Eleven Syracuse University students and alumni have been selected as 2026 recipients of awards, with three additional students named as alternates. The prestigious program, which funds English teaching assistantships and study/research grants in more than 140 countries, will send this year’s Syracuse cohort across four continents to teach, conduct research and build cross-cultural connections.

The 2026 recipients are the following:

• Bobby Battle ’26 (School of Education), English Teaching Assistantship (ETA), Spain
• Christian Bevilacqua ’24, G’26 (School of Education, Maxwell School of Citizenship and Public Affairs and College of Arts and Sciences), study grant, United Kingdom
• Gabriel Calloway ’26 (Maxwell School and A&S), ETA, Brazil
• Andrew Danik G’23 (Maxwell School), research award, Namibia
• Molly Grow ’26 (School of Education), ETA, South Korea
• Troyesha Parks ’22, G’23 (Falk College of Sport, Maxwell School), ETA, Taiwan
• Maya Philipp (Ph.D. in biology, College of Arts and Sciences), Azores Regional Government Research Award, Portugal
• Sarah Schreiber ’26 (Maxwell School and A&S), ETA, Cambodia
• Iona Volynets ’24 (Maxwell School and A&S), research award, Kazakhstan
• Anya von Wolff ’26 (College of Visual and Performing Arts), Fulbright Combined Award, Austria
• Ernestine Whitaker G’26 (Ph.D. student in anthropology, Maxwell School), study grant, Italy

Three additional students were named alternates: Nathaniel Hasanaj ’25 (Maxwell School and A&S), ETA, Kosovo; Sarah Leonard ’26 (School of Education), ETA, Spain; and Lilyan Minicozzi ’26 (VPA), study grant, United Kingdom.

Two of the recipients—Maya Philipp and Sarah Schreiber—show the two sides of the program up close: one heading abroad to conduct research, the other to teach.

Maya Philipp: Tracking Whales in the Azores

Philipp will spend her Fulbright year in the Azores, working with researchers at the Institute of Marine Science–Okeanos at the University of the Azores to study sperm whale distribution and behavior.

Her project draws on high-resolution biologging tags that capture audio, location and movement data from whales, paired with satellite oceanographic data, allowing her to model where the animals are likely to be and what they’re doing at any given time.

The work will form the third chapter of her doctoral dissertation, which examines how large whales’ movement patterns reveal the “prey landscapes” they navigate in shifting marine environments.

Philipp’s research carries real stakes beyond her dissertation. The Azores sit along one of the busiest shipping corridors connecting the Americas and Europe, and rising vessel traffic has coincided with a growing number of sperm whale injuries and deaths. By predicting where whales will surface and travel, Philipp’s models could help ships steer clear of high-risk zones, reducing collisions while also helping whale-watching operators locate the animals.

Beyond the science, Philipp sees the year as a chance to deepen her Portuguese and immerse herself in local life, serving as a cultural ambassador as much as a researcher.

“By the end of the program, I hope to come away with insights that can help protect sperm whales while serving the local economy, and collaborations that will continue well after my time as a Fulbright researcher,” she says.

Sarah Schreiber: Teaching English in Cambodia

Schreiber says her background in international relations and environmental policy gives her a unique perspective on the English��language learning classroom.

“I have been a language student myself many times, which will aid me in understanding my students’ needs and designing exercises that work best for them,” she says. “My studies at Syracuse taught me the intercultural communication skills necessary to succeed.”

Her interest in Cambodia traces back to an undergraduate paper on women under the Khmer Rouge, which she wrote for a course on atrocity studies. It left her wanting to understand more about how Cambodia has rebuilt itself over the past three decades. She’s spent the months leading up to her departure studying Khmer and connecting with fellow Fulbright grantees headed to the region.

Beyond the classroom, Schreiber plans to volunteer after school hours running English clubs, and possibly a dance club as well, as part of a broader effort to serve as a thoughtful guest in the country and a genuine cultural bridge between Cambodia and the United States.

All students were assisted by the (CFSA) in the preparation of their Fulbright applications. Students and alumni interested in the 2026-27 Fulbright cycle should contact the CFSA at cfsa@syr.edu.

Aaron Lener ’27 still remembers the exact moment linguistics stopped being a subject he was curious about and became the work of his life.

As a high school senior sitting in on a historical linguistics class by , associate professor of linguistics in the , Lener heard about the Bantoid languages of West Africa.

By the time classes started that fall, he had a research proposal in hand and a seat on Green’s research team. Three years later, that early spark has grown into a body of work substantial enough to earn him a , one of the most competitive graduate fellowships in the country.

The Beinecke Scholarship provides substantial funding for the graduate education of young people of exceptional promise. It is open to junior-year college students and was created to enable them to be courageous in selecting research or creative-focused courses of graduate study in the arts, humanities or social sciences. Lener was one of 16 Beinecke Scholars selected from a national pool of nominated students in 2026.

Lener’s résumé is wide-ranging. He is a double major in linguistic studies and international relations, a member of the Renée Crown University Honors Program and is a 2026-27 Remembrance Scholar. He has engaged in fieldwork on endangered Nigerian languages, a policy internship in Brussels, Belgium, and a courtroom-observation stint in New York’s court system. During a study abroad semester in Strasbourg, France, he also held a position inside the Council of Europe’s Directorate General of Social Rights, where he researched case law affecting more than 700 million people.

A Family Connection

All of Lener’s work around the power of language traces back to his home. Lener grew up in rural Homer, New York, 35 minutes from the Onondaga Nation, with a great-grandmother born to Mohawk Nation parents.

Hearing family stories about language repression left him, in his words, with “an acute understanding of the dangers of language loss,” an awareness that now animates his research on Jhar and Gwak, two severely understudied Jarawan languages spoken in Nigeria.

As the only syntactician on Green’s team, Lener has spent three years building an analysis of how these languages express negation, working from recordings gathered through WhatsApp calls with native speakers thousands of miles away.

It is at times frustrating work—Lener describes trying to parse grammatical structure over calls with motorcycles in the background—but it has already produced a first-author paper under review at Studies in African Linguistics and presentations at conferences from Cornell to the University of Notre Dame to the Annual Conference on African Linguistics in Buffalo.

Scholarship Based on Experience

Much of Lener’s distinctive scholarship draws on experience outside a linguistics department. His Russian minor, initially a personal interest, turned out to connect directly to his fieldwork.

