STEM Transformation Archives | Syracuse University Today https://news-test.syr.edu/topic/stem-transformation/ Wed, 07 Oct 2026 17:42:13 +0000 en-US hourly 1 https://wordpress.org/?v=7.1.3 /wp-content/uploads/2025/08/cropped-apple-touch-icon-120x120.png STEM Transformation Archives | Syracuse University Today https://news-test.syr.edu/topic/stem-transformation/ 32 32 Exploring Earth’s Resources for a Clean Energy Future /2026/10/07/exploring-earths-resources-for-a-clean-energy-future/ Wed, 07 Oct 2026 17:42:12 +0000 /?p=344479 Earth sciences professor Adam Cawood is finding solutions that support the energy transition while making geoscience more accessible.

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Adam Cawood navigates Clayton Valley, where he is investigating how faults, fluid flow and other geologic processes concentrate lithium into economically valuable deposits. (Photo courtesy of Adam Cawood)

Exploring Earth’s Resources for a Clean Energy Future

Earth sciences professor Adam Cawood is finding solutions that support the energy transition while making geoscience more accessible.
Dan Bernardi Oct. 7, 2026

As electric vehicles, renewable energy systems and battery storage technologies become increasingly central to the global economy, demand for lithium, a critical mineral used in rechargeable batteries, has surged. According to the International Energy Agency (IEA), the need for lithium used in clean-energy technologies is , making it one of the world’s most sought-after critical minerals.

Despite its growing importance, scientists still do not fully understand why lithium becomes concentrated in certain locations or how to most effectively identify new domestic sources. Those questions are at the heart of research led by , the Michael G. and Susan T. Thonis Assistant Professor of Earth Sciences in the College of Arts and Sciences (A&S).

Through a newly funded National Science Foundation (NSF) project, Cawood is investigating how geological processes control the movement and concentration of lithium in Earth’s crust, work that could improve exploration strategies and strengthen domestic supplies of a mineral critical to the energy transition.

Meet Adam Cawood

Cawood joined the A&S faculty in Fall 2026. Before coming to Syracuse, he served as a senior research scientist in the Space Science Division at Southwest Research Institute in San Antonio, Texas, where he studied how faults and fractures in Earth’s crust influence fluid movement, mineral formation and geologic hazards. A structural geologist by training, Cawood focuses on the cracks and breaks in the Earth’s crust that act as the planet’s plumbing system, controlling where water and geothermal fluids flow, where critical resources like lithium are concentrated and where hydrocarbons accumulate. As the newest Thonis Professor, Cawood continues a tradition established by Michael and Susan Thonis to support excellence in Earth science research and education.

The Geological Footprint for Lithium Exploration

One of Cawood’s latest projects is an NSF-funded study titled “T.” The three-year grant provides funding to investigate how geological processes concentrate lithium in economically valuable deposits.

Desert
Clayton Valley, Nevada, home to the only producing lithium brine operation in the United States, serves as a natural laboratory for researchers studying how geologic processes concentrate lithium into economically viable deposits. (Photo courtesy of Adam Cawood)

“Lithium is a critical component of rechargeable batteries and will play an increasingly important role as the world transitions toward lower-carbon energy and transportation,” says Cawood. The research focuses on Clayton Valley, Nevada, home to the only producing lithium brine operation in the United States, making it an ideal location to study how lithium deposits form.

The project combines field geology, geochemistry, geochronology and structural analysis to reconstruct the geological evolution of the region. Researchers will investigate how faults developed, how fluids moved through the basin and how lithium was transported and concentrated over time. A key question is whether faults act as pathways that help lithium-rich fluids move through the crust or as barriers that prevent fluid movement.

Cawood and his team hope to develop a comprehensive geological model that explains how faulting, volcanism, sedimentation and fluid circulation combined to create the lithium resources found in Clayton Valley. The findings could improve exploration strategies throughout Nevada and the broader western United States, helping identify future sources of this critical resource while reducing dependence on foreign supplies.

The grant also includes a strong educational component. Funding will support graduate student research while helping establish a Western U.S. Critical Minerals Field School. This initiative will provide students with hands-on experience in one of the fastest-growing areas of geoscience and natural resource development.

Connecting Researchers Through Digital Landscapes

Cawood’s second newly funded NSF project demonstrates his commitment to both scientific innovation and educational accessibility. The grant, titled “,” will support the expansion of eRock, a repository founded by Cawood to share digital geological data from outcrops, or rock exposures, at Earth’s surface.

Fieldwork remains a cornerstone of geoscience, but advances in drone technology and three-dimensional imaging have transformed how researchers document and analyze geologic features at the Earth’s surface. Today, scientists can create highly detailed digital models of rock outcrops that preserve critical observations long after field campaigns conclude. However, Cawood notes that many of these valuable datasets remain isolated within individual research groups, making them difficult for other scientists to find, access and reuse.

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Website mockup of eRock showing a 3D model of the folded, banded Boyne Limestone outcrop, with menu tabs and side buttons for Info, Site, Literature and Analyze.

“eRock grew from the idea that we need a better way to preserve digital outcrop data and make field geology more open and accessible,” he says. His team aims to create a community-driven platform for storing, discovering, visualizing and sharing digital geological models.

Project activities include developing data standards and infrastructure, creating map-based search and visualization tools, and working directly with researchers, educators and students to understand how digital outcrop data can best support research and teaching. Students will also contribute by collecting and curating new datasets.

The long-term goal extends beyond creating a database. Cawood hopes to build a sustainable scientific community that encourages collaboration and data reuse across institutions and disciplines. Researchers will examine how metadata should be organized, how users interact with digital models and how virtual observations can complement traditional fieldwork.

“It will allow people to experience and investigate geological field sites they may not otherwise be able to visit because of distance, cost, mobility or other barriers,” Cawood says. By broadening access to field experiences, eRock has the potential to make geoscience education more inclusive while preserving valuable research data for future generations.

Together, these two NSF-funded projects highlight the breadth of Cawood’s research vision. One initiative seeks to solve critical questions about mineral resources needed for the shift toward cleaner energy, while the other reimagines how geological knowledge is preserved and shared. As energy systems evolve and demand for Earth science expertise grows, Cawood’s research is helping build the scientific foundations needed to responsibly manage natural resources, expand educational opportunities and better understand the processes shaping our planet.

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Syracuse University Launches Institute for Artificial Intelligence /2026/09/23/syracuse-university-launches-institute-for-artificial-intelligence/ Wed, 23 Sep 2026 19:18:09 +0000 /?p=343711 The new institute unites researchers from four schools and colleges to advance the science and application of AI.

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Paulo Shakarian, the KG Tan Endowed Professor of Artificial Intelligence in the College of Engineering and Computer Science, is director of the Institute for Artificial Intelligence.

Syracuse University Launches Institute for Artificial Intelligence

The new institute unites researchers from four schools and colleges to advance the science and application of AI.
Wendy S. Loughlin Sept. 23, 2026

Syracuse University today announced the launch of the , which brings together world-class researchers from across campus whose unique expertise in AI will help advance research, teaching and practice in the rapidly expanding field.

