Morning News Chicago and the Canadian Broadcasting Corp. Her dance victory was covered in Newsweek and The Wall Street Journal.

In her essay “Turning Math into Dance: Lessons from Dancing my Ph.D.,” Scherich writes about employing dance to communicate abstract mathematical concepts to the general public.

“From a mathematical perspective, the very language we use to describe abstract concepts are words of movement: rate of change, flows, mappings, loops, twist, motion groups, level curves, continuous deformations, etc. Dance is a stunning and novel choice of expression to communicate these ideas of movement and relationships.”

Scherich arrived at OSU after completing her undergraduate studies in mathematics at the University of California, Los Angeles. She wrote her thesis, “The Alexander Polynomial,” under the guidance of Bill Bogley. She recalls OSU fondly.

“My years at OSU were two of the best years of my life. I loved living in Corvallis and the unforgettable numerical analysis courses with Dr. Robert Higdon. I made some life-long friends in my master’s program and learned a lot of great math.”

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