Much of the foundational theory behind modern syntax emerged from the Russian Formalist movement. Lener has researched that history alongside his African-language work, a link made more urgent, he says, by Russia’s growing military presence in West African nations like Burkina Faso and Niger, not far from where his Jhar and Gwak language consultants live.

A summer with Education International in Brussels had him producing a policy toolkit on mother-tongue education for teachers’ federations across Africa. His work in Strasbourg, reviewing European Social Charter compliance and researching labor protections for platform workers, has little to do with Jarawan syntax on its surface. But Lener sees it as one more facet of the same conviction: that language, whether encoded in grammar or in law, is fundamentally about how people are seen and protected.

After noticing members of his own rural community were struggling to connect with the Spanish-speaking migrant workers who had recently moved there, Lener started a series of community Spanish classes in Homer. He later taught English to refugees from Ukraine, Sudan and Afghanistan through a Syracuse resettlement program. Showing people that unfamiliar languages and cultures “are not scary” is one of the most direct ways to combat the fear that comes from a lack of exposure.

Jolynn Parker, director of Syracuse’s , says Lener has “extraordinary energy, boundless curiosity and a keen analytical mind.”

“Aaron is poised to be a leader in the field of linguistics and to contribute meaningfully to the description and preservation of threatened languages,” she says.

As for the future, Lener is certain he will be using language to make a difference in the world.

“I want to look in the mirror and tell myself, with confidence, that I am doing something good for others,” he says.��

While most rising seniors are thinking about what lies ahead, Kenna Cummings ’27 is thinking about what lies beneath—the ice sheet in Greenland and a supervolcano in New Zealand, to be specific. Cummings, a geology major in the ��(A&S) has been named a 2026-27 Astronaut Scholar by the (ASF).

Founded by the Mercury 7 astronauts, the foundation awards scholarships to students in their junior or senior year who are pursuing a science, technology, engineering or mathematics (STEM) degree with intentions to pursue research or advance their field upon completion of their degrees. Astronaut Scholars are among the best and brightest minds in STEM who show initiative, creativity and excellence in their chosen field.

The Astronaut Scholarship provides funding of up to $15,000 toward educational expenses, a paid trip to the ASF Innovators Week and Gala in Houston in August and lifelong mentoring and engagement opportunities with astronauts, Astronaut Scholar alumni, industry leaders and the ASF.

Tapping the Planet’s Hidden Heat

Cummings, who was also named a Goldwater Scholar earlier this year, is currently wrapping up her semester of research in the Taupō Volcanic Zone (TVZ) on New Zealand’s North Island. There, she utilizes microscopy and geochemistry to study the subsurface magma system that both feeds eruptions and heats deep geothermal fluids.

“The TVZ is an incredible example of how active geothermal systems can be used for energy production as well as numerous direct uses, such as timber drying and greenhouse heating,” she says.

Cummings considers herself lucky to be able to undertake research at points around the world, such as Iceland and NewZealand, where some of the most innovative developments in geothermal energy are happening. She has studied the Greenland ice sheet remotely through the lab of , assistant professor of seismology in the Department of Earth and Environmental Sciences in the College of Arts and Sciences.

In Greenland, Cummings studies what a system like the one in New Zealand looks like long after its heat source has moved on. Using seismology—mapping how seismic waves travel through the earth—she traces the path that ancient hotspot took and measures how much heat remains below the ice sheet.

“From this research, I’ve learned about the range of settings that can have heightened geothermal gradients without dramatic volcanic activity,” she says. “Understanding the many ways geothermal areas can be formed and studied will help me scale innovative solutions for settings across the U.S.”

Bridging Academia and Industry

Cummings’ long-term goal is to run a research lab inside an industry geothermal company.

“I am very passionate about clear communication between academia and industry, since academic research is only made applicable through commercial viability,” she says. “To me, the line between academic research and commercial application is done right when both sectors are working to their strengths, supporting each other and building toward the same end goal that will have positive impacts on the public at large.”

Cummings says that her selection as an Astronaut Scholar is an incredible honor that comes with life-changing financial support and academic and career opportunities.

“The Astronaut Scholarship Foundation has a robust alumni network that provides opportunities to learn about various fields of science and industry,” she says. “I plan to take advantage of mentorship opportunities within the ASF alumni network as well as present my research at the Innovator’s Symposium. I know this scholarship will open doors for me in both grad school and career applications. I am grateful for the numerous ways becoming an Astronaut Scholar has already begun to change the trajectory of my future research career.”

Created in 1984, ASF awarded its first seven scholarships in honor of the Mercury 7 astronauts—Scott Carpenter, Gordon Cooper, John Glenn, Virgil “Gus” Grissom, Walter Schirra, Alan Shepard and Deke Slayton. Seven students received $1,000 scholarships. Since its inception, the ASF has awarded more than $10 million to more than 950 college students.

As a university partner of the ASF, Syracuse University can nominate two students for the Astronaut Scholarship each year. Interested students should contact (CFSA) for information on the nomination process (cfsa@syr.edu; 315.443.2759). More information on the Astronaut Scholarship Foundation can be .

Before the first match kicks off, a group of students has already run thousands of simulations to predict who will lift the FIFA World Cup Trophy.

The has published its , featuring game-by-game forecasts, heat maps and predictions for each group and for each nation.

President Evan Pegorsch ’27, a sport analytics and economics major in the and data analyst for the Orange’s men’s soccer team, and Noah Bair ’28, a sport analytics major, discuss their predictive model, who they think will win it all and the U.S. team’s chances of advancing out of their group and into the knockout stage.

What makes the model stand out?

Noah Bair: We wanted to study those contributing factors to team success at the World Cup—roster quality, previous World Cup experience, how teams have historically performed and whether a team has a veteran or a first-time coach—to think about our predictive model as sports fans rather than analysts. What important characteristics are missing, and how can we add to the research?

Evan Pegorsch: We’re providing the data to back up why we think a team is going to win or lose. We don’t just rely on FIFA rankings. We also factor in how many players each team has on the Ballon d’Or rankings [a list of the top 30 players in the world], how each team performs playing in different temperatures, how long the coach has been with the team and other key indicators. If you just went off the FIFA world rankings, our model overperformed that baseline by 15%.

Who are the favorites to win the World Cup?

