Aug. 10, 2026
Headshot of Sofía Pérez-Guzmán

--Written by Anne Wainscott-Sargent

From a single Atlanta church to a growing network across the Southeast, Georgia Tech engineer Sofía Pérez-Guzmán is connecting communities and researchers to support resilience in extreme weather events. 

When a West Atlanta church received donated solar panels and battery storage to operate as a community resilience hub, Pérez-Guzmán led an academic-practitioner team that helped the congregation turn that hardware into an operational playbook. She is now using the same model to build a regional network that links community leaders and researchers on resilience, food access, and disaster response. 

Pérez-Guzmán, an assistant professor in the School of Civil and Environmental Engineering and a faculty fellow at the Brook Byers Institute for Sustainable Systems (BBISS), focuses on addressing problems within the supply chain and transportation domains. “These challenges often encompass disruptions, human behavior, multiple stakeholders, and sustainability objectives,” she said. 

Before joining Georgia Tech in 2023, she was a postdoctoral research associate at Rensselaer Polytechnic Institute’s Center for Infrastructure, Transportation, and the Environment. She also holds a courtesy appointment in the H. Milton Stewart School of Industrial and Systems Engineering at Georgia Tech. 

“All of the research that I do always starts with a problem that has some sort of important social impact,” she said, “and then I try to draw from my expertise in different fields to help solve that problem.” 

Building a Network, One Pilot at a Time 

Through BBISS and its Sustainability Next grant program, Pérez-Guzmán co-leads a community resilience network of roughly 40 to 50 practitioners and researchers working on community-led resilience hubs across Georgia and South Carolina, with plans to expand across the Southeast. 

“Neither researchers nor practitioners alone can advance community resilience as they could if they work together,” she said. “The purpose of the network is to facilitate and leverage partnerships.” 

Community Church Atlanta is one of the first pilots. The church’s resilience hub, established in 2023, offers weekly support services and on-site solar and battery storage to keep power flowing during outages caused by storms, heat waves, or other disruptions. It is also the launching point for the Westside Resilience Corridor, a partnership of four churches along Cascade Road working to become resilience hubs for their neighborhoods. 

Working with church leaders, emergency managers, and community representatives, Pérez-Guzmán and partners held a two-day workshop to map likely hazards, define critical services, and draft activation procedures. Among those partners was Beth Remmes, coastal outreach and climate resiliency coordinator for Georgia Interfaith Power & Light (GIPL), who helped design and facilitate the process. “The whole idea behind resilience hubs is creating social cohesion,” Remmes said. “Social connectivity and relationships in the community are one of the biggest determinants of our ability not only to bounce back, but hopefully to bounce forward in a stronger way.” 

She noted that churches like Community Church Atlanta already serve as informal first responders. The resilience hub work makes that role more intentional by focusing on preparedness, programming, and connection well before an emergency. Just as important, in her view, was Tech’s ability to see how lessons from Community Church Atlanta could inform future resilience hubs across the region. 

Erica Holloman-Hill, founder and chief envisioning officer of Ayika Solutions Inc. and a member of Community Church Atlanta, sees that impact from inside the congregation. In the resilience hub effort, she provides technical guidance on the solar and battery system, helps shape programming such as workforce development, and helped bring partners like Groundswell and Georgia Tech to the table. 

“Georgia Tech uniquely brings the science and academia,” Holloman-Hill said. “Being able to leverage an institution like Georgia Tech gives weight to some of the work that we’re doing, while leaning on the technical expertise of professors like Sofía and partnering with organizations like GIPL to create models and support.” 

Looking ahead, Holloman-Hill said Community Church Atlanta is focused on refining how the hub operates and sharing lessons learned with other churches in the Westside Resilience Corridor. That means clarifying how the church will run the hub during emergencies, which partners need to be at the table, and how a third-party technical advisor can help keep the system performing as designed. 

For Pérez-Guzmán, those kinds of relationships are the real outcome. “The relationship, the trust, the partnership — it’s probably the most important outcome we’ve seen,” she said. 

Jennifer Hirsch, senior director of BBISS’s Center for Sustainable Communities Research and Education (SCoRE) and the network co-lead, sees the same value at an institutional scale. 

“Universities are important members of their communities and can be key partners in sustainability and resilience efforts when they mobilize their research capabilities, students, and other resources to partner with and support local leadership and innovations,” Hirsch said. “Networks of universities and communities can serve as multipliers of innovative approaches. With the resilience hubs network, we are excited to incubate new ideas that are community-centric and evidence-based and tailored to the Southeast communities that our partners know best.” 

Where Resilience Meets Food Access 

This partnership model also shapes what Pérez-Guzmán calls her most immediately actionable project: a decision-support tool connecting local food producers, distributors, and access points in Atlanta. Her team has gathered survey and experimental data from residents in West End and citywide, testing how distance, travel time, price, and a store’s ties to the community shape where people choose to shop. “We’re trying to design tools for logistics and food distribution decisions that bring food closer to people,” she said. 

