Cavity optomechanics, a promising platform to investigate macroscopic quantum effects, has
been widely used to study nonreciprocal entanglement with the Sagnac effect. Here, we …

Realizing precise control over multiquanta emission is crucial for quantum information
processing, especially when integrated with advanced techniques of manipulating quantum …

We propose a scheme to realize nonreciprocal mechanical squeezing in a spinning
optomechanical system, where a spinning resonator is driven by a periodically modulated …

A scheme is presented to achieve quantum nonreciprocity by manipulating the statistical
properties of the photons in a composite device consisting of a double-cavity …

We study how to achieve, manipulate, and switch classical or quantum nonreciprocal effects
of light with a spinning Kerr resonator. In particular, we show that even when there is no …

The entanglement of different macroscopic objects can provide crucial resources for various
quantum applications and quantum-enabled devices. The generation, manipulation, and …

A scheme of nonreciprocal conventional phonon blockade (PB) is proposed in a spinning
optomechanical resonator coupled with a two-level atom. The coherent coupling between …

The ability to engineer entangled states that involve macroscopic objects is of particular
importance for a wide variety of quantum‐enabled technologies, ranging from quantum …

Nonreciprocal devices are crucial components in optical information processing and chiral
quantum networks. By investigating the topological property and the nonreciprocity in a one …

Attribute to their robustness against loss and external noise, nonreciprocal photonic devices
hold great promise for applications in quantum information processing. Recent …