Outstanding Post-Doc

Outstanding Post-Doc


Amir Hosseini has received an Outstanding Post-Doctoral Fellow Award from the College of Science.

Amir received his PhD in Chemistry from Indiana University, where he trained with one of the world’s premier organic electrochemists (Dr. Dennis Peters). He then joined the University of Utah in December 2020, as a Postdoctoral Research Fellow in the NSF Center of Organic Synthetic Electrochemistry (CSOE) where he is working in Prof. Henry White’s laboratory.

Amir’s research project is focused on the discovering novel electroorganic transformations and using variety of electroanalytical tools to explore the mechanism of the reaction at the molecular level. Recently, he developed a new synthetic strategy for electrooxidation of alcohols that is refer to as electroreductive oxidation. The general idea is to electrochemically generate highly oxidizing radicals by reduction of a sacrificial reagent, i.e., reduction is used to initiate a desired oxidation reaction. Amir has demonstrated that this process is effective for selective oxidation of alcohols to aldehydes and acids.

Amir Hosseini

Amir is greatly passionate about mentoring and education of the next generation of scientists. He participated in the Science Research Initiative (SRI) program during the 2021 spring semester when he mentored undergraduate students.

 

This mentorship activity included defining research projects, teaching each student the basic knowledge relevant to their research project, and supervising the progress of research projects. Additionally, he has been part of ACCESS program working with other CSOE volunteers to assist students in performing at-home chemistry experiments. Finally, he mentors graduate students, teaching them the fundamentals of electrochemistry and laboratory safety, and advising them on their graduate research.

Equity and inclusion in academic setting is a very important matter for Amir. He is currently serving as the post-doc representative on the DEI committee of the Department of Chemistry. However, his outreach activities are not limited to academia. He volunteers to help new Iranian and Afghan families settling in Salt Lake City. In this role, he assists families who need a translator for taking care of paperwork, enrolling their children in school, and communicating with federal and state officials regarding their urgent needs.

NSF Fellowship

NSF Graduate Research Fellowship


Kaitlin O'Dell awarded a Graduate Research Fellowship from the National Science Foundation (NSF).

“I feel so honored to receive such a prestigious award,” said O’Dell. “I never imagined I would receive the amazing feedback I got while I was applying for the fellowship. The research I plan on doing is groundbreaking work in numerical methods, so to have that recognized is beyond exciting! The fellowship is really going to allow me to focus on my research and hopefully give not only the numerical community—but the science and engineering community—a great way
to model high-dimensional equations.”

O’Dell’s work is primarily focused on the numerical modeling of high-dimensional partial differential equations. She and her team specifically are developing a particle method that will preserve the energy dissipation structure of the physical systems. Once the actual numerical procedure is developed and analyzed for validity, the team hopes to test it on many physical models to gain a better understanding of these higher-order systems. These physical models can range from materials science to fluids, mechanics, and engineering.

Kaitlin O'Dell

“I never imagined I would receive the amazing feedback I got while I was applying for the fellowship. The research I plan on doing is groundbreaking work in numerical methods, so to have that recognized is beyond exciting!"

 

She excelled at math as a kid, but it wasn’t until she began doing research as an undergrad that she realized how much she enjoys math. “I was able to do research on engineering topics that I was already familiar with and combine them with my two favorite subjects—numerical analysis and ordinary differential equations,” she said. “This really opened my eyes as to what I could be doing in the field of math and the broad range of research I could perform as an applied mathematician.”

O’Dell started out studying engineering at the University of New Mexico (UNM) because of her love for space and science. She enjoyed internships and had the opportunity to work at NASA Ames Research Center. However, she began to find that she was enjoying the math modelling aspect of engineering more than the actual engineering. She decided to switch her major to applied math during her senior year, and she began doing research with Professor Emeritus Deborah Sulsky on beam theory (a way of calculating the load-bearing and deflection characteristics of beams) as part of her honors thesis.