“Artificial intelligence is one of the defining research challenges of this decade, and Syracuse is making a serious commitment to it,” says , vice president for research. “The Institute for Artificial Intelligence brings our faculty together to pursue AI research at a scale no single lab or department could take on alone, to build lasting partnerships with industry and government, and to translate that work into real-world impact.”

Led by , the KG Tan Endowed Professor of Artificial Intelligence in the (ECS), the institute brings together with expertise spanning engineering, information science, public policy and communications.

“This institute reflects Syracuse University’s commitment to advancing artificial intelligence research that is both rigorous and responsible,” says Shakarian, who serves as director and executive committee chair. “We’re building a research community that is equipped to tackle AI’s hardest technical problems alongside its societal implications. We envision a future of resilient AI systems that lead to high impact applications.”

, associate professor of public administration and international affairs in the , is associate director and executive committee vice chair.

Four Research Areas

Research at the institute is organized around four areas of focus:

  • AI and Security: Research spanning AI for cybersecurity, security of AI systems, formal verification and vulnerability discovery.
  • Multidomain Intelligence: Sensing and perception research, including signal and image analysis and energy-efficient AI systems.
  • AI in Socio-Cognitive Dynamics: How AI systems interact with human cognition, communication and social networks.
  • AI for Governance and Policy: Trustworthy AI, AI safety and the policy frameworks needed to guide AI’s global development and deployment.

Federal research agencies and industry partners will also support the institute’s research agenda through collaboration and funding agreements.

Public Events, AI Community-Building

Planned public events, including lectures, workshops and symposia, will help the institute share knowledge, foster collaboration and engage the broader AI community. Events this fall include:

  • (Oct. 12-13, Washington, D.C.): Sponsored by the , this invitation-only workshop will examine AI use for decision making across the domains of electronic warfare, radar, aerial and space.
  • (Nov. 5-7, Arlington, Virginia): This symposium will feature traditional paper sessions with extended discussion, a poster session, three invited keynote speakers and a closing panel focused on artificial metacognition—AI’s ability to reflect on itself.

The Institute for Artificial Intelligence is part of , which includes undergraduate and graduate degree programs in AI, a suite of AI-focused minors and the peer-led AI Bootcamp for students, reinforcing the University’s position as a growing center for AI research and education. The institute will also create research opportunities for students and supports United AI, a student community that brings together undergraduate and graduate students from across the University to learn, build and lead in AI.

The Institute for Artificial Intelligence is located on the second floor of Hinds Hall. For more information, visit .

 

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Robots, Robot Dogs and Batteries Draw a Crowd at the New York State Fair /2026/09/03/robots-robot-dogs-and-batteries-draw-a-crowd-at-the-new-york-state-fair/ Thu, 03 Sep 2026 12:56:05 +0000 /?p=342662 Faculty, students and staff facilitate a conversation about the role of batteries in everyday life.

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Faculty, staff, and students from the College of Engineering and Computer Science—joined by Otto—staffed the Energy Storage Engine booth at the 2026 New York State Fair. The team shared the NSF Engine's work in battery and energy storage innovation while showcasing the breadth of research and education happening across ECS.

Robots, Robot Dogs and Batteries Draw a Crowd at the New York State Fair

Faculty, students and staff facilitate a conversation about the role of batteries in everyday life.
Wendy S. Loughlin Sept. 3, 2026

Between a robotic arm, a robot dog and Otto, the New York State Fair had a high-tech energy last Saturday. The scene was the booth in the Science and Industry Building, where a group of Syracuse University students, faculty and staff spent the day getting fairgoers talking about something most people carry with them every day without giving it much thought: batteries.

Otto
A young fairgoer has fun interacting with Otto and a robot dog.

The demonstrations leaned into the fun side of energy storage—robots, drones and other gadgets that make battery power visible and exciting. But the underlying message was more personal. Energy storage already shapes daily life in ways that are easily overlooked, powering phones, watches, cars and homes. The fair booth was an example of the ways the Energy Storage Engine serves to make that connection concrete for the public while also working to build the industry in the region.

Syracuse University has been part of that effort since the Engine’s launch in 2024 as an inaugural Regional Innovation Engine funded by the National Science Foundation. The program is designed to establish Upstate New York as a national leader in battery research, manufacturing and workforce development. Led by Binghamton University, the coalition also includes Cornell University, the Rochester Institute of Technology and other academic, industry and government partners working across the battery industry.

, chair of the Department of Mechanical and Aerospace Engineering in the College of Engineering and Computer Science (ECS), leads the program at Syracuse. “Events like the New York State Fair let us meet people where they are and show them that battery science isn’t abstract—it’s already part of their daily lives, and it’s a field with real career opportunities right here in Central New York.”

Qiao says visitors to the booth were drawn to hands-on demonstrations and interactive activities. “The robot dogs were especially a big crowd-pleaser, giving visitors a fun, tangible look at our ECS innovations. Families with school-age kids lingered at the interactive stations, and visitors asked about ECS academic programs and the Engine batteries, and how to get involved and connected.”

The Energy Storage Engine booth will remain open through Monday, Sept. 7, which is the last day of the fair.

 

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Group photo of the Syracuse University Energy Storage Engine team in navy branded T-shirts, posing with mascot Otto the Orange in front of a screen showing a map with location pins.
Accelerating the Search for Rare Earth Elements /2026/08/31/accelerating-the-search-for-rare-earth-elements/ Mon, 31 Aug 2026 20:39:06 +0000 /?p=342563 Earth sciences professor Tao Wen and his students are part of an interdisciplinary effort to improve the ability to identify and evaluate potential rare earth element resources in the U.S.

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Accelerating the Search for Rare Earth Elements

Earth sciences professor Tao Wen and his students are part of an interdisciplinary effort to improve the ability to identify and evaluate potential rare earth element resources in the U.S.
Dan Bernardi Aug. 31, 2026

The critical metals powering your phone, electric vehicle and countless advanced technologies are increasingly at the center of a national supply challenge. Although these elements are essential, the estimates that imports accounted for about two-thirds of U.S. apparent consumption of rare-earth compounds and metals in 2025.

Fortunately, scientists believe some of those materials may already be here, within deeply weathered granite formations across parts of the southeastern United States. The challenge is understanding where it occurs, how it forms and which areas merit closer study.

Researchers in the College of Arts and Sciences’ are part of a national project to help answer that question using a combination of field science, computer modeling and artificial intelligence (AI).

Hidden Resources in Weathered Granite

Led in part by hydrogeochemist and associate professor of Earth and environmental sciences , the project aims to make the search for these rare earth elements faster, more efficient and more scientifically grounded. Supported by a grant from the Department of Energy’s Genesis Mission Program through Oak Ridge National Laboratory, the study focuses on understanding and identifying a particular type of rare earth deposit that may exist in the southeastern United States.

Portrait
Tao Wen

These deposits form over millions of years as granite slowly weathers and breaks down. During that process, rare earth elements are released from minerals in the rock and can become concentrated in layers of weathered material, where they attach to clay and other minerals. Similar deposits are currently mined in tropical and subtropical regions of Asia. Because the southeastern United States contains extensive granite formations and experiences a warm, humid climate, scientists believe it may have comparable resources, but their locations and formation processes remain poorly understood.

