College of Science

This course turns climate science into real-world impact for Virginia communities

ckearney — Tue, 21 Jul 2026 20:32:10 +0000

This course turns climate science into real-world impact for Virginia communities ckearney Tue, 07/21/2026 - 16:32

What difference does a tree make? That’s what 91�� researcher Luis Ortiz wanted to find out—before it was planted. Cities increasingly experience extreme heat that poses danger to anyone outside. The urban environment, even on a very small scale, can either help alleviate the problem or make it vastly worse.

Professor Luis Ortiz with his Micrometeorological Modeling class. Photo by Ron Aira/Office of University Branding

“We teach students the fundamentals of how the broader weather interacts with very, very local aspects of the built environment,” said Ortiz, who teaches in George Mason’s J. Shukla Department of Atmospheric, Oceanic, and Earth Sciences. “By very, very local, I mean, what happens if I put a certain tree in one location, or if I apply a coating to a building’s surface to reflect the sun.”

Ortiz’s course, CLIM 759 Micrometeorological Modeling for Local Climate Action, targets “hyperlocal” community needs. It’s a way of taking research out of the lab and into the real world where it can have immediate impact. Ortiz and other professors—in collaboration with George Mason’s Institute for a Sustainable Earth—piloted a model to create classes that work almost like nonprofit start-ups with municipalities and neighborhood groups as clients.

“We are meeting communities where they are and figuring out what their needs are related to weather hazards on heat, flooding, and air pollution. This is all based on the extensive community engagement that we've been doing with the Virginia Climate Center,” said Ortiz, who is the codirector of the VCC.

This is the second year that Ortiz is offering the graduate-level class, which is open to every major. The students work individually with community groups to study their needs and model the outcomes of various interventions. Last year, students worked with South Side ReLeaf in Richmond to model extreme heat zones around schools and shopping centers. This year, they ran individual projects with the cities of Fairfax, Alexandria, and Arlington, as well as Groundwork USA. These stakeholders were all invited to a day of final presentations at the end of the semester.

“The students are learning urban microclimate physics, as well as the software and models needed to understand them and answer real-world questions,” said Ortiz.

The course is truly interdisciplinary, attracting students majoring in fields from across the university, including GIS, civil engineering, mathematics, and fluid dynamics. They use social science methods to determine the communities’ needs.

Ivy Stempkovski, a climate dynamics PhD student who helped develop the course and is now taking it, created models to evaluate how public water features, such as splash parks, help kids cool down.

“My peers are thinking of things that never would have crossed my radar,” said Stempkovski. “That’s important because the whole goal is to make sure that we're maximizing impact for our community partner and the community themselves. If it weren't for the different perspectives, I think we could risk falling short. For instance, the engineers take a more practical perspective, and the GIS students know more about zoning laws.”

Gavin Middleton, a PhD student in earth and geoinformation sciences, took the course in its first year. His models revealed startling facts about how a lack of green spaces increased citizens’ susceptibility to heat stroke.

“The area I was looking at was an elementary school,” said Middleton. “This school was right next to a six-lane road that had no trees. We found that if kids were walking down that road in the middle of the summer heat, there was about a 5 percent chance that you got a heat stroke on any one kid.”

Other projects showed high risks of heat stroke and asthma attacks around unshaded shopping complexes with large parking lots, as well as bus stops where people would have to wait for long periods with no relief.

“I would say that it was a very important experience to actually get to know the people that my science affected,” said Middleton. “It's definitely not something you see at every university.”

Ortiz built the course as part of his work at the VCC and based it on the lean start-up model for businesses.

"Our students are both learning state-of-the-art modeling techniques and using them to answer important questions for stakeholders in the commonwealth and beyond,” he said. “With this model, students work on real-world problems, and our partners get access to science-backed data and insights to help them build stronger, more resilient communities.”

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Air pollution simulation reinforces public health data on the dangers of airborne toxins

sholla4 — Fri, 17 Jul 2026 13:55:43 +0000

Air pollution simulation reinforces public health data on the dangers of airborne toxins sholla4 Fri, 07/17/2026 - 09:55

Hot summer days often lead to poor air quality. High temperatures and high air pressure systems cause pollutant buildups, creating ground-level ozone that can lead to a variety of health issues. And as climate change increases summer temperatures around the globe, being able to track and predict air quality is becoming a public health priority.

