UMBC undergraduate students Noah Reichardt and Morgan Robbins spent this summer in Hawai‘i at one of the world’s top astronomy institutes, studying supermassive black holes and colliding galaxies, hiking volcanos, building their scientific networks, and refining their career goals. Their experiences at the Institute for Astronomy (IfA) at the University of Hawaiʻi at Mānoa was made possible by a National Science Foundation grant led by UMBC physicist Adi Foord and her collaborators, including David Sanders at the IfA. 

Robbins and Reichardt’s research projects looked at active galactic nuclei (AGN)—a small subset of supermassive black holes that are actively growing by gobbling up matter from their surroundings. To explore these rare cosmic entities, Reichardt and Robbins used fresh data from the James Webb Space Telescope and the Subaru Telescope, located near the summit of Mauna Kea, a dormant volcano in Hawai‘i.

Reichardt, a junior physics major, examined images of 352 active galactic nuclei, hunting for streams of gas and dust that can indicate past or ongoing galaxy collisions. Studying these streams can help explain how black holes and their host galaxies interact. Robbins took a different approach, analyzing 350 spectra—observations of the wavelengths of light coming from supermassive black holes—to measure the masses of 140 AGN. Together, their work paints a richer picture of how these cosmic giants evolve.

Expanding horizons

But the science was only part of the story. Both Reichardt and Robbins stepped into new territory as researchers, growing their skills and becoming more independent. Through writing his first scientific paper, Reichardt is learning how researchers take piles of raw data and turn them into a polished manuscript. Authoring a scientific paper as an undergraduate is already rare, but Reichardt will be listed as first author, indicating his leadership in the work. He also designed his first research poster and presented it to graduate students, faculty, and staff at the IfA. The experience deepened his interest in galaxy structure and affirmed his future plans. 

“I always wanted to go to graduate school for physics or astronomy, but this summer experience further cemented the idea,” Reichardt says. “After spending over two months at the IfA and learning more about the graduate program, it’s become one of my top choices.”

Robbins, a junior computer science major, arrived with strong coding skills but almost no formal astronomy background. By the end of the summer, she had analyzed hundreds of spectra, built tools to organize complex data, created her first science poster, given her first research talk, and started writing her first paper. “Both my scientific and professional experience greatly expanded this summer under the guidance of my mentors, and I am excited to continue working with them,” Robbins says.

“Conducting research at the Institute for Astronomy has opened a potential new career path for me,” Robbins adds. In her remaining time at UMBC, she plans to keep doing astronomy research that capitalizes on her computer science savvy, and she is seriously considering graduate school and a future in academia.

Growth and inspiration in Hawai’i

Outside the lab, the summer program immersed students in Hawaiian culture and history. Robbins and Reichardt helped maintain taro patches in a loʻi, a traditional type of terraced agriculture. They learned about native plant conservation and hiked in Hawaiʻi Volcanoes National Park. Reichardt’s favorite activity was a challenging hike along the Koʻolau Ridge, a steep mountain range on O‘ahu. Robbins enjoyed learning about traditional Polynesian wayfinding, which relies on natural signs like the stars, at the ‘Imiloa Astronomy Center. “Wayfinding is an incredibly complex art,” Robbins notes, one that was nearly lost and is now being carefully preserved and shared by groups like the Polynesian Voyaging Society. They also experienced sunset followed by stargazing under the Milky Way at the summit of Haleakalā on the Fourth of July.

Both students also built lasting connections. They worked closely with Sanders at IfA; Connor Auge, a postdoctoral research scientist at Eureka Scientific; and Ezequiel Treister, a principal investigator at the Institute for Astronomy of the Pontifical Catholic University of Chile. Robbins and Reichardt joined group meetings with scientists from institutions across the country, including the Space Telescope Science Institute in Baltimore. They also formed relationship with peers. “I made friends with students all over the U.S. and made a lot of great memories from the activities and trips we took,” Reichardt says. Robbins added that she hopes to keep those personal and professional ties for years to come.

When Reichardt and Robbins returned to campus for the fall semester and shared their experiences with Foord, with whom the two conduct research at UMBC, she was elated: “This is exactly the kind of growth and inspiration that I hoped to support with the grant.”

“I’m very grateful for the opportunity to conduct research at the IfA this summer,” Reichardt reflects. “It was an amazing experience.” 

Akshay Java, M.S. ’03, Ph.D. ’08, computer science, is a seasoned technology leader whose career spans key roles across the tech industry, including research at Microsoft, co-founding a successful start-up, and leading critical user protection efforts at Google. In his roles at Google across Egregious Harms Protections and Responsibility AI Engineering, he works daily on the front lines of digital safety, addressing both the serious risks and the transformative potential of modern computing technology.

“Technology by itself is not necessarily good or bad, what matters is how we choose to use it,” Java says. “But AI is moving so quickly now—community and technical leaders need to be engaged, making sure the good use cases can be advanced rapidly while preventing the bad from happening.”

It was in this spirit that Java made a generous donation to UMBC to launch the Computing for Social Good Award, to be given annually to one or more students in the College of Engineering and Information Technology (COEIT) who have conducted substantial research with the goal of harnessing technology to make positive social change. The awards are funded by an endowment, which is open to contributions from the community. In May of this year, two students—Rishav Gupta, a Ph.D. student in computer science, and ASM Mobarak Hossain, M.S. ’26, information systems—received the inaugural awards for their work in affordable health monitoring and wheelchair accessibility, respectively. 

“We are tremendously grateful to Akshay Java for establishing the Computing for Social Good Award in COEIT,” says Dean Jeanne van Briesen. “His commitment to supporting research that combines technical excellence with meaningful societal impact reflects values that are central to our college. This award celebrates the creativity and dedication of our student researchers and reinforces our belief that engineering and computing can be powerful forces for positive change.”

Monitoring cardiovascular health and improving wheelchair accessibility

Both recipients of the 2026 awards talked about how meaningful it was to them to apply their technical expertise to work that aims to improve people’s lives. 