Pegorsch: The consensus favorite is Spain, but my number one is France. Their attack is overpowering, they have enough depth in other key areas, and the defense is looking good. Then it’s Spain. Then you must include Messi and Argentina, which has great team chemistry and a willingness to fight for each other. Then I’d go with England and Portugal, which has a talented midfield and a defense that’s on the rise.

Bair: France is my number one, based on what they’ve done historically—they won it all in 2018 and were runners-up in 2022. That historical dominance along with the quality of players is going to take them very far. Then it’s Argentina. Anytime Lionel Messi is on the field you have a chance to win. Then I like Portugal. The quality in their midfield is second to none. England having a new manager is going to help, and this is an invigorated team with a lot of young talent that can bring home the trophy. I’m also high on the Netherlands. They have a deep team and one of the best benches in the World Cup.

What will be the impact of an expanded field and multiple co-host nations?

Bair: For the first time, we have three co-host nations in the U.S., Canada and Mexico, and 48 participating teams, the largest field in World Cup history. This will create an unexpected challenge. Unlike during their domestic season when matches are centralized and you might be traveling 30-40 miles for matches, these teams will be traveling across countries and for far greater distances than they’re used to, which could definitely impact the matches.

Pegorsch: Travel fatigue is going to be a big factor in this tournament. Teams will have to adapt to added travel and shorter rest times between matches. And adding more teams decreases the likelihood of every single country winning it all in our model. The top teams have a smaller chance of winning it all than they have in the past, because there’s more potential for upsets and more variance.

How far does the model think the U.S. will advance?

Pegorsch: Our model gives them a 4% chance to win it all. Being on home soil helps. I worry about the goalkeeper, which is a huge area of weakness. When you get later into the World Cup rounds, the chances of dealing with either a penalty kick or penalty kick shootout increase, and I don’t trust our goalkeeping there. But there’s a lot of excitement around the U.S. and it’s realistic for them to reach the quarterfinals.

Bair: As tournament hosts, they’ve been given a favorable draw and don’t have a great contender in their group. The U.S. is the favorite to win Group D [88.7% to advance] and make the knockout stage. The talent is there to make it to the quarterfinals, and the U.S. will get a boost playing in front of the home crowd. But realistically, I think the team will lose in the round of 16.

What’s a dark horse country with the talent to make a deep run?

Bair: Ecuador is an up-and-coming team with some quality players who have been on the rise since 2022. Because Ecuador doesn’t have that historic success on the national stage, the data will likely say they’re not going to go very far, but Ecuador has one of the best defenses in the world, and at the World Cup, defense can carry a team.

Pegorsch: The model is high on Norway. They have one of the best players in the world in Erling Haaland, and while Norway is 29th or 30th in the FIFA rankings [at the time the data was collected], we have them with the 11th best odds to win because they have strong attacking options.

Where you live affects how healthy you are. That idea sits at the center of Miriam Mutambudzi’s research—and behind the two-year project she led as the 2024–26 .

is an associate professor of public health in the . Her work explores how conditions like housing, employment and economic stability shape people’s health over their lifetimes.

For the Lender fellowship, she and a team of student fellows set out to examine housing as a structural determinant of health, reviewing the research evidence and engaging directly with community members to understand how this plays out in Syracuse.

Working in partnership with the University’s and the , the team reviewed research on housing and health, then engaged community members directly through the (TMR) series. The fellowship culminated when student fellows presented as panelists at a TMR session—offering their findings to the public as emerging experts in the field.

We spoke with Mutambudzi recently about the team’s work.

What did the community tell you that the data couldn’t?

Community voices from sessions like “The Conditions of Home: Health, Safety and Access” described how housing quality, environmental safety, neighborhood conditions and instability affect daily stress, food access and overall health and well-being in ways that do not show up in traditional datasets.

These conversations also revealed gaps in existing evidence, particularly around how local housing policies, service systems and lived experiences intersect in Syracuse—areas that would benefit from further research to better quantify these issues and understand their impact.

How did TMR become part of that work?

As the landscape for relevant research shifted in ways outside our control, it became clear that data analysis alone was insufficient to fully capture the lived realities of housing disparities in Syracuse. TMR was a natural fit, as the focus was on housing and provided an opportunity to incorporate community-engaged work in a meaningful way, one I don’t think we could have replicated any other way.

What role did the student fellows play?

They were genuine research partners, leading development of data briefings drawn from publicly available sources and peer-reviewed literature, then building presentations for the TMR sessions that framed topics for the roundtable’s participants.

Prior to each session, fellows met with panelists to learn about their lived experience in Syracuse and their work, using these conversations to develop informed moderator questions for the roundtable discussions. That process ensured that each session reflected both rigorous evidence and real community knowledge.

How has this project informed your ongoing research?

This work has helped me see how housing shapes health and everyday life beyond what quantitative data alone can fully capture. It has broadened my understanding of how housing, as a structural determinant, independently shapes health outcomes and survival. I look forward to bringing these community insights into that ongoing research.

What does this work mean for people living in Syracuse, and other areas like it?

The patterns we are seeing in Syracuse connect to broader research on how structural disparity in housing shape health and survival across communities. This work points to the need for both local action and research that can better quantify these impacts and inform policy and practice.

Student Fellows

The 2024–26 Lender student fellow team consists of:

• Tomiwa “Tommy” DaSilva ’26, a double major in public health and policy studies and citizenship and civic engagement in the Maxwell School
• Adara “Darla” Hobbs ’22, G’26, a graduate student in Pan-African studies in the College of Arts and Sciences (A&S) and recipient of a certificate of advanced studies in public management and policy from the Maxwell School. She is an alumna of the communication and rhetorical studies program in the College of Visual and Performing Arts
• Jamea Candy Johnson ’25, G’26, a graduate student in public health in the Maxwell School and an alumna of the psychology program in A&S
• Sabrina Lussier ’26, a triple major in geography, citizenship and civic engagement, and environmental sustainability and policy in the Maxwell School
• Shreya Potluri ’27, an architecture major in the School of Architecture

Faculty in the (VPA) and the (A&S) have received (NEA) grants to support their community-engaged creative arts programs.

The awards—$20,000 for a collaborative filmmaking production program aimed at Syracuse City youth and $18,200 for two years of artist residencies at a campus-affiliated cultural center—reflect the University’s commitment to connecting academic and creative work with the Central New York community.

