Using vibrational states and microwave shielding, we achieve tunable long-range dipolar interactions in polar molecules while eliminating collisional losses—enabling quantum simulation of fundamental spin models in strongly-interacting regimes.

#QuantumSimulation #PolarMolecules #Research

Demonstrates high-fidelity quantum gates using ultracold polar molecules: a single-pulse iSWAP gate and tunable controlled-phase gates resilient to quantized motion effects, advancing molecular quantum computing.

#PolarMolecules #QuantumGates #QuantumComputing

Researchers demonstrate controlled-phase quantum gates in trapped polar molecules achieving >99.99% fidelity while tolerating dipole-dipole interaction fluctuations—a critical advance toward scalable molecular quantum computing platforms.

#QuantumGates #PolarMolecules #Research

U. Warsaw researchers show trap-induced resonances in optically tweezed polar molecules boost dipolar interactions 50x via coupled-channel modelling, enabling quantum gates with ~1s coherence and dual use for electric field sensing.

#PolarMolecules #OpticalTweezers #News