Gupta is working in the lab of his advisor Dong Li on tools to make blood pressure monitoring affordable and accessible using only a commodity smartphone. Hossain worked on a project with advisor Md Osman Gani to develop MyPath, a Google Maps–style app that uses AI, remote sensing measurements, and crowd-sourced data to guide wheelchair users to accessible routes.

“Receiving the COEIT Computing for Social Good Award felt meaningful in a way I didn’t expect,” Gupta says. “I came to UMBC from a career in industry because I wanted my work to matter beyond a product. Being recognized for the research’s social impact felt like confirmation that I’d chosen the right path.”

“Developing MyPath required countless hours of hard work, continuous refinement, and a deep commitment to addressing a meaningful community need,” Hossain says. “Seeing that work recognized by COEIT was incredibly exciting and humbling—it gave me a strong sense of pride in what we’ve built and renewed enthusiasm for creating tools that deliver genuine social value.”

Seeing the students and the work they are doing has been the most meaningful part of the award process, Java says. “I’m so proud of the students for what they’ve achieved. And I hope this award inspires more students to apply their skills in this space of social good.”

Spoiler alert!

The first Spider-Man movie with Tom Holland as Peter Parker, “Homecoming,” was released almost a decade ago in 2017. Mercedes Burns, associate professor of biological sciences and Spider-Man fan, has been studying arachnids for double that. This summer’s blockbuster, “Spider-Man: Brand New Day,” shows Peter Parker slowly becoming an actual spider as the result of hormonal imbalances triggered by extreme stress, trauma, and long-term social isolation. He produces organic webbing, his eyes turn pitch-black, his “Spidey senses” are enhanced, and biological web slingers develop in his wrists for close-quarters combat. Burns, who wore her spider taxonomy t-shirt to the movie, will tell us if these upgrades have any scientific merit.

Q: What was your first reaction to the movie, particularly from a scientific perspective?

A: I enjoyed the movie, though I preferred 2021’s “Spider-Man: No Way Home.” I thought the new movie was a little uneven scientifically. Some things were extremely technical and accurate, while other things were vague. I did some research on the vague hormone discussion, to try to understand why that aspect was much less specific than some of the other science in the movie. 

There was a piece in the trailer where Bruce Banner, the Hulk—portrayed as a physics professor at the fictional Empire State University—explains the life cycle of the spider that did not make it into the movie. So there was no clear reason for why the changes were happening. It made it seem as though Spider-Man was becoming more spidery simply because he was getting really upset or sad.

Q: Was there anything scientifically inaccurate about Bruce Banner’s explanation of Spider-Man’s DNA changes?

A: There was an extremely complicated discussion of how short non-coding RNAs were being used to limit the Hulk’s and Spider-Man’s powers by binding proteins involved in their abilities. This therapy is based on RNA interference, which was discovered in the late 1990s. It is only very recently that any short-interfering RNA (siRNA) drugs have been FDA-approved, though, such as for certain forms of hemophilia—so this is very recent technology. Overall, I was impressed by how much detail they put into how the DNA limiter worked.

There was one important mistake, though. Professor Banner talked about needing to destroy mRNA before it is transcribed, when the correct terminology is translation. DNA is transcribed into mRNA, and mRNA is then translated into proteins. If they were talking about destroying mRNA before it is used to make a protein, they should have said translated, not transcribed. 

Q: What about the explanation about the surge in arachnid hormones?

A: The hormone description was extremely vague compared to the RNA discussion. One arachnid hormone that we know something about is a steroid called ecdysone, which triggers molting and increased body size. Ecdysone opposes the action of juvenile hormone, which has been studied extensively in insects, because it can be used in biological control to prevent insects from maturing. 

We know what spiders look like when they are under stress and that some species are very resilient to stress. But we do not know as much about how spiders physiologically deal with stress or whether stress might impact hormone levels, which may be why that aspect of the movie was so vague.

Q: Are these hormones what makes Parker’s new webs stronger?

A: Probably not. Spider-Man producing silk from his wrists is weird from a biological perspective. It would make more sense if the silk came from his feet, because spinnerets in spiders develop somewhat like a leg, but humans really do not have an equivalent to the spinnerets.

I know a lot about silks, because one of my research projects is focused on sticky proteins that arthropods, including spiders, produce to capture prey. The proteins that spiders make to produce their webs are a unique class of proteins called spidroins. 

Spidroins are made up of proteins that form chains. Spiders make these building blocks, which have to align with each other as they are extruded through the spinnerets. The spinnerets contain many little glands where spiders can press out the particular protein that the silk glands produce.

Hypothetically, if you were trying to control the translation of silk proteins in a spider, one way you could do that would be with siRNAs, which could bind to the mRNA and keep the protein from being made—although this would be extremely difficult to do in practice.

Q: Why would it be so difficult to replicate Spider-Man’s web?

A: The silk Spider-Man produces from his wrists is a really sticky, stretchy mass that is also strong. He uses it to stick to surfaces, swing, wrap enemies so that they are restrained without being harmed, and perform other functions. It would be difficult to replicate this material because of how many functions it has. 

In reality, spiders make many kinds of silk: some make more than 10 types. Each type has a particular job, such as for wrapping eggs or producing a covering around the eggs. The silks that are probably most important to Spider-Man are flagelliform silk and aggregate spidroin. Flagelliform silk is really stretchy. In a spider web, it forms the capture spiral, the circular part of an orb-weaver’s web. Aggregate spidroin is the sticky part of the capture spiral. 

Q: What was scientifically accurate about the explanation Ned Leeds, Spider-Man’s best friend, gave of the mechanical web shooters?

A: Ned asks Spider-Man what material is in Spider-Man’s web shooters. Ned suggests that if it is a synthetic biomaterial, it is probably a liquid polymer inside the web shooters that becomes a fiber. He also suggests that the shearing forces from pressing the material out of the web shooter cause the liquid to become a polymer.

That was spot on.

Inside the glands, the building blocks for spider silk exist as a liquid called dope. The glands’ pH becomes more acidic, which triggers the protein building blocks to start lining up. The dope is also physically pressed through spigots within the spinnerets, and the mechanical force gets the protein into the appropriate conformation. What comes out is a fiber made of blocks of protein.