“Dr. Sulsky is an amazing mentor, and she’s very much the reason that I’m now doing a Ph.D. in mathematics.” After O’Dell graduated from UNM in 2020, with honors from the university and honors in mathematics, she decided to apply to the U because of the reputation of the Math Department and the fact that the graduate students seemed happy. “At the time I wasn't sure what I would research, but I found a project that I absolutely fell in love with, and now I couldn’t be happier,” she said. After she obtains her Ph.D., O’Dell would like to stay in academia, but she also envisions working in industry. “I’ll most likely apply to a wide variety of things and choose which I think will be the best fit for me.”

by Michele Swaner, first published @ math.utah.edu

 

Outstanding Post-Doc

Outstanding Post-Doc


Julie Jung has received an Outstanding Post-Doctoral Fellow Award from the College of Science.

Julie Jung spent much of her time in high school roaming greenhouses working for a wheat lab at the USDA. Since then, she has pivoted her research to ecology, having worked first with owls, songbirds, chipmunks and pollinators within New England's deciduous forests.

Following graduation with honors in Biology from Williams College, Jung found herself on a plane to Panama to do field work at the Smithsonian Tropical Research Institute as a graduate student in biology. There she spent the next several rainy seasons studying how red-eyed treefrogs escape hatch in response to snake vibrations.

Julie Jung

"I was so excited to have been peed on by a titi monkey while walking to lab."

 

"I was so excited to have been peed on by a titi monkey while walking to lab," she remembers. During the course of getting her doctorate from Boston University, Jung slowly grew into her role as a behavioral biologist.

As winner of this year's College of Science's "Outstanding Post-Doc Award," Jung has found a scientific home in the Werner Lab still studying the phenomenon of "phenotypic plasticity"—or how the same genotype produces distinct phenotypes depending on environmental conditions—but this time in nematodes.

Jung's NSF-funded research hopes to establish a general model of plasticity across diverse systems. The pivot from field to bench work has been jarring but only partial—as she and her lab members still get out to the Great Salt Lake to collect soil specimens.

Outside of research, Julie Jung loves to climb mountains and practice the salsa dancing skills she picked up in Panama.

by David Pace, first published @ biology.utah.edu

 

NSF Fellowship

NSF Graduate Research Fellowship


Samantha Linn awarded a Graduate Research Fellowship from the National Science Foundation (NSF).

“Recognition from the NSF feels like a pat on the back from one of your greatest role models,” said Linn. “It means “well done,” but it also means, “keep up the good work.” I am grateful because the fellowship gives me more freedom to focus on research and continue my participation in organizations that I care a lot about, such as the Association for Women in Mathematics, the Prison Mathematics Project, and the Living Room Exchange of Mathematics.”

The fellowship provides three years of support over a five-year fellowship period for individuals working on a graduate degree who have demonstrated potential for significant research achievements in STEM or STEM education.

Linn’s research is focused on understanding randomness in various biological processes. In particular, she has spent time thinking about what is known as the “redundancy principle,” which is about the need of many copies of the same entity (think cells, molecules, or ions, for example) to fulfill a biological function. The redundancy principle states that while these copies may seem energetically wasteful, this redundancy is necessary for certain tasks to occur sufficiently fast. Such a task might be neurotransmitters, which we think of as random searchers, looking for postsynaptic receptors, which we think of as targets.

Samantha Linn

“Recognition from the NSF feels like a pat on the back from one of your greatest role models,” said Linn. “It means “well done,” but it also means, “keep up the good work.”

 

Linn has been working on characterizing what might be expected from the fastest searcher. “One advantage of my work is that the application doesn’t need to be solely centered on biology,” she said. “In fact, the questions I ask are often relevant to many areas of physics, chemistry, and sociology. There are many more questions to be asked, with specific applications in mind, so I’m sure this work will keep me busy for a while!”

