Mapping Maryland’s Methane: UMD Initiative Takes Flight

University of Maryland Physics Professor Daniel Lathrop is making significant strides in tracking methane emissions on UMD’s campus and beyond. 

In 2024, Lathrop and his team surveyed the stinky vapor plumes on the UMD campus caused by the university’s aging energy infrastructure for their Remediation of Methane, Water, and Heat Waste Grand Challenges project. With support from students, staff and faculty members across the university, Lathrop’s team helped pinpoint several key locations where excessive steam produced to power campus buildings escaped. Thanks to their efforts, the UMD community better understands the university’s energy production and consumption systems and environmental footprint and plans to use that information to remediate the systems. 

Last month, Lathrop took the project to the skies to apply what he learned from his studies on UMD’s campus to address Maryland’s environmental challenges throughout the state. Excessive methane emission continues to be a major problem as populations grow, leading to air quality decline, increased atmospheric heat trapping, and heightened energy waste and costs. 

“UMD’s campus represents a microcosm of urban and suburban environmental challenges that really have local, national and global implications,” said Lathrop, who holds joint appointments in the Departments of Physics and Geology, the Institute for Physical Science and Technology, and the Institute for Research in Electronics and Applied Physics. “Now that we have a better understanding of the problems our campus faces, we’re better equipped to tackle similar problems the rest of the state may have.” 

“Prior research has shown that most American cities with an aging utility infrastructure lose a lot of methane to the atmosphere,” added Atmospheric and Oceanic Science Professor Russell Dickerson, who is a co-investigator on the project. “We need powerful new tools to locate, quantify and control these emissions. Field campaigns can provide benefits for the efficient use of energy and help protect the health of Marylanders.”

To accomplish this goal, Lathrop partnered with the Maryland Wing of the Civil Air Patrol, a U.S. Air Force auxiliary unit based near Baltimore County, Md. With pilot Piotr Kulczakowicz, who is also director of the UMD Quantum Startup Foundry, Lathrop conducted two research flights aboard the Patrol’s Cessna aircraft in February, hoping to accurately map methane emissions.Piotr Kulczakowicz and Dan LathropPiotr Kulczakowicz and Dan Lathrop

“Just like how UMD came together to solve a problem that affects all the people living and working on our campus, we’re partnering with other members of our community to solve an issue that impacts the whole state,” Lathrop said. “As UMD faculty and as members of the Civil Air Patrol, Piotr and I were uniquely positioned to have UMD scientists team up with the Patrol in a relatively low-cost, efficient and mutually beneficial way of doing methane mapping compared to what many other researchers in this field have done. It’s the first time it’s ever been done here. We bring the instruments and expertise; they bring the planes.” 

On the ground and in the air

Lathrop’s first flight launched on February 10 from Annapolis, Md., circling around southern Pennsylvania and north central Maryland regions including Hagerstown. During this initial test flight, Lathrop focused on calibrating the instruments used to monitor methane—including a system called LI-COR, which is frequently used to track atmospheric changes. Strapped securely to a plane seat, the $30,000 optical sensor tracked real-time emission signatures in parts per billion, thanks to a two-meter-long tube attached to one of its ports and placed through a barely cracked plane window. Methane hot spots were easy to detect.

 “It was very obvious whenever we flew past a methane hot spot,” Lathrop said. “We recorded a notable methane spike of more than 2,250 parts per billion while flying by what we later found out was a landfill in Pennsylvania called Mountain View Reclamation Plant. In contrast, we observed that flying over the Chesapeake [Bay] resulted in a sudden drop in methane levels, or well below 2,050 parts per billion, which we used as a baseline for distinguishing emission signatures from noise.’” 

Lathrop’s second flight on February 24 yielded even more results. From the departure point near Fort Meade, Md., the plane executed two loops around the Baltimore region—one loop at a lower altitude of 1,700 feet and another at 2,700 feet for a more detailed picture of emission patterns near more populated urban areas. Lathrop (in the air) and later his team (on the ground) observed that cities tend to have correlated methane and carbon dioxide emissions, a distinct pattern that differs from other known sources like landfills or gas production facilities. 

“Cities have cars and trucks that leak both methane and carbon dioxide, CO₂,” Lathrop explained. “On the other hand, gas facilities only produce methane and not much CO₂. Generally, landfills only produce methane and not CO₂. These differences could help stakeholders, especially the people living in these communities or who control these emission sources, address the leakages on a more individual level and better mitigate the issues—like high energy waste and costs—that come with them.”