The web shooters work in a way that could provide the necessary mechanical force to allow a liquid to become a fiber. Ned’s reasoning about a liquid becoming a polymer and then becoming a fiber was remarkably similar to how these biomaterials are described in the scientific literature.

The mystery is the actual material. They know it would be some sort of molecule that polymerizes—that has units that join together as they leave the device. The specific molecule used by Spider-Man remains fictional and proprietary to the story.

Q: How do Spider-Man’s web shooters relate to the way he uses his powers?

A: I am impressed with how Spider-Man learns his own body and his unique way of using his powers in this iteration. His web shooters allow him to work with the police to apprehend criminals without killing them. He can hold people up, restrain them, and throw things in their path. The ingenuity of his use of silk is really cool, because he is using it for good. Spiders are also an example of animals creating structures for good. They live in our houses and feed on pests that we do not like, so they are providing a service for us. In Spider-Man’s case, a human is using similar abilities to protect others.

Q: Is there anything real about the scene where Spider-Man wakes up in a spider cocoon, particularly his black eyes?

A: Yes, there are spiders that produce silk cocoons, such as jumping spiders. When they are getting ready to molt and grow larger, they will often create a little sling or hammock for themselves and surround themselves with silk for protection.

The black eyes, however, are probably a visual effect intended to make Spider-Man look more spider-like. Most spiders probably have poor vision. Their eyes do not have a pupil that focuses in the same way human eyes do. 

Q: The trailer hints that Spider-Man is going through the life cycle of a spider. Does this mean Spider-Man will die?

A: I hope not, because for Peter Parker it would be a very short life. There is a lot of variation among spiders. The order of arachnids that includes spiders is vast, with roughly 70,000 species. Some are very long-lived, especially compared to other arthropods like insects and crustaceans. For species that live a long time, such as tarantulas and trapdoor spiders, females typically live longer than males, sometimes up to 30 years. 

Peter Parker is male, however, and many male spiders have incredibly short lives. In many species, males do not survive a mating encounter. A female may eat a male if she is not reproductively mature or if she is hungry. To the degree that a spider’s life cycle involves periods of seclusion, molting, and getting larger, though, there is some similarity.

Q: Is Spider-Man a jumping spider?

A: Spider-Man seems like a combination of different spiders. The art and emblems on his suit would suggest an orb weaver. Spider-Man does have characteristics that are similar to those of a jumping spider, such as cocooning in response to stress. However, jumping spiders always produce a dragline when they are moving through the environment so they can survive a sudden fall, and Spider-Man fires webs to keep himself from falling. So, Spider-Man’s overall appearance may be more like a garden spider, but some of his capabilities better match a jumping spider.

Q: Why did you like “Spider-Man: No Way Home” better?

A: There was more interaction between Peter and his friends. I really enjoy Zendaya’s version of MJ, Spider-Man’s girlfriend. I also really like Ned as a supporting character. They are extremely intelligent in their own right and are curious about things. I like the depiction of three scientifically curious young people working together. 

Some of the other Marvel superheroes have AI, magic, or something else that provides them with insight. Spider-Man has his friends. I like this version of Spider-Man because he gets advice from other superheroes here and there, but he is also figuring things out himself and getting some help from his friends. I think it is cool to have your high school friends as your superhero support group.

Learn more about arachnid research in the Burns Arthropod Evolution Lab.

Every morning this summer, junior biological sciences major Magdalen Ruth made her way to the National Institutes of Health in Bethesda—a dense hub of biomedical research. There, at the National Institute of Arthritis and Musculoskeletal and Skin Diseases, she helped investigate a genetic mutation in a patient with a rare form of juvenile arthritis known as Still’s disease, connecting her UMBC training to work that could improve patients’ lives. She is one of four CNMS students whose recent internships at Maryland-based companies and agencies show how local opportunities are helping Retrievers build skills, find mentors, and advance discoveries that matter here and beyond.

“I feel like I’m doing really important work,” Ruth, a Meyerhoff and U-RISE scholar, says. “Getting to know the patient’s diagnosis and being able to see that what I’m working on is affecting an actual person in real time has been awesome.” The internship has confirmed her interest in pursuing a career in pharmacology. It’s also stretched her communication skills. While familiar with presenting her work to colleagues in Deepak Koirala’s lab group at UMBC, communicating her research to a mix of researchers and clinicians—who don’t all share the same jargon and expertise—taught her the nuance of communicating with technical and non-technical audiences. 

The Meyerhoff community helped make the opportunity possible. “I would not be in the place I am without Meyerhoff,” she notes. On campus, Ruth balances research and leadership as vice president of the STEM Ph.D. Society, a student-run organization designed to help students connect with scholarships, internships, graduate schools, and more. She also takes dance classes, is pursuing a music minor, and volunteers at her family’s Catholic parish—nurturing connections that ground her amid rigorous academic work.

Protecting lives, growing a career

Mark Harrison, a senior biological sciences major who started in chemical engineering, is in his third summer at Aberdeen Proving Ground (APG), a U.S. Army installation in Aberdeen, Maryland. His work involves designing and testing gas masks, bridging his early engineering training and his understanding of physiology. “I’m able to bring an understanding of what a warfighter may be experiencing in their body while wearing a gas mask in a way that others at APG may not,” Harrison says. 

His mentors at APG, Jon Sampson ’03, mechanical engineering, and Edward Parshley ’06, chemical engineering, value the perspective Harrison brings and have supported his growth. “They made it clear that they want to reach back and offer opportunities to those coming behind them,” he says. They are making good on that commitment: Harrison will stay on board at APG this fall, and the plan is to transition him into a full-time position after he graduates in December. “They were always asking me what I wanted to learn and then giving me related opportunities,” Harrison says. “I could ask anyone how something worked, and they’d take the time to explain it to me. I’m so grateful for the way they’ve invested in me.” 

Interning in a fast-paced, interdisciplinary environment has also changed how Harrison operates in the classroom. “I learned how to learn at APG,” he says. “Now I don’t have to spend as much time studying, because when I leave class I already have a good understanding of the material. I’m connecting the dots so much better than before.” For Harrison, the work has taken on personal meaning, as well. “I’m fighting right now to try to protect American lives—that’s why I’m here.”

