Trapped-ion quantum computing relies heavily on sympathetic cooling of data qubits by coolant ions, a process typically facilitated by a secondary ion species. However, this approach necessitates additional lasers, complicating optical setups. Researchers have now proposed an alternative scheme utilizing the same species for sympathetic cooling, which they tested using $^{43}$Ca$^+$ ions1. This innovative method employs pulsed sideband cooling and ion addressing via integrated microwave-driven techniques. By eliminating the need for a secondary ion species, this approach simplifies optical setups and reduces the complexity of laser requirements. The successful implementation of this scheme for $^{43}$Ca$^+$ ions demonstrates its potential for enhancing the efficiency of trapped-ion quantum computing. This development matters to quantum computing practitioners because it could lead to more streamlined and efficient quantum computing architectures, ultimately advancing the field's progress.