The interdisciplinary research team will investigate weathered granite formations at selected research sites in North Carolina. Using field observations, laboratory experiments, subsurface imaging and computer modeling, researchers will examine where rare earth elements occur, how their concentrations change with depth, and the geological and chemical processes that control their distribution.

Bringing AI to Mineral Exploration

Wen and his team will play a key role in developing physics-informed artificial intelligence tools to support the effort.

“Physics-informed AI combines artificial intelligence with established scientific knowledge about how natural systems behave,” Wen says. “Rather than asking AI to learn from data alone, we use scientific understanding to guide its analysis and keep its predictions grounded in real-world processes.”

By combining different kinds of field and laboratory observations with computer models, the technology can evaluate possible explanations more efficiently, quantify uncertainty and identify areas that may warrant closer study.

“We hope to determine why rare earth elements become concentrated in some weathered granite formations but not in others, and why the depth of enrichment varies from place to place,” Wen says.

A Smarter Way to Find Critical Minerals

In practical terms, the work could help make rare earth exploration more targeted. By combining AI-based analyses with field measurements and computer simulations, researchers may be able to prioritize areas for follow-up study before committing to more intensive field investigations. That could reduce costs, improve efficiency and minimize environmental disturbance.

Wen says the nine-month Phase I project is expected to produce scientific findings and a proof-of-concept framework within the award period. If the approach proves successful and is expanded through additional research, it could begin informing focused exploration efforts within several years.

The project focuses on the front end of the rare earth supply chain: identifying and evaluating potential resources. Once a viable deposit is found, mineral-bearing material must be recovered and processed to extract and concentrate rare earth elements before they can be refined into the metals, alloys, magnets and components used in electric vehicles, wind turbines, electronics and advanced manufacturing.

The methods developed may also be applied to other challenges involving groundwater, mineral resources and the movement of chemicals beneath Earth’s surface. For example, they could help predict how contaminants spread through groundwater or identify areas where subsurface resources are concentrated. In both cases, integrating scientific models with field observations could enable researchers to target future measurements more efficiently.

Training the Next Generation

The project will provide valuable research opportunities for students working with . They will contribute to data analysis, computational modeling and interpretation of research results while gaining hands-on experience at the intersection of geoscience, artificial intelligence and critical minerals research.

While much of the Syracuse team’s work will be computer-based, including data integration, modeling and AI development, Wen says lab members, including interested students, may also have opportunities to participate in field trips associated with the broader project. Those experiences will help them connect computational research with the geological settings and observations that inform the models being developed.

Wen’s project also reflects the ambitions of A&S’ Academic Strategic Plan, “.” By pairing artificial intelligence with Earth science to address a critical mineral supply challenge, the work speaks to the plan’s focus on innovative technologies and environmental sustainability, while giving students the kind of interdisciplinary research experience the plan aims to expand.

For Wen, whose research combines hydrogeochemistry, environmental data science and machine learning, the project represents an opportunity to use cutting-edge AI tools to address a growing national need. If successful, the work could improve understanding of America’s rare earth potential and provide a smarter roadmap for finding the critical resources that power modern technology.

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Row of red electric vehicle bodies suspended on automated guided vehicles (AGVs) along a modern factory assembly line, with blue overhead robotic arms and bright overhead lighting in a clean, high-tech manufacturing facility.
How a Whale’s Dive Shapes Its Song /2026/08/31/how-a-whales-dive-shapes-its-song/ Mon, 31 Aug 2026 18:14:39 +0000 /?p=342528 A&S biologists connect humpback whale song structure to diving behavior, a breakthrough that could allow for better monitoring of the effects of human activity in the ocean.

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Julia Zeh standing on the bow of the Hawaiian Islands Humpback Whale National Marine Sanctuary vessel during a field expedition in Hawaii. (Credit: Julia Zeh; NOAA NMFS Permit #19655 and #26593)

How a Whale’s Dive Shapes Its Song

A&S biologists connect humpback whale song structure to diving behavior, a breakthrough that could allow researchers to better monitor the effects of human activity in the ocean.
Dan Bernardi Aug. 31, 2026

For male humpback whales, singing is serious business. Their haunting, complex songs can last for hours and travel for miles underwater, playing a central role in reproduction during the winter breeding season. But despite decades of research into what these songs sound like, scientists have had far less insight into what the whales are physically doing while they sing. Understanding that connection could reveal how singing affects a whale’s energy use, oxygen management and vulnerability to underwater noise and vessel strikes.

A new study by Julia Zeh G’24, a Ph.D. biology graduate from the College of Arts and Sciences (A&S) and member of biology professor ‘ , reveals a previously unknown link between the structure of a humpback whale’s song and the whale’s movement through the water. Published in , the research shows that specific song themes are tied to specific parts of a dive, offering a new window into the biology and evolution of one of the animal kingdom’s most elaborate acoustic displays.

Eavesdropping on a Whale’s Playlist

To gather the data, Zeh and her collaborators temporarily attached sound-and-movement recording tags to singing humpback whales off the coast of Maui, part of a research effort spanning 2018 to 2024. The non-invasive tags are small suction-cup devices about the size of a tablet. Researchers attached them from small boats using long poles and, more recently, drones.

Once affixed, the tags recorded both the whale’s underwater sounds and its movement before eventually losing suction and detaching, allowing researchers to retrieve the devices and download the data. In total, the team tagged 16 whales, a substantial sample from a tagging perspective and one selected to be broadly representative of the larger Hawaiian breeding population.

The team was surprised to find that some whales repeated their songs continuously for up to 16 hours without stopping. More importantly, recurring song elements known as themes lined up consistently with specific portions of a dive. While earlier researchers had noticed that certain themes tended to appear as a whale approached the surface, no one had previously connected an entire song structure to an entire dive cycle.

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Researchers attaching a suction-cup recording tag to a humpback whale off the coast of Maui. (Credit: Julia Zeh; NOAA NMFS Permit #19655 and #26593)

What the Songs Reveal

The connection between song and depth points to something deeper than coincidence. According to Zeh, themes sung while whales remained at a relatively constant depth during the deepest part of a dive showed different levels of variability than themes sung elsewhere, suggesting those sections may be more strongly shaped by sexual selection. This means they could serve as signals of a male’s individual quality. Themes tied to other parts of the dive, by contrast, may be constrained by physiological or environmental factors, such as the demands of managing oxygen and buoyancy while singing.

“This gives us direction for which parts of the song to investigate if we’re interested in variation, which is likely driven by sexual selection,” Zeh says, noting that variation concentrated near a whale’s deepest points in the water column may be where a male’s song is doing the most work to stand out.

The findings also have practical applications. Because acoustic monitoring is already a common tool for tracking whale populations, understanding how song relates to movement could allow researchers to determine a whale’s depth or position directly from a recording. That, in turn, could help scientists establish a clearer baseline for normal humpback behavior, an essential reference point for detecting when whales are disturbed by human activity such as vessel traffic or ocean noise.