Translating discovery into treatment

Zainab Idowu, a senior biochemistry and molecular biology major and a Meyerhoff Scholar, interned at pharmaceutical giant AstraZeneca in Gaithersburg, Maryland, joining a robust group of Retrievers who’ve grown their skills there. Her project involved testing flow cytometers, which count and characterize individual cells and are used in manufacturing cell therapy treatments. Her goal was to determine the instrument and protocols that would be simplest and most effective for manufacturing teams to implement. The experience shifted Idowu’s focus toward translational medicine and reinforced her plans for an M.D./Ph.D. after UMBC. But the people around her made the biggest impression.

“I love everyone on my team,” Idowu says. “My managers, Ashley Ruddy and Jen Fox, were really insightful—giving me advice on what I want to do post-grad and what I should do my senior year to make sure I’m well-positioned for after graduation.” And when she had questions, the collaborative atmosphere showed her how scientists work together. “They were able to give recommendations and point me to scientific literature to help me along,” she says.

Opportunities through Meyerhoff gave her the chance to connect with AstraZeneca staff, which helped her secure the internship. “I was able to talk to them about my passions for research,” she says. Roles with UMBC’s chapters of the Society of Women Engineers, the international professional medical fraternity Phi Delta Epsilon, the National Society of Black Engineers, and the African Students Association have also enriched her UMBC experience. These organizations, she says, offered “a place to be ourselves, find new friends, and really build a home here at UMBC.”

The benefit of seeing both sides

Saeed Damadi recently defended his Ph.D. thesis in applied mathematics after beginning in electrical engineering. This summer at the FDA, he developed a mathematical model for how illicit drugs taken during pregnancy transfer to the developing baby through the placenta—increasing important understanding in a situation where human testing would be profoundly unethical.

While the math was familiar, Damadi welcomed the new challenge of jumping into biology. “I learned so many things, and I am still learning,” he says. Yet he found that his interest in how to describe randomness mathematically, which led him to complete a master’s in statistics on the way to his Ph.D., was highly relevant to studying the quirks of the human body. Looking ahead, he wants to continue work at the interface of biology and mathematics. 

“Hopefully in the future I can make a contribution by bridging fields,” Damadi says, “because you can computationally simulate millions of parameters and patients at once, which makes the rate of iteration and discovery much faster.” The work Damadi and colleagues do with simulations can help effectively target limited resources for expensive and lengthy clinical studies, he explains. 

Damadi and his wife, Sepideh Hematian, M.S. ’23, data science, and a former data scientist at the Maryland Department of Human Services, are planning to build their lives in California. They are both thriving, but “sometimes I get emotional thinking about UMBC,” Damadi says, “because after I arrived nine years ago from Iran, it became like a home to me and my wife.”  

Damadi has given back through his teaching. As an engineer, “I just learned how to use the mathematical tools without understanding what was going on behind the scenes,” he says. Whereas, in math, “you learn the origins of all the theorems and how they work, but not necessarily how to apply them. I feel super lucky to get to see both sides.” So, in undergraduate calculus and linear algebra courses, “I just wanted to explain to my students, ‘Why do you need these equations? Why are they important?’ and give them a feeling of gratitude.”

Gratitude threads through all four of these journeys—for mentors who reach back, for teams that invest in their members, for communities that feel like home, and for the chance to do work that matters. As Magdalen Ruth at NIH puts it, “I’ve just found myself in a great spot with UMBC. I feel really blessed to have had all the opportunities I’ve had. Being able to do these internships has seriously been great.”

Izabella Maria Marzano, a senior biological sciences major who transferred to UMBC from Anne Arundel Community College, was one of more than 120 undergraduate and high school student presenters who packed the University Center Ballroom on August 5 for UMBC’s 29th annual Summer Undergraduate Research Fest (SURF). Marzano was presenting work she completed with Diana Elizondo, assistant professor of biological sciences, on certain enzymes involved in metabolic dysfunction resulting from a poor diet. The experience had been transformative.

“In the short time I’ve been here, Dr. Elizondo has shown more faith in what I can achieve and given me more confidence than anyone else ever has, and I’m incredibly grateful,” Marzano says. She was one of four undergraduates from Elizondo’s research group who presented their summer work at SURF, which included two poster sessions and six short oral presentations.

Marzano joined the lab after taking Elizondo’s cell biology course, drawn to the group by the far-reaching impact of diabetes research, Elizondo’s approachability, and her desire to gain research experience to support her goal of becoming an orthodontist. In addition to Elizondo, Marzano says graduate students Marveline Akinola and Benjamin Cole have supported her growth.

Supported independence

Across the room, junior biochemistry and molecular biology major Zaira Ahmed, who began at UMBC this spring after transferring from Prince George’s Community College (PGCC), presented findings on how diet-induced obesity alters the composition of fat tissue’s extracellular matrix—a complex network of proteins, sugars, and other molecules surrounding cells. Ahmed first conducted research at PGCC, and she sought out Elizondo’s lab after taking the same cell biology course as Marzano, motivated in part by family members living with diabetes. 

“Dr. Elizondo has been an amazing mentor. She explains everything so clearly and has been hands-on in teaching me different laboratory techniques,” Ahmed says. “But then once she sees I’ve got it, she lets me move forward independently.”

Irene Teye, a junior biological sciences major who started in Elizondo’s lab in January 2025, focused on the three-dimensional structural changes that obesity drives in the extracellular matrix. She worked with Tagide deCarvalho, manager of the Keith R. Porter Imaging Facility at UMBC, to generate and digitally analyze microscopy images of the matrix. 

“It took three weeks to analyze the microscopy data to get just two images for my research poster, but it felt like such an accomplishment when I finished,” Teye says. She’s found a home in the Elizondo group, sharing that given how close the members are, “You’d think we’re all related.” 

Dzifa Ameko, a junior biological sciences major, began with Elizondo in March 2025 after another faculty member recommended the lab based on Ameko’s interests. Long intrigued by endocrinology and gynecology, she investigated the role of neuropeptide Y, a small signaling molecule released by neurons, in an understudied hormonal and metabolic disorder that affects up to 170 million women worldwide. 