Linn grew up loving math, and she spent a lot of her free time doing sudoku puzzles and other math games. It wasn’t until halfway through college that she became aware of the possibility of pursuing a career in mathematics.

Before moving to Utah for graduate school, she studied biomedical engineering at the University of Minnesota. She had planned to study medicine, but became concerned by the lack of math in her pre-med classes. With the help of mentors, she realized that she would be happier pursuing a Ph.D. in mathematics.

Samantha wasn’t sure where she wanted to go for graduate school—she had flights booked for graduate program visits, but everything was canceled at the last minute with the start of the COVID pandemic in March 2020. After participating in Zoom calls with at least 50 graduate students and faculty at various programs, she decided that the people in Utah were the happiest. She had never been to Salt Lake City until the day she moved here, but  it has worked out well. Linn likes the graduate program, finds it fun, and she’s very happy she made the decision to come to the U. After graduate school, she hopes to continue her research as a postdoc and, ultimately, have a career in academia as a full professor.

by Michele Swaner, first published @ math.utah.edu

 

Outstanding Undergraduate

Outstanding Undergraduate


Luis Rufino, a senior who will graduate with a degree in physics, has overcome many academic challenges at the U. His efforts were rewarded when he received the College of Science Outstanding Undergraduate Student Award.

“When I first heard the news, I was surprised because I didn’t feel I deserved it, even though I’ve worked hard,” he said. “Maybe I’m suffering from the imposter syndrome, and I’m still questioning my abilities, but winning the award gave me reassurance that I’ve been successful in achieving my goal of improving as a student.” As a freshman at Salt Lake Community College, Rufino didn’t have a promising start. When he transferred to the U, his GPA was low. He was worried that he wouldn’t be able to keep up or survive upper-division physics classes.

Pearl Sandick and Luis Rufino

“The number of research opportunities available in the department is amazing and critical to development as a student or researcher. Even if you decide not to pursue graduate school, you will be a stronger candidate in the job market after completing a physics degree at the U.”

 

“I knew that I wanted to attend graduate school, which meant that I had to improve in my physics classes and also get some research experience,” he said. “Throughout my academic career at the U, I’ve tried to do my best and still find time for research. A physics degree is already quite challenging and wanting to do research on top of that added another layer of stress and difficulty.” Rufino thinks that one of the most important skills he learned at the U was how to manage school, research, and everything else that life throws at an undergraduate. He’s also learned how to bounce back from failure, especially in research.

His research is focused on exploring new physics to describe dark matter—the particles that gravitationally bind galaxies and clusters of galaxies together. The Standard Model of particle physics is the theory that explains how the most elementary particles interact with each other and combine to form composite objects, like protons and neutrons. Developed over the course of many decades, what we know today as the Standard Model was formulated nearly half a century ago and remains a focus of study for particle physicists. By itself, the Standard Model fails to provide an explanation for many important phenomena, such as the existence of dark matter in the universe.

Theoretical physicists have begun to think of a new group of particles that can potentially describe dark matter. These theoretical particles are called the Supersymmetric Standard Model, which suggests that a “cousin” or partner particle may exist for every fundamental particle in the Standard Model. One of these partner particles has the potential of being the mysterious dark matter particle.

Luis Rufino

But how do we find these partner particles? Whenever two particles interact with each other, they emit light and other particles. The same thing happens when two dark matter particles find each other. The light observed from these dark matter interactions can tell us about the dark matter characteristics. Rufino works on investigating the light originating from possible dark matter interactions from dwarf galaxies. He enjoys the research because it allows him to explore new ideas that have the potential to change much of what we know about physics.

He became interested in physics as a kid by watching pop-science movies, science cartoons, and superhero movies “I’d watch Jimmy Neutron, Dexter’s Laboratory, Spiderman, and Cosmos: A Spacetime Odyssey, with Neil deGrasse Tyson,” Rufino said. “I have to give Neil deGrasse Tyson all the credit for my passion for physics. After the first or second episode, I was convinced physics was what I wanted to study, especially astronomy. Of course, now I’m more passionate about discovering new physics.”

