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Composite image featuring a section of the periodic table centered within an overlay of a Hubble Space Telescope image of an expanding halo of light and interstellar dust surrounding a red supergiant star in the constellation Monoceros in the Milky Way galaxy.
The universe was born with just hydrogen, helium and traces of lithium. Through nuclear astrophysics, which focuses on nuclear reactions occurring inside of stars, Texas A&M researchers hope to determine how the remaining elements were created while also forging the cross-disciplinary connections crucial to developing a robust understanding of the universe’s chemical evolution. | Image: NASA, the Hubble Heritage Team (AURA/STScI) and ESA

For centuries, scientists have looked to the stars for answers in their cosmic quest to better understand the universe and our place within it. Aided by a recent gift from the WoodNext Foundation, researchers in Texas A&M University’s world-class Cyclotron Institute are studying the stars — specifically, the nuclear reactions that fuel them — to gain insight into the fundamental building blocks of matter and determine novel methods of manipulating them to help advance the frontiers of human knowledge. 

Texas A&M Distinguished Professor and Regents Professor of Chemistry Dr. Sherry J. Yennello notes that nuclear synthesis has been the driving force behind the evolution of the universe from the first few microseconds after the Big Bang. In hopes of better understanding this evolution, she says scientists study information about a wide range of nuclear reactions. These reactions include those that occur within stars and create the elements of the periodic table through a branch of nuclear physics known as nuclear astrophysics.

All of the carbon in our bodies, the oxygen we breathe, the calcium in our bones and the iron in our blood were made in stars. To understand stars is to understand our own creation.

Dr. Philip Adsley

“Nuclear astrophysics is a cross-cutting field that requires coordinated efforts and data sharing among experts in nuclear experimentation and theory, astrophysical simulation and astronomical observation,” said Yennello, an internationally renowned nuclear chemist who holds the Bright Chair in Nuclear Science within the College of Arts and Sciences and has served since 2014 as director of the Cyclotron Institute. “The Cyclotron Institute Research Cluster on Nuclear Astrophysics (CIRCoNA) aims to unite these multidisciplinary fields as a hub for the international astrophysics community and a place for exchanging ideas at the forefront of nuclear astrophysics.” 

CIRCoNA is supported by Susan D. ’89 and Anthony J. Wood ’87 through the WoodNext TAMU Fund, a component fund of the Greater Houston Community Foundation

Target: Nuclear Origins 

For nearly six decades, the Cyclotron Institute has served as the core of Texas A&M’s nuclear science program and as a major technical and educational resource for the state, nation and world. Texas A&M is home to two cyclotrons used to study nuclear reactions: a K150 cyclotron as well as a K500 superconducting cyclotron that ranks among the five largest in the world. Both powerful particle accelerators are capable of speeding up elemental particles and fusing atomic nuclei in high-energy particle beam experiments that enable scientists to study the particles and the forces that shape them. These experiments can dissect and explore time and matter at multiple scales, providing insight into how the world behaves at both macro and micro levels.

Close-up image of the interior of the K500 superconducting cyclotron within the Cyclotron Institute at Texas A&M University.
A rare look inside the Cyclotron Institute’s K500 superconducting cyclotron that, in combination with the original K150 cyclotron, delivers 10,000 hours of beam annually in support of discovery science, radiation effects testing and isotope production. | Image: Chris Jarvis, Arts & Sciences Marketing & Communications

An equally strong program in theoretical nuclear physics complements this experimental excellence, pairing extensive knowledge of nuclear properties with a variety of tools, including stable and radioactive beams as well as direct and indirect measurements. The powerful combination enables Texas A&M researchers to define, analyze and constrain the vast amounts of energy produced in nuclear reactions, extend the impact of measurements into exotic nuclei that may not yet be accessible in the laboratory, and eliminate or dramatically reduce nuclear physics-related uncertainties in astrophysics. 

Backed by the Cyclotron Institute’s multi-decade track record of international excellence in discovery science, CIRCoNA researchers are exploring the nuclear origins of the universe through collaborative experiments, astrophysical modeling and nuclear reaction simulations. In the process of creating a positive feedback loop among nuclear scientists, observational astronomers and data scientists using state-of-the-art astrophysical models and experimental efforts, Yennello says CIRCoNA hopes to develop a robust understanding of the chemical evolution of the universe. 

“Nuclear structure and reactions lie at the heart of stellar evolution and the cosmic origin of the elements,” added Texas A&M physicist and Cyclotron Institute member Dr. Philip Adsley. “Modeling these processes will help us better understand the origin of the elements. All of the carbon in our bodies, the oxygen we breathe, the calcium in our bones and the iron in our blood were made in stars. To understand stars is to understand our own creation.