“Dr. Elizondo’s door is always open,” Ameko said. “I can also always send her a Slack message and she is so responsive, whether it’s about research or a personal challenge.”

Students at the heart of research

Elizondo, who joined the UMBC faculty in January 2025, sees supporting student researchers as the heart of her work. “One of the most rewarding parts of starting my lab has been watching these students grow in confidence and independence,” she said. “Many of them joined with little or no prior research experience, and it has been incredibly exciting to see them develop into scientists who can think critically, troubleshoot experiments, and communicate their work so effectively. I strongly believe that the best way to learn science is by doing science. My goal is to create an environment where students are genuine contributors to the research, not just assistants.”

SURF gave those contributions a public stage. Outgoing dean of the College of Natural and Mathematical Sciences, William R. LaCourse, welcomed participants to the event, highlighting the mix of student researchers from UMBC, regional community colleges, and other institutions. “SURF is one of the highlights of summer each year, because it celebrates the curiosity, perseverance, and excellence of our students and the faculty who guide them,” he said. 

For transfer students like Marzano and Ahmed, and for first-time researchers across the university, the combination of hands-on projects, responsive mentoring, and a forum like SURF turns their motivation and potential into tangible results. 

“You are ending this summer more knowledgeable, more experienced, more skilled, and a better scientist. Remember that the full benefits of your research may never be known to you. Science is not for those who seek glory—it’s not for me today, it’s for others tomorrow,” LaCourse reflected in his opening remarks. “Your spirit is an inspiration to us all. We hope that UMBC will always be a part of you.” 

A common saying is “Health is wealth.” Its meaning—that good health gives people the vitality to succeed in life—is found in stories and phrases across cultures and times. Dong Li, an assistant professor in the Department of Computer Science and Electrical Engineering, has long nurtured an interest in helping people stay in good health, from his early childhood interest in becoming a doctor to his current research focusing on developing cost-effective and widely accessible health monitoring technologies. 

As the founder and director of the Future Sensing and Interaction Lab, Li studies how affordable devices, such as smartphones and watches, can monitor general health indicators, vital signs, and physical activities. Li also explores how to build innovative computer-human interfaces to deliver an intuitive user experience. His goal is to use the advanced sensing technologies on many smart devices to help people improve their well-being. 

“I am a tech believer,” Li says. “Technology has enormous potential to make change, and that’s why I have devoted my efforts and my time to try to develop applications of technology that benefit society.”

Li shares here about his work, its challenges, and his hopes for a world where healthcare is both affordable and accessible. 

Q: What are your main areas of research? 

A: My main area of research is what we usually call mobile health, or mHealth. The goal is to make health intelligence more accessible by using everyday devices that people already have, such as smartphones, earphones, smartwatches, and even smart rings. 

For example, in several projects in my lab, we’re exploring ways to measure things like blood pressure and skin stiffness using a smartphone. One way to think about it is this: as human beings, we have eyes, ears, and a nose that help us sense the world around us. So what if we could use our smartphones as an additional sensing tool—not just to understand our environment, but to sense what’s happening inside our own bodies, such as blood pressure, heart rate, respiration rate, and other physiological signals?

The second part of my research focuses on AI. We’re interested in building AI models that can use data collected from these everyday devices to detect signs of disease at an early stage. Large language models like ChatGPT, for example, are trained on huge amounts of language data. In a similar way, we can train health-related AI models on large amounts of physiological data collected from devices people use in their daily lives. The question is whether the model can learn subtle patterns in that data that may indicate the early stages of disease.

The third part of my research is about security and privacy. If we’re collecting sensitive health information, we need to make sure both the AI model and the overall system are secure, and that people’s private information is protected. 

Q: What motivated you to get involved in these areas of research?

To be honest, when I was in primary school, my dream was to become a doctor. But somehow, I ended up choosing computer science as my major.

After I completed my Ph.D. at the University of Massachusetts Amherst and joined UMBC as a faculty member, I learned about opportunities for internal research funding and collaboration between UMBC and the University of Maryland, Baltimore, which has long-established professional schools in areas such as medicine, dentistry, pharmacy, and nursing.

When I heard about those opportunities, I immediately thought, “Okay, this is my chance to reconnect with that childhood dream.” I realized I could combine my background in computer science with healthcare and work on interdisciplinary research that could have a real impact on people’s health.

So in a way, I didn’t become a doctor, but I found another path that allows me to contribute to medicine through technology. That’s really what motivated me to move into this area of research. 

Q: How do you hope the research will impact ordinary people’s lives down the road?

Our long-term vision is to make health monitoring more accessible and affordable for everyone. Right now, if we want to monitor certain aspects of our health, we often have to go to a doctor for regular examinations or use specialized medical equipment, which can be expensive and may not be easily available to everyone.

What we hope to do is bring some of that monitoring capability into the everyday devices people already use, such as smartphones, earphones, smartwatches, or even smart glasses. Instead of relying only on specialized equipment, people could potentially use these familiar devices to better understand and monitor their health in their daily lives.

If our research is successful, we hope it can give people a simple and convenient way to keep track of their health, identify potential problems earlier, and make more informed decisions about when to seek medical care. Ultimately, the goal is to use technology to help people live healthier lives.

Q: What are the biggest challenges that the research will need to overcome to reach these goals?

The most challenging part is not technical. What I realized when I talked to the clinical doctors from UMB School of Medicine is that the challenge is how to make people aware of this development. The challenge is assuring people of data security.  People ask questions like, “What about privacy? How can you make sure you don’t leak our private information?” I think that’s the biggest challenge we will have if we want to make this a product that everybody can benefit from: How can we communicate about the technology so that people can understand it and are willing to use our product in the future?

Q: Do you have any recent results that you are especially excited about?