Although his findings are in many ways unique to Maryland, Lathrop says that the methodology used on his flights could benefit other research teams in the region and other states interested in pinpointing methane emission sources and minimizing leakages. Lathrop is currently developing standardized procedures that will allow other teams to carry out similar missions in the future, with hopes that all stakeholdeMethane readings.Methane readings.rs will be able to make better-informed decisions about their environmental impact. 

“We’re already planning for the next few flights across Maryland, which can be quite difficult considering our proximity to restricted airspace in D.C.,” Lathrop said. “But this is only part of a much bigger effort to reduce waste, reduce the associated environmental and fiscal costs, and protect our communities.”

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Other UMD faculty members involved in the Remediation of Methane, Water, and Heat Waste Grand Challenges project include Environmental Science and Technology Associate Professor Stephanie Yarwood, FIRE Assistant Clinical Professor Danielle Niu, Geographical Sciences Assistant Professor Yiqun Xie, and Geology Associate Professor Karen Prestegaard and Professors Michael Evans and Vedran Lekic.

Norbert M. Linke to Return to UMD

The National Quantum Laboratory at Maryland (QLab) welcomes a renowned expert in quantum physics, computing and networking to serve as its new director, effective September 1, 2025. Norbert Linke, Ph.D., brings a decade of experience running a quantum computer user facility and conducting research on the applications of trapped atomic ions.Norbert LinkeNorbert Linke

With this appointment, Linke will return to the University of Maryland’s Department of Physics, where he worked as a faculty member from 2019 to 2022, and he will hold the first IonQ Professorship, an endowed position designed to support faculty focused on quantum computing research and advancing quantum strategy in Maryland and beyond. The IonQ Professorship was established with a $1 million gift from quantum computing firm IonQ and fully matched by the Maryland Department of Commerce. The match was made through the Maryland E-Nnovation Initiative Fund (MEIF), a state program created to spur basic and applied research in scientific and technical fields at colleges and universities.

Linke, who is currently a professor of physics at Duke University, co-invented several of the original patents that enabled the launch of IonQ, born out of UMD research and headquartered in College Park. The QLab was established in 2021 through a partnership between IonQ and UMD as the nation's first user facility to provide the global scientific community with hands-on access to a commercial-grade quantum computer. Housed in the Division of Information Technology and located in the Capital of Quantum in College Park, the QLab is dedicated to advancing quantum research and education.

"I'm honored to lead the QLab in its mission to make quantum computing accessible and drive innovation. I'm excited to work with the talented team here to push the boundaries of what's possible with this technology," Linke said. “President Pines gave QLab a motto, which is ‘Quantum for All.’ Following this, my vision for QLab is to provide broad access to the latest quantum resources for researchers, commercial stakeholders, as well as students and educators.”

The QLab fosters a vibrant quantum community, through its QLab Fellows and Global User Programs, as well as the QLab Collaboration Space, a dedicated hub for innovation that opened in 2023. The QLab also supports groundbreaking research through seed grants and collaborations with companies in the Quantum Startup Foundry, resulting in numerous publications and software development.

“Linke’s expertise and leadership will be invaluable as we continue to push the boundaries of quantum computing and foster a collaborative environment for innovation,” said Jeffrey K. Hollingsworth, vice president of information technology and chief information officer at UMD.

Linke's appointment comes at a time of rapid growth and development in the field of quantum computing, especially in the state of Maryland, where Gov. Wes Moore recently announced a $1 billion Capital of Quantum Initiative anchored by UMD and built on a landmark public-private partnership, in which the QLab is poised to play a key role.

 

Original story: https://umdrightnow.umd.edu/university-of-maryland-names-new-director-of-national-quantum-laboratory

About the QLab:
The National Quantum Laboratory at Maryland (QLab) is a national user facility that provides the scientific community with access to a commercial-grade quantum computer. Established through a partnership between IonQ and the University of Maryland, the QLab is dedicated to advancing quantum research and education and is housed in the Division of Information Technology.

  

Powered by Physics

Leonard Campanello (Ph.D. ’20, physics) spent the last three years on an ambitious mission—helping billions of Google Maps users find exactly what they’re looking for.

