National water infrastructure is inherently power-intensive. Treatment plants, desalination facilities, and pumping systems depend on continuous, reliable electricity to meet regulatory and public-health requirements. As grid reliability and long-term energy predictability become less certain, power availability is emerging as a defining constraint on water system resilience and expansion.

Discussions about advanced energy technologies often focus on large, centralized systems designed to feed national grids. These grid-scale projects are optimized for maximum output, long development timelines, and integration with existing transmission infrastructure. While this approach remains essential for many applications, it does not address every energy need. A growing share of demand comes from users who require power where it is consumed, not where the grid happens t

For decades, electricity systems have been built around a simple assumption: power is generated in large, centralized facilities and delivered to users through extensive transmission and distribution networks. This model shaped grids, regulation, and investment decisions across much of the world. That assumption is no longer universally valid. A growing share of economic activity now takes place beyond the practical reach of centralized grids, or in environments where grid co

Former Director of the Princeton Plasma Physics Laboratory (PPPL) to support nT‑Tao’s scientific team in interpreting fusion research data We're happy to announce the appointment of Professor Stewart C. Prager to our Scientific Advisory Board. In this role, Prager will work closely with our physicists to assist in analyzing simulations and experimental data, and in interpreting results arising from their ongoing plasma and fusion research. Professor Stewart C. Prager / PR Pra