B.H. Baek. Photo provided

B.H. Baek, research associate professor in 91��’s Center for Satellite and Earth Science Research in the College of Science, is developing air quality and emissions modeling systems to help track and predict local and regional air pollutants and their adverse human health impacts.

Benzene, toluene, ethylbenzene, and xylenes—collectively known as BTEX—are common air pollutants, originating from various industrial and manufacturing processes, vehicle emissions, and natural sources such as forest fires. This suite of toxic air contaminants is particularly prevalent in urban environments, as well as near industrial facilities such as power plants and factories. Short- and long-term exposure to BTEX compounds can cause a variety of health issues, including elevated risks of cancer, respiratory diseases, neurological effects, and adverse birth outcomes.

Baek is developing high-resolution, year-long ambient concentration fields for the Louisville, Kentucky, region. This project expands on his previous work developing an air pollution simulation model for the U.S. Gulf Region, home to more than 120 petroleum refineries and subsequently elevated BTEX and styrene emissions.

“We know where the power plants and refineries that produce these emissions are located. We have a map of where the people are driving and living. And with that data, we generate this map of our concentration throughout the region based on the observation data, the estimated emission sources that we have, and the meteorologist data,” Baek explained.

Cross-referenced with hospitalization data and blood samples from residents of the Gulf region from 2011 to 2016, the model provided a more complete picture of both exposure to and the impacts of styrene and BTEX on public health outcomes.

Unlike other highly contaminated areas Baek has worked in, historic monitoring of BTEX in Louisville is much more limited. “It’s a smaller city surrounded by trees, so despite the BTEX contamination, public health has not been a major issue,” said Baek. “It has not been monitored to the same extent.”

Baek and his team will use their toxic simulation data to help fill in the gaps. Called “data fusion,” the model will combine observational data from real-time measurements via a novel mobile app—developed by Professor Yue Cheng from Texas A&M University—with emissions data collected from the Environmental Protection Agency (EPA).

"The main benefit is public health,” said Baek. “Epidemiologists need more accurate data for them to link to their studies of the health effects of air toxin exposure. Now, the model can be expanded for the future to come.”

Baek also notes how this model could support air-quality tracking and predictions as climate change progresses. “We’ll be able to see how climate change will impact the regional scale,” he said.

Baek is already using the simulation to help fill the gaps in the EPA’s National Emissions Inventory; this data will be publicly available once published.

“We developed this model to support the EPA’s work in regulating manufacturers,” said Baek. As the model continues to expand and develop over time with projects like these, it will help state and federal leaders make evidence-based decisions and inform advocacy around emissions regulations.

“George Mason is at the forefront of toxic air pollution work,” said Baek.

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Faculty philanthropy fuels quantum innovation with $3 million gift

ckearney — Fri, 10 Jul 2026 18:50:35 +0000

Faculty philanthropy fuels quantum innovation with $3 million gift ckearney Fri, 07/10/2026 - 14:50

Quantum science is a revolution in the making, and a recent donation by Department of Physics and Astronomy Professor Paul So has placed 91�� at the forefront of understanding and harnessing its capabilities.

Paul So. Photo by Hamiltonian Artists

Through a generous $3 million gift from So’s SYYK Foundation, George Mason’s College of Science will be able to advance the education of the next generation of quantum scientists. The gift will establish an endowed professorship within the Department of Physics and Astronomy. The university seeks an esteemed faculty member to fill this role, with a preference for a scientist who has expertise in quantum sciences, “someone with new ideas,” said So, “who will create a vibrant space in the department.”

“It’s important to think about quantum as a revolutionary and game-changing leap ahead in our ability to compute, to sense the world around us, and to communicate with each other,” said Patrick Vora, associate professor in the Department of Physics and Astronomy, and director of George Mason’s Quantum Science and Engineering Center.

The goal of the professorship is to build a community of learning around quantum technology, said Vora. “It will catalyze new collaborations between faculty members, but always, at the end of the day, our biggest impact is going to be in training our students.”

Quantum mechanics describes the behavior of subatomic particles and their properties. Understanding and controlling those properties could drive significant advances in engineering and technology, said Vora, who is leading George Mason’s Quantum Leap, one of seven newly funded catalyst projects in the university’s Grand Challenge Initiative.

“Your phone runs on quantum science, your computer runs on quantum science,” So added. “New materials, new technologies, and new applications will all rely on quantum.” That could include enhanced weather prediction as well as faster drug discovery and development.