Two researchers work on a Penning trap designed to capture and purify short-lived ions for precision decay experiments within the Cyclotron Institute at Texas A&M University.
The Cyclotron Institute serves as the core of Texas A&M’s nuclear science program and provides the primary infrastructure support for its graduate programs in nuclear chemistry and nuclear physics, the latter of which is ranked seventh in the nation by U.S. News & World Report. | Image: Arts & Sciences Marketing & Communications

“At the same time, many of the experimental techniques and technical developments that we make can have real-world impacts for the benefit of wider society. Neutron-capture reactions take place in stars and make new elements, but they also take place in nuclear reactors, resulting in activated waste products, or in people undergoing proton-beam therapy for cancer. Similarly, our developments in targetry for nuclear experiments enable both our experimental studies of nuclear reactions in stars and the production of new medical radioisotopes for cancer treatment.” 

A Global Approach 

In addition to assisting with the development of the CIRCoNA research program and strategy, Adsley is overseeing recruitment efforts for postdoctoral fellows and graduate students in support of both CIRCoNA-specific pursuits and the Cyclotron Institute’s overall three-part mission of discovery science, workforce development and societal application. He and other CIRCoNA members are also working to plan and organize meetings, workshops and short-term research visits to the Cyclotron Institute as part of a broader effort to develop collaborations with existing centers for nuclear astrophysics around the world. 

Closer to home, Adsley says CIRCoNA members will be working with the Texas A&M astronomy group and gaining beneficial access to new astronomical instruments specifically designed for wide-field, multi-object, extremely efficient spectroscopic observations. He explains that such types of information will be key to connecting the laboratory experimental data and theoretical modeling needed to achieve an unprecedented understanding of late-stage stellar evolution.

Portrait of 1987 Texas A&M University graduate Anthony Wood, who stands against a blue-toned backdrop wearing thick-rimmed black glasses, a light blue button-down dress shirt and a navy blue plaid sport coat.
Anthony Wood ’87, CEO/founder of Roku and a distinguished alumnus of Texas A&M. | Image: Korey Howell Photography

“Our nuclear data feed into astrophysical models, but we need to be able to test the results of these models against reality,” Adsley added. “The observational work done by members of the astronomy group in the Department of Physics and Astronomy here at Texas A&M is vital in helping us understand the impact of our data and the path forward for our experimental and theoretical endeavors. There is a virtuous cycle in how our different research groups relate: We are able to understand the implications of our local experimental work, to identify significant remaining uncertainties and to target future high-impact measurements.” 

Texas Ties And Expanding Horizons 

The WoodNext Foundation manages the philanthropy of tech innovator and Roku CEO/founder Anthony Wood ’87, a 2023 distinguished alumnus of Texas A&M, and his wife Susan ’89, a fellow Aggie who majored in environmental design. Their philanthropic efforts are guided by their overall mission to advance human progress and remove obstacles to a fulfilling life by awarding grants and making investments in a variety of areas, including scientific and biomedical research, mental health, homelessness, education, nature conservation, disaster recovery and economic opportunity, with a focus on addressing root causes. 

In recent years, WoodNext has expanded that support to include projects related to space science, from research to programs that train future generations interested in the cosmos. Currently, WoodNext is actively growing its portfolio of astrophysics projects aimed at broadening our understanding of the universe, including research on dark energy and quantum mechanics.

Graphic displaying the words “WoodNext Foundation” and “WoodNext” in white text on a background featuring triangular shapes in varying shades of blue.
Anthony Wood '87 and his wife, Susan '89, take great pride in being Texas Aggies and in giving back to Texas A&M and other philanthropic causes through their WoodNext Foundation, established in 2021. | Image: WoodNext Foundation

“Science is one of our core areas of focus,” said WoodNext Foundation Executive Director Nancy Chan. “Our approach illustrates one of our key principles: using philanthropy to fill existing gaps. Our science grants fund people, projects or organizations that may not otherwise have the government or philanthropic support to achieve their aims.” 

The WoodNext Foundation maintains strong ties to both the state of Texas and Texas A&M. WoodNext’s longstanding legacy of giving to Texas A&M through the Texas A&M Foundation includes support for circadian clocks-based treatments for jet lag as well as functional assessment of dementia risk genes and related pharmacological interventions in the Department of Biology along with additional gifts to the College of Arts and Sciences. Other campus-wide commitments, just to name a few, span funding for multiple President’s Endowed Scholarships and Endowed Opportunity Awards, support for both the Hagler Institute for Advanced Studies and Texas A&M Libraries, and sponsorship of the Wood Stage outdoor pavilion in Aggie Park.

About Research At Texas A&M University

Texas A&M is one of the world’s leading research institutions, dedicated to advancing knowledge and serving the public good. As a land-grant, sea-grant and space-grant university, Texas A&M engages in research that spans multiple disciplines and addresses global challenges. It is the first research institution in Texas to top $1 billion in annual research expenditures (fiscal year 2021) and is ranked 13th among public institutions in the National Science Foundation’s most recent Higher Education Research and Development Survey with annual expenditures of nearly $1.278 billion in fiscal year 2023. To learn more, visit research.tamu.edu.