A parallel thread runs through her disaster response work, where she studies how people choose among points of distribution for emergency relief. Proximity matters, she’s found, but it isn’t everything. Many people will travel farther if they believe they’re more likely to receive supplies, or if it lets them move closer to family. In urban freight, she has applied the same lens to city logistics, studying behavior around emerging technologies such as sidewalk delivery robots and autonomous trucks. 

“Atlanta’s mix of freight infrastructure, food access challenges, and weather vulnerability makes it fertile ground for that range of work,” she said.  

“Across every project, the constant is not only patience but also resilience. Along the way, we realize that the original research idea may no longer make sense, or that different approaches are required. The process is very nonlinear and requires revision, reassessment, and a lot of pivoting,” she said. “It basically requires tons of resilience!” 

News Contact

Media Contact: Brent Verrill

Writer: Anne Wainscott-Sargent

Aug. 06, 2026
Saman Zonouz is a Georgia Tech associate professor and lead researcher for the DerGuard project.

Recent cyberattacks on municipal water systems across the United States have renewed concerns about the cybersecurity of the operational technology that supports critical infrastructure. 

For researchers in Georgia Tech's Cyber-Physical Security (CPSec) Lab, however, the vulnerabilities behind many of these incidents are far from new.

Associate Professor Saman Zonouz leads the CPSec Lab and has studied programmable logic controllers (PLCs) for years. These devices automate critical infrastructure, including water treatment facilities, power grids, manufacturing plants, and transportation systems. The lab’s work has revealed widespread internet exposure and software vulnerabilities that leave many industrial control systems vulnerable to cyberattacks.

"Out of the 16 critical infrastructure sectors defined by the Cybersecurity and Infrastructure Security Agency, four are considered lifelines," Zonouz said. "Of those four, communications, energy, transportation, and water, the water sector is the most vulnerable, which is why it is so often targeted."

PLCs serve as the brains of industrial operations, monitoring sensors and controlling equipment that keep essential services operational.

"Imagine you have a thermostat that controls the temperature of your house. That is a type of controller," Zonouz explained. "The professional version does the same thing in industry."

When these controllers are directly accessible from the internet, attackers can exploit them to disrupt operations, manipulate industrial processes, or interfere with the systems that deliver essential services. Controllers may be intentionally exposed to allow operators to monitor equipment remotely. They can also be unintentionally accessible online because of configuration errors.

However, internet exposure is only part of the problem.

The CPSec Lab maintains a collection of PLCs that researchers reverse engineer to better understand their firmware, communication protocols, and security weaknesses. Their research has found that many controllers contain vulnerabilities that attackers can exploit once they gain access.

"Not only can the attackers see the house they want to rob, but the doors are also left unlocked," Zonouz said.

In 2024, Zonouz and his collaborators presented PLCHound at the ACM Conference on Computer and Communications Security (CCS), introducing an automated system that identifies internet-connected PLCs hidden within massive internet-scale datasets collected by services such as Shodan and Censys. The work was led by Ph.D. student Ryan Pickren. Provost and Executive Vice President for Academic Affairs Raheem Beyah, Assistant Professor Frank Li, and Research Scientist Animesh Chhotaray are co-authors of the study. 

Rather than relying on traditional scanning techniques, PLCHound identifies subtle network signatures that reveal industrial devices that prior methods often missed. Using the system, the researchers conducted one of the largest studies of publicly reachable PLCs from major manufacturers.

Their findings showed that previous estimates undercounted the number of internet-accessible industrial controllers by as much as 37 times. Even more concerning, nearly 96% of the identified devices exposed protocols linked to recently disclosed critical vulnerabilities.

The researchers did more than document the problem. After identifying exposed devices, the team launched a large-scale notification campaign, contacting more than 7,000 industrial operators to alert them that their systems appeared vulnerable. The effort enabled many organizations to investigate and address security issues before they could be exploited.

The recent attacks on municipal water systems reinforce concerns researchers have raised for years: many critical infrastructure operators continue to rely on operational technology designed primarily for reliability and performance rather than for cybersecurity.

Improving those defenses, Zonouz said, will require more than simply patching individual vulnerabilities.

The researchers cite the energy sector as a model. Compared with other critical infrastructure sectors, electric utilities generally operate under more mature cybersecurity requirements and undergo routine compliance audits, providing organizations with greater visibility into the devices connected to their networks and the risks they pose.

Implementing those improvements will not be easy. Many municipal water utilities operate with limited budgets and aging infrastructure, leaving little funding available for cybersecurity investments. As attacks on critical infrastructure become more frequent, the researchers argue that gaining visibility into operational technology assets and strengthening oversight are essential first steps to protect the systems communities rely on every day.

The CPSec Lab is a collaborative laboratory within the School of Cybersecurity and Privacy as well as the School of Electrical and Computer Engineering.

News Contact

John Popham

Communications Officer II at the School of Cybersecurity and Privacy

Aug. 05, 2026
Three men who co-founded and lead Huxley Medical stand together on the field of a baseball stadium, smiling at the camera. They are wearing SANSA-branded hats, with a large video board behind them displaying the SANSA logo and the stadium seating in the background.

