Researchers have made a significant breakthrough in developing fault-tolerant quantum algorithms for simulating atomic nuclei, a crucial step in expanding the applications of quantum computing beyond traditional domains. By constructing and compiling these algorithms, scientists can now explore the structure of atomic nuclei, an area that has received limited attention from the quantum computing community despite its similarities to well-established fields like chemistry. The development of these algorithms has the potential to unlock new insights into nuclear physics and pave the way for innovative applications. This advancement is particularly notable as it demonstrates the capability of fault-tolerant quantum computers to tackle complex problems in nuclear physics, which could have significant implications for fields like materials science and cryptography1. The ability to simulate atomic nuclei using quantum algorithms matters to practitioners because it could lead to breakthroughs in our understanding of nuclear interactions and ultimately inform the development of new technologies.