Yes. We are doing the clinical trials for our blood pressure monitoring project. We have collected data, I believe, from 30 healthy subjects right now, and we are in the process of collecting data from hypertensive patients at the hospital. The data we have right now shows very promising results, and I’m very excited to see if our prototype can work for those hypertensive patients. If it does, I think our next step is that we could do a wider deployment to verify our system. I attended the Maryland NEW VENTURE program [an intensive 12-week accelerator run by bwtech@UMBC that helps early-stage technology founders]. I shared this story with a lot of our investors, and they are super excited about this product. Maybe sometime next year, we will establish a startup company to make it a real product to benefit ordinary people.

Written by: Ramya Bommakanti, a senior information systems major and communications intern in the COEIT Dean’s office.

Meet ASM Mobarak Hossain (Sajib). He recently graduated from UMBC with an M.S. in information systems and joined IBM as a Senior Developer and AI Specialist. Sajib has spent more than a decade working in technology. What excites him most is using what he knows to build solutions that make a difference in people’s lives. At UMBC, he put that passion to work helping to develop MyPath, a Google Maps–style app that uses AI, remote sensing measurements, and crowd-sourced data to guide wheelchair users to accessible routes.

This May, the work was recognized when Sajib was selected as one of two recipients for the inaugural COEIT Computing for Social Good Award, made possible by a generous donation from alumnus Akshay Java, M.S. ’03, Ph.D. ’08, computer science. Awardees were selected in a competitive review process by COEIT faculty reviewers and departmental leadership. Sajib was selected for his project “A Multi-Modal Agentic Framework for Auditing Wheelchair Accessibility.” Take it away, Sajib!

Q: What brought you to UMBC?

A: After spending many years working in software engineering and technology leadership, I wanted to keep growing and challenge myself in a new way. I came to UMBC to deepen my knowledge, explore AI and research, and connect my industry experience with problems that could have a meaningful impact on people’s lives.

Q: What did you enjoy most about UMBC?

A: What I enjoyed most about UMBC was being able to connect what I learned in class with real problems. My research gave me the chance to use AI and software engineering to work on wheelchair accessibility, which made the experience much more meaningful to me than simply learning technology.

Q: Who in the UMBC community inspired you or supported you?

A: I found support at UMBC through the people who were willing to listen to my ideas and help me develop them. My advisor, Md Osman Gani, has been one of the most supportive people during my time at UMBC. He encouraged me to think beyond the technical side of a problem and focus on how our research could actually help people. That support helped turn my interest in accessibility into research that became a very meaningful part of my UMBC experience.

Q: What’s the one thing you’d want someone who hasn’t joined the UMBC community to know about the support you find here?

A: I would tell them that at UMBC you don’t have to figure everything out by yourself. I found professors and researchers who were willing to listen to my ideas, guide me, and give me room to explore. That support helped me turn an idea into research with a real purpose.

Q: Can you tell us about your current job and how UMBC helped prepare you for your career?

A: I’m currently working at IBM as a Senior Developer and AI Specialist. What I enjoy most is the opportunity to work on challenging technology problems and continue learning. I especially enjoy using my software engineering background together with AI to build solutions that can solve real-world problems.

UMBC helped me look at technology from a different perspective. I already had many years of industry experience, but my time at UMBC gave me the opportunity to become more involved in research, explore AI more deeply, and think about how technology can be used to address real human needs. That experience has been valuable as I move into the next stage of my career.

Q: How does the COEIT Computing for Social Good Award make an impact on your education?

A: Receiving the COEIT Computing for Social Good Award directly bridges the gap between academic theory and real-world impact. It provides vital encouragement and support to continue leveraging computer science for positive social change, specifically through the MyPath project. Beyond the immediate recognition, it inspires me to stay focused on human-centered software design, seek out complex social challenges in my future coursework, and pursue career opportunities centered on technology for good.

Q: How did it feel to win the award?

A: Winning the COEIT Computing for Social Good Award was an immense honor and deeply validating. Developing MyPath required countless hours of hard work, continuous refinement, and a deep commitment to addressing a meaningful community need. Seeing that work recognized by COEIT was incredibly exciting and humbling—it gave me a strong sense of pride in what we’ve built and renewed enthusiasm for creating tools that deliver genuine social value.

* * * * *

UMBC’s greatest strength is its people. When people meet Retrievers and hear about the passion they bring, the relationships they create, the ways they support each other, and the commitment they have to inclusive excellence, they truly get a sense of our community. That’s what “Meet a Retriever” is all about.

Learn more about how UMBC can help you achieve your goals.

David Mountain, Ph.D. ’17, computer engineering, can’t tell you much about his job. It still sounds exciting. As a researcher at the National Security Agency (NSA)—sometimes jokingly called the “No Such Agency” because of its top secret signal intelligence and cybersecurity work—Mountain worked to develop groundbreaking computing technology over a career spanning more than four decades. 

“The most fun projects started with an operational organization [within NSA] asking us, ‘Can you do this [perhaps wild-sounding] thing?’ and ended with them telling us they fielded the devices we built and they are working great,” he says.

Pop culture often portrays the NSA as a shadowy spy agency. From Mountain’s perspective, his job was not the thrilling escapades of James Bond, but had a certain resemblance to the high-tech wizardry of Q, who supplies Bond with his cool gadgets. Mountain’s colleagues were curious people who loved tackling hard science, math, and engineering problems. Add to that the mission of protecting U.S. national security and it equaled a fulfilling work environment. 

Looking back, Mountain splits his career into two approximately 15-year blocks, the first spent “doing really hardcore technical stuff,” from which he earned numerous patents, and the second half coordinating the work of technical teams and mentoring the next generation of researchers. Along the way, he also spent multiple years taking advantage of NSA internship and development programs.

Sometimes Mountain’s work did see public light, such as his research into building flexible electronics, with applications in “smart” clothing, autonomous vehicles, solar panels, and more. The research was shared with industry through the NSA’s Technology Transfer Program. 

Now (mostly) retired, Mountain says the best part of his job was the opportunity to constantly explore new topics and take on new challenges. 

“The government was really good about education and developing people, and I took full advantage of that,” Mountain says. “I got paid to learn new things, and that was great.”

