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Pacific Fusion pulsed-power facility to host external users
Concept art of Pacific Fusion’s demonstration system. (Image: Pacific Fusion)
Pacific Fusion is preparing to start construction on a pulsed-power inertial fusion facility in New Mexico, and today the company announced it is seeking expressions of interest from researchers in industry, academia, and government who may want to run experiments at the facility.
Warda Ashraf, Mumtaz Khan, Sabriye Yusan, Muhammad Qasim, Niu Jie
Nuclear Technology | Volume 212 | Number 2 | February 2026 | Pages 383-394
Regular Review Article | doi.org/10.1080/00295450.2025.2464426
Articles are hosted by Taylor and Francis Online.
Significant environmental and safety risks are associated with the handling and disposal of radioactive waste, particularly when it comes to immobilizing difficult-to-measure (DTM) radionuclides. The unique chemical and physical properties of geopolymers, inorganic polymers made from aluminosilicate minerals, have made them appear as viable options. This review explores the ability of geopolymers to immobilize DTM radionuclides, looking at their synthesis, characteristics, immobilization processes, difficulties, and potential applications in this field.
High compressive strength, thermal resilience, and chemical resistance are attributes of geopolymers that make them ideal for DTM radionuclides. They are made from materials such as aluminosilicate fly ash. These characteristics make them appropriate for the containment of radionuclides, including 129I, 99Tc, and actinides. Through chemical bonding and physical encapsulation, geopolymers encapsulate radionuclides, reducing leaching and guaranteeing environmental safety.