From left, Brett Klosterhoff (cofounder and chief business officer), Brennan Torstrick (cofounder and chief scientific officer), and Chris Lee (cofounder and CEO) of Huxley Medical. All three men are graduates of Georgia Tech and worked as trainees in the Parker H. Petit Institute for Bioengineering and Bioscience.

With a Ph.D. in biomedical engineering and as a former trainee in the Parker H. Petit Institute for Bioengineering and Bioscience (IBB), it’s no surprise that Georgia Tech alumnus and serial entrepreneur Chris Lee loves numbers. One in four. Eighty percent. Five times.  

But for him, these numbers are more than just data — they’re people. One in four adults have sleep apnea. Up to eighty percent go undiagnosed. And those who are untreated are five times more likely to die of heart disease. Lee’s latest company, Huxley Medical, aims to change those numbers with one simple patch.  

“When you look at sleep apnea, it's probably the highest diagnostic opportunity there is in healthcare that can lead to the most impactful outcome in terms of reducing heart disease,” Lee said.  

The company’s point-of-care device, called SANSA, measures nine physiological channels, enabling it to help doctors diagnose sleep apnea and related cardiovascular disease simultaneously. The device can be shipped directly to the patient’s home, adheres to the chest like a Band-aid, and uploads data to a cloud-based system automatically. 

“We’re able to detect diseases faster in a very consumer-friendly manner,” Lee said. “More or less, you just wear it and you’re done.” 

SANSA has already been tested by more than 30,000 patients, with plans to expand exponentially by the end of the year. For Lee, that growing number is the most important of all.  

“I can’t think of a higher calling than coming up with innovations that can improve the health or extend the life of people around the world,” he said. “That's why it's important to understand how to bring what you're working on in the lab to the masses because, at least for me personally, there's no higher calling in life than to be able to do that.” 

Turning Ideas into Innovation 

Taking his research to market was always the goal for Lee, and something he learned how to do through the TI:GER program during his time at Georgia Tech. TI:GER, which stands for Technology Innovation: Generating Economic Results, is housed in the Scheller College of Business. It connects Ph.D. students from the colleges of Engineering, Computing, and Sciences with MBA students to form teams that turn entrepreneurial ideas into technological innovation.  

Lee, who joined the program in 2010 while still a trainee in IBB, was drawn to TI:GER because of the safe space it provided to develop his skills. 

“I would say TI:GER was a big part of why I chose this career path. I really enjoyed research, but the aspect I always liked was the potential for translation of that research,” Lee said. “TI:GER gives you direct insight, resources, mentorship, and a network to be able to do that.” 

The network that Lee developed through the program has been a constant throughout his career. After earning his Ph.D., he joined his program mentor, Kurt Jacobus, working at Medshape, a startup that Jacobus founded. After that company was acquired, the two co-founded another medtech business together, Vertera, which was also later acquired. 

Now, Jacobus sits on the board of Huxley Medical, and the connections don’t stop there. The company’s two co-founders — Brett Klosterhoff, Chief Business Officer; and Brennan Torstrick, Chief Scientific Officer — are also alumni of the TI:GER program and worked as trainees at IBB.  

“I think it's the network that's probably the most surprising,” Lee said. “Someone that I met at TI:GER when I completed that program 16 years ago, he's still someone that I work with on a regular basis and he's still an advisor as we continue to scale our businesses together. I would say that is probably the most valuable thing for me about the program.” 

For the business-minded researcher, all the data, numbers, and statistics boil down to the human connection. More important than technology and innovation are the problems that they solve for patients, and Lee encourages young researchers to meet those problems with creativity. 

“There's never one set path to figuring out how to translate research or starting a business or making an impact toward healthcare,” he said. “But Georgia Tech can give you the tools that you can use to build your own path.” 

News Contact

Ashlie Bowman | Communications Manager

Parker H. Petit Institute for Bioengineering and Bioscience

Aug. 05, 2026
Community Garden

Starting and maintaining a new garden can be daunting. But a new multi-agent conversational system developed at Georgia Tech is taking much of the guesswork out of gardening for beginners.

CultivAgents is a three-agent system that fields gardening questions and creates tailored plans based on a user’s gardening skill level, climate and environment, and cultural background.

The experience agent, environmental agent, and ethnobotanical agent inform one another and work together to guide users through the gardening process.

“Multi-agent systems provide multi-faceted support,” said Diana Wang, a Ph.D. student in Georgia Tech’s School of Interactive Computing who created CultivAgents. “My interest was in how we could provide more personalized and aligned support to individuals trying to grow food themselves while facing unique environmental or cultural factors.”

Gardening is a hobby that many people start but give up because of the time and effort it requires to be successful. Ryan Pemberton, a horticulturist at Georgia Tech’s community garden, said the two biggest mistakes he sees novice gardeners make are starting too big and overwatering.

“If you’ve never gardened before, trying to manage a large plot could be overwhelming,” Pemberton said.

“You can start small. You don’t have to have a big garden right away. You can start with one tomato plant and grow from there. See how well you can keep that one plant alive and then expand as you feel comfortable.”