Whether the same patterns hold for humpback populations outside Hawaii remains an open question. Zeh notes that while she would expect similar physiological constraints to apply broadly, documented differences in song evolution between hemispheres raise the possibility that different populations experience different pressures on song structure. Testing that would mean collecting comparable tag data from singing whales on breeding grounds around the world.

A Foundation Built in the Field

The research reflects years of fieldwork and analysis carried out during Zeh’s doctoral studies in Parks’ lab at Syracuse, where she focused on the intersection of animal behavior, acoustics and marine biology. Her time in the lab gave her the tools to combine bioacoustic analysis with biologging technology in a way that had not previously been applied to humpback whale song, allowing her to ask new questions about a subject long studied primarily through sound alone.

By reframing whale song through the lens of movement, Zeh’s work opens a new avenue for studying how physiology, environment and the social transmission of song interact to shape one of nature’s most complex learned behaviors. It also offers a model that researchers can apply not only to future humpback studies, but potentially to the study of complex acoustic communication across species.

“My time at Syracuse changed the way I think about what’s possible in this field,” Zeh says. “Projects like this one, where we combined acoustics with movement data, gave me the tools to ask exciting questions about whale behavior and the opportunity to be creative in how we look at well-studied phenomena like humpback whale song. These experiences inform how I conduct research and have given me the foundation for my current work in ecological monitoring and conservation.”

Since completing her doctoral studies, Zeh finished a postdoctoral appointment with the Passive Acoustics Branch at National Oceanic and Atmospheric Administration’s Northeast Fisheries Science Center in Woods Hole, Massachusetts. She now leads the Archival Passive Acoustic Monitoring Team at the Maine Department of Marine Resources in West Boothbay.

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How a Whale’s Dive Shapes Its Song
Uncovering Hidden Interactions That Shape Fertility /2026/08/31/uncovering-hidden-interactions-that-shape-fertility/ Mon, 31 Aug 2026 13:41:29 +0000 /?p=342443 A&S researchers are exploring molecular interactions that may hold the key to fertility, infertility and new contraceptive approaches.

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Drosophila melanogaster sperm coiled inside a female's specialized sperm-storage organ, where they participate in molecular interactions with female-derived molecules prior to fertilizing an egg. The image was featured on a 2022 cover of Proceedings of the National Academy of Sciences. (Image courtesy of Scott Pitnick)

Uncovering Hidden Interactions That Shape Fertility

A&S researchers are exploring molecular interactions that may hold the key to fertility, infertility and new contraceptive approaches.
Dan Bernardi Aug. 31, 2026

Infertility affects roughly 1 in 6 people worldwide, often bringing significant emotional, physical and financial challenges, according to a . Yet many of the biological processes that determine whether fertilization succeeds remain poorly understood.

, professor of biology, and , Weeden Professor of Biology in the, have been awarded a from the , part of the National Institutes of Health, to investigate how the female reproductive tract directly influences sperm function and fertility. This research is being conducted in close collaboration with Mariana Wolfner, Goldwin Smith Professor of Molecular Biology and Genetics and a Stephen H. Weiss fellow at Cornell University.

This NIH-funded research program explores an emerging scientific concept known as sperm-female interactions, or SFIs. While reproductive biology has traditionally focused on sperm, eggs and reproductive organs as largely separate systems, scientists increasingly recognize that the interactions between sperm and the female reproductive environment play a critical role in successful fertilization.

“Resolving the molecular basis of these interactions holds tremendous promise for expanding our understanding of fertility,” Dorus says.

Looking Beyond Traditional Models

After sperm enter the female reproductive tract, they encounter a complex environment that helps determine whether they survive, gain the ability to fertilize an egg and ultimately contribute to a successful pregnancy. Scientists know these interactions are essential, but the molecular mechanisms behind them remain largely unexplored.

The team has already made an important discovery using Drosophila, commonly known as fruit flies, a widely used and powerful model organism that accelerates the study of biological processes that are shared across the animal kingdom. Their earlier studies revealed that sperm undergo significant molecular changes after entering the female reproductive tract.

One of the most surprising findings was that proteins produced by females begin associating with sperm almost immediately after mating. During long-term sperm storage in the reproductive tract, these female-derived proteins account for nearly 20% of the sperm’s protein composition.

The proteins appear to be closely connected to metabolic pathways that contribute to the generation of cellular energy, suggesting that female contributions may support sperm survival, function and fertilization potential during the critical period between insemination and fertilization.

Three-panel
As sperm move through the female reproductive tract and into long-term storage, female-derived proteins increasingly associate with sperm and may contribute to sperm energetics and viability. This discovery from Dorus and Pitnick’s Drosophila research is now driving their NIH-funded study of sperm-female interactions and fertility.

Advancing Fertility Science

The new NIH-funded project will build on those discoveries by identifying the specific female metabolic proteins that associate with sperm and determining how they affect fertility outcomes.

Dorus and his team hope to better understand how these molecular interactions influence sperm performance, viability and reproductive success. The findings could provide new insight into why fertility problems occur and reveal biological pathways that have previously gone unnoticed.

“By identifying the molecular factors that influence sperm performance after mating, we hope to uncover biological mechanisms that may help explain some forms of infertility that currently have no clear cause,” says Pitnick.

Because many fundamental reproductive processes are shared across species, discoveries made through this work could ultimately help scientists view human fertility in new ways. A deeper understanding of how sperm and the female reproductive tract work together may lead to new approaches for diagnosing infertility, allowing clinicians to identify problems that current tests cannot detect. It could also help researchers design more targeted fertility treatments that address the molecular causes of reproductive challenges.

At the same time, the work may contribute to the development of innovative contraceptives that operate by influencing sperm-female interactions rather than relying on traditional hormonal methods.

By uncovering how the female reproductive tract actively shapes sperm function, this research will help redefine how scientists think about reproduction and has the potential to unlock new solutions for infertility while advancing a broader understanding of one of biology’s most fundamental processes.

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Drosophila melanogaster sperm coiled inside a female's specialized sperm-storage organ, where they participate in molecular interactions with female-derived molecules prior to fertilizing an egg.
A&S Earth Sciences Professor Honored as 40 Under 40 Rising Star /2026/07/30/as-earth-sciences-professor-honored-as-40-under-40-rising-star/ Thu, 30 Jul 2026 18:01:45 +0000 /?p=341256 Tao Wen has been recognized for his innovative, data-driven research on water quality, open environmental data, community engagement and policy-relevant environmental science.

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EES Professor Tao Wen (right) speaks with Syracuse resident Kathleen Stribley (left) and Aamna Khan ’26 (center) during a field research trip to City Line Brook in Syracuse’s Valley neighborhood.

A&S Earth Sciences Professor Honored as 40 Under 40 Rising Star

Tao Wen has been recognized for his innovative, data-driven research on water quality, open environmental data, community engagement and policy-relevant environmental science.
Dan Bernardi July 30, 2026

Tao Wen, associate professor in the (EES) in the (A&S), has been named a by the American Academy of Environmental Engineers and Scientists (AAEES). The “40 Under 40” distinction recognizes emerging leaders who are advancing environmental engineering and science through their research and service. Honorees are selected by a panel of past recipients, who evaluate both professional accomplishments and broader civic or philanthropic impact.