So founded SYYK with his brother Peter, a professor of mechanical and biological engineering at MIT, to continue their mother’s philanthropic efforts after her death in 2021. The charitable nonprofit has a broad mission but prioritizes gifts to educational and cultural institutions.

“Even when we were growing up in Hong Kong, my parents supported local schools,” So said. “They appreciated that education was the foundation of a kid’s future, the foundation of society’s future.”

So believes that strengthening the quantum science program at George Mason will attract top students to the university and encourage more cross-pollination between disciplines like math, computer science, and engineering.

“One of the biggest challenges of realizing quantum technology is less about the ‘quantum’ and more the people,” Vora said. “Developing the science into an industry will require a significant expansion of the workforce. The only way that you can do that is by expanding representation in the workforce. And there are few things that George Mason does as well as providing opportunity for people who may not have had it before.”

So is optimistic that the investment in quantum will better position students to take advantage of the unique opportunity George Mason offers. “We’re right here in the National Capital region, near so many tech companies,” he said, “and there’s a lot of support from the government to develop quantum.”

Indeed, the federal government recently announced that it would inject $2 billion into quantum development, funding nine domestic computer companies to build quantum infrastructure. The White House, meanwhile, also issued executive orders to accelerate the migration of federal computing systems to systems that can protect them from quantum cyberattacks. Quantum-related job postings have tripled in the last 15 years with an average salary of $131,000.

The structure of the new professorship is a novel one at George Mason. The professor’s salary will be covered by the College of Science, while proceeds from the endowment will serve as discretionary funding to support graduate students. The donation also includes a percentage of the gift applied as “current use” funds, available now to provide support while the endowment yield grows.

“Paul So’s extraordinary generosity gives George Mason the ability to move with both urgency and ambition in quantum science,” said Cody W. Edwards, dean of the College of Science. “This endowed professorship will help us recruit a field-shaping scholar, support graduate students, and accelerate the collaborations needed to prepare the next generation of quantum scientists and innovators. It is a gift with immediate impact, long-term vision, and profound significance for the College of Science, George Mason, and the commonwealth.”

Given the surge in quantum investment and jobs around the country, So hopes the gift will encourage additional giving to support quantum at George Mason. “Compared to what is needed, this is just the start,” he said.

“We’re talking about a generation-scale technological shift,” said Vora. “Bringing on this new faculty member, around which our current and future faculty members can collaborate and coalesce, will really change what it looks like to be a quantum scientist in the future.”

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91�� authorized to host State Climate Office

ckearney — Wed, 08 Jul 2026 19:40:01 +0000

91�� authorized to host State Climate Office ckearney Wed, 07/08/2026 - 15:40

91�� is authorized to host the Virginia State Climate Office, thanks to a provision in the new state budget effective July 1, 2026. The office is charged with developing and delivering data, analyses, assessments, and expertise about Virginia’s weather- and climate-related impacts, risks, and risk management options to state and local government agencies, businesses, and communities across the commonwealth. The office will also represent Virginia in national meteorological, climatological, and hydrological associations, strengthening federal partnerships and interstate collaboration on real-time weather and environmental challenges.

James Kinter. Photo provided

George Mason is home to one of the largest communities of faculty in the country who are dedicated to climate research. The new office will be anchored in the university’s Virginia Climate Center (VCC), based in the College of Science and directed by James Kinter, professor of climate dynamics, who also leads the university's Center for Ocean-Land-Atmosphere Studies.

“Every Virginian deserves access to reliable, localized climate information, whether they’re a farmer on the Eastern Shore, an emergency manager in Southwest Virginia, or a family deciding where to buy a home. The State Climate Office makes that possible,” said Kinter. “George Mason is the ideal home for this work. We’ve spent the past three years building the scientific capacity, the community partnerships, and the trust across the commonwealth that a state climate office needs from day one.”

VCC launched in 2023 with funding through the National Oceanic and Atmospheric Administration, a congressionally directed project championed by the late U.S. Representative Gerry Connolly. Since then, the center has built exactly the kind of university-based, community-engaged model a state climate office requires with scientists, municipalities, and business leaders working together on practical solutions.

In November 2025, VCC delivered the inaugural Virginia Climate Assessment, the commonwealth's first comprehensive, peer-reviewed evaluation of how changing climate conditions affect Virginia and its people. The assessment, which organized findings across six climate divisions from Tidewater to the Southwestern Mountains, called directly for the creation of a state climate office. Less than a year later, the General Assembly answered.