Aside from the built-in health benefits of growing fresh food and working outdoors, Pemberton said gardening can lower your grocery bill and reduce carbon emissions by minimizing food transportation. 

It can also be a great way for international students at Tech to grow foods native to their homelands. He said a tool like CultivAgents could be useful for determining whether Atlanta’s climate is suitable. 

“People might want to grow a lot of different vegetables in their garden, but if you go too far south of here, it gets a little too hot to grow things like broccoli and strawberries,” he said. 

“A little north of here, it gets a little too cold to grow some species of peppers. Having something tell you what grows well in your region means you’re not having to pick and choose or guess.”

That’s one of the reasons Wang designed CultivAgents to feature multiple agents that consider unique environmental and cultural contexts.

“Multiple agents help distribute specific types of support as opposed to the generic support you often get from a single chatbot,” Wang said.

“Another advantage is that they tend to build on each other. The environmental agent builds on the experience agent’s detailed steps. This allows the system to tell you how to grow bush beans, for example, within a specific local community.”

Wang said she surveyed and interviewed new and experienced gardeners who use Tech’s community garden to learn what they would want from a conversational agent. She found that many wanted step-by-step instructions and guidance on what to plant, how to plant it, and a schedule for upkeep.

“All of our users told us they view gardening as something that’s long term, so they wanted this platform to be able to facilitate that kind of relationship,” she said.

The community garden is a shared space with nine garden beds. Pemberton said it’s a great place for new gardeners to learn to grow food before starting their own gardens. Much of the food grown there is donated to Klemis Kitchen, Georgia Tech’s on-campus food bank.

For more information about the community garden and how to get involved, visit https://sustainability.campusservices.gatech.edu/community-garden/

To see a live demo of CultivAgents, visit https://cultivagents.onrender.com.

Aug. 05, 2026
Two researchers in a laboratory examine a blue-green silicon wafer. One, wearing a lab coat, safety goggles, and a blue glove, holds the wafer up for inspection while the other stands beside them. Laboratory equipment is visible in the background.

Georgia Tech researchers developed a way to rejuvenate aging immune cells, potentially restoring the body's ability to better fight cancer, infection, and other diseases.

The immune system naturally weakens with age, leaving older adults more vulnerable to infections, cancer, and poor vaccine responses. Georgia Tech biomedical engineer Ankur Singh and his team have developed a technique that restores aging immune cells by delivering new genetic instructions directly into exhausted T cells using microscopic silicon nanowires. The treatment rejuvenated immune cells from healthy older adults, cancer survivors, and patients with cancer, helping them behave more like younger cells without damaging them. Although the research is still in its early stages, it opens the door to therapies that could strengthen aging immune systems and improve the body's ability to fight disease.

Read more »

Aug. 04, 2026
Marcus Nanotechnology Building

The Institute for Matter and Systems (IMS) has selected seven interdisciplinary research projects for funding, including one new research initiative, one new program, and one new center. IMS will also provide renewed funding to three research initiatives and one program to support their continued growth and impact.

IMS focuses on transformational technologies and societal systems that arise where innovative materials, devices, and processes meet.

“Transformative interdisciplinary research takes time to develop, and a second year of funding gives these teams the opportunity to build on early successes, expand collaborations, and demonstrate the impact of their work,” said Eric Vogel, executive director of IMS. “This continued investment helps researchers establish a strong foundation, achieve key milestones, and position promising initiatives to grow into larger, sustainable research programs capable of attracting significant external support.”

The funded projects come from four colleges and eight schools across Georgia Tech and the Georgia Tech Research Institute (GTRI). IMS selected these projects based on their innovative approaches, potential impact, and alignment with the IMS mission to push the boundaries of science and technology. They will receive funding, access to state-of-the-art facilities, and other support from the institute to bring their research to life.

IMS supports interdisciplinary research both in nationally recognized areas of need and those just emerging. It scaffolds research from the ground up, from seed funding for new initiatives to infrastructure support for research programs and embedded support for research centers. 

The 2026 research initiatives and programs include:

Research Initiatives:

Extreme-Environment Microelectronics | Nima Ghalichechian, John Cressler, Farrokh Ayazi, School of Electrical and Computer Engineering

Multifunctional Materials for Efficient Buildings | Akanksha Menon, George W. Woodruff School of Mechanical Engineering

Precision Agriculture in Controlled Environments | Antonio Facchetti, School of Materials Science and Engineering; Yongsheng Cheng, School of Civil and Environmental Engineering; Anju Toor, School of Materials Science and Engineering

Sustainable Thermoregulation Strategies for Climate Change Resilience | Matthew Flavin, School of Electrical and Computer Engineering; Joe Bozeman, School of Civil and Environmental Engineering; Noura Howell, School of Literature, Media and Communication

Research Programs: 

Autonomous Research for Materials | Mark Losego, School of Materials Science and Engineering; Shreyas Kousik, George W. Woodruff School of Mechanical Engineering; Animesh Garg, School of Interactive Computing

Georgia Tech Center for Semiconductor and Computing | Asif Khan, School of Electrical and Computer Engineering and the George W. Woodruff School of Mechanical Engineering; Divya Mahajan, School of Computer Science and the School of Electrical and Computer Engineering

Research Center:

Quantum Applications Research Center | Martin Mourigal, School of Physics; Robert Wylie, Georgia Tech Research Institute

Learn more about IMS’s research focuses and see a full list of its centers, programs, and initiatives.