Innovative and Interdiscplinary Research

Wen’s recognition reflects an innovative and interdisciplinary research program focused on addressing some of today’s most pressing environmental challenges, including freshwater salinization, groundwater contamination and energy-water interactions. His work integrates hydrogeochemistry, hydrology and environmental data science to better understand water quality and how natural systems respond to human activities, climate variability and environmental change. His research has been supported by major federal agencies, including the National Science Foundation and the U.S. Department of Energy, and has resulted in more than 45 peer-reviewed publications in leading journals.

A professor in A&S since 2020, Wen leads the Hydrogeochemistry and Environmental Data Sciences (HANDS) Lab and the Noble Gases in Earth Systems Tracing (NEST) Lab, where his team develops predictive, data-driven tools that transform complex environmental data into practical insights that help protect water resources, inform policy decisions and reduce risks to communities. His group’s work includes machine learning and physics-informed modeling approaches that quantify water-quality risks, freshwater salinity, alkalinity and carbon-related fluxes across large spatial scales.

Wen is also a leader in open environmental data infrastructure. He serves as principal investigator and database manager of the , a nationally used platform that brings together environmental monitoring data from tens of thousands of sites. By making complex datasets more accessible to researchers, regulators, nonprofit organizations and communities, Wen’s work supports evidence-based environmental decision-making and helps translate data-intensive science into public benefit.

This impact is evident in a recent study co-authored by Wen in examining the long-term ecological impacts of oil and gas development in the United States. By analyzing thousands of biological samples from waterways across Pennsylvania, the team found that legacy conventional oil-and-gas infrastructure is more strongly linked to declines in stream biodiversity than newer shale development (fracking).

A Deep Commitment to Mentorship and Community Engagement

Beyond his published research, Wen is also deeply committed to mentorship, education and community engagement. Through a supported by the in A&S, he and his students have partnered with Syracuse residents to monitor urban waterways, seeking to better understand how extreme weather and environmental change affect neighborhood ecosystems and public safety. Their work aims to inform more responsive, community-centered urban planning.

Wen’s service also extends across the broader environmental science and hydrology communities. He has served as chair of the Geological Society of America’s Geoinformatics and Data Science Division; chair of the Education and Outreach Committee for the Consortium of Universities for the Advancement of Hydrologic Science Inc. (CUAHSI); a member of the CUAHSI Board of Directors; and an associate editor for Applied Geochemistry and Geoscience Data Journal.

Through his research, teaching, mentorship and service, Wen demonstrates how environmental scholars can not only advance scientific knowledge but also translate it into meaningful, real-world solutions. His recognition as a “40 Under 40” honoree underscores his growing impact on the field and his leadership in using data-driven, community-engaged science to address complex environmental challenges with societal relevance.

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Three people talking beside a small, rocky woodland stream, dappled in sunlight. One man gestures with his hands as if explaining something, while the other two listen.
Wu Awarded NIH Grant to Pursue Nanoparticle Therapy for Multiple Sclerosis /2026/07/02/wu-awarded-nih-grant-to-pursue-nanoparticle-therapy-for-multiple-sclerosis/ Thu, 02 Jul 2026 15:15:16 +0000 /?p=340285 The College of Engineering and Computer Science professor plans to develop a new class of nanoparticle-based therapy designed to re-educate the immune system.

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Wu Awarded NIH Grant to Pursue Nanoparticle Therapy for Multiple Sclerosis

The College of Engineering and Computer Science professor plans to develop a new class of nanoparticle-based therapy designed to re-educate the immune system.
Alex Dunbar July 2, 2026

Yaoying Wu, assistant professor of biomedical and chemical engineering in the College of Engineering and Computer Sciences, has been awarded a National Institutes of Health R21 grant for his project, “Tolerogenic Dendritic Cell Membrane-Coated Nanoparticles for Precision Multiple Sclerosis Therapy.” He will use the grant to develop a new class of nanoparticle-based therapy for multiple sclerosis—one designed to re-educate the immune system rather than suppress it wholesale.

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Yaowing Wu

The R21 mechanism is intended to encourage novel, high-impact exploratory research and supports investigators in developing the preliminary data and proof-of-concept needed to pursue larger-scale funding.

Multiple sclerosis is a chronic autoimmune disease of the central nervous system in which the body’s immune cells attack neuron cells, particularly myelin, the protective sheath surrounding nerve fibers. An estimated 1 million people in the United States live with the condition. Current disease-modifying therapies broadly suppress immune activity, leaving patients vulnerable to infection and other complications.

Taking a Targeted Approach

Wu’s approach takes a more targeted path. His laboratory will coat synthetic nanoparticles with membranes harvested from tolerogenic dendritic cells— a specialized class of immune cells that naturally promote tolerance toward the body’s own tissues. The resulting membrane-cloaked nanoparticles are designed to mimic those cells, signaling to the immune system that myelin is not a foreign threat.

Wu joined the University in January 2023. His research sits at the intersection of biomaterials engineering and immunology, with a particular focus on designing material-based platforms that regulate immune function.

The new project extends Wu’s immunoengineering expertise into the autoimmune disease space. By using the native membranes of tolerogenic dendritic cells as a biological coating, the nanoparticles are expected to carry the same surface proteins and molecular signals those cells use to dampen aberrant immune responses, a cell-mimetic strategy.

If successful, the platform could offer a path toward therapies that address the underlying immunological breakdown driving MS rather than managing symptoms through broad immunosuppression.

“Professor Wu’s NIH R21 award reflects the kind of bold, interdisciplinary innovation that defines biomedical engineering at Syracuse University,” says Shikha Nangia, Milton and Ann Stevenson Endowed Professor of Biomedical and Chemical Engineering and chair of biomedical and chemical engineering. “His work at the interface of immunology, biomaterials and nanotechnology has the potential to fundamentally transform how we approach autoimmune diseases such as multiple sclerosis by moving beyond broad immunosuppression toward precision immune reprogramming.”

Wu is a member of the University’s BioInspired Institute and holds expertise in synthetic biomaterials, peptide assembly, vaccine design and immunoengineering.

The NIH R21 award is administered through the National Institute of Allergy and Infectious Diseases.

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Global Science and Intercultural Impacts: Celebrating Experiential Learning in STEM  /2026/06/15/global-science-and-intercultural-impacts-celebrating-experiential-learning-in-stem/ Mon, 15 Jun 2026 19:33:41 +0000 /?p=339730 Syracuse Abroad students reflect on community-engaged science opportunities they have undertaken.

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STEM Global

Hassatou Bah, back row second from right, poses with students and faculty from Lockerbie Academy in Lockerbie, Scotland.

Global Science and Intercultural Impacts: Celebrating Experiential Learning in STEM 

Syracuse Abroad students reflect on community-engaged science opportunities they have undertaken.
News Staff June 15, 2026

A stereotype in the global education sector is that it’s especially difficult for students in STEM—science, technology, engineering and mathematics—to study abroad. Syracuse Abroad combats this thinking through special partnerships allowing STEM students to explore their fields in a range of countries, with access to cutting-edge laboratories and transformative experiential learning activities.

