Scientists and engineers around the world have worked for decades developing technologies to safely and permanently dispose of nuclear waste. Though these wastes originate from a multitude of processes, they all are highly toxic and extremely harmful to life in any form.
In 1982, borosilicate glass was deemed the preferred waste form for the disposal of high-level nuclear waste.1 Since then, researchers confirmed glass is an effective waste form for low-activity waste as well.2
In the years leading up to and following that 1982 decision, an enormous amount of data has been generated by U.S. national labs, universities, and international institutions relating to the properties of nuclear waste glasses. Until recently, most of this data could only be accessed from isolated reports or institutional databases maintained by scientists who performed the original experiments.
In 2019, researchers from Savannah River and Pacific Northwest National Laboratories joined forces to create the first online, open-access repository of nuclear waste glass data. This effort, which now also includes experts from Clemson and Alfred Universities, is sponsored by the U.S. Department of Energy’s Office of Environmental Management.

Credit: Images provided by Savannah River and Pacific Northwest National Laboratories and Clemson and Alfred Universities. Compiled by Cyndy Griffith, ACerS.
The primary goal of the database development team is to consolidate the data from these decades of research into a single source that can be used by glass scientists from around the world to study vitrified radioactive waste forms. They have worked to incorporate data from multiple institutions; identify the Nuclear Quality Assurance level for each study; develop a forward-facing “landing page” for the front end of the database; and implement filtering methods to target specific glass properties such as composition, viscosity, and durability.
In 2024, the development team began work to bootstrap the former “SciGlass” database,3 which contains information on more than 400,000 glasses, to the website. Along with this bootstrapping, which allowed for greater compositional breadth, the developers incorporated machine learning-based predictive models to enhance the database’s utility.
The result is the new Virtual Center for Nuclear Waste Glass Science, which currently includes data for more than 6,000 glass compositions with various properties related to processability and product quality. In contrast to other glass databases, the Virtual Center uses statistical mechanics-based estimates to approximate various properties, adding physically meaningful results to the software implementation. These estimates are made possible through using the new Stat Mech Glass Python module.4
The Virtual Center for Nuclear Waste Glass Science is undergoing its final rounds of beta testing before being officially launched to the general public. The website can be found at https://srnl.mcdc.cecas.clemson.edu/database.
Industry Perspectives is a regular column discussing trends in ceramics and glass markets.
Cite this article
C. L. Trivelpiece, X. Lu, D. Aidhy, and C. Wilkinson, “Expanded access: DOE’s nuclear waste glass database,” Am. Ceram. Soc. Bull. 2025, 104(4): 7.
About the Author(s)
Cory L. Trivelpiece is principal engineer in the Glass, Cement, and Ceramic Science Group at Savannah River National Laboratory. Xiaonan Lu is a materials scientist at Pacific Northwest National Laboratory. Dilpuneet Aidhy is associate professor of materials science and engineering at Clemson University. Collin Wilkinson is assistant professor of glass science and engineering at Alfred University. All are co-principal investigators on the Virtual Center for Nuclear Waste Glass Science. Contact Trivelpiece at Cory.Trivelpiece@srnl.doe.gov.
Issue
Category
- Energy materials and systems
- Glass and optical materials
Article References
1“EA-0179: Waste form selection for SRP high-level waste,” Washington, D.C. (1982).
2J. Marcial et al., “Hanford low-activity waste vitrification: A review,” Journal of Hazardous Materials 2024, 461: 132437.
3SciGlass Next, https://sciglass.uni-jena.de
4C. J. Wilkinson et al., “Statistical mechanical modeling of glass-forming systems: A practical review considering an example calcium silicate system,” Current Opinion in Solid State and Materials Science 2022, 26(5): 101018.
Related Articles
Market Insights
Enabling next-generation energy storage: Furnace technologies to produce silicon anode materials
With the growing demands for electric vehicles, developing next-generation batteries that allow for higher power density, faster charge times, and a smaller carbon footprint is becoming more imperative. Enter silicon anode materials, which may replace traditional graphite anodes due to their higher specific capacity. Once silicon anode development reaches market…
Market Insights
Lithium mining: Global markets
The global lithium mining market was valued at $5.2 billion in 2022 and is expected to grow at a compound annual growth rate (CAGR) of 10.0% to reach $9.1 billion by 2028. This market grew significantly in the last decade due largely to demand for lithium-ion batteries in electronic vehicles,…
Market Insights
Industrial IoT: Global markets
The global market for industrial internet of things (IoT) technologies and devices was valued at $124.7 billion in 2022 and is expected to grow at a compound annual growth rate (CAGR) of 21.6% to reach $391.8 billion by 2028. This Bulletin content is for ACerS members and registered users only.…