His favorite professors in the department have been Dr. Tugdual LeBohec, Dr. Charlie Jui, and Dr. Pearl Sandick. He enjoys the way Dr. LeBohec incorporates history into a lecture before getting into physics. Dr. Jui empathizes with students in their struggles to master complex concepts. He remembers the late nights, the constant stress, and, sometimes, the nightmares that physics students experience. Dr. Jui’s ability to connect with students made Rufino feel at ease in taking his class.

Dr. Sandick has been the most influential person in Rufino’s life and academic career. “She is a person I strive to become, and I’m very grateful to have her as my research advisor,” he said. “The number of research opportunities that are available in the department is amazing and critical to development as a student or researcher. Even if you decide not to pursue graduate school, you will be a stronger candidate in the job market after completing a physics degree at the U.”

When he isn’t studying, he likes to run, play soccer, rock climb, and hang out with friends. Currently, he’s training for his second marathon.

After five years of endless toil, Rufino plans to take a gap year between graduation and graduate school. He wants to spend more time with the people he cares about and explore hobbies, such as working with leather goods, building mechanical keyboards, and playing video games. After his gap year, he will begin graduate studies at Syracuse University.

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

 

Distinguished Service

Distinguished Service


Pearl Sandick

Pearl Sandick receives Distinguished Service Award.

Pearl Sandick, Associate Professor of Physics and Astronomy and Associate Dean of Faculty Affairs for the College of Science, has received the Linda K. Amos Award for Distinguished Service to Women. The award recognizes Sandick’s contributions to improving the educational and working environment for women at the University of Utah. Amos was the founding chair of the Presidential Commission on the Status of Women, was a professor of nursing, and served for many years as Dean of the College of Nursing and as Associate Vice President for Health Sciences. Throughout her career, Amos was the champion for improving the status and experience of women on campus.

“This is a great honor. I’m privileged to work with amazing students and colleagues who understand the value of a supportive community,” said Sandick. “I am really proud of what we’ve accomplished so far, and I’m excited to start to see the impact of some more recent projects.”

Sandick is a theoretical particle physicist, studying some of the largest and smallest things in the universe, including dark matter, the mysterious stuff that gravitationally binds galaxies and clusters of galaxies together.

Upon her arrival as an assistant professor in 2011, Sandick founded the U’s first affinity group for women in physics and astronomy. For the last two decades, the national percentage of women physicists at the undergraduate level has hovered around 20%. The percentage at more advanced career stages has slowly risen to that level, thanks in part to supportive programming designed to increase retention. The goal of the affinity group within the department is to foster a sense of community and provide opportunities for informal mentoring and the exchange of information, ideas, and resources. The group has also been active in outreach and recruiting. As of fall 2021, the group is now known as PASSAGE, a more inclusive group focused on gender equity in physics and astronomy.

Within the department and in the College of Science, Sandick has improved a number of processes, including writing an effective practices document for faculty hires, based in large part on research related to equitable and inclusive recruitment practices and application review. As Associate Dean, she worked with the College of Science Equity, Diversity, and Inclusion Committee (which she currently chairs) to create college-wide faculty hiring guidelines, which were adopted in 2020. She was also instrumental in several other structural and programmatic initiatives to create a supportive environment in the department, such as the development of a faculty mentoring program and the establishment of “ombuds liaisons” to connect department members with institutional resources.

Through her national service related to diversity and inclusion, Sandick has gained a variety of expertise that she has brought back to the campus community. For example, she has given workshops in the department, the college, and across campus on communication and negotiation, implicit bias, conflict management, and mentorship.

