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Insights

140 Years Strong: The Innovations and People of Westinghouse

Categories: Our People & History, 140 Year History

As we celebrate 140 years of Westinghouse, we’re honoring the people behind our success. Their dedication, creativity and expertise have fueled every breakthrough: turning bold ideas into real-world impact and shaping both our legacy and the future of Westinghouse.

A New Hub for AP1000® Training Opens in Madrid

Categories: AP1000

In the first quarter of 2026, Westinghouse opened a brand new AP1000® Training Academy in Madrid, Spain, which will enhance nuclear operator training in Europe. Built on proven AP1000 simulator technology, the state-of-the-art center is already welcoming customers, prospective operators, media representatives and government officials from across the region.

Poland’s Nuclear Program: A Model for Energy Independence Through Strategic Localization

Categories: AP1000, Blog

By Dan Lipman, President of Westinghouse’s Global Business Initiatives, and Dena Volovar, President of Bechtel’s Nuclear, Security & Environmental Business

Nuclear energy today offers enormous potential. Not only to deliver clean, reliable power but to strengthen national security, deepen industrial capability, and expand long-term economic opportunity. Realizing that potential requires partnerships that are more than transactional. It takes collaboration between governments, across industries, and among allies willing to commit to each other for decades.

Uranium Fuel Pellets: Inside the Most Energy-Dense Fuel on Earth

Categories: Nuclear Fuel, Technology & Innovation

At the core of every nuclear reactor lies the most energy‑dense fuel source on Earth: nuclear fuel, composed of millions of precisely engineered uranium pellets. 

Beyond the Mold: How 3D Printing is Building the Next Generation of Nuclear Power

April 23, 2026 by Westinghouse Electric Company

Categories: Nuclear Fuel, Technology & Innovation

For decades, the nuclear industry followed a familiar path: machining massive metal blocks into precise, safety critical components. This approach was reliable, but it came at a cost: slow production, significant material waste and limited design flexibility.