“I worked on the search function for Google Maps: you move the screen to a section of the map where you want to look for restaurants or hotels or things to do, add filters or attributes, like it has to be dog friendly or have a waterfront view,” Campanello explained. “And you want Google Maps to give you the best answer every time.”

As a Senior Data Scientist at Google, Campanello’s work brought science to the search process, applying the interdisciplinary physics training he received as a Ph.D. student in Professor Wolfgang Losert’s lab at the University of Maryland. Working on the Google Maps team, Campanello put his experience with models, algorithms, and analytics to work to better understand Maps users and optimize their search results.

“So, when you first issue a search, there's a list of places in a particular order. That order is carefully controlled,” Campanello explained. “We’ve proven that changing ranking algorithm has a material impact on the user's experience, and, at the end of the day, we need to know, did we have a net positive or a net negative effect on users? And we always strive to go in the net positive direction.”

As a scientist, Campanello has always been passionate about finding the stories hidden in data and building statistical models that capture the essence of the data, putting his physics skill set to work to answer a question or solve a problem.

“At the core of many problems in both physics and data science, I think we are trying to understand the data generating process so that we can better explain the fundamental physical phenomena driving what we see,” Campanello explained. “We observe that applying a force results in some change in a measurable quantity, whether the subject is a Google Maps user or a cell under the microscope. What's going on in the background that's fundamentally causing that change? How can we use this information to better understand our world? That’s what we want to find out.”

All in on physics

Campanello was a strong student who went all in on science and math since high school and earned a bachelor’s degree in physics from St. John’s University in 2013. Then, still unsure about how physics would translate into a future career, Campanello decided to pursue his Ph.D. at UMD, where he would have access to various options.

“I didn't know that what I wanted to do with enough certainty that I could commit to a graduate school that was kind of one dimensional,” Campanello recalled. “UMD had a massive physics department with a diversity of people in experiment and theory, whether it was condensed matter or high energy or biophysics or whatever, and that range of options was what ultimately kind of pulled me to UMD.”

After spending his first year working in condensed matter theory, a class with Physics Professor Michelle Girvan gave Campanello a whole new perspective.

“The class was nonlinear dynamics of extended systems and to this day it's probably the most influential class I ever took,” Campanello said. “Her problem-solving approach, including using graph theory and complex systems models, which I was never exposed to before, was eye-opening. We could actually create mathematical representations of all of these phenomena that we see in the world. And I was just wowed.”

At Girvan’s suggestion, Campanello joined Losert’s lab and began his Ph.D. research quantifying and modeling different dynamic processes, specifically complex interactions in biological systems.

“We already knew what some of the interactions were, so we knew that if we put this immune cell in the presence of some material, the immune cell would react in a specific way, which we could also measure under a microscope,” Campanello explained. “So given this set of biochemical information on the way these things behave short-term, medium-term and long-term, we said, how can we fit mathematical models to the microscope data and then use this to make inferences about this system as a whole?”

Opportunities, collaborations and simulations

Campanello took advantage of many opportunities at UMD, from teaching multiple MATLAB Boot Camps on image processing, computer vision and data analysis to coaching teams of data science students for the annual university-wide Data Challenge competition. Meanwhile, his continuing work in Losert’s lab exposed him to a world of possibilities.

“Wolfgang gave me and everyone in his lab the opportunity to work on so many different projects and collaborations with the National Institutes of Health and others, whether it was fundamental cell biology to projects on the interface of immunotherapies and autoimmune diseases to cancer, it's just crazy how much exposure we had,” Campanello noted. “He would help us identify opportunities to apply our analysis and modeling tools, give us guidance on the projects, and then let us to run with it. I really appreciated that.”

Campanello earned his Ph.D. in August 2020 and continued to do research at UMD for about six months before landing a job at Citibank in early 2021, applying his experience in modeling and analytics to consumer banking. 

Later that same year, he accepted a very different kind of opportunity at Google, working with the team that supports Google Maps to evaluate, advance and improve its ever-expanding search functions and, later, new capabilities, thanks to the addition of artificial intelligence.  

“The team is like 30 or so engineers, product managers, designers, user-experience researchers, and I was the one data scientist,” Campanello explained. “One of my primary responsibilities when I first joined was to create metrics or measurements that were absolute—meaning not open to interpretation—and I spent a lot of time doing research in that area to ensure that those measurements aligned with what we wanted for the user. What do we measure to know if we made the experience better?”

