Geometric and holonomic quantum computation utilizes intrinsic geometric properties of
quantum-mechanical state spaces to realize quantum logic gates. Since both geometric …

Although geometric phases in quantum evolution are historically overlooked, their active
control now stimulates strategies for constructing robust quantum technologies. Here, we …

Realization of a large‐scale quantum computation relies on fast and high‐fidelity quantum
control. Geometric quantum control is thought to be a promising candidate for quantum …

The generalization of the geometric phase to the realm of mixed states is known as the
Uhlmann phase. Recently, applications of this concept to the field of topological insulators …

Nonadiabatic holonomic quantum computation has been proposed as a method to
implement quantum logic gates with robustness comparable to that of adiabatic holonomic …

Producing and maintaining entanglement reside at the heart of the optimal construction of
quantum operations and are fundamental issues in the realization of universal quantum …

Fast and robust quantum gates are the cornerstones of fault-tolerance quantum
computation. In this paper, as opposed to the previous proposals which use cyclic geometric …

Noise-induced gate errors remain one of the main obstacles to realizing a broad range of
quantum information technologies. Dynamical error suppression using carefully designed …

We implemented arbitrarythe arbitrary single qubit gates of geometric quantum computing
for a three-level system in a single-shot manner. The evolution time of the gate has been …

Geometric quantum gates are often expected to be more resilient than dynamical gates
against certain types of error, which would make them ideal for robust quantum computing …