Here are comments from women in the Department of Physics & Astronomy, who have participated with Dr. Sandick in activities sponsored by PASSAGE:

“Being part of PASSAGE has allowed us to connect with others who share similar experiences in the department. It has also helped us connect with people, both within the university community and at other institutions, who have served as role models and mentors.” –Tessa McNamee and Callie Clontz, undergraduates

"PASSAGE became a lifeline during the pandemic and continues to be so. It helps equip members with the tools that they need in various aspects of academia. Professor Sandick makes it her mission to guide us, especially in a time of crisis. I am personally thankful to her and to all of the group members.” –Dr. Ayşegül Tümer, Postdoctoral Research Associate

In addition to her research, Sandick is passionate about teaching, mentoring, and making science accessible and exciting for everyone. She has been recognized for her teaching and mentoring work, with a 2016 University of Utah Early Career Teaching Award and a 2020 University of Utah Distinguished Mentor Award. In 2020, she also was named a U Presidential Scholar. As discussed earlier, women are still widely underrepresented in physics, and Sandick is actively involved in organizations that support recruitment, retention, and advancement of women physicists. She has served on the American Physical Society (APS) Committee on the Status of Women in Physics and as the chair of the National Organizing Committee for the APS Conferences for Undergraduate Women in Physics. She is currently chair of the APS Four Corners Section, which serves approximately 1,800 members from the region.

- by Michele Swaner, first published at physics.utah.edu

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Staff Excellence

Staff Excellence


Vicki Nielsen

Vicki Nielsen, Accountant in the Department of Physics & Astronomy, has received a Staff Excellence Award from the College of Science.

“It’s an honor and very exciting to be selected by the College for this special recognition,” said Nielsen. “I’m humbled by the nomination. I’ve received kudos at other jobs but nothing compared to this extraordinary award. Excellence is a word I take seriously, and this a goal to which I will continue to aspire for the Physics Department and the College of Science!”

Nielsen came to accounting through a circuitous route—originally she graduated with a Bachelor of Fine Arts in Theatre from the U in 1994. She was lucky enough to work and gain practical experience in Pioneer Theatre Company’s costume shop for several years as a student and after graduation. She had always wanted to experience living outside Utah, so she left to backpack across Europe. Eventually she returned to the states, moved to Oregon, and worked different temporary jobs. When she returned to Utah, two genealogy companies she had worked for before hired her to perform searches at the Family History Library for customers and professional genealogists. A close friend who worked in the accounting area in the Department of Physics & Astronomy told Nielsen about a secretarial job opening.

“This was 2006, and it was one of the first group interviews I had, which I found exciting and challenging,” said Nielsen. Once she was hired and began working as a secretary, she was offered part-time work in accounting and, eventually, full-time with payroll duties. “My supervisor at the time said she trusted me with those duties and that gave me confidence. All my work experience has helped me in becoming competent at meeting deadlines, getting tasks accomplished quickly and correctly, and finding fulfillment in helping people”

In her current role, Nielsen communicates with supervisors and new employees throughout the hiring process. She initiates student job changes through HR every semester and department job changes for the new fiscal year. She also works with HR in off-boarding employees to help with a smooth transition as they leave the U. She has frequent interaction with the  U’s office of  International Student & Scholar Services regarding work authorization for department employees.  In addition, she is involved with the department’s graduate program and has a general knowledge of all the business services provided in the Accounting Department.

Nielsen enjoys working in the department, and she values the inclusion and support she finds. She also respects the emphasis on and support for education. “I really love working with all the impressive people in the department who have such insight and drive,” she said. “In turn, I hope this is reflected in how I help people.”

by Michele Swaner, first published @ math.utah.edu

 

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Carbon Nanotubes

Carbon Nanotubes


Vikram Deshpande

Long carbon nanotubes reveal subtleties of quantum mechanics.

Vikram Deshpande had a hunch that carbon nanotubes held a lot of promise as a building block. He suspected that their unusual electrical and thermal properties and extraordinary strength could be modified for specific purposes by adding nanofabricated structures.