News Contact

Amelia Neumeister | Communications Manager

The Institute for Matter and Systems

Aug. 03, 2026
Headshot of Facundo M. Fernández

This press release is shared jointly with the Savannah River National Laboratory (SRNL) newsroom. Georgia Tech faculty Martha Grover and Maggie Kosal also serve as SRNL Joint Appointees.

 

The Georgia Institute of Technology and the Savannah River National Laboratory announced the joint appointment of Facundo M. Fernández to collaborate in research around mass spectrometry, an analytical technique used to measure the mass-to-charge ratio of ions for research.

“Our partnership with Facundo will deepen SRNL’s innovative research in mass spectrometry and its groundbreaking applications,” said Tammy Taylor, SRNL’s deputy director of Science and Technology. “His expertise and collaboration will undoubtedly accelerate our lab’s drive for scientific excellence and impactful discoveries.”

Fernández is renowned internationally for his work in bioanalytical chemistry. His research focuses on developing tools to analyze small-volume samples, tissues and single cells, with applications in understanding diseases such as cancer, cystic fibrosis and inflammatory bowel disease. He has published 234 peer-reviewed papers, given over 230 invited lectures, and supervised 35 doctoral and master’s degree students.

He also directs the Systems Mass Spectrometry Core (SyMS-C) at Georgia Tech’s Parker H. Petit Institute for Bioengineering and Bioscience, managing more than 15 mass spectrometers.

“Being appointed as a joint faculty member with SRNL opens many new opportunities for collaborative research at the intersection of biology, chemistry and engineering,” said Fernández. “This type of collaborative research is what Georgia Tech is renowned for. We aim to address societal questions with global impact. I have been incredibly impressed with the quality of science at SRNL, and I look forward to many joint discoveries in the future.”

Fernández is a Regents’ Professor and the Vasser-Woolley Chair in Bioanalytical Chemistry at Georgia Tech’s School of Chemistry and Biochemistry. He earned his bachelor’s and master’s degrees (Licenciatura) in chemistry from the Facultad de Ciencias Exactas y Naturales, Universidad de Buenos Aires, in 1995, and his doctorate in analytical chemistry from the same university in 1999. From 2000 to 2001, he was a postdoctoral researcher at Stanford University’s Department of Chemistry. He served as a senior postdoctoral researcher and later as a research scientist between 2002 and 2003 with a research group at the University of Arizona.

“Professor Fernández is a renowned expert in the field of mass spectrometry, and it has been a privilege to already have him as a collaborator involved in our Laboratory Directed Research and Development program,” said SRNL’s Christopher Orton, division director for Nuclear Nonproliferation. “This joint appointment will strengthen the relationship between SRNL and Georgia Tech as we continue to work together to improve our understanding of the environmental fate of chemical contaminants in complex matrices.”

SRNL’s Joint Appointment Program provides university faculty opportunities to engage in research and development addressing the nation’s energy related challenges. SRNL staff and joint appointees help ensure America’s security and prosperity through transformative science and technology solutions, and joint appointees serve as a bridge between their university and SRNL researchers to deliver the future workforce for the Department of Energy.

Savannah River National Laboratory is a multi-program federally funded research and development center managed and operated by Battelle Savannah River Alliance for the U.S. Department of Energy’s Office of Environmental Management. EM transforms the nation’s environmental liabilities into opportunities for innovation, job creation, and economic growth, while ensuring safe, secure and prosperous communities across America. For more information, visit energy.gov/em. 

Aug. 03, 2026
 A robotic arm moves amongst AMPF facilities

The cloud laboratory will enable researchers nationwide to conduct AI-driven experiments using the Advanced Manufacturing Pilot Facility's materials and manufacturing equipment. (Credit: Georgia AIM)

Advancements in technology are key to a nation’s ability to innovate and compete. Next-generation infrastructure, manufacturing, energy systems, electronics, and even medicine require new materials with capabilities that existing materials can’t provide.

But discovering and vetting those materials can be slow, expensive, and hands-on, requiring researchers to prepare samples, run experiments on specialized equipment, and repeat the cycle through trial and error.

Now, Georgia Tech aims to deliver a paradigm shift in materials and manufacturing research with a new Programmable Cloud Laboratory that will leverage artificial intelligence (AI), simulation, and autonomous experimentation to accelerate that process dramatically.

Built upon Georgia Tech’s Advanced Manufacturing Pilot Facility (AMPF), a core facility of the Georgia Tech Manufacturing Institute (GTMI), the cloud lab will allow researchers across the country to direct work remotely, refine experiments based on results and AI recommendations, and tap into advanced manufacturing capabilities without spending weeks on-site. In effect, the cloud lab will bring the facility to the researcher.