Teens With a Movie Camera

Now in its third year, “” brings about a dozen local high school students to campus each summer for a three-week media arts production collaboration. Working with film faculty and University students, teens ages 13 to 18 make original short films using smartphones and everyday objects and then present them publicly.

Their work has been shown at the and at . It has also been screened in national and international film festivals, including the Thomas Edison Film festival, where “” won an honorable mention; and in the New Year/New Work Film Festival at The Film-Makers’ Cooperative��in NYC.

The program is co-led by , associate professor in VPA’s Department of Film and Media Arts; VPA film program alumnus G’23 and , a Guggenheim fellow and adjunct professor of photography at Onondaga Community College.

The trio is assisted by undergraduate and graduate film and media arts students. The program aims to empower teens by voicing their ideas through images and public presentation, according to Mišo Suchý. He says production relies heavily on improvisation “because it is undertaken as a zero-budget creative production based on the ethos of the tradition of independent cinema and low-budget experimental filmmaking.”

This summer’s program will explore themes of “defying gravity” and “overcoming the impossible.” Interested teens can apply on the program’s .

Community Folk Art Center

A second NEA grant of $18,200 will support “Rooted & Rising,” an artist residency program at the (CFAC), a University-affiliated cultural hub dedicated to promoting artists of the African Diaspora.

The residency is directed by , executive director of CFAC and assistant professor of African American studies in A&S. The grant will allow a program beginning in summer 2026 continuing through the end of 2027 that will support four artists over the two-year period. In addition to interacting with students in A&S programs, the artists will develop workshops, exhibitions, talks and free public events.

Jackson says the residencies will create meaningful opportunities for Syracuse University students to engage directly with working artists while also expanding access to arts programming for the Central New York community. They also offer the artists “the time, space and institutional support to develop new work grounded in public engagement and cultural dialogue,” Jackson says.

The project reflects CFAC’s mission to bridge scholarship, creative expression and community wellness through support of multidisciplinary artists.

More information about NEA grants and their impact on communities is available on the .

A recent major investment in Syracuse University research infrastructure has resulted in the installation of a field emission scanning electron microscope in the University’s (MRC) facility. The instrument has introduced dramatic new imaging capabilities to researchers at the University and at partner institutions in the region.

The new instrument demonstrates the University’s commitment to supporting and enabling cutting-edge research in important fields like biomedical engineering, materials science and quantum computing, says , director of research operations in the .

The Zeiss will serve researchers across disciplines and career stages, from advanced undergraduates and graduate students to postdoctoral scholars and faculty. The Zeiss also supports the campus research group and Central New York’s rapidly expanding semiconductor and quantum technology ecosystem. The instrument was funded by a $335,000 investment by the Office of Research, the and individual faculty contributors.

On Campus and Beyond

The microscope is part of the Office of Research’s efforts to build shared, core facilities available to users across the University and the greater Syracuse region, says , vice president for research. “Strong core facilities are a force multiplier for our outstanding faculty and student researchers, providing access to state-of-the-art scientific instruments without the burden of having to purchase and maintain them individually.”

“For researchers who once drove an hour to use a scanning electron microscope, that capability is now right here, benefiting researchers on our campus, in our community and throughout the region,” Steinbacher says. It also serves as a recruiting tool because it demonstrates to prospective graduate students, postdoctoral scholars and faculty that state-of-the-art instrumentation is readily accessible at Syracuse, he says.

A Billionth of a Meter

Its resolution of 1.6 nanometers means the Zeiss can zoom down to the nanoscale, revealing details as small as a billionth of a meter, sharp enough to capture images of computer chip components, nanoparticles, bacteria and living cells, Steinbacher says.

It captures the shape and texture of an object’s surface in detailed, three-dimensional images versus thin cross-sections of materials. Because its electron beam works at lower energy levels, the microscope also offers highly detailed viewing of soft or non-metallic materials that typically are difficult or impossible to examine with older equipment, Steinbacher says.

Conventional electron microscopes require samples to be stripped of all moisture and placed under high vacuum, but some materials fall apart or change when dried out. Zeiss permits variable pressure imaging, so air pressure inside the imaging chamber can be adjusted to view samples that aren’t bone-dry. That lets researchers examine hydrogels, drug-delivery particles and biological samples in a more natural state. That capacity did not previously exist at Syracuse University or other area institutions, according to Steinbacher.

Who Will Use It

Biomedical and chemical engineering researchers can use the microscope to examine polymer film morphology. Environmental scientists can image rocks and fossils. Others will use it for battery technology research and catalyst design. The group and scientists in electrical engineering, computer science and physics can conduct device characterization—testing device effectiveness and checking for flaws.

, technical director of the , says the Zeiss enables exciting new levels of research. “It lets researchers image the surface appearance of synthetic materials, such as polymers or other engineered materials, and biological samples, such as cells, tissues and organisms, at higher resolution and better definition compared to existing instruments in the area.”

The instrument “is a critical addition to Syracuse’s growing suite of fabrication and characterization tools for next-generation quantum technologies,” says , assistant professor of electrical engineering and computer science in the College of Engineering and Computer Science. “We’ll use it to image our superconducting devices at the nanometer scale, hunting down the surface defects and contaminants that limit their performance.”

, assistant professor of physics in the College of Arts and Sciences, says the Zeiss will assist in prescreening superconducting qubit devices—the tiny, ultra-cold circuits that are the building blocks of quantum computers—from device batches fabricated elsewhere. “That will help us focus on the most promising devices��and let students make the connection between the abstract shapes they draw on computer screens and��the actual footprints of the tiny electrical circuits their designs imprint��on the chips.”

For more information about of University instruments and facilities, visit the Core Facilities webpage.

Together, they took a corner bakery-grocery and turned it into a new cornerstone of a Syracuse Northside neighborhood.

The project for design students from Syracuse University’s (VPA) and construction management students from (SUNY ESF) was both an experiential learning opportunity and a chance for them to undertake engaged citizenship in the year they worked with community residents and organizers of , a community nonprofit.

Students redesigned an aging, two-story bakery and apartment structure at 601 Park Street owned by Northside Futures into a modern building serving expanded residential and commercial needs. Northside Futures is a collaborative project of the Northside Learning Center and Justice Capital that focuses on workforce training and small business development, housing, remediation and property management, and community wellness and safety for residents of Syracuse’s Northside neighborhood.

The project provided real-world professional experience through the VPA course DES 451 (also known as “Meaningful Partnership”).