Working with nanotubes more than a micron long, the University of Utah physicist and his team found that the nanotubes held surprises, even without being adorned with those structural bells and whistles. “We started seeing all this richness in the data and had to investigate that before making the experiment more complicated,” Deshpande says. “Because they are only a nanometer or so in diameter, they are excellent playgrounds for studying the quantum mechanics of electrons in one dimension.”

But thin walls also mean little shielding. Impurities on the surface scatter electrons in the nanotube, and that initially prevented Deshpande from getting clean data.

His solution was to both clean the nanotubes and run his experiments in a DRY ICE 1.5K 70 mm cryostat made by ICEoxford. The UK-based company’s cryostat allows him to suspend nanotubes between supports and run a current through them. The nanotubes heat up to several hundred degrees, and the impurities are knocked off the surface.

ICEoxford cryogenic equipment.

The setup is cooled by pumped helium-4 at around 1.5 K, which is important, says Deshpande. “A lot of cryogenic equipment is vacuum-based, but the heat injected into the nanotube has no way out except along the tube, which is very ineffective.” Another boon is the fact that the cryostat is top loading so it’s easy to access. Within 12 hours of installing a new sample, the entire system is cooled and ready for testing.

With a good nanotube in place and thoroughly clean, Deshpande applies voltage to inject electrons and explore their quantum behavior.

A major influence on electron behavior inside the nanotube is the quality of the end contacts. The electrons travel unimpeded within the tube, known as the ballistic regime. But the ease at which they can escape the tube affects their behavior radically.

Using low-conductivity contacts, Deshpande’s team measured the energy required to add individual electrons to the tube. Subtle changes in the energy showed that the electrons were falling into an ordered pattern called a Wigner crystal—effectively a solid made of pure electrons—which occurs only at very low density. “Lower electron density is obtained with longer lengths, which make our experimental signature possible,” Deshpande says. His team reported their results in Physical Review Letters (volume 123, page 197701, 2019).

Last year the team published another paper in Physical Review Letters (volume 126, page 216802, 2021) with results from high-conductance contacts. They found the electrons’ wave-functions spread along the tube, creating quantum interference, analogous to light in an interferometer. There was not only interference similar to the Fabry-Perot effect between electrons bouncing back and forth, but also a more subtle interference caused by slight variations in the nanotubes, such as chirality. “These are exquisite measurements of delicate quantum effects that we can only see because our long nanotubes accumulate measurable phase difference between these modes,” Deshpande says.

He has also made use of the DRY ICE cryostat’s ability to apply magnetic fields up to 9 teslas. “If you thought the data so far were rich, you should see what happens in a magnetic field!” he says.

Phil Dooley is a freelance writer and former laser physicist based in Canberra, Australia.

 

- by Phil Dooley, first published in Physics Today

 

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Goldwater Scholar

Goldwater Scholar

Rock climbing in Southern Utah.

Alison Wang, a junior in chemistry, has been awarded a prestigious Goldwater Scholarship for 2022-23.

Alison enrolled at the U in 2019 and declared chemistry as her major, with her eyes set on going to medical school. However, her honors general chemistry professor, Luisa Whittaker-Brooks, encouraged her to seek a research opportunity in Caroline Saouma’s lab as a first-year-student.

Unfortunately the pandemic delayed Alison's start to lab work until fall of her sophomore year, but she came to love research – so much so that she now is planning to enroll in either an M.D./Ph.D. or Ph.D. program.

Her research is focused on mechanistic studies for the electrocatalytic reduction to CO2 to CO or formate at Mn centers. She was a UROP scholar (twice), and participated in the department of chemistry’s NSF-funded REU program last summer.

Alison Wang

These opportunities helped Alison gain valuable skills in communicating science, which she refined in February at the Utah Conference on Undergraduate Research (UCUR). She secured funding through the Office of Undergraduate Research (OUR) to present a poster at the spring national American Chemical Society (ACS) meeting in San Diego in March, where she won the division of inorganic chemistry’s undergraduate poster award (one of only five!).