“By making advanced manufacturing and AI-driven experimentation accessible from anywhere, we are accelerating the discovery of critical new materials and shaping the future of U.S. innovation,” said Tim Lieuwen, executive vice president for Research. “Georgia Tech is proud to provide the world-class infrastructure to help meet this national need and strengthen our research partnerships.”

The cloud lab is supported by $18.1 million from the National Science Foundation (NSF) and is part of a broader effort to build a national network of 20 AI-enabled cloud laboratories. The labs are designed to work together, eventually allowing researchers to combine capabilities and workflows across the network. The new research ecosystem will connect advanced scientific infrastructure with expertise across the country.

“Researchers can ask a question, have work recommended by AI agents, have experiments carried out at the facility using robotics, and get the results back,” said Aaron Stebner, GTMI associate director, Eugene C. Gwaltney Jr. Chair, James R. and Sarah R. Borders Faculty Fellow, and professor in the School of Materials Science and Engineering and the George W. Woodruff School of Mechanical Engineering (ME). “They can use AMPF resources to advance their own research without having to be experts in each piece of equipment or send students to AMPF for weeks at a time.”

By lowering costs and barriers to conducting that research, Stebner said, the cloud lab will dramatically expand who can take advantage of AMPF’s capabilities.

A Self-Driving Research Lab

AMPF is a mixed-use facility where both industry and academic partners can discover new materials and do manufacturing research. Today, the facility is approaching autonomous workflow capabilities across about 38 pieces of equipment. Through the cloud lab, the team aims to expand automated and autonomous workflows to more than 100 of AMPF’s 160 pieces of equipment.

The cloud lab will also bring together stages of materials development that have traditionally happened separately, allowing researchers to explore materials discovery, manufacturing, testing, and scale-up within the same research environment.

Pascal Van Hentenryck, director of the NSF AI Institute for Advances in Optimization and A. Russell Chandler III Chair in the H. Milton Stewart School of Industrial and Systems Engineering, said the automation extends beyond individual pieces of equipment. Robots can operate machines and move materials from one station to another, physically carrying out workflows requested by researchers from afar. AI will help determine which machines and robots are needed for each task and manage their movements across the facility.

Van Hentenryck compared the process to following a recipe.

“When you cook, you have a recipe, and the recipe tells you what you have to do,” Van Hentenryck said. “You don’t need to understand exactly how the stove is working. You just need to know what you need to accomplish with it.”

AI agents will take those high-level “recipes” from researchers, translate them into detailed workflows, and coordinate experiments, simulations, and data flows across the facility.

The system will rely in part on digital twins — virtual models of the facility that can help plan, monitor, and improve experiments before and during execution. Van Hentenryck said the system is also designed to learn from each run, improving how machines are tuned and how future workflows are scheduled.

The project will integrate Duke University’s Automatic FLOW for Materials Discovery software platform, led by professor Stefano Curtarolo, to connect computational discovery with physical experimentation and help researchers more rapidly identify and evaluate promising new materials. Contextualize, led by founder and CEO Branden Kappes, will provide the data platform that seamlessly connects researchers, instruments, data, and IT systems across the distributed network. Tech AI will also contribute to the project as part of the broader research team.

The cloud lab will help bridge a longstanding gap between research and industrial adoption. Companies can be reluctant to interrupt working production lines to test unproven technologies, while startups and academic researchers often lack access to industrial-scale facilities where they can demonstrate that their ideas work. AMPF provides an environment where emerging technologies can be tested and de-risked without disrupting commercial production.

“The cloud lab will give industry partners and manufacturers the ability to evaluate new ideas before they commit to large-scale deployment,” said Tom Kurfess, executive director of GTMI and Agustin A. Ramirez/HUSCO International Distinguished Chair in Fluid Power Systems in ME. “This initiative will shorten development cycles and make it easier to bring promising technologies into production, enabling our partners and us to innovate at the speed of thought.”

Expanding Access to Advanced Research

The project aims to serve more than 400 users from 150 academic, industry, and government institutions, with more than half participating remotely.

“Making these autonomous labs available to a very wide community is key to innovation,” Van Hentenryck said. “You just give a lot of people the opportunity to try things out.”

The cloud lab builds on a larger effort Georgia Tech has pursued through AMPF for years: integrating AI, automation, and advanced manufacturing to create a flexible research environment that can evolve with technology, expand access, and strengthen U.S. leadership in materials and manufacturing.

For Stebner, the cloud lab represents a critical next step in bringing that vision to life.

“We are six years into this effort, and we’re already at a place I thought would take us 20 years to reach,” Stebner said. “This cloud lab is going to take us to a level of technology, research, leadership, and access that I didn’t know if we would reach by the end of my career.”

News Contact

Catherine Barzler, Senior Research Writer/Editor

catherine.barzler@gatech.edu

Jul. 10, 2026
After a rush to attract data centers with incentives, more communities are pushing back against their development. AP Photo/Ted Shaffrey

After a rush to attract data centers with incentives, more communities are pushing back against their development. AP Photo/Ted Shaffrey

The fierce backlash against data centers shows no sign of easing up.