The cross-institutional collaboration also involves SUNY ESF course CME 454, , along with Northside Futures and the University’s .

The Real Thing

“This is not a hypothetical,” says , assistant teaching professor in the School of Design and program coordinator. “It has real users, real challenges and real goals. Students engaged deeply with the community, developed real solutions for real stakeholders and came away with a genuine understanding of what it takes to bring a project to life.”

Founded in 2017 by , professor in ��VPA’s , the program became a formal service-learning initiative in 2022 through the Shaw Center. In addition to Dunham, , SUNY ESF associate professor in the Department of Sustainable Resources Management, is a co-teacher. ’84, transportation coordinator at the Shaw Center, ��handles logistics.

During its first six years, Meaningful Partnership operated as a three-way collaboration among designers, construction managers and community stakeholders. This year it expanded to four components—with members of the Northside Futures cohort joining as active participants. They learned hands-on construction and trade skills alongside the students while accumulating design literacy for future independent community development. That model is an authentic co-design process where residents are positioned as empowered decision-makers shaping the future of their neighborhood, Lee says.

Two-Semester Overview

In the project, students from both institutions work together for a full year. Last fall, 19 environmental and interior design (EDI) students examined the facility, conducted site visits and client meetings, developed construction blueprints and presented final designs.

In the spring, 17 construction management engineering (CME) students joined them. They used the construction documents to prepare estimates, construction schedules, decide phasing and logistics, suggest value engineering strategies and explore sustainable grants and programs for the project.

Community-Centered Project

Dunham says direct communication with clients is essential to the project’s success.

“During our site visit students were able to speak directly with building owner Northside Futures and the building’s occupants (a residential tenant, the bakery owner and neighbors) and continued to obtain feedback throughout the process,” she says. “That kind of direct engagement with the people who live and work in these spaces is invaluable and it is very much part of what makes this process real.”

In addition to the bakery redesign, students developed alternatives for using an adjacent lot where a dilapidated garage was due for demolition.

Community members suggested building a library, day care center and a community/gym workout space for that structure.��The client ultimately chose the idea of a laundromat, Dunham says, since it filled a real need, made sense financially as a revenue stream and was the right fit for the neighborhood.

Human Context

EDI student Ella Mchale says residents’ involvement expanded her understanding of the city and provided a true client experience.

“What we achieved goes so much deeper than just a design project,” she says. “Our community member Fatima helped ground us and gave us the real human context we needed to design with purpose. We took that seriously and created something accessible and meaningful while still bringing our own design concept to the table.”

EDI student and project manager Jolie Ramos says that despite language and cultural differences, “a bond was built based on the betterment of our shared community.”

“That exposure beyond our University bubble gave us the opportunity to not only engage with our community but to form intimate personal connections,” she says. “It was really beautiful to watch the relationships unfold and grow.”

Cultivating Community

“At its core, this project is about community, understanding and creating meaningful impact,” Dunham says. “The community representatives who came into our class shared their culture, needs and challenges and were a true voice for their neighborhood. The connections they formed with our students were genuine and those voices shaped everything. That deeply resonated with our students and it showed in everything they produced.”

Meaningful Partnership’s staying power results from an intentional and ongoing investment of time, interest and shared resources, says Lee.

“Community partnership is something that must be continuously cultivated and is grounded in relationship-building and trust,” she says. “It means sharing resources, lived experience, cultural knowledge and social awareness alongside academic expertise and a commitment to paying that knowledge forward.”

When Chie Sakakibara first traveled to an Iñupiaq community in Arctic Alaska as a graduate student, an elder gave her advice that would define her career.

“Never disappear,” she told her.

For generations, researchers had come to Indigenous lands, documented stories and environmental knowledge, and left—often without returning results or sustaining relationships. Community members asked Sakakibara to do something different: to document climate change from their perspective and to show that they were not simply victims of environmental disruption, but creative and resilient people adapting to change.

“I was honored, and I stayed,” Sakakibara says. “Placing yourself in a community means reciprocating and emphasizing their priorities, not just your own interests.”

More than two decades later, she is still returning.

Now an associate professor of geography and the environment in the Maxwell School of Citizenship and Public Affairs, Sakakibara has built her scholarship around long-term collaboration and Indigenous research sovereignty—the idea that communities themselves should guide how their knowledge is used, represented and shared. Another focus of her work: the interconnected survival of people, animals and environments in a rapidly changing Arctic.

“Chie’s work is a model of what engaged scholarship looks like at Maxwell,” says Shana Kushner Gadarian, associate dean for research and professor of political science. “By centering Indigenous voices and building lasting partnerships across the globe, she demonstrates that rigorous research and genuine community responsibility are not competing values—they are inseparable ones.”

Connecting Communities

Sakakibara’s current initiative, “Indigenous Northern Landscapes: Visual Repatriation and Climate Knowledge Exchange,” connects the Iñupiaq people of Arctic Alaska with the Ainu community of northern Japan to explore environmental memory, cultural preservation and climate adaptation.

Both communities have endured land dispossession and the suppression of traditional language and faith. Both have retained and revitalized Indigenous ways of being—the Iñupiat through their relationship with the bowhead whale, sea ice and tundra; the Ainu through kinship with the brown bear, salmon, rivers and forests of Hokkaido.

“Their voices are only getting stronger through connecting and building relationships with other Indigenous communities and their allies within and beyond academia,” says Sakakibara, a research affiliate for the East Asia Program in Maxwell’s Moynihan Institute of Global Affairs and a member of the Native American and Indigenous Studies Program and Center for Global Indigenous Cultures and Environmental Justice in the College of Arts and Sciences.

Her project employs repeat photography alongside community-led ethnography, fieldwork, oral history, archival research and collaborative museum curation. It emphasizes Indigenous knowledge and collaboration and juxtaposes early 20th-century and contemporary images, revealing sea ice loss, coastal erosion and shifting subsistence patterns due to environmental transformation.

Working with the University of Alaska Fairbanks and the National Snow and Ice Data Center, the project collaboratively produces environmental knowledge by interpreting these historical photographs with the Indigenous descendants of the communities where they originated.

Future work will involve storymapping, participatory digital storytelling and traveling museum curation bridging Syracuse, Arctic Alaska and Japan.

Challenging the Myth

A persistent misconception frames Indigenous cultures as unchanging and separate from the modern world. Sakakibara sees that stereotype as an obstacle to effective climate policy.

