the view from heti

New initiative to drive efforts to deploy first advanced small modular nuclear reactor

The International Energy Agency has determined that nuclear energy production would need to increase 80 percent globally by 2040 to stay on track with sustainability targets, including international climate goals. Photo via houston.org

A new initiative from X-energy, bolstered by Dow, is powering low-carbon emissions energy. X-energy, LLC is a nuclear reactor and fuel design engineering company. The company was selected by the U.S. Department of Energy in 2020 to receive up to $1.2 billion under the Advanced Reactor Demonstration Program Cooperative Agreement in federal cost-shared funding to develop, license, build, and demonstrate an operational advanced reactor and fuel fabrication facility within a 10-year span.

In 2022, X-energy announced a $50 million joint development agreement with multinational chemical giant Dow to demonstrate the first-grid advanced nuclear reactor at an industrial site. As part of the agreement, Dow is now a sub-awardee under X-energy’s ARDP with the DOE. At the time of the announcement, Dow also brought to light its intention to take a minority equity stake in X-energy.

Last month, the University of Texas at Austin Cockrell School of Engineering hosted a panel discussion with Governor Abbott, he noted “Texas is the energy capital of the world” Abbott said, “When you look at the fact that Texas is the fastest-growing state with regard to population and businesses, you know that our demand for power is only going to increase.” Abbott also said, “We’re going to be studying and evaluating the reliability, the safety of nuclear power. If it passes all the tests, we will be looking to dramatically expand nuclear power in the state of Texas for the primary purpose of providing reliable, dispatchable power to our grid.”

The International Energy Agency has determined that nuclear energy production would need to increase 80 percent globally by 2040 to stay on track with sustainability targets, including international climate goals.

Dow and X-energy are slated to install an Xe-100 high-temperature, gas-cooled reactor plant at one of Dow’s sites in Seadrift, between Corpus Christi and Houston, which produces more than 4 million pounds each year of materials used in packaging, footwear, wire and cable insulation and solar cell membranes. It also is expected to reduce the plant’s emissions by 440,000 metric tons of carbon dioxide equivalent annually, as steps by Michigan-based Dow toward achieving goals of carbon neutrality by 2050 and reducing carbon emissions by 30 percent by 2030.

Jim Fitterling, Dow chairman and CEO, noted in a press release issued in early March, “The utilization of X-energy’s fourth generation nuclear technology will enable Dow to take a major step in reducing our carbon emissions while delivering lower carbon footprint products to our customers and society,” he said. “The collaboration with X-energy and the DOE will serve as a leading example of how the industrial sector can safely, effectively and affordably decarbonize.”

X-energy will install four of its Xe-100 reactors at the coastal site with each unit designed to produce 80 megawatts of energy fueled by the company’s baseball-sized uranium fuel kernels, encased in layers of pyrolytic carbon, silicon carbide and porous carbon. The reactors will partly be constructed by Fort Worth-based Paragon Energy Solutions, LLC, a supply chain management company that focuses its efforts on tackling the nuclear industry’s most difficult challenges. The Xe-100 modular reactor is one of two designs selected by the DOE to receive $80 million each of initial cost-shared funding to build an advanced reactor demonstration plant that can be operational within seven years.

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This article originally ran on the Greater Houston Partnership's Houston Energy Transition Initiative blog. HETI exists to support Houston's future as an energy leader. For more information about the Houston Energy Transition Initiative, EnergyCapitalHTX's presenting sponsor, visit htxenergytransition.org.

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A View From HETI

Simon M. King, a Rice University sophomore, served as the first author on a recent study of a new process for recycling lithium-ion batteries. Photo courtesy Rice

Rice University researchers have uncovered a more energy-efficient and faster way to recycle critical minerals from used lithium-ion batteries.

Traditional methods rely on high heat, long processing times and harsh chemicals to recover a small fraction of critical materials from batteries used in everything from smartphones to electric vehicles. However, the team from Rice's Department of Materials Science and Nanoengineering developed a process that uses a water-based solution containing amino chlorides to extract more metals in less time

The team published the findings in a recent edition of the scientific journal Small.

Simon King, a sophomore studying chemical and biomolecular engineering who completed this work as a summer research fellow at the Rice Advanced Materials Institute, served as first author of the study. He worked with corresponding authors Pulickel Ajayan, the Benjamin M. and Mary Greenwood Anderson Professor of Engineering, and Sohini Bhattacharyya, a research scientist in Ajayan’s lab.

By using a hydroxylammonium chloride (HACI) solution, the team achieved roughly 65 percent extraction of key battery metals in just one minute at room temperature, according to the study. The efficiencies grew to roughly 75 percent for several metals under longer processing times.

“We were surprised by just how fast the reaction occurs, especially without the involvement of high temperatures,” King said in a news release. “Within the first minute, we’re already seeing the majority of the metal extraction take place.”

By not requiring high temperatures or long reaction times, Rice predicts the process could have a major impact on cost and the environmental impact of lithium battery recycling. Additionally, the water-based HACI solution makes waste handling easier and lowers certain environmental risks.

In addition to extracting the materials, the team went on to demonstrate that the recovered metals could be recycled and reprocessed into new battery materials.

“A big advantage of this system is that it works under relatively mild conditions,” Ajayan added in the release. “That opens the door to more sustainable and scalable recycling technologies.”

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