We discuss how the internal structure of ultracold molecules, trapped in the motional ground
state of optical tweezers, can be used to implement qudits. We explore the rotational, fine …

We propose a novel physical realization of a quantum computer. The qubits are electric
dipole moments of ultracold diatomic molecules, oriented along or against an external …

We propose a two-qubit gate based on dipolar exchange interactions between individually
addressable ultracold polar molecules in an array of optical dipole traps. Our proposal treats …

Quantum computation and simulation rely on long-lived qubits with controllable interactions.
Trapped polar molecules have been proposed as a promising quantum computing platform …

We demonstrate the coherent creation of a single NaCs molecule in its rotational,
vibrational, and electronic (rovibronic) ground state in an optical tweezer. Starting with a …

Ultracold polar molecules are promising candidate qubits for quantum computing and
quantum simulations. Their long-lived molecular rotational states form robust qubits, and the …

Ultracold molecules confined in optical lattices or tweezer traps can be used to process
quantum information and simulate the behaviour of many-body quantum systems. Molecules …

We show how ultracold polar molecules, suggested as a new platform for quantum
computation, can be manipulated to switch “on” and “off” their strong dipole-dipole …

Qubit coherence times are critical to the performance of any robust quantum computing
platform. For quantum information processing using arrays of polar molecules, a key …

Control over the quantum states of individual molecules is crucial in the quest to harness
their rich internal structure and dipolar interactions for applications in quantum science. In …