“Virginia was one of only two states in the nation without an operational state climate office. That gap left localities, farmers, and businesses without a central, no-cost source of climate information that most other states take for granted,” said Delegate David Reid of Loudoun County, who sponsored the budget amendment in the House establishing the State Climate Office at George Mason. “Hosting this office at George Mason puts proven scientists to work for every corner of the commonwealth, and we are committed to collaborating to ensure improved strategic planning, data collection and analysis, and avoided losses.”

Graduate students in CEIE 445/645 Flood Hazard Engineering and Adaptation course develop flood risk maps and conduct analyses to help real clients in local communities improve their flood resilience. Photo provided

The Virginia Climate Assessment identified three hazards of particular concern for the commonwealth this century: extreme heat and rising temperatures, which threaten public health, labor productivity, and agriculture; extreme precipitation and shifting seasons, with wetter falls and springs increasing flood risks while drier summers heighten drought and wildfire danger; and accelerated sea level rise, compounded by land subsidence, which puts Tidewater communities and coastal infrastructure at growing risk.

“The office will ensure that Virginia has a seat at the national table to collaborate with groups like American Association of State Climatologists and play a vital role working with localities to ensure a brighter future for the next generation of families across the commonwealth and the nation,” added Senator Stella Pekarsky, a George Mason alumna who shepherded the budget amendment.

VCC already partners with localities across the commonwealth, and the State Climate Office will extend that reach. Current projects include flood modeling for the City of Fairfax, urban flood resilience work in Arlington County, nature-based flood protection in Belle Haven on Virginia’s Eastern Shore, climate planning in the West Piedmont region, and a Northern Virginia heat data collection campaign launching this summer. George Mason student engineers are also supporting flood hazard mitigation projects, gaining hands-on experience while serving Virginia communities.

“Weather patterns impact key sectors of the Virginia economy,” said Terry Clower, director of the Center for Regional Analysis at George Mason’s Schar School of Policy and Government. “Consistent, dependable, and localized weather data will give Virginia farmers, businesses, and government entities the ability to better compete and succeed.”

The university’s strength in climate resilience is part of George Mason's Grand Challenge Initiative, which draws on expertise across the university, including the Institute for a Sustainable Earth; the Department of Atmospheric, Oceanic, and Earth Sciences; the Center for Climate Change Communication in the College of Humanities and Social Sciences; and the Schar School's Center for Regional Analysis.

“Building a climate-resilient society is one of six research priorities in George Mason’s Grand Challenge Initiative, and it’s one where our faculty are collaborating across colleges to deliver solutions communities can actually use,” said Andre Marshall, vice president for research, innovation, and economic impact. “The State Climate Office turns that research strength into a public service for all Virginians. This is what a public R1 university is for.”

For more information, visit gmu.edu/grandchallenge or vaclimate.gmu.edu.

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91�� and Phase Inc. receive NSF grant to advance 3D-printed microfluidic technology

Martha Bushong — Wed, 01 Jul 2026 18:37:20 +0000

91�� and Phase Inc. receive NSF grant to advance 3D-printed microfluidic technology Martha Bushong Wed, 07/01/2026 - 14:37

91�� and Phase Inc. have received a National Science Foundation (NSF) STTR grant to advance a new generation of 3D-printed microfluidic devices that could help move the technologies from the research lab toward broader commercial and scientific use.

Ramin M. Hakami and Remi Veneziano. Photo provided

The project combines the expertise of College of Science Professor Ramin M. Hakami’s group in extracellular vesicle (EV) biology, and that of College of Engineering and Computing Associate Professor Remi Veneziano’s group in bioengineering and materials characterization, at 91�� with Phase’s vision to create an end-to-end, automated microfluidic platform that brings together custom device design, scalable 3D-printed polydimethylsiloxane (PDMS) chip manufacturing, and automated fluid handling. Specifically, this project leverages the microfluidic EV platform jointly developed and published by the Veneziano and Hakami groups.

Microfluidic devices use tiny channels to control small amounts of fluid and recreate environments on a cellular scale. They model human biology more realistically than flat cell cultures, making them important for drug discovery, disease research, and toxicology. Microfluidics are especially timely as the FDA has announced plans to phase out some animal testing requirements and encourage more human-relevant methods.