Imagining a new type of computer hardware

It was the love of learning that brought Mountain late in his career to UMBC as a Ph.D. student. He had already made use of NSA programs to earn his master’s degree in electrical engineering from the University of Maryland, College Park, and to take research sabbaticals. After enrolling as a UMBC student in 2014, Mountain worked with his advisor Anupam Joshi, a computer science and electrical engineering professor and now the university’s chief A.I. officer, on a Ph.D. dissertation exploring a concept called neuromorphic computing.

In neuromorphic computing, researchers take inspiration from the human brain to reimagine traditional computing hardware. While traditional computers perform data processing and memory operations in physically separate units, neuromorphic systems merge the functions at artificial “synapses.” Neuromorphic systems also generally trigger calculations when they receive an input signal, rather than performing operations at regular, clock-based intervals. These changes improve computers’ energy efficiency and adaptability when applied to most AI tasks today, such as image and speech recognition.

For his Ph.D., Mountain analyzed a new type of electrical circuit building block, called a memristor, that shows promise in neuromorphic computing. Mountain explored how arrays of memristors divided into small chunks, or “tiles,” could be flexibly combined to handle a variety of tasks, including recognizing hand-written digits and detecting malware. The conclusion, Mountain says, was that with additional hardware improvements it should be possible to build a general purpose neuromorphic computer—similar to our general purpose personal computers of today—that could handle a wide variety of tasks with both high performance and energy efficiency. 

Mountain was drawn to UMBC for his Ph.D. in part because of its close proximity to where he worked in the Advanced Computing Systems group of the NSA’s Laboratory for Physical Sciences, located at the bwtech@UMBC Research and Technology Park. The Laboratory for Physical Sciences is a partnership that the government runs with industry and university partners to advance research in communication, sensing, and computer technologies. Prior to beginning his Ph.D. work, Mountain had developed many positive relationships with UMBC faculty and students, including collaborating with Matthias Gobbert, a professor of mathematics and statistics at UMBC, on several high-performance computing research projects for undergraduate students, funded by the National Science Foundation. 

During his Ph.D. research, Mountain took numerous UMBC graduate courses, and credits computer science and electrical engineering professor Fow-Sen Choa and associate professor Ryan Robucci with providing valuable guidance and support that shaped his research. 

“I was a non-traditional student and everyone supported me in that,” Mountain says. 

“David is super smart and well respected,” Joshi says. Joshi’s own Ph.D. thesis explored how computers might learn like biological brains, specifically examining how a type of machine learning approach called neural networks could be organized in a similar way to the early stages of human’s visual processing system. “With David, the research came full circle,” Joshi says. “I looked at how biology could be emulated in software. David was looking at how to create the hardware.” 

Staying connected and giving back

Mountain lives in the southwest Baltimore neighborhood of Ten Hills, a 10-minute drive from the UMBC campus. Since graduating with his Ph.D., he has served on the advisory board for the Department of Computer Science and Electrical Engineering, networked with students at various career-focused events, and developed and taught a graduate level quantum computing course, designed to help build the quantum workforce by providing computer scientists and engineers with an accessible introduction to core quantum computing concepts.

On May 28, Mountain served as an expert panelist at an event organized by the Hilltop Society exploring how AI can create a healthier, safer, and more efficient future. He was joined by Jennifer Sleeman, Ph.D. ’17, computer science, a senior AI research scientist at The Johns Hopkins Applied Physics Laboratory, and Chris Valentino ’02, M.S. ’06, information systems, the vice president of cyber and information solutions at Northrop Grumman.

Enjoying semi-retirement with his wife, Diane, with whom he raised four children, Mountain now regularly travels, visits the theatre and museums, and takes the occasional consulting gig. “My wife and I joke that we have become wise asses on the hill,” he says. He’s happy to dispense opinions on the future of computing and AI, the prospects of data centers in space, and more. Just don’t ask him too much about what he did for a living. 

Meet Rishav Gupta. After spending five years as a mobile engineer, he decided to pursue his Ph.D. in computer science at UMBC to deepen his expertise and choose projects with the clear objective of improving people’s lives. Rishav is working in the Future Sensing and Interaction Lab of professor Dong Li on a project to use everyday smartphones as affordable and accessible blood pressure monitors.

This May, the work was recognized when Rishav was selected as one of two recipients for the inaugural COEIT Computing for Social Good Award, made possible by a generous donation from alumnus Akshay Java, M.S. ’03, computer science, Ph.D. ’08, computer science. Awardees were selected in a competitive review process by COEIT faculty reviewers and departmental leadership. Rishav was choosen for his project “Enabling Affordable and Accessible Blood Pressure Monitoring Using Only a Commodity Smartphone.” Take it away, Rishav!

Q: What brought you to UMBC?

A: As an international student from India, I left a comfortable career to come here. After five years as a mobile engineer in industry, I was a generalist who could build things, but I wanted to understand them, to master a domain and create research that genuinely gives back to the community and helps people. UMBC’s work in health sensing was exactly that chance.

UMBC’s welcoming and inclusive environment made the transition less daunting. From peers who’d walked the same path to a community that genuinely wants your feedback to others considering it: you won’t be figuring things out alone here.

Q: What do you love about UMBC?

A: Beyond my research, I serve on the Graduate Assistant Advisory Committee, helping improve the experience for graduate assistants across campus. From clarifying appointment expectations to shaping GA orientation, it’s shown me a side of UMBC that genuinely listens to students and works to actually affect people’s day-to-day lives. What I enjoy most is being a bridge: carrying real student concerns to people who can actually act on them.

Q: Who in the community inspired you or supported you?

A: My advisor, Dong Li, pushes me to aim high and take ownership of my research, trusting me to drive my own ideas. That independence has stretched me. I’ve also leaned on senior students in the department, whose willingness to share what they’ve learned has made navigating the early Ph.D. years far less daunting. 

Q: What’s the one thing you’d want someone who hasn’t joined the UMBC community to know about the support you find here?

A: What surprised me most is how many people quietly have your back. A student who walked me through a rough patch, a staff member who actually wanted my feedback and acted on it, and peers who share hard lessons so I don’t struggle alone are just a few examples. The support is every day and practical.