Since early 2024, more than 1,200 public actions – including zoning fights, public campaigns and temporary moratoriums – have been logged by the Data Center Tracker, a public U.S. database of community responses to data center site selection. Among the concerns, grid capacity, water use and transparency around siting appear most often.

This momentum is leading to political action. In Maine, lawmakers passed a contested bill in spring 2026 that would have imposed the nation’s first statewide moratorium on new data centers. Gov. Janet Mills ultimately vetoed the measure on grounds that it would scuttle a US$550 million conversion of the closed Androscoggin Mill in the town of Jay into a data center.

But in a nod to the political climate, Mills said she supported in principle a pause in development and signed separate legislation barring state tax incentives going to data centers. She also pledged to create a council to study the industry statewide.

Maine’s dispute shows how statewide decisions on whether to promote or curb data centers can come down to one local case. It was no isolated example: Up to 10 other states are considering similar measures to contain their expansion.

But lawmakers across the country still lack clear evidence on whether new data centers can boost the economies of the communities hosting them.

As scholars of how technological change and innovation shape business strategy, we set out to produce rigorous research so that policymakers can make better decisions for their communities despite the emotions on both sides.

What we found was that data center development can boost growth and jobs – but these benefits are most pronounced when the local economy is more urban and developed. In fact, it turns out that the local economy around a data center matters more than the facility itself.

Testing the Data Center Promise

For years, state and local governments have courted data center projects with property tax abatements, sales tax exemptions and other incentives. Some jurisdictions still compete aggressively, but more and more are turning the other way, blocking tens of billions of dollars in proposed investments.

To understand the full economic impact, we combined records of when the centers began operating with data on local economic activity. We then compared how those economic outcomes changed before and after a county’s first data center opened relative to similar counties without data centers.

Overall, we found that data centers do boost growth. In the first three years after one opened, local employment rose on average by about 0.9%, wages by 1.1%, and the number of business establishments by 1%. Longer term, those effects grew to roughly 3.5%, 5% and 4.7%, respectively. Household income and building permits, meanwhile, increased by 1.9% and 16.1%, respectively. All of these gains accumulate gradually, rather than at once.

But the average effects mask an important pattern. Data centers are more likely to juice the economy when there’s a cluster of labor and capital already nearby, such as construction contractors, equipment suppliers, professional services and a skilled workforce.

In metropolitan counties, where that cluster of labor and capital is thicker, employment jumped by about 4.1%, while wages increased by 5.5%. In less populous counties, by contrast, job and wage spillovers were negligible. This suggests that the host community’s level of economic development matters more than the size of the project.

That said, other factors also affected local economic effects from one area to the next. Facilities operated by major tech companies, for example, raised local wages more than smaller companies. In addition, counties that attracted multiple data centers within five years of the first showed larger cumulative gains than counties with a single, isolated facility.

Anti-data center protestors, holding signs, are escorted out of a Georgia Public Service Commission meeting in Atlanta.

Data center critics point to soaring utility bills as one of the chief negative effects, given the centers’ huge appetite for power. AP Photo/Jeff Amy

What About Electric Bills?

Electricity in the United States is delivered through complex regional grids and regulated utilities. In turn, retail prices depend on state and local rules and how costs are allocated among households, businesses and large industrial users.

This complicated patchwork goes to the heart of one of the biggest criticisms of data centers: Because they’re extraordinarily power-intensive, opponents say, they hike electric bills for consumers. So we looked at counties where a utility’s service area was localized enough to isolate the effects. We found that retail electricity prices rose by about 5% after a data center becomes operational.

Our estimate of 5% is not universal, however. Utility territories most often span multiple counties, while rate-setting rules differ by state and utility. And prices are affected by other factors, such as weather, transmission systems and regulations. That made the electricity effect harder for us to pin down than the other economic outcomes we studied.

But if our estimates stand, our figure is substantially lower than some more sensational reports, which may not be correct in attributing bigger hikes in electric bills to data centers.

Why Tensions are Running High

Pushback against data centers has picked up since 2024, as proposed projects have grown larger and more visible. Communities often make decisions amid uncertainty, with little local evidence to draw on.

Our findings help clarify part of that uncertainty: Economic spillovers are strong in metropolitan counties, while many rural counties see minimal gains in job growth.

We also find that opposition to data centers is more common where data centers already operate. That pattern suggests local experience may matter, although it doesn’t explain how much opposition reflects direct local experience versus broader anxiety about the impact of artificial intelligence more generally.

Beyond the Construction Incentives

As more data center siting decisions come up, lawmakers will need to judge whether a county’s economy will benefit and whether the project’s terms will help all residents even when they don’t share those gains. This means that the details of local subsidy design matter, including tax incentives, electricity tariff arrangements, grid and water upgrades, and whether any new resulting tax revenue will boost public services.

Together, those factors can matter more than the headline investment figure touted in a company press release. While our findings are a starting point to help navigate this emotional debate, more work is needed on how these other decisions shape community outcomes.The Conversation

 

This article is republished from The Conversation under a Creative Commons license. Read the original article.