A new opportunity

In February 2025, after more than three years at Google, Campanello left to join Optiver, an Amsterdam-based global market maker that buys and sells securities to provide liquidity to markets. In this new position, he’ll again leverage his physics skill set, this time as a quantitative researcher.

“Part of my role will be to help improve the team's predictions in order to make better trading decisions. Can we make predictions right now about what will happen later today or later this hour or even just one minute from now?” Campanello explained. “If we can put numbers to these things and build models that accurately predict outcomes, then we can ultimately use those models to improve liquidity for all market participants.”

Fascinated by finance—and still inspired by the power of physics—Campanello looks forward to this next opportunity to grow.

“I've always had an interest in finance and what I'm looking forward to the most in this new role is the ability to really further my skill set,” Campanello said. “I want to get more exposure to what's happening at the bleeding edge of modeling and data science in quantitative finance. And I think this will be a good avenue for me to do that.”

Written by Leslie Miller

Kiyong Kim Elected as a Fellow of Optica

Kiyong Kim has been selected as a 2025 Optica Fellow for his pioneering contributions to the generation and understanding of terahertz radiation from strong laser field interactions with matter.  He is one of 121 members, from 27 countries, selected for their significant contributions to the advancement of optics and photonics through education, research, engineering, business leadership and sKiyong KimKiyong Kimervice.

Kim received his B.S. from Korea University and his Ph.D. from the University of Maryland. His graduate research focused on measuring ultrafast dynamics in the interaction of intense laser pulses with gases, atomic clusters, and plasmas. This work earned him the Marshall N. Rosenbluth Outstanding Doctoral Thesis Award from the American Physical Society.

Following his doctoral studies, Kim moved to Los Alamos National Laboratory as a Director’s Postdoctoral Fellow and while there received a Distinguished Performance Award. After accepting a position as an Assistant Professor at the University of Maryland in 2008, he received a DOE Early Career Research Award and an NSF Faculty Early Career Development Award. Kim also received the departmental Richard A. Ferrell Distinguished Faculty Fellowship in 2014.

From 2021 to 2022, Kim held appointments at Gwangju Institute of Science and Technology (GIST) and the Center for Relativistic Laser Science (CoReLS) at the Korean Institute for Basic Science, leading experiments on petawatt laser-driven electron acceleration, nonlinear Compton scattering of petawatt laser pulses and GeV electrons, and high-power terahertz generation.

With colleagues in physics and the Institute for Research in Electronics & Applied Physics (IREAP), he is co-PI on a $1.61M Major Research Instrumentation (MRI) award from the National Science Foundation (NSF) to upgrade high-power laser systems at UMD.

 

From Space Science to Science Fiction

From her earliest years, Adeena Mignogna (B.S. ’97, physics; B.S. ’97, astronomy) always saw space in her future. It started with “Star Wars.”

“I have memories of watching the first ‘Star Wars’ movie with R2-D2 and C-3PO when I was about 6 years old and I really connected with the robots, wanting to know how we make this a reality,” she recalled. “For a while, I thought I was going to grow up and have my own company that would make humanoid robots, but the twist was, we were going to live and work on the moon. I could even picture my corner office and the view of the moon out the window.”Adeena Mignogna Adeena Mignogna

For Mignogna, that boundless imagination and her childhood fascination with space and science launched two successful and very different careers—one in aerospace as a mission architect at Northrop Grumman, developing software and systems for satellites, and the other as a science fiction writer, spinning stories of robots, androids and galactic adventures in her many popular books. For Mignogna, space science and science fiction turned out to be a perfect combination. 

“I think of it as kind of like a circular thing—science fiction feeds our imagination, which possibly inspires us to do things in science. And science feeds the science fiction,” Mignogna explained. “Working in the space industry is something that I always wanted to do, and I always wanted to write as well, so I’m glad that I'm really doing it.”

Drawn to science

The daughter of an engineer, Mignogna was always drawn to science and technology.

“I am my father's daughter,” she said. “My dad brought home computers, and I learned to program in BASIC, so it was kind of always obvious that I was always going to do something STEM-ish.” 

Inspired by the real-life missions of NASA’s space shuttle and the Magellan deep space probe and popular space dramas like “Star Wars” and “Star Trek,” Mignogna’s interest in aerospace blossomed into a full-on career plan. As she prepared to start college at the University of Maryland in the early ’90s, she began steering toward two majors.