Today, producing complex PDMS microfluidic devices often requires cleanrooms, manual optimization, and repeated trial-and-error. The NSF-supported work is designed to reduce that bottleneck by using thermal and curing models to predict how PDMS will behave during printing, then optimize print parameters before a device is manufactured.

Photo provided

“This partnership helps us move one step closer to a fully automated, scalable microfluidic platform,” said Jeff Schultz, principal investigator and co-founder of Phase, which is headquartered in Charlotte, North Carolina. “Our goal is to make microfluidic technology more reproducible and more accessible to researchers and companies working to develop better human-relevant models.”

George Mason researchers will help characterize the printed devices for dimensional accuracy, surface quality, batch-to-batch consistency, and biological function. The team will also test a device designed to study EV function. EVs are nanoparticles that are released by cells and play critical roles in intercellular communication. They have been shown to carry important regulatory functions in various human diseases, such as cancer, infectious disease, and neurological disorders, and are also highly advantageous for use in drug delivery.

“Being able to rapidly and cost‑effectively prototype and fabricate custom microfluidic devices will significantly enhance our capacity to design relevant microphysiological systems and will help broaden access to this technology to many research laboratories” said Veneziano.

“Our microfluidic device empowers researchers to conduct functional EV studies with ease and under physiologically relevant conditions. Through our partnership with Phase to 3D print the chips, we will be able to deliver more reliable, cost-effective, and commercially viable tools to the EV scientific community,” said Hakami, co-director of the Center for Infectious Disease Research at George Mason.

For Phase, the NSF grant builds on a growing base of support from federal and private sources. The company has already received more than $3.5 million in nondilutive funding, including support from the National Institutes of Health, the One North Carolina Small Business Program, the North Carolina Biotechnology Center, NSF, and private-sector partners. Previous research partners include Harvard Medical School, Georgia Tech, and Virginia Tech.

By pairing George Mason’s biological and engineering strengths with Phase’s manufacturing platform, the project is positioned to advance both scientific discovery and commercialization. The result could be a more reliable path for producing the microfluidic tools needed to support the next wave of biomedical research, organ-on-a-chip development, and human-centered bio-innovation.

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George Mason’s Center for Molecular Engineering receives $1 million in federal funding for a high-resolution mass spectrometer

sbrown79 — Mon, 29 Jun 2026 16:28:37 +0000

George Mason’s Center for Molecular Engineering receives $1 million in federal funding for a high-resolution mass spectrometer sbrown79 Mon, 06/29/2026 - 12:28

A new high-resolution mass spectrometer is coming to 91��’s Center for Molecular Engineering (CME) this fall, thanks to $1 million Community Project Funding.

Mikell Paige. Photo by Evan Cantwell/Office of University Branding

The federal funding was by sponsored by Congressman Suhas Subramanyam (10th District) and emphasizes George Mason’s place as one of only six Virginia universities with Carnegie Classification of Institutions of Higher Education’s R1 designation. 

The spectrometer, which will be housed at George Mason’s Science and Technology Campus, will be instrumental in expanding regional research capacity and workforce training. Curricula utilizing the spectrometer is currently in development.

“I want to thank Congressman Subramanyam and his staff for securing this federal funding. With the mass spectrometer, we can train students in data acquisition and analysis tools,” said Mikell Paige, director of CME and chair of George Mason’s Department of Chemistry and Biochemistry in the College of Science. “Our center has also been working with local biotechs, government agencies, and other universities. Researchers in these partner facilities rely on us for data analysis, and George Mason students will be able to go into these local industries that require these skillsets after they graduate.”

Through the center, Paige has built a robust group of collaborators including institutions, such as Walter Reed National Military Medical Center, National Institutes of Health (NIH), Capital Biosciences, and Amerimmune, and universities, such as Virginia Tech, University of Virginia, Old Dominion University, Georgetown, and the Max Planck Institute in Munich, Germany.

George Mason's Center for Molecular Engineering team. Photo by Evan Cantwell/Office of University Branding

Paige has a background in synthetic chemistry and works in drug discovery, meaning he can synthesize novel, small molecules and design drug molecules as potential medicine. His work has centered on antibacterial and antiviral efforts, and areas such as chronic obstructive pulmonary disease and pulmonary fibrosis—areas where small molecules are necessary for the research process. 

When Paige came to George Mason, he wanted to build a program where he could conduct and expand this research alongside his students. Their work on mass spectrometry prompted their need for the high-resolution component for small molecules. 