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Authors:

Daniel Yue, assistant professor of business, Georgia Institute of Technology 
Yiyang Zeng, postdoctoral fellow of business, Georgia Institute of Technology

Media Contact:

Shelley Wunder-Smith
shelley.wunder-smith@research.gatech.edu

Jul. 29, 2026
An artist's concept showing a black hole. (Credit: NASA/JPL)

An artist's concept showing a black hole. (Credit: NASA/JPL)

The LIGO–Virgo–KAGRA (LVK) detector network comprises three centers across the globe. The United States hosts twin Laser Interferometer Gravitational-Wave Observatory (LIGO) detectors, one located at Hanford Observatory in Washington State and a second at Livingston Observatory in Louisiana. The Virgo detector is hosted by the European Gravitational Observatory in Italy, and the Kamioka Gravitational Wave (KAGRA) detector is hosted in Japan by the Institute for Cosmic Ray Research (ICRR) of the University of Tokyo.

Researchers at Georgia Tech play a key role in the international collaboration. The Georgia Tech-LIGO research group includes School of Physics Professor Laura Cadonati, Assistant Professor Surabhi Sachdev, Research Scientist Margaret Millhouse, Postdoctoral Scholar Prathamesh Joshi, eight graduate students, and multiple undergraduates.

The LVK network detects gravitational waves when a massive cosmic event — like the collision of two black holes — creates invisible ripples in the fabric of space-time. Waves ripple out at the speed of light, and millions of years after the events that first created them, they reach the LVK detectors. 

But detecting gravitational waves does not simply mean capturing a signal — clues first need to be untangled from background noise.

“Identifying gravitational-wave signals requires carefully separating real astrophysical events from random fluctuations in the data,” says School of Physics graduate student Urja Shah, whose work to quickly identify phenomena supports rapid follow-up by the broader astronomical community.

To support the identification of phenomena, School of Physics graduate student Megan Arogeti conducts consistency tests between waveforms, checking results to find unexpected or unusual features. “Tests like this give us confidence in our models as we continue to observe gravitational waves with increasing sensitivity,” she explains. “They support new observations and help identify exciting new physics.”

“These efforts help ensure that gravitational-wave signals are robustly identified and accurately characterized, turning each detection into a precise measurement,” adds Shah. “In turn, these measurements deepen our understanding of some of the most massive and dense objects in the universe and the fundamental laws governing the cosmos.”

Astrocalibration Autotune

When a sensor detects a gravitational wave, it produces a distinctive response, says School of Physics graduate student Shobhit Ranjan. “Those signals encode a wealth of information we can analyze to learn about their sources — their masses, spins, distance, and location.” But in order to detect these chirps, the detectors must be carefully calibrated, and if calibration is not optimal, the signals can be compromised.

Now, a new tool is helping the LVK collaboration recalibrate less optimal signals. The technique is already showing promise: In an article recently accepted in Physical Review Letters, LVK researchers successfully applied it to two interesting signals. The first signal served as a testing opportunity for the method. The team used astrocalibration to recover the data and check it against secondary independent calibration data that was available. They then put the technique to use, recovering information from a second event where no secondary calibration data were available. 

“Like autotune in the music industry, the new research shows that theoretical models can be used as guides, similar to how sheet music can help a studio shift off-key music to its correct tone,” Ranjan explains. “These theoretical models suggest the shape of the signal, and together with data from other detectors, we can adjust the data and read it correctly.”

“The fact that these detectors can now not only sense cosmic events, but leverage them to improve the data being collected marks a new era in gravitational wave science,” he adds.

A Record-Setting Dataset

The LVK Collaboration also published their fifth catalog of gravitational wave events this spring. The findings include an updated estimate of how fast the universe is expanding, evidence for the existence of second-generation black holes, the most precise sky localization ever achieved for a gravitational wave source, and the first measurement of three vibrational modes of a black hole.

“Our group helped enable 140 detections out of the 161 reported in this catalog,” says Joshi, who contributed to one of the flagship searches and designed a specialized search focused on detecting especially heavy black hole mergers.

Joshi also worked on determining precise locations of where the gravitational waves originated from in the universe — research that he says will allow astronomers around the world to perform long-term follow-up observations of interesting events.

One record-setting detection showed two black holes that had violently collided more than 3 billion light-years from Earth. Researchers were able to pinpoint its location in the sky more precisely than any other gravitational wave event observed before.

Improvements in the LVK network’s ability to localize events along with the large number of detections allowed for a better estimate of the Hubble constant, which measures the rate at which the universe is expanding. The new measurement is over 25% more precise than previous estimates.

The new catalog also includes the “clearest” gravitational wave signal ever detected. The clarity of the signal led to the most accurate test of general relativity ever performed and confirmation of Stephen Hawking’s black hole area theorem.

“This catalog provides not just the largest number of black hole detections, it marks a new era of rapid progress,” Sachdev says. “This is just the beginning of what these observations will allow us to uncover.”

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Selena Langner 
Technical Research Writer / Editor 
Georgia Tech College of Sciences

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