The conference also allowed her to explore other areas of chemistry, and has helped her hone in on the field of bioinorganic chemistry for her Ph.D. She clearly is a chemist who is off to a fantastic research career!

Alison is a first-generation Chinese American, having lived all over the US before graduating high school in Utah. In addition to her studies and research, Alison works at the Utah Lions Eye Bank and as a waitress. In her spare time, she enjoys rock climbing, eating at Osteria Amore, and is helping to train a guide dog.

In addition to the Goldwater scholarship Alison has also received the Laya F. Kesner and Leon Watters Memorial Award, and the Undergraduate Research Scholarship from the University of Utah Department of Chemistry.

Distinguished Educator

Distinguished Educator Award


Claudia De Grandi

Claudia De Grandi awarded College of Science Distinguished Educator Award.

Claudia De Grandi, assistant professor (lecturer) of educational practice in the Department of Physics & Astronomy, has been recognized for her exceptional contributions to the educational mission of the College of Science by receiving the 2021-2022 College of Science Distinguished Educator Award.

Nominations for the award include faculty who have gone above and beyond to foster community, provide engaged learning opportunities, or otherwise substantially enrich learning experiences within the College of Science community at the university.

“I am excited and honored to receive this award! It’s a pleasure to work with faculty, students, and staff in the College in the pursuit of educational excellence.”

In supporting De Grandi’s nomination, Christoph Boehme, professor and chair of the department, said, “The award recognizes the excellent work that Claudia has done over the past years, not just as an outstanding course instructor, but also for course and curriculum development. We are so lucky to have her as a faculty member in the department.”

Some of the projects she has been actively involved with in the department include: designing and leading the teaching assistant orientation for incoming graduate students, reforming the undergraduate physics curriculum, and piloting a new peer-to-peer mentoring program (the PANDA Network led by Dr. Gail Zasowski).

Since fall 2020, Dr. De Grandi has served as the chair of the Physics and Astronomy Teaching Excellence Committee, the goal of which is to support all faculty and instructors in the department to design effective learning environments and foster student success. The ongoing work of this committee includes: creating a community in the department to discuss and share teaching practices and tools (especially during the beginning of Covid-19 and the adjustment to online teaching); providing instructors with the tools to seek feedback from students (e.g. via mid-semester anonymous surveys); and advising department leadership on the implementation of teaching innovation.

Since her arrival at the U in 2018, De Grandi has been teaching several large-enrollment introductory physics courses and labs geared to all STEM majors. De Grandi designs her courses with these goals in mind: fostering community and collaboration among students, creating a space for incremental learning, and providing resources and access.

Informed by her previous teaching experience at Yale University, De Grandi brought to the U a new course in the spring of 2020: the Being Human in STEM course (SCI 3900/HONOR 3990). The goal of this course is to create a space for dialogue between STEM students and STEM faculty to investigate together the theme of diversity and climate within STEM. As part of the course, students develop and implement their own projects with the goal of improving the experience of STEM students at the university. The course satisfies the University General Education Diversity requirement and also counts as an Honors College elective. De Grandi has co-taught this course for the past three years in collaboration with other faculty in the College of ScienceCollege of Engineering, and College of Mines and Earth Sciences.

Here is what one student said about the course. “This class gave me the tools I needed to be more inclusive and bring more humanity into STEM and the world. It has really just opened the door for me to realize that I have so much more to learn and experience. I am humbled by what little I know and how much I have to learn; but this class has given me the tools to start asking why. [It has also helped me in] re-examining my perceptions and how the dominant culture influences the foundations of our societies. It is by asking these questions and coming to these realizations that will then allow me to understand how we and I begin to dismantle it. Thank you all for giving us these tools! — Sam Bagge (Geology) Being Human in STEM 2021

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