“When policymakers or scientists assume that Indigenous peoples are merely relics of the past, they fail to recognize that communities like the Iñupiat and Ainu actively observe, interpret and respond to environmental change,” she says. “That blocks opportunities to incorporate Indigenous expertise into climate solutions.”

Iñupiat hunters continuously adjust whaling routes in response to sea ice change. Ainu communities combine historical ecological knowledge with contemporary observations to protect salmon runs. These are dynamic systems of environmental monitoring refined over generations, not static traditions.

Rather than separating Western science from Indigenous knowledge systems, Sakakibara argues the two must be in conversation, especially as policymakers confront accelerating climate disruption. Climate change, she notes, is not solely a scientific challenge but a cultural and political one.

“Climate disruption is among the most consequential challenges of our time, with implications that span policy, governance, culture and human well-being,” says Maxwell Dean David M. Van Slyke. “Our students benefit from the wide-ranging expertise and experiences that Professor Sakakibara and colleagues provide.”

Students as Research Partners

Sakakibara brings her knowledge back to Syracuse—into classrooms, workshops and partnerships that give students direct exposure to the communities and questions at the center of her work.

In July 2024, Sakakibara partnered with public history experts from

StoryCollab to facilitate a on campus with Ainu collaborators. That same year, Sakakibara brought two Haudenosaunee undergraduate students to Japan to participate in workshops with Ainu community members, contributing to mapping projects and oral history initiatives conducted across English, Japanese and Ainu.

One of those students, Katsitsatekanoniahkwa Destiny Lazore ’26, is a member of the Saint Regis Mohawk Tribe and a 2025 Udall Scholar in Tribal Public Policy. Hearing the stories of ��Ainu community members resonated in a personal way.

“It reminded me of what my own ancestors experienced, the struggle to protect culture, revitalize language and reclaim sovereignty,” says Lazore. “There was something powerful in recognizing that shared desire: the simple but profound wish to safeguard your people, your traditions and your future for the next generations to come.”

Rooted in Relationships

Sakakibara’s ��project has cultivated partnerships with major institutions including the Penn Museum, the Brooklyn Museum, the Yale Peabody Museum, the National Museum of Ethnology in Japan and the Center for Ainu and Indigenous Studies at Hokkaido University.

“The core goals—centering Indigenous knowledge, documenting environmental change and supporting cultural sovereignty—remain active and impactful,” Sakakibara says, adding that the elder’s advice—never disappear—remains central to her approach. “Research is about relationships. And relationships require responsibility.”

Story by Catherine Scott

For Eva Quackenbush ’26, an interest in maternal and fetal health that began with personal curiosity has grown into a rigorous public health research project with direct implications for how clinicians monitor and make decisions about the most vulnerable newborns.

Quackenbush, a public health major with a concentration in healthcare management in the , worked under the mentorship of , associate professor of public health, on a study examining whether patterns detected in fetal heart tracing—the monitoring of a baby’s heart rate during labor—can predict short-term outcomes for infants born between 23 and 26 weeks of gestation. These babies occupy a narrow clinical window clinicians call “periviable,” a zone where survival has improved in recent decades but where the tools guiding clinical decisions remain poorly understood.

An Understudied Population

Fetal heart tracing is a well-established tool used to signal when medical intervention may be needed in full-term pregnancies. But its predictive value in periviable births has been largely unexplored. That is the gap Quackenbush and Kmush set out to close.

Their study drew on a retrospective cohort of 90 periviable deliveries at a regional referral hospital in upstate New York between January 2017 and August 2022. In their project, two independent maternal-fetal medicine specialists reviewed four key fetal heart tracing indicators—baseline heart rate, variability, accelerations and decelerations—and compared them against an overall composite score. They analyzed those patterns against neonatal outcomes, including lung disease, eye defects, brain hemorrhage and mortality.

The findings were consistent across every model tested: none of the fetal heart tracing patterns were statistically associated with adverse birth outcomes, meaning that the patterns could not reliably predict which babies would fare worse.

“Our research concluded that the heart tracing patterns in this population of periviable infants have no predictive value,” Quackenbush says. That may sound like a null result, but it is a meaningful one, because establishing what does not predict outcomes in this population is itself a critical step toward better clinical understanding, she says.

Building New Skills

Undertaking this clinical research project required Quackenbush to build an entirely new technical skill set. She had no prior experience with coding, but with guidance from Kmush she learned R, the statistical coding language, and applied it to complex regression analyses and data modeling.

“Dr. Kmush has been an incredible mentor for the statistical analysis work that I have been conducting,” Quackenbush says. “She has been guiding my familiarization with R, as well as the process of preparing research for presentation at all levels.”

Quackenbush’s ��work in the lab was made possible in part by the Syracuse Office of Undergraduate Research and Creative Engagement (SOURCE), which helped fund her project and teamed her with Kmush as a faculty mentor. Quackenbush also broadened her clinical health background through involvement with the University’s and an internship with the . And beyond coding, she built competencies in scientific writing and research communication, skills she says she will carry into her next career phase.

This spring, she and Kmush presented their findings at the conference in Baltimore, an unusual distinction for an undergraduate researcher. Quackenbush says they hope their study will serve as a foundation for expanded research in the periviable population, including studies with larger sample sizes to further validate the results.

From Data to Policy

This fall, Quackenbush will begin legal studies at the in New York. Her goal is to work in health policy, focusing on improving health outcomes through policy determinations, compliance issues and interdisciplinary collaboration.

While her future path moves her out of the lab, an experience she says has been as much about personal growth as scientific discovery, Quackenbush sees her time there as central to the work ahead. “While my career won’t be directly related to clinical public health activity, I anticipate including many concepts from the public health field into my work in health policy,” she says.

Whether it’s analyzing data or shaping health policy, Quackenbush says her goal remains to work toward better outcomes for patients. She leaves the lab having contributed one more piece of a puzzle that clinicians, families and policymakers are still working to ��solve.

Understanding of copper formation means examining material forged at depths of nine to 19 miles beneath the Earth’s surface. Remarkably, Emerson Long ’26 has spent the past year recreating those conditions in a campus lab.

Long is a double major in geology and physics in the (A&S). She and her faculty mentor, , professor of petrology and experimental geochemistry in the Department of Earth and Environmental Sciences, have spent the past year examining how copper behaves when magma (molten rock) and fluid coexist at the crushing pressures and temperatures of the lower continental crust.