“We will also have a continuing education component where local industries could send their companies to come train with our faculty and students to learn how to do the data analysis on their own, as well as provide the core services where they can do a fee-for-service running of samples,” said Paige.

“This opportunity makes our center an amazing place for us all to meet other academics and collaborate.”

“There is tremendous research and discovery happening right here in our region,” said Subramanyam. “I can’t wait to see what the mass spectrometer will allow Professor Paige and George Mason students to accomplish as they work toward improving our understanding of medicine.”

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George Mason launches new Center for Satellite and Earth Science Research

Katarina Benson — Tue, 23 Jun 2026 21:34:41 +0000

George Mason launches new Center for Satellite and Earth Science Research Katarina Benson Tue, 06/23/2026 - 17:34

At a recent gathering of air quality researchers from across the Washington, D.C., region and beyond, 91�� officially launched a new center that aims to advance Earth system science in atmospheric composition and air quality.

The Center for Satellite and Earth Science Research (CSER), based in George Mason’s College of Science, will focus on delivering data-driven insights to support environmental resilience, improve public health outcomes, and inform decision-making at local, national, and global levels.

Daniel Tong, director of CESR. Photo by Evan Cantwell/Office of University Branding

“We are excited to establish a platform for researchers to work together,” said center director Daniel Tong, a professor in the J. Shukla Department of Atmospheric, Oceanic, and Earth Sciences. “By using the latest technology, including Earth system models, satellites, and artificial intelligence (AI), we can design and deploy better early warning systems for extreme weather events. Each year, thousands of people are killed by dust storms or wildfires. CSER is here to save these lives.”

In addition to Tong, the center’s leadership team includes Patrick Campbell, associate director for business development; Bok-Haeng “BH” Baek, associate director for research; Zafer Boybeyi, associate director for education; and Youhua Tang, chief scientist. Together, they will guide the center’s efforts to improve remote sensing, air quality modeling, and scientific workforce development.

“What’s most exciting is CSER’s potential to bridge research and real-world impact while training the next generation of scientists to work across disciplines and scales,” said Campbell.

The fourth annual Air Quality Research and Development Consortium (AIRDC) Workshop underscored the importance of collaboration across institutions and disciplines in tackling air quality challenges. The one-day event brought together scientists, modelers, and policy-focused experts to share emerging research and strengthen collaboration around some of the most urgent challenges in air quality and Earth system sciences.

As new technologies and analytical tools continue to evolve, researchers emphasized that partnerships like AIRDC and endeavors such as CSER will play a vital role in translating scientific advances into actionable solutions, which directly connects to university research efforts through the Grand Challenge Initiative and building a climate-resilient society.

“The greater Washington, D.C., area is like the Silicon Valley for atmospheric science,” Tong said. “We have thousands of scientists working on this topic in federal labs, universities, and industry.”

The Center for Satellite and Earth Science Research team. Photo by Evan Cantwell/Office of University Branding

Throughout the day, researchers from such institutions as Johns Hopkins University, George Washington University, University of Maryland, Howard University, American University, and University of Maryland Baltimore County shared new approaches to understanding air pollution sources, behavior, and impacts.

Collaborators from the Maryland Department of the Environment, DC Department of Energy and Environment, NOAA, DOE, and NASA also attended.

According to Campbell, what stood out the most was the strong integration of satellite observations, advanced monitoring and modeling, and AI-enabled data fusion. These technological improvements reflect both the field’s challenges and how rapidly it is moving toward unified, data-driven approaches.

“Collaborations like this one are so important because air quality challenges span climate, health, and environmental justice, making cross-institution collaboration essential to integrate expertise, accelerate innovation, and deliver real-world solutions,” said Campbell.

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George Mason launches new MS in quantum science and engineering

ckearney — Mon, 15 Jun 2026 18:23:34 +0000

George Mason launches new MS in quantum science and engineering ckearney Mon, 06/15/2026 - 14:23

91�� has launched a new master of science in quantum science and engineering, the first program of its kind in Virginia and one of only a handful in the United States. Designed to meet growing workforce demand in one of the world's fastest-evolving technology sectors, the program prepares students to apply quantum technologies across disciplines including mathematics, physics, computing, engineering, cybersecurity, chemistry, and biology.

Designed to meet growing workforce demand in one of the world's fastest-evolving technology sectors, the MS program prepares students to apply quantum technologies across disciplines. Photo provided

Quantum technology is transforming industries ranging from computing and cybersecurity to healthcare and energy. As investment in quantum research and development continues to grow worldwide, so does the need for professionals who can bridge traditional STEM fields with emerging quantum technologies.

