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Agilent and University of Chicago Launch Center of Excellence for Energy Materials Research

Agilent Technologies (NYSE: A) and the University of Chicago announced a collaboration to establish a Center of Excellence for Energy Materials Research.

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Agilent CoE supports research on next-generation energy storage materials

SANTA CLARA, Calif. & CHICAGO--(BUSINESS WIRE)-- Agilent Technologies Inc. (NYSE: A), a global leader in analytical and clinical laboratory technologies, and the University of Chicago, one of the world’s leading research universities, today announced a scientific collaboration to establish the Agilent Center of Excellence (CoE) for Energy Materials Research.

The Agilent CoE will be based at the University of Chicago Pritzker School of Molecular Engineering (UChicago PME) and will support the Energy Technologies Initiative (ETI), a partnership between UChicago PME and the University of Chicago’s Institute for Climate and Sustainable Growth focused on driving innovation in energy storage technologies through academic and industry collaboration.

“Advancing energy storage research requires both scientific expertise and the analytical capabilities to understand how complex materials behave and change over time,” said Mike Zhang, senior vice president and president of Agilent’s Applied Markets Group. “By combining the University of Chicago’s interdisciplinary research strengths with Agilent’s advanced instrumentation and applications expertise, this Center will give researchers greater capabilities to investigate these materials, tackle some of the toughest challenges in battery and materials science, and accelerate progress toward new solutions.”

The CoE will use Agilent instrumentation, including mass spectrometry and atomic spectroscopy, to help researchers investigate the materials and systems behind next-generation batteries, including batteries for electric vehicles and connected devices as well as grid-scale energy storage.

“The most important questions in energy storage require expertise and tools from across disciplines. This partnership will expand the analytical capabilities available to battery researchers across the University and create new opportunities for faculty, students and trainees to work together. I’m excited that Agilent is helping strengthen the research environment needed to pursue this work across the University of Chicago and beyond,” said Stuart Rowan, interim dean of UChicago PME and faculty director for ETI.

The CoE will support the work of the Energy Technologies Initiative by bringing together researchers from across the University of Chicago and other academic and industry partners. By combining this interdisciplinary expertise with Agilent instrumentation, the CoE will support the development of analytical methods and workflows for research on energy storage materials and systems.

Advances in energy storage will be important to applications ranging from electric transportation and connected devices to grid-scale energy systems. By expanding access to advanced analytical instrumentation and supporting application development, the CoE will help researchers investigate the materials and systems underlying these technologies.

“Advancing battery research takes more than developing a promising material; we need to understand how materials perform, interact and change throughout a battery’s life,” said Y. Shirley Meng, Liew Family Professor at UChicago PME and co-director of the Energy Transition Network. Meng’s research combines first-principles, computation-guided materials discovery with advanced characterization using electron, neutron and photon sources. “The Center will give researchers across the University access to some of the most advanced analysis tools for deciphering the degradations in energy storage and conversion materials and devices.”

Battery development increasingly depends on precise answers about composition, impurities, interfaces and degradation pathways, all of which can influence battery performance, lifetime, and safety. The CoE will bring advanced analytical capabilities into the research environment where those questions are being investigated.

“The batteries we rely on today depend heavily on materials that can be costly, based on critical minerals, and challenging to recycle,” said Shrayesh Patel, associate professor at UChicago PME, a deputy director of ETI and director of the Center for Organic Battery Innovation (COBI). “At COBI, we're exploring whether organic materials can offer a different path—one that could make energy storage safer, more affordable, and more sustainable by leveraging earth-abundant elements. Expanding the range of materials we can use in batteries is an important part of building a more sustainable energy future.”

About Agilent Technologies

Agilent Technologies Inc. (NYSE: A) is a global leader in analytical and clinical laboratory technologies, delivering insights and innovation that help our customers bring great science to life. Agilent’s full range of solutions includes instruments, software, services, and expertise that provide trusted answers to our customers' most challenging questions. The company generated revenue of $6.95 billion in fiscal year 2025 and employs approximately 18,000 people worldwide. Information about Agilent is available at www.agilent.com. To receive the latest Agilent news, subscribe to the Agilent Newsroom. Follow Agilent on LinkedIn and Facebook.

About the UChicago Pritzker School of Molecular Engineering

The University of Chicago Pritzker School of Molecular Engineering (UChicago PME) integrates science and engineering to address global challenges through interdisciplinary research and education. Its work spans quantum science and engineering, immunoengineering and bioengineering, and materials for sustainability, including advances in energy storage and clean water technologies. Through partnerships with Argonne National Laboratory, industry, and collaborators across the University and beyond, UChicago PME translates fundamental discoveries into practical solutions and prepares students to lead in research, industry, and entrepreneurship. Learn more at pme.uchicago.edu.

About the Energy Technologies Initiative

The Energy Technologies Initiative advances energy storage technologies through a combination of basic research and industry partnerships. It is one of the central initiatives of the University of Chicago’s Institute for Climate and Sustainable Growth and is anchored at the University of Chicago Pritzker School of Molecular Engineering. Learn more at energytech.pme.uchicago.edu.

MEDIA CONTACTS:
Christian Colón
Agilent Technologies Inc.
+1 302 867 4117
christian.colon@agilent.com

Melissa Abraham
UChicago Pritzker School of Molecular Engineering
melissaabraham@uchicago.edu

Source: Agilent Technologies Inc.

Key Terms

mass spectrometry technical
Mass spectrometry is a laboratory technique that identifies and measures chemicals by giving molecules an electrical charge and sorting them by how fast they move, like weighing and separating coins to see which kinds are present. For investors, its results are evidence used in drug development, quality control, food and environmental testing, and diagnostics, so clear mass-spec data can affect regulatory approval, product reliability, costs and market confidence.
atomic spectroscopy technical
A set of laboratory methods that identify and measure chemical elements in a sample by detecting light or ions produced when atoms absorb, emit, or are ionized. Common approaches include atomic absorption (measuring light absorbed by atoms), atomic emission (measuring light emitted when atoms are excited) and inductively coupled plasma mass spectrometry (ionizing atoms and measuring their mass-to-charge ratio); results report which elements are present and their concentrations, typically after sample preparation and calibration. Atomic spectroscopy determines elemental composition rather than molecular structure and requires controls for interferences and detection limits specific to the technique used.

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