On left, Gupta receives an award for best poster from computer science and electrical engineering assistant professor Roberto Yus on CSEE Research Day in April 2026. On right, Gupta and his team receive a first place award from The Maryland NEW VENTURE program in May 2026. (Photos courtesy of Gupta)

Q: What are your goals after graduation and how is UMBC helping you?

A: My goal is a research career with significant meaningful work, ideally a faculty position at a strong university, where I can keep pushing on affordable health-sensing technology and train the next generation of researchers. I’m early in the journey, but that’s the direction I’m building toward.

UMBC has pushed me toward independence by owning my research direction, presenting my work at top venues, and building the depth I came here for. Serving on a graduate committee has also grown skills I didn’t expect to develop: representing others, navigating institutions, and turning feedback into real change.

Q: How has the Computing for Social Good Award impacted your education?

A: The COEIT Computing for Social Good Award directly supports my research to make blood pressure monitoring affordable and accessible using only a commodity smartphone, with no specialized hardware and no clinic visit required. Beyond the tangible support, being recognized specifically for the social good of the work, rather than only its technical side, has shaped how I choose research problems: it pushes me to keep asking who my work actually helps, and to keep people who can’t easily access conventional care at the center of what I build.

Q: How did it feel to win this award?

A: Receiving the COEIT Computing for Social Good Award felt meaningful in a way I didn’t expect. I came to UMBC from a career in industry because I wanted my work to matter beyond a product. Being recognized for the research’s social impact felt like confirmation that I’d chosen the right path. It was also humbling as a reminder that affordable health technology isn’t an abstract goal but something real people are rooting for, and it left me more motivated to deliver on the promise the award recognizes.

* * * * *

UMBC’s greatest strength is its people. When people meet Retrievers and hear about the passion they bring, the relationships they create, the ways they support each other, and the commitment they have to inclusive excellence, they truly get a sense of our community. That’s what “Meet a Retriever” is all about.

Learn more about how UMBC can help you achieve your goals.

Meet Rishav Gupta. After spending five years as a mobile engineer, he decided to pursue his Ph.D. in computer science at UMBC to deepen his expertise and choose projects with the clear objective of improving people’s lives. Rishav is working in the Future Sensing and Interaction Lab of professor Dong Li on a project to use everyday smartphones as affordable and accessible blood pressure monitors.

This May, the work was recognized when Rishav was selected as one of two recipients for the inaugural COEIT Computing for Social Good Award, made possible by a generous donation from alumnus Akshay Java, M.S. ’03, Ph.D. ’08, computer science. Awardees were selected in a competitive review process by COEIT faculty reviewers and departmental leadership. Rishav was choosen for his project “Enabling Affordable and Accessible Blood Pressure Monitoring Using Only a Commodity Smartphone.” Take it away, Rishav!

Q: What brought you to UMBC?

A: As an international student from India, I left a comfortable career to come here. After five years as a mobile engineer in industry, I was a generalist who could build things, but I wanted to understand them, to master a domain and create research that genuinely gives back to the community and helps people. UMBC’s work in health sensing was exactly that chance.

UMBC’s welcoming and inclusive environment made the transition less daunting. From peers who’d walked the same path to a community that genuinely wants your feedback to others considering it: you won’t be figuring things out alone here.

Q: What do you love about UMBC?

A: Beyond my research, I serve on the Graduate Assistant Advisory Committee, helping improve the experience for graduate assistants across campus. From clarifying appointment expectations to shaping GA orientation, it’s shown me a side of UMBC that genuinely listens to students and works to actually affect people’s day-to-day lives. What I enjoy most is being a bridge: carrying real student concerns to people who can actually act on them.

Q: Who in the community inspired you or supported you?

A: My advisor, Dong Li, pushes me to aim high and take ownership of my research, trusting me to drive my own ideas. That independence has stretched me. I’ve also leaned on senior students in the department, whose willingness to share what they’ve learned has made navigating the early Ph.D. years far less daunting. 

Q: What’s the one thing you’d want someone who hasn’t joined the UMBC community to know about the support you find here?

A: What surprised me most is how many people quietly have your back. A student who walked me through a rough patch, a staff member who actually wanted my feedback and acted on it, and peers who share hard lessons so I don’t struggle alone are just a few examples. The support is every day and practical.

On left, Gupta receives an award for best poster from computer science and electrical engineering assistant professor Roberto Yus on CSEE Research Day in April 2026. On right, Gupta and his team receive a first place award from The Maryland NEW VENTURE program in May 2026. (Photos courtesy of Gupta)

Q: What are your goals after graduation and how is UMBC helping you?

A: My goal is a research career with significant meaningful work, ideally a faculty position at a strong university, where I can keep pushing on affordable health-sensing technology and train the next generation of researchers. I’m early in the journey, but that’s the direction I’m building toward.

UMBC has pushed me toward independence by owning my research direction, presenting my work at top venues, and building the depth I came here for. Serving on a graduate committee has also grown skills I didn’t expect to develop: representing others, navigating institutions, and turning feedback into real change.

Q: How has the Computing for Social Good Award impacted your education?

A: The COEIT Computing for Social Good Award directly supports my research to make blood pressure monitoring affordable and accessible using only a commodity smartphone, with no specialized hardware and no clinic visit required. Beyond the tangible support, being recognized specifically for the social good of the work, rather than only its technical side, has shaped how I choose research problems: it pushes me to keep asking who my work actually helps, and to keep people who can’t easily access conventional care at the center of what I build.

Q: How did it feel to win this award?

A: Receiving the COEIT Computing for Social Good Award felt meaningful in a way I didn’t expect. I came to UMBC from a career in industry because I wanted my work to matter beyond a product. Being recognized for the research’s social impact felt like confirmation that I’d chosen the right path. It was also humbling as a reminder that affordable health technology isn’t an abstract goal but something real people are rooting for, and it left me more motivated to deliver on the promise the award recognizes.

* * * * *

UMBC’s greatest strength is its people. When people meet Retrievers and hear about the passion they bring, the relationships they create, the ways they support each other, and the commitment they have to inclusive excellence, they truly get a sense of our community. That’s what “Meet a Retriever” is all about.

Learn more about how UMBC can help you achieve your goals.