José Antonio Marín Guzmán of the Joint Center for Quantum Information and Computer Science, NIST and University of Maryland, and Nicole Yunger Halpern are leading a collaborative effort spanning institutions in Austria, Sweden, and Harvard to detail proposals for experimentally realizing quantum-autonomous gates. This research, published August 28, 2026, outlines potential implementations using Rydberg atoms, trapped ions, and superconducting qubits, aiming to lessen the reliance on classical control within quantum computing. The work proposes that passive lasers, sculpted traps, and circuit quantum electrodynamics could enable these gates, serving as building blocks for circuits with reduced classical control burdens. Rydberg Atoms Enable Quantum-Autonomous Entangling Gates Rydberg atoms offer a pathway toward quantum-autonomous entangling gates, potentially reducing the demands placed on classical control systems within quantum computers. This work details proposals for experimentally realizing these gates and indicates a forward-looking approach to quantum control with a projected timeline for potential breakthroughs. The proposed Rydberg atom-based gates leverage either Rydberg-blockade interactions or ultrafast transitions to achieve entanglement without continuous-wave laser control. Passive lasers are key to enacting these quantum-autonomous gates, offering a departure from systems reliant on constant external manipulation. Specifically, the team demonstrated that these interactions can quantum-autonomously effect entangling gates, a crucial operation for quantum computation, and that ultrafast transitions can also achieve this goal. This approach addresses limitations imposed by classical control on quantum machine coherence times and geometries, as maintaining precise control over extended periods is a significant challenge. Building on this, the researchers note that previous work has demonstrated the usefulness of autonomous quantum machines in qubit reset, a critical function for sustained computation. The design of these gates mirrors the functionality of a drone; once constructed and initialized with time-dependent control, the system operates independently. “Because an AQM’s microscopic Hamiltonian remains constant, no external classical system spends