The University’s international STEM opportunities range from a special program for aerospace, bio, civil, computer, electrical, environmental and mechanical  to internships at the Istituto di Neuroscienze of Italy’s National Research Council through the .

Coding With Scottish Schoolchildren

In February, computer engineering major Hassatou Bah ’28 traveled with a delegation from the London Center to visit Lockerbie, Scotland, the site of the Pan Am Flight 103 Air Disaster in 1988. With support from the Kim and Michael Venutolo ’77 Fund for Experiential Learning, students studying abroad in London are invited to participate in a special Remembrance Exchange weekend each semester.

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Hassatou Bah

Remembrance resonates with Bah because of her family’s experience and sacrifice. “My family crossed an ocean to give me opportunities they never had. The students who were lost were crossing an ocean for an education. Like me, they held hopes for what Syracuse could help them become,” she says.

While in Scotland, Bah “paid it forward” with younger students. Lockerbie Academy hosted more than 100 P7 pupils (the Scottish equivalent of sixth graders) for a special transition day designed to give them a sense of what studying in secondary school would be like. Syracuse London students were asked to lead workshops for the transitioning pupils, with a special request for a session about computer coding.

During an hour-long workshop (which they delivered four times in a row for different groups), Bah and a classmate highlighted women who have contributed to the development of computers, such as Ada Lovelace and Katherine Johnson. They taught the basics of HTML and guided pupils in a hands-on activity to develop their own code to display and graphically transform their names on a website.

“As an engineer, I’m drawn to building. But what Syracuse and Lockerbie have built together is far greater than any system: it is a bridge of memory, compassion and human resilience,” Bah says.

Understanding Holistic Healthcare

In summer 2024, teaching professor Lisa Olson-Gugerty from the Maxwell School’s public health department travelled to the UK for a special section of “Understanding Health Systems: Macro and Micro Perspectives” (PHP 306), which examined differences between the U.S., UK and Europe in how public health is managed, how health science is funded and how healthcare is delivered.

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Tommy DaSilva

Syracuse Abroad Global Ambassador Tommy DaSilva ’26, a student in the course, was blown away by the UK’s centralized health system, and credits Olson-Gugerty for providing “more global insight that I can take with me into a future of federal policymaking.”

That summer, DaSilva also took the “Green Britain: Science, Devolution and Climate Controversies in the UK” traveling class, through which he had the opportunity to visit the Welsh Parliament (Senedd). The Senedd has been a leading political body for investment in climate justice and science-led environmental management, as well as inclusive healthcare. The course’s field studies in Cornwall highlighted the interactions between marine conservation projects like the UK’s  and planetary health.

After a summer abroad, DaSilva returned to campus as a 2024-26 Lender Student Fellow, which provided the opportunity to see how lessons from their experiences abroad could improve the social determinants of health for vulnerable groups, especially in relation to housing.

Engineering Sustainable Communities 

In spring 2019, Anna Feldman ’21 spent a semester in Florence with Syracuse Abroad’s Engineering program. A year later, she was named a Udall Scholar for her dedication to pursuing environmental work.

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Anna Feldman

Feldman’s community engagement included teaching young teenagers about water chemistry in Onondaga Lake, sharing her love for physics with local Syracuse pupils and helping kids at the Museum of Natural History learn to work with microscopes. She also contributed to a project on micropollutants in Kampala, Uganda, co-authoring a paper published in . Today, she works on stormwater resiliency and green infrastructure projects as a water resources engineer in New York City.

“I build hydrologic and hydraulic models to visualize the impacts of extreme storms on our natural and built environment,” says Feldman. She credits much of her interest in water resources to , professor of practice in civil and environmental engineering and an expert in urban stormwater management and smart sensing “whose notes on closed pipe flow I still use on the daily,” Feldman says.

Allyson Greenberg ’22, another alumna of the Syracuse Florence

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Allyson Greenberg

Engineering program, was part of the spring 2020 class whose time in Italy was cut short by COVID-19. Despite her hasty departure, Greenberg has some great memories from her time abroad, including time spent in the Arctic Circle while on a traveling seminar about sustainability in Northern Europe. She went on to graduate with a BS in environmental engineering and an .

After graduating, Greenberg began working as a sustainable energy consultant. The role gave her insight into the Environmental Protection Agency’s ENERGY STAR program, measuring and mitigating agricultural emissions, and the Department of Energy’s Better Buildings initiative, among others. The wide range of projects that she’d been exposed to allowed her to focus her interests, and this year she began a new job managing a program reducing residential greenhouse gases in Maryland.

Story by Becca Farnum

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Kenna Cummings ’27 Named Astronaut Scholar /2026/06/10/kenna-cummings-27-named-astronaut-scholar/ Wed, 10 Jun 2026 12:55:42 +0000 /?p=339561 The geology major is unlocking the planet's hidden heat to help power a cleaner future.

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STEM Kenna

Kenna Cummings poses in front of the Hellisheidi Geothermal Power Plant in Iceland.

Kenna Cummings ’27 Named Astronaut Scholar

The geology major is unlocking the planet's hidden heat to help power a cleaner future.
Kelly Homan Rodoski June 10, 2026

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.

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Cummings performing field work in Rotorua, New Zealand.

“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.

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Kenna Cummings

“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 .

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Person in orange hard hat and yellow safety vest stands with arms outstretched, smiling, in front of a steaming geothermal plant in Iceland.
Syracuse University Leads Development of Statewide Battery Workforce Pipeline /2026/06/09/syracuse-university-leads-development-of-statewide-battery-workforce-pipeline/ Tue, 09 Jun 2026 20:21:39 +0000 /?p=339539 Generating Regional Opportunities in Workforce (GROW) program supported training and education programs reaching nearly 400 learners in upstate New York.

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Syracuse University Leads Development of Statewide Battery Workforce Pipeline

Generating Regional Opportunities in Workforce program supported training and education programs reaching nearly 400 learners in upstate New York.
Wendy S. Loughlin June 9, 2026

Syracuse University is at the center of a regional effort to develop the energy storage workforce of the future, serving as a core partner in the and spearheading the workforce development portion of its mission through administration of the Generating Regional Opportunities in Workforce (GROW) program.

“Syracuse University brings together research expertise, workforce development skills and community partnerships,” says Vice President for Research . “The Energy Storage Engine lets us put all of that to work for upstate New York by connecting the science happening in our labs to the jobs and training our region needs.”

The Energy Storage Engine was launched in January 2024 as one of 10 inaugural Regional Innovation Engines created by the National Science Foundation (NSF). Its aim: to make upstate New York a national hub for battery technology by bringing together researchers, entrepreneurs and workforce trainers. Led by Binghamton University, the initiative recently entered phase 2 with a $45 million NSF grant.

Crucial Role

, director of strategic partnerships in the , co-coordinated workforce development during the engine’s first phase. “The energy storage sector is going to generate thousands of jobs in upstate New York,” he says. “That’s why workforce development is so important—it’s the bridge between the research happening in our labs and the economic impact we’re trying to create in our communities.”

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Rohit Jakkula (right), a doctoral student in the College of Engineering and Computer Science, helps Syracuse City School District students Bushra Alawaad (left) and Elinor Hanlon (center) test the controller for an underwater robot.