The work has implications that reach far beyond the laboratory. That’s because copper is used in modern and clean energy technologies such as solar panels, wind turbines, electric vehicles, lithium ion batteries and LED lighting.

“While my research doesn’t directly relate to finding and extracting copper deposits, it does give us a better understanding of the entire system for copper deposit formation,” Long says. “It’s really exciting to me to contribute to that understanding in some way.”

Going Deep to Understand the Surface

Copper deposits near the Earth’s surface that are extracted from mines are formed when copper-rich hydrothermal fluids move upward through the crust and deposit minerals along the way. Those fluids originate much deeper in the Earth’s magmatic systems, where molten rock and aqueous fluid coexist under intense heat and pressure. Long and Thomas are studying how copper splits itself between magma and fluid at those extreme source conditions.

Previous research on copper partitioning has focused on shallower, upper-crust-level conditions. This project goes beyond prior work to assess what happens at conditions equivalent to those found in the lower continental crustal source regions where magmas are generated. It’s a largely unexplored frontier in the study of copper deposit formation.

High-Pressure Science

To simulate those deep-Earth conditions in the lab, Long runs experiments in piston-cylinder devices, instruments capable of generating extraordinary pressures and temperatures found miles underground. When an experiment concludes, the magma cools into a glass and the fluid gets trapped in tiny pockets within a piece of quartz, called fluid inclusions. Long then uses a suite of sophisticated analytical instruments to measure the copper concentration in both the glass and the fluid inclusions.

That “deep dive” into the data helps extract meaning from material forged under those precise conditions. “I really enjoy the hands-on aspects of this research the most,” Long says. “I’ve had a few other short-term projects that have been more computational-based and I’ve realized that I really love lab work. I also just find the high-pressure experiments to be really fun and it’s really crazy to me still that we can emulate such extreme conditions in the lab.”

That focus recently took her to the facility in Denver, where she used specialized instrumentation (laser ablation ICP-MS, a type of mass spectrometry), one of the only ways to measure the chemistry of fluid inclusions. There are only a handful of facilities in the U.S. capable of doing that type of analysis, a notoriously difficult process.�� “It was a really great experience,” Long says. “I learned so much about the technique and it was really amazing to be there and help with the analyses since it is such a niche method.” Being at the U.S. Geological Survey facility also allowed her to observe professionals conducting scientific research for a government organization, she says.

Long also took her studies globally experience that mirrors a prompting students to shape the future as engaged global citizens by combining studies in diverse areas of interest. She enjoyed both her science major and French/Francophone Studies minor during an immersive experience there, where she lived with a French host family, learned more about French history and culture, participated in a community internship conducting physics research at the University of Strasbourg, and took several courses in French.

Mentorship and Mastery

Later, Thomas’ science lab on campus provided Long with a wealth of experiential learning opportunities and allowed her to gain an impressive range of technical skills. She has conducted electron microprobe analysis, laser ablation mass spectrometry, Raman spectroscopy and Fourier transform infrared spectroscopy. Those experimental and analytical methods�� represent an arsenal of cutting-edge geochemical lab techniques capable of identifying the chemical fingerprints of minerals and rocks at an extraordinarily fine scale.

The (SOURCE) supported Long’s work through Bridge and Fellowship awards. She also worked with the Center for Fellowship and Scholarship Advising. She says her awards, including a summer living stipend, made it possible to dedicate added time over a summer in Syracuse to sustain the momentum on her lab research.

In August, Long begins Ph.D. studies in geology at Purdue University, where she’ll continue conducting similar experimental research. For her, the appeal of the geological field goes beyond technique or career preparation. It is about being able to contribute in a hands-on way to one of the defining challenges of the coming decades: building the clean energy economy the world needs, starting with a deeper understanding of the Earth beneath our feet.

Before Charity Hosler ’27 and Somya Chakraborty ’28 decided to study biomedical engineering, they were once wide-eyed children discovering science through hands-on experiments and the possibilities in STEM.

Now, enrolled in the (ECS) and serving as the president and vice president, respectively, of the (BMES), Hosler and Chakraborty are doing their part to educate future generations of STEM enthusiasts.

Each year, one of the main events organized by the BMES is STEM Day, which allows current engineering students to teach lessons about the core principles of aerospace, biomedical, chemical and civil engineering to Central New York children in kindergarten through sixth grade.

“Just the excitement of learning about science. It’s really cool being able to give back for the next generation,” Hosler says. “And it’s really cool to think we could be the reason some kid decides to come to Syracuse to study biomedical engineering.”

Hosler, Chakraborty and other BMES members organize activities at four stations, each focused on a particular field of engineering.

During this year’s STEM Day on Feb. 28, students made slime at the chemical engineering station, learning about polymers and the chemical phase changes the substances undergo as the slime is formed. At the civil engineering station, students built structures that were mechanically sound and could withstand the elements like wind and water.

At the biomedical engineering station, students encountered a hand grabber, which simulated the bones and muscles in a hand, using straws and string to depict how hand muscles move. They also participated in a candy DNA activity, where, using Twizzlers and gummy bears, children learned how the base pairs of DNA match up with each other and what DNA looks like and why.

Demonstrating aerospace engineering, students launched cups into the air, observing Newton’s Third Law, that every action has an equal and opposite reaction.

“I was brought up being exposed to science at a young age, and that’s part of what made me want to become a biomedical engineer. You can really tell how much these kids love science,” Chakraborty says. “Watching the gears in their brains turn in real time while they’re trying to figure something out is fascinating to me. This brings me a lot of joy because that’s how I felt as a kid when I went to these sessions.”

What Is Biomedical Engineering?

BMES aims to answer that question, helping students connect with each other, discover potential research opportunities, explore possible career paths and develop their networking skills.

Both Hosler and Chakraborty say their organization feels a responsibility to share why biomedical engineering is a timely, important and interdisciplinary specialty.

Biomedical engineers can be responsible for developing, processing and mass-producing drugs and potential life-saving medications, and often they’re tasked with ensuring quality control when a drug is produced. Or they could be charged with improving how medical devices like pacemakers, heart implants and stents that are going to be used by medical professionals worldwide are sanitized. They’re also involved with biomaterials, such as studying how to install a device into a patient without causing negative responses.