The degree was developed in direct response to industry demand for a workforce that can bridge traditional disciplines and emerging quantum technologies.

“When we talked to industry, they told us they want experts in STEM fields who also have knowledge of quantum science and engineering,” said Jessica Rosenberg, professor in the Department of Physics and Astronomy and director of education for the Quantum Science and Engineering Center.

Reflecting the inherently interdisciplinary nature of the field, students enter the program with backgrounds in STEM disciplines, such as mathematics, physics, computer science, or engineering, and build quantum expertise alongside domain-specific knowledge. The curriculum integrates foundational training in quantum information science and engineering while allowing students to deepen their applied-area expertise through electives in external disciplines.

The master's program focuses on three key areas: quantum computing and algorithms, quantum communications and security, and quantum sensing and measurement technologies.

Rather than training students solely as quantum specialists, the program emphasizes preparing them to apply quantum tools within their primary fields.

Photo provided

“Our goal is not to train pure quantum scientists,” said Michael Jarret, assistant professor in the Department of Mathematical Sciences and Department of Computer Science. “We're training professionals who can operate between domains—people who can connect quantum concepts to real-world applications.”

A defining feature of the program is its emphasis on experiential learning. Students complete a master's research project, often in collaboration with industry partners or research laboratories, gaining real-world experience in quantum applications and emerging technologies.

This flexible structure allows the program to evolve alongside the field itself. “As the quantum industry grows over the next decade, this degree is designed to adapt with it,” Jarret added.

Through this approach, graduates will be well-positioned to evaluate and implement quantum solutions in both academic and applied settings while also communicating complex concepts to diverse audiences. The program is designed to be accessible to a wide range of learners, from current undergraduates to working professionals.

George Mason also offers a Bachelor’s-to-Accelerated Master’s (BAM) pathway, enabling qualified undergraduates at George Mason to begin working toward the degree during their junior or senior years. At the same time, the program welcomes students entering directly into the master’s, creating opportunities for both early-career and returning learners to engage with quantum technologies.

As quantum technologies continue to reshape fields from computing and cybersecurity to healthcare and energy, programs like George Mason’s MS in quantum science and engineering are critical to building the next generation of talent.

This program is jointly offered by the College of Science and the College of Engineering and Computing.

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Graduate student credits campus community for helping her find her course

Katarina Benson — Thu, 11 Jun 2026 22:26:19 +0000

Graduate student credits campus community for helping her find her course Katarina Benson Thu, 06/11/2026 - 18:26

Xia Parkes did not arrive at George Mason University certain she wanted to be a scientist. Originally, she envisioned a future in dermatology after shadowing a physician in her hometown of Chesapeake, Virginia. But once she began college-level coursework, lab experiences opened new interests for her.

Parkes at graduation. Photo provided

When Parkes graduated from George Mason in May, she had earned two degrees in just four years—a BS in Biology and an MS in Systems Biology through George Mason’s Bachelor’s to Accelerated Master’s Program. For Parkes, success was not just about discipline; she also credits the support she received throughout her years as a Patriot.

One of her most meaningful moments came during the Commencement ceremony after Parkes earned her bachelor’s degree. Although her family was unable to attend, she decided to participate after encouragement from friends. When she looked into the stands and saw her friends there, cheering her on, the significance of her support system became clear. “That was when I realized how much showing up matters,” she said.

That sense of community is what she said she will miss most after graduation. Through her involvement on campus, she built a strong network of mentors and peers who helped her see possibilities beyond what she thought she was capable of.

One of the more unexpected influences came through the Honors College. As a University Scholar, she entered George Mason as part of a close-knit cohort that provided an early sense of belonging. Later, she joined the Honors College communications team as a lead intern.

“I never saw myself as a writer or communicator,” Parkes said. “But learning how to tell stories, interview people, and explain complex ideas has been one of the most valuable skills I’ve gained.”

That perspective now shapes how she approaches science.

“Communication is everything,” she said. “If you can’t explain what you’re doing, you can’t bridge the gap between science and the public.”

Parkes with the Patriot. Photo provided

In her classes, she explored genetics, biochemistry, and skincare research, including work related to hyperpigmentation, before landing on biochemistry through an internship at the University of Mississippi.