The GROW program was established in late 2024 with a $2 million subcontract from Binghamton University. Together with Rome, New York-based nonprofit , Syracuse University oversaw the competitive grant program, which seeded battery and energy storage workforce training at institutions and organizations across Central and Western New York and the Southern Tier. A diverse cohort received $1.1 million in GROW awards: YWCA of Rochester and Monroe County; SUNY Broome Community College; Rochester Institute of Technology (RIT); Binghamton University; Alfred University; GreenForce Training Inc.; the National Technical Institute for the Deaf (NTID) at RIT; and Syracuse University.

These institutions developed programs for a wide range of learners, from middle and high school pupils to college students to community members. Nearly 400 participants have benefited from GROW-funded programs—a number that will increase substantially in phase two.

“Two years ago, training for battery research and manufacturing was essentially fully concentrated in Binghamton at SUNY Broome,” Crampton says. “With funding from the Engine, training was expanded to form a network of curriculum and programs across upstate. Hundreds of people have been exposed to opportunities in battery technology, many of whom would have never before considered it as a career path.”

Breadth and Inclusion

SUNY Broome expanded a Power and Energy Management seminar series, hosted a residential STEM summer camp for middle and high school students, and trained career and technical education teachers across multiple BOCES districts. The YWCA of Rochester and Monroe County brought battery science to students in Rochester, Syracuse and Binghamton, including facility tours and hands-on LEGO robotics activities at the middle school level.

NTID developed a battery technician training program specifically designed for the American Sign Language community, offering a one-day workshop and an 80-hour bootcamp. Forty individuals completed training, with several earning the Northeast New York Battery Technician Credential. GreenForce Training in Buffalo delivered six accelerated production associate courses to individuals facing barriers to employment—including single parents, refugees and returning citizens—achieving an 84% job placement rate.

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Engineering student Momodou Wurry Jallow demonstrates battery testing equipment at Alfred University’s McMahon Engineering Building. (Photo courtesy of Alfred University)

At the higher education level, RIT developed an 18-hour Li-ion battery curriculum delivered as a three-day immersive workshop for Monroe Community College students. Binghamton University created a new Sustainable Energy Engineering track in its electrical engineering degree. Alfred University launched a credit-bearing course in machine learning prediction of battery lifetime, enrolling 33 students and hosting a summer session that included industry professionals from Raymond Corporation.

Syracuse University’s GROW-funded program brought clean energy and autonomous systems education to 28 high school students from the Syracuse City School District through a six-week summer workshop. All participants—approximately half of whom had no prior coding experience—completed the program, and 27 traveled to Boston for a national competition. A majority reported increased interest in pursuing engineering or computer science majors.

Looking Ahead

With the engine now entering phase two, the workforce development pillar is set to scale significantly. The initiative is targeting a hub-and-spoke model anchored by four regional coalitions—each led by a major research university—to coordinate enrollment growth, transfer agreements, experiential learning and employer engagement. Summer 2026 internship and undergraduate research cohorts are projected to double.

“The groundwork laid by the first GROW cohort has demonstrated that building a regional energy storage workforce is possible, and that it requires meeting learners where they are: in high school classrooms, community organizations and college labs across the region,” Crampton says.

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Biotechnology Students Connect With Industry Leaders /2026/05/12/biotechnology-students-connect-with-industry-leaders/ Tue, 12 May 2026 15:02:55 +0000 /?p=338315 The third annual Biotechnology Conference included a day of networking with companies, a panel discussion and a poster session, connecting students with career-building opportunities.

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STEM Biotechnology

Biotechnology students and faculty joined by industry leaders during the third annual Biotechnology Conference.

Biotechnology Students Connect With Industry Leaders

The third annual Biotechnology Conference included a day of networking with companies, a panel discussion and a poster session, connecting students with career-building opportunities.
Dan Bernardi May 12, 2026

Internship and job leads, career insights and cutting-edge research were all on display at the third annual Biotechnology Conference on March 28. Six industry scientists from leading life sciences and diagnostics companies gave students in the College of Arts and Sciences’ (A&S’) an inside look at careers during the event which drew more than 100 attendees spanning academia and industry.

The heart of the conference was a series of morning presentations from the six scientists. They included:

  • Tonya Villafana, vice president of franchise and medical and scientific affairs at AstraZeneca;
  • David Chafin, principal scientist at Roche Diagnostics;
  • Cody Hastings and Bharat Chaudhary, both scientists at LOTTE Biologics;
  • Alyssa Lau, senior scientist at Precede Biosciences; and
  • Benjamin Mason, scientist at IQVIA.

For students, hearing directly from working scientists was a highlight of the day. , professor of biology and executive director of the biotechnology program in A&S, emphasized the career-focused dimension of the event.

“The conference provided biotechnology students with valuable exposure to current advances in the field and helped them connect with industry leaders and alumni, offering insight into career pathways and potential internships or job opportunities,” Raina says. “The poster session also gave students the opportunity to present their work and engage in meaningful discussions with attendees.”

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Biotechnology students Taryn Keefe (fourth from left) and Vanessa Newbauer (fifth from left) lead the panel discussion during the Biotechnology Conference.

All six speakers reconvened in the afternoon for a panel discussion titled “The Future of Biotechnology,” moderated by A&S biotechnology graduate student Vanessa Newbauer and undergraduate student Taryn Keefe ’27. The session gave attendees the opportunity to ask questions and engage directly with professionals across a range of specializations, from vaccine development and diagnostics to biologics manufacturing and precision medicine.

The day also featured a poster competition showcasing more than 30 student research projects. Top honors went to Faeze Mousazadeh, Taryn Keefe, Jyoti Devendra Adala, Isabella Fuschino, Allison Hellman, Chidansh Mehta and Prathna Patel.

The event was organized by biotechnology faculty leads Ramesh Raina, Surabhi Raina, Allison Oakes and Jason Boock, alongside student organizers from two groups: the Biotech GO Executive Board, comprising Vanessa Newbauer, Kye Desbiens, Venkatesh Lottipalli and Nithyasree Senthil; and the Biotechnology Society at SU (BSSU), comprising Aliana John, Taryn Keefe, Shahina Alibekova, Janiya Clarke, Kaltra Qilleri, Cameron Miller, Katherine Bakley and Leah Landry.

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3 Earn National Science Foundation Graduate Research Fellowships /2026/05/01/3-earn-national-science-foundation-graduate-research-fellowships/ Fri, 01 May 2026 14:17:17 +0000 /?p=337573 From historical preservation and supermassive black holes to theoretical physics, three students will continue exploring novel research through NSF’s elite fellowship.

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(Photo by Angela Ryan)

3 Earn National Science Foundation Graduate Research Fellowships

From historical preservation and supermassive black holes to theoretical physics, three students will continue exploring novel research through NSF’s elite fellowship.
Kelly Homan Rodoski May 1, 2026

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.

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Julia Fancher

“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.

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Daniel Hettrick

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.

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Gabe Suarez

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.

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Micron Day Sparks Passion for STEM /2026/04/22/micron-day-sparks-passion-for-stem/ Wed, 22 Apr 2026 14:59:01 +0000 /?p=336830 Through hands-on demonstrations, middle and high school students from across Central New York discovered the potential career opportunities available in STEM fields.