“Biomedical engineering is an important field, and I think it’s important for students to get connected with other biomedical engineers and form connections with the people in your major,” Hosler says. “Through the Biomedical Engineering Society, we become more well-rounded, better biomedical engineers who have a desire to serve our communities.”

“I love that this field allows me to be involved in medicine and have an impact on someone’s life behind the scenes,” Chakraborty says. “You’re dedicating your life to solving a problem that a lot of people are dealing with by trying to find a solution.”

Connecting Students to Research and Career Opportunities

BMES holds study nights each semester and organizes volunteer activities in the community each month. The organization also serves as a bridge between academia and the related industries in the medical field, conducting site visits at different local biomedical engineering facilities.

Partnering with the Chemical Engineering Society, members visited Lotte Biologics, a biopharmaceutical production facility in East Syracuse, touring the space and connecting with industry professionals.

BMES also hosts professors for informal gatherings where students can learn about potential research opportunities across campus.

“A lot of our students are interested in doing research, but they don’t really know how to get started. We help bridge that gap, introducing freshmen and sophomores who are looking to start their research journey to faculty who are involved with relevant research,” Chakraborty says. “We’re making a difference by connecting students with each other while helping to advance our major.”

Three Syracuse University students have been awarded prestigious graduate research fellowships through the , and one student has been recognized with an honorable mention.

The fellowship recognizes and supports outstanding graduate students who are pursuing research-based master’s and doctoral degrees in STEM, social sciences and STEM education in the U.S. The five-year fellowship includes three years of financial support, with an annual stipend of $37,000 and a $16,000 educational allowance. Students can apply as rising seniors, recent graduates or first-year graduate students.

The 2026 recipients of the NSF GRFP are the following:

• Julia Fancher ’26, a physics major and applied mathematics major in the College of Arts and Sciences (A&S) and member of the Renée Crown University Honors Program;
• Daniel Hettrick, a first-year Ph.D. student in anthropology in the Maxwell School of Citizenship and Public Affairs, and
• Gabe Suarez, a first-year Ph.D. student in theoretical physics in A&S.

Eadin Block ’26, a physics major and Spanish language, literature and culture major in A&S, received an Honorable Mention in this year’s competition.

Julia Fancher

Fancher, a University Scholar, Goldwater Scholar and two-time Astronaut Scholar, was gifted a copy of “Rise of the Rocket Girls,” a book about the women “human computers” who worked at NASA’s Jet Propulsion Laboratory, when she was in middle school.

“I was instantly captivated by the stories of these women who discovered new insights into our universe through math and physics, and I knew that I wanted to do the same,” she says. To kickstart that path, she actively pursued the STEM resources her school district and community had available.

During her first year at Syracuse, she joined Professor Eric Coughlin’s high-energy astrophysics lab, where she researches tidal disruption events, in which a star is destroyed by the tidal field of a supermassive black hole. Her research has been published internationally and earned several awards.

Her second research project was a collaboration between Coughlin’s lab and local high school students through the Syracuse University Research in Physics summer program. She has also mentored students internationally.

Fancher plans to pursue a Ph.D. in astrophysics and become a professor conducting research in theoretical high-energy astrophysics.

“The NSF GRFP will provide me with the resources necessary to continue pushing the forefront of astrophysics research while nurturing the next generation of scientists,” she says. “I want to ensure that students from all backgrounds have the opportunity to explore their interests and are encouraged to pursue careers in STEM just as I was.”

Daniel Hettrick

Hettrick’s research centers on the cultural resilience of the Kootznoowoo Tlingit, a Native Alaskan nation in Southeastern Alaska, during the period following the United States’ purchase of Alaska from Russia in 1867.

Hettrick’s dissertation focuses on the former Tlingit summer village of Killisnoo, Alaska, occupied from 1867 to 1928. Using a holistic historical anthropology approach, he combines archaeological excavation, artifact analysis, ethnohistory, oral histories and Indigenous community collaboration to investigate how the Kootznoowoo Tlingit selectively adopted, adapted and rejected Russian and American cultural, religious and economic institutions—all while preserving a distinct Tlingit identity.

His commitment to preservation was deepened through firsthand experience. He visited historic Orthodox churches in Sitka and spoke directly with Tlingit Orthodox Christians while conducting research as an undergraduate. Those conversations also complicated his assumptions: learning that community members held a genuine sense of pride in inhabiting both Indigenous and Orthodox identities pushed him to think more carefully about how people navigate multiple, seemingly contradictory cultural frameworks.

Hettrick is committed to building reciprocal relationships with the Angoon Tlingit before and throughout his research. He recognizes that access to a community’s history, particularly one that has faced exploitation by both the state and academia, must be earned through demonstrated respect, humility and a genuine exchange of value. His long-term goal is to make collaborative, community-centered archaeology the standard rather than the exception.

Gabe Suarez

Suarez works with Professor Alexander Maloney on three-dimensional quantum gravity. His path to theoretical physics was unconventional: raised in rural Danville, Kentucky, he began working as an apprentice electrician at 14, not because the work fascinated him, but because it sharpened a way of thinking he would carry into physics.

“If a system is logical, and you’re honest with yourself about what you do and don’t understand, you can reason your way to the answer,” he says. That principle guided him through self-studying general relativity as a sophomore, completing five graduate courses as an undergraduate and being named Physics Senior of the Year at the University of Kentucky.

His senior thesis furthered a systematic categorical framework for Ward’s conjecture, a 1985 proposal that all integrable systems descend from a single universal gauge theory structure. He is quick to note that the conjecture’s value lies in its proof techniques, not its statement: the algebraic geometry and category theory required to settle it are precisely the tools modern fundamental physics increasingly demands. The tools connect directly to his Ph.D. work on how semiclassical Einstein gravity emerges from ensembles of conformal field theories.

Beyond research, tutoring his brother helped him learn that a teacher’s real job is showing someone they can learn, then stepping back. He has since carried that philosophy into recitation teaching, K-12 outreach and a return visit to his own rural high school, where he spoke to students who, like his younger self, may not yet see theoretical physics as a path available to them.

In addition to their faculty mentors, Fancher, Hettrick, Suarez and Block all worked with the University’s (CFSA) to prepare their applications.

Students interested in learning more about or applying for the next NSF GRFP award cycle or any other nationally competitive scholarships and fellowships should visit the����or email��cfsa@syr.edu��for more information.