Thorium and the New NUCLEAR Age

China is planning the world’s first molten salt thorium reactor — a potential 60,000-year limitless energy breakthrough transforming global nuclear technology

- OUR CORRESPONDENT

China’ discovery of a limitless energy source, thorium, could mark a turning point in global nuclear technology.

The breakthrough, made at the Bayan Obo mining complex, revealed an extraordinary 1 million tonnes of thorium, a resource that may supply China's energy needs for an astounding 60,000 years. This discovery not only promises to revolutionise sustainable energy but also comes at a time when the nation is aggressively exploring innovative solutions to meet rising global energy demands.

At the heart of this development is an extensive geological survey that has mapped 233 thorium-rich zones across the country. Such comprehensive mapping, supported by standards like understanding the JORC code, a key to informed mining investments, demonstrates the systematic approach to harnessing a resource that has the potential to transform the energy sector. With the primary keyword echoed throughout, it is clear that as China discovers a limitless energy source, thorium, experts worldwide are paying close attention to this pioneering find.

Thorium, a naturally occurring radioactive element, has long been eyed as a promising alternative to traditional uranium for nuclear reactors. Unlike uranium, thorium offers a much denser energy yield ~ experts estimate it contains up to 500 times more energy potential than conventional uranium-232. The implications of this finding are immense. If harnessed efficiently, thorium could deliver a cleaner, safer, and more sustainable form of nuclear energy that produces significantly less toxic waste.

Experts say the reactors are “inherently safer” than traditional nuclear reactors and have other advantages, but scientists have long struggled with challenges such as the corrosive nature of the superheated radioactive salts.

Construction on the research facility is due to start next year, with operation expected in 2030, followed by full-scale production.