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STEM Micron

More than 700 students—along with families, educators, industry leaders and community partners—attended the second Micron Day. (Photo by Amy Manley)

Micron Day Sparks Passion for STEM

Through hands-on demonstrations, middle and high school students from across Central New York discovered the potential career opportunities available in STEM fields.
John Boccacino April 22, 2026

As two silver robotic dogs chased each other around the turf field inside the Ensley Athletic Center, 20 school-aged children reacted with excitement as they watched a robotics demonstration put on by .

Closer to the middle of the field, a Central New York high school student picked up a video game controller to steer a metallic robot with pointy spikes toward a target of balloons set up by .

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Two students steer a robot using video game controllers during a demonstration run by CNY Robotics and Science at Micron Day. (Photo by Amy Manley)
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Kim Burnett

These hands-on demos were just two of dozens of exhibits as part of the second Micron Day on Tuesday. The day’s events brought together more than 700 students—along with families, educators, industry leaders and community partners—to spotlight  potential career opportunities available in STEM.

“These programs give these students an invaluable opportunity to see what’s next for them,” says Kim Burnett ’91, Micron’s lead for social impact and community development. “They leave feeling like they can pursue a career in STEM and that they belong in the STEM field. When you give kids opportunities to have fun and learn while being meaningfully engaged, it adds up to a great day.”

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Tom Pernell

The most popular exhibit at the Micron Day Tech Expo was the virtual reality (VR) education table. Students lined up to wear VR headsets that took them inside Cornell University’s cleanroom and introduced them to the semiconductor industry.

“This is a unique educational opportunity. These students are face-to-face with me in the cleanroom,” says Tom Pennell, Cornell Nanoscale Facility’s workforce development program manager. “All day I kept hearing students say, ‘that’s so cool!’ We’ve created scalable educational content that gets students excited about the possibilities by blending curiosity with the fun aspects of STEM.”

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Two students wear VR headsets to get a behind-the-scenes look at the semiconductor industry during the Micron Day Tech Expo. (Photo by Amy Manley)

Getting Excited About STEM Possibilities

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Om Vaidya

There were exhibitors conducting demonstrations and answering questions from 35 different organizations—including 13 representing Syracuse University—as well as Micron camps and activities, community partner organizations, military and emergency response partners, higher education institutions and local tech employers.

For students like Om Vaidya, a freshman at the in the Syracuse City School District, the day sparked something. Vaidya envisions a career in STEM and hopes to one day work in robotics.

“This has been a great learning experience. I’m always excited about STEM possibilities, and after today, I know more about what it will take to get a job in STEM,” Vaidya says. “The robotic dogs were really cool, and it tied back to what we’re learning in school about how the sensors and actuators work to power the robots.”

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Jody Manning

The STEAM High School was among the dozens of schools that attended Micron Day. For educators like Jody Manning, executive director of STEAM High School, the hands-on, interactive activities served to enhance and complement the lessons being taught in the classroom, creating a more authentic learning environment.

“Students need to realize just how many opportunities are available for them in STEM fields. Having Syracuse University and Micron serve as those key collaborators to make everything work for a day like this is crucial,” Manning says. “This sends a very clear message that we’re all in this together when it comes to creating STEM opportunities for the greater Syracuse area.”

Anyone Can Do This

After the robot dog demonstration, the middle and high school students were quick to approach Jiayu Ding G’26 and his classmates, eager to learn more about how the robots were able to easily move and chase after each other.

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Jiayu Ding

Over the summer, Ding helps run a six-week program where high school students gain coding skills and build robots from scratch.

Sharing the lessons from those classes with the students at Micron Day was a rewarding experience for Ding, who will graduate with a Ph.D. in mechanical and aerospace engineering in May.

“Everyone loved the demonstrations with the robot dogs, that was definitely making many of the students curious about the technology,” says Ding, a member of the . “It makes me happy seeing how excited the students are about STEM. They want to know everything there is to know about this technology. The great part is anyone can do this.”

After the expo, Micron Day featured additional programming focused on the families and caregivers of young people in the region. There was an esports competition in the University’s new Esports Classroom, followed by a town hall that educated parents and students about the clubs, campus and programs available at both the University and elsewhere in the region.

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Two students observe a demonstration involving a robot during Micron Day. (Photo by Amy Manley)

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Students and an exhibitor lean over a table during a hands-on science demonstration at Micron Day.
New Program Prepares Central New York Workers for High-Tech Careers /2026/04/14/new-program-prepares-central-new-york-workers-for-high-tech-careers/ Tue, 14 Apr 2026 16:54:31 +0000 /?p=336324 Micron Technology’s expansion in North Syracuse is expected to generate thousands of high-tech jobs in the coming years, but many Central New York (CNY) workers don’t yet have a clear path into those roles.
A new Syracuse University initiative called Q-SUCCEED-CNY—Quantum and Semiconductor Upskilling for Career Change through Experiential Education Deployment in Central New York—ai...

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New Program Prepares Central New York Workers for High-Tech Careers

Q-SUCCEED-CNY targets adult learners without technical backgrounds, offering hands-on training in semiconductor, photonics and quantum technologies ahead of Micron's expansion.
Alex Dunbar April 14, 2026

Micron Technology’s expansion in North Syracuse is expected to generate thousands of high-tech jobs in the coming years, but many Central New York (CNY) workers don’t yet have a clear path into those roles.

A new Syracuse University initiative called Q-SUCCEED-CNY—Quantum and Semiconductor Upskilling for Career Change through Experiential Education Deployment in Central New York—aims to change that. The workforce development program, led by faculty in the , helps adult learners with no prior technical background explore and prepare for careers in semiconductor, photonics and emerging quantum technologies.

“We are trying to tap into a larger community that has no prior technical background and awareness of this field, not those community members who already have tech background or who have already decided to pursue tech careers,” says Electrical Engineering and Computer Science Professor , who leads the program.

Who It’s For

Q-SUCCEED-CNY specifically targets people who may not have considered the tech sector: blue-collar workers, mid-career professionals in non-technical fields, veterans and individuals without STEM backgrounds. Through industry-aligned workshops, career exploration activities and hands-on experiential learning, participants build foundational technical skills and industry connections. Upon completing the program, participants receive a $2,400 stipend.

The initiative is led by Hasanovic alongside electrical engineering and computer science professors and , with project coordinator Anusha Ghimire managing operations and community partnerships.

How It Works

The program offers structured exposure to semiconductor, optics and quantum technology careers through a combination of educational programming and direct engagement with industry partners. It is supported by a broad network of affiliated organizations committed to regional workforce development, including Micron, Onondaga Community College, Syracuse City School District Adult Education, Westcott Community Center, Manufacturers Association of Central New York, NY CREATES, Cornell University, Toptica Photonics and Jubilee Homes.

How to Apply

Applications are open at . For more information, contact the Q-SUCCEED-CNY team at mhasanov@syr.edu or anghimir@syr.edu.

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Q-SUCCEED-CNY participants examine a small device during a hands-on workshop session in a classroom setting.