This dual-purpose approach targets two of the basin’s most pressing challenges—electricity demand and wastewater disposal—through a shared solution. The MSR’s ability to deliver constant thermal energy makes it especially well-suited to thermal desalination, a process that typically struggles with intermittent energy sources.
For NGL, the project builds on its extensive Permian infrastructure and an anticipated state discharge permit that could allow treated water to be released for non-potable uses. For Natura, the partnership provides a commercial-scale application that places advanced nuclear at the intersection of regional water resilience and industrial development.
Unlike traditional light-water reactors, Natura’s molten-salt design uses liquid fuel, operates at atmospheric pressure, and consumes less water, making it more viable for dry, remote industrial sites. The smaller footprint and modular construction are designed to reduce permitting friction and capital outlays—both major considerations in the energy and water sectors.
The business case centers on cost-effective baseload energy that competes with natural gas, while offering the added value of co-located desalination. The project also aligns with a broader shift in energy infrastructure planning: instead of treating produced water as waste, it becomes a resource that supports other sectors.
Looking ahead, NGL is exploring the recovery of critical minerals from treated produced water, a potentially valuable extension of the project. With a consistent treatment platform, those efforts may become economically viable.
Natura’s timeline adds momentum. Its 1-megawatt demonstration reactor, permitted in 2024, is slated for deployment at Abilene Christian University this year. The first commercial-scale MSR-100 is targeting 2029, positioning the NGL partnership to be among the first industrial-scale applications of advanced nuclear in the U.S.
Whether or not this model scales beyond the Permian will depend on financing, regulatory outcomes, and first-of-a-kind project performance. But the rationale is clear: energy, water, and industry are increasingly interdependent—and future infrastructure may have to reflect that.