Quantum annealing processors have been limited by their uniform control of qubits, which simplifies control requirements but restricts the range of available operations. However, a new approach has been developed that enables analog-digital quantum computing with these processors, expanding their capabilities. By leveraging quantum annealing, researchers can now perform analog operations, allowing for more complex and nuanced control over qubits. This breakthrough has significant implications for the scalability of quantum computing systems, as annealing-based quantum processors can be built to much larger sizes than gate-based systems. The key advantage of this approach is that it balances control simplicity with operational flexibility, enabling the development of more sophisticated quantum computing architectures. This matters to practitioners because it could lead to the creation of more powerful and efficient quantum computing systems, capable of tackling complex problems in fields like cryptography and optimization1.