“At first, I thought maybe I'm going to major in astronomy because I loved space and space exploration,” Mignogna recalled. “But my high school physics teacher had degrees in physics, and he had done a lot of different things. He had worked at Grumman during the Apollo era, he had done astronomy work, and so I was like, ‘Okay, if I major in physics, I could do space stuff, I could do anything.’ So in the end, I majored in both.”

Surprisingly—at least to her—at UMD, Mignogna discovered she loved physics.

“What do I love about physics? It's very fundamental to how everything works,” she explained. “I used to tease my friends in college who majored in other sciences that at the end of the day, they were all just studying other branches of physics—like math is just the tool we use to describe physics and chemistry is an offshoot of atomic physics and thermodynamics. And even though I was making fun, I do probably think there's some truth to that, and that might be why I like physics so much.”

Hands-on with satellites

By her sophomore year, Mignogna got her first hands-on experience with aerospace technology.  

“I wound up getting a job in the Space Physics Group, and they built instrumentation for satellites,” Mignogna explained. “I happened to learn about this at the right time when they were looking for students for a new mission, and I worked on that mission from day one till we turned the instrument over to [NASA’s] Goddard Space Flight Center, which was very cool.”

Working in that very hands-on lab assembling and sometimes reassembling science instruments that would eventually fly in space, Mignogna realized she was on the right path. 

“I was touching spaceflight hardware. I was touching stuff that was going into space,” she recalled. “It was really exciting.”

For Mignogna, working side by side with space scientists at UMD and getting hands-on training in skills like CAD drafting gave her the tools she needed to land her first job at NASA’s Goddard Space Flight Center.

Mignogna eventually landed at Orbital Sciences Corporation, which later became part of Northrop Grumman. For the next 16 years—earning her master’s degree in computer science from the Georgia Institute of Technology along the way—she expanded her space software and systems expertise and became a leader in Northrop’s satellite engineering program.

“On the software side, I worked on our command and control software. We have a software suite that controls the satellites, and what I loved was that it gave me exposure and insight into so many different kinds of satellites,” Mignogna said. “With systems engineering, I’m able to go through what we call the full life cycle of the mission. When NASA says, ‘Hey, we need a satellite that's going to do X, Y, Z,’ as a systems engineer, we’re the ones who break that down, and I’m kind of the end-to-end broader picture person in that process. The group that I'm closely associated with today is responsible for Cygnus, which is one of the resupply capsules to the International Space Station.”

From science to science fiction

Over the years, as Mignogna’s career reached new heights so did her work as a science fiction writer, a creative effort that started when she was in high school.

“My dad was a fan of Isaac Asimov and Robert Heinlein, so I knew they were engineers and scientists who also wrote science fiction, and that was something I always wanted to do,” Mignogna said. “At first, I didn't think I could write novels, I thought I could only do short stories. But around 2009, I figured out I could, and I’ve been doing it ever since.”

With titles like “Crazy Foolish Robots” and “Robots, Robots Everywhere,” Mignogna’s Robot Galaxy Series combines science fiction with humor, philosophy and, of course, robots. Her latest book “Lunar Logic” is set on the moon, 100 years from now.

“There are humanoid robots, built and manufactured on the moon, and they live on the moon. And they don't know anything about humans or why they're there,” Mignogna explained. “And then little things happen and they start to question what's going on and why they're there and eventually they kind of figure it all out.”

In Mignogna’s sci-fi worlds, the only limit is her own imagination, which is exactly what makes her work as a writer so enjoyable. 

“In my science fiction work, it’s my way or the highway,” she said. “I can write whatever I want, and I can make it however I want, and there's some satisfaction in that.”

For Mignogna, writing science fiction also provides an opportunity to advance another mission—to get more people interested and excited about science. In regular appearances at sci-fi conferences and other gatherings, Mignogna shares her passion for STEM, hoping to inspire the next generation of scientists—and everyone else.

“All this technology we have today comes from generations upon generations of fundamental science, technology, engineering, mathematics,” she explained, “so if we're going to do more things, we need people to go into these fields. “

As someone who’s always seen the importance of science in her own life, it’s a message she’s committed to sharing.

“You don't have to understand everything about science, but you can appreciate it,” Mignogna noted. “My hope is maybe if I can just connect with a few people indirectly or directly, I can make a difference.” 

 

Written by Leslie Miller