• We’ve reached the limit of a very successful way to make new elements in the lab.
  • In new research, scientists unveil a new take on that technology and report its success.
  • The heaviest elements could have new uses and properties we haven't dreamt of.

Lawrence Berkeley National Laboratory has announced a new way to reliably make element 116, livermorium. The results, made by using a titanium beam to irradiate a sample, could point toward the elusive “island of stability” for even heavier nuclear elements—and show researchers a route to create the next feasible element, number 120.

Many of us remember a time when the periodic table appeared with some curious blank spots. Your age determines what those blank spots were, but they’ve been consistent, because discovery of elements has never been in full numerical order. Their availability has depended on location, stability, and accessibility of both the naturally occurring forms and a method to separate them.

After a certain point, the elements transition from naturally occurring to laboratory-prepared. These elements may exist somewhere in the universe, but Earth is not cold enough, high-pressure enough, and so forth to create those conditions outside a lab. But inside labs like Berkeley, they use increasingly advanced technologies to jam more protons inside the nuclei of atoms in order to create these new elements.

In their new preprint paper—meaning it’s not yet peer-reviewed—a large team of scientists explain that we’ve reached the limits of a current generation method to make new heavy elements. The heaviest discovery to date, element 118 oganesson, was made using a beam of calcium isotope 48 particles. Calcium 48, with its definitive 20 protons plus 28 neutrons, is a common and very effective starter for physical chemistry.