Parkes worked in Associate Professor Lee Solomon’s lab, where she contributed to research on protein synthesis and drug delivery. Her work involved developing and aerosolizing peptide-based treatments designed to track and inhibit tumor growth, with a focus on lung tumors.

She also had a 12-week internship at Eli Lilly in Indianapolis.

“Seeing drug discovery from the ground up has been transformative,” she said. “You don’t just learn about medicine. You see how it’s made, tested, and refined.”

Her academic achievements at George Mason are matched by deep campus involvement. She has served as a resident assistant, participated in Student Government, and worked as a biology peer mentor, learning assistant, and research assistant. She is also president of the George Mason chapter of the National Organization for the Professional Advancement of Black Chemists and Chemical Engineers (NOBCChE), which sponsored her to travel to and present at conferences and helped her connect fellow students to research and internship opportunities.

“My involvement came from being pushed by professors, friends, and mentors,” she said. “They helped push me to try things even when I felt out of place.”

From a nervous first-year student navigating unfamiliar spaces to a confident leader encouraging others to step beyond self-doubt, Parkes sees her college experience as transformational.

“I came here unsure of myself,” she said. “Now, I leave knowing that what I thought were my limits weren’t limits at all.”

As she prepares for the next chapter in pharmacy school, Parkes hopes future students take one lesson from her journey: Perfection is not the goal.

“You don’t have to have everything figured out,” she said. “You just have to keep going and let yourself grow along the way.”

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George Mason announces faculty affairs appointments in Korea and Fairfax

ckearney — Wed, 03 Jun 2026 17:15:34 +0000

George Mason announces faculty affairs appointments in Korea and Fairfax ckearney Wed, 06/03/2026 - 13:15

Jason M. Kinser and Gesele Durham have been promoted to new roles at Mason Korea and the Provost’s Office, respectively.

Jason M. Kinser. Photo by Ayman Rashid/Office of University Branding

Kinser, interim associate dean for academic affairs in the College of Science, will join Mason Korea as associate dean for faculty and academic affairs, effective July 25, 2026.

A George Mason faculty member since 1997, Kinser served as the first full-time chair of Department of Computational and Data Sciences, where he grew the department’s undergraduate enrollment from 25 to more than 400. He helped bring the computational and data sciences degree to Mason Korea, has served on the Mason Korea Executive Committee since 2023, and recently stepped in on-site during a leadership vacancy at Mason Korea.

“His expertise at the intersection of the life sciences and data sciences positions Mason Korea to deepen research and industry partnerships and expand pathways for our students into Songdo’s laboratories and companies,” said Campus Dean Joshaua Park.

Kinser has held faculty appointments across four units—bioinformatics, systems biology, physics, and computational and data sciences—and has served on university-wide bodies including the Mason Core Committee (2016 to 2024), which governs general education for every George Mason student; the Provost and Chairs Executive Committee; and Global Affairs.

Kinser will be the first natural scientist to serve in a senior leadership role at Mason Korea. His appointment aligns closely with the region’s direction: Songdo is one of the world’s leading biotechnology clusters, home to firms such as Samsung Biologics and Celltrion, and Incheon has set a course “from Smart City to AI City,” advancing artificial intelligence, data, and future industries in line with Korea’s national priorities.

Gesele Durham. Photo by Ron Aira/Office of University Branding

Durham will serve as interim vice provost for faculty affairs and development, beginning June 10, 2026, with a national search for permanent leadership of the office expected to begin later this academic year. Durham, who currently serves as vice provost for Institutional Effectiveness and Planning (OIEP), joined George Mason in 2019 and has led university-wide efforts related to strategic planning, accreditation, assessment, and institutional effectiveness. She will assume the interim role ahead of Kim Eby’s departure later this summer while continuing to lead OIEP in the Provost’s Office.

“Gesele brings colleagues together around the assessment and evaluation of teaching and administrative practices,” said interim provost and vice president Ajay Vinzé. “With more than 30 years of experience in higher education across both faculty and administrative leadership roles, she has a broad perspective on the opportunities and challenges facing faculty today.”

Over the coming weeks, Eby and Durham will work together to support the transition in leadership of faculty affairs and development. Incoming Provost Marion Underwood, who assumes the role in July, will lead the search for a permanent vice provost.

“Faculty success is foundational to student success, research excellence, and the university’s broader mission,” said Durham. “I look forward to partnering with colleagues across George Mason to support faculty development, recognize achievement, and create the conditions that enable faculty to do their best work.”

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