To test the quantum nature of gravity in a laboratory requires witnessing the entanglement
between the two test masses (nanocrystals) solely due to the gravitational interaction kept at …

Matter-wave interferometry with nanoparticles will enable the development of quantum
sensors capable of probing ultraweak fields with unprecedented applications for …

One of the outstanding questions in modern physics is how to test whether gravity is
classical or quantum in a laboratory. Recently there has been a proposal to test the quantum …

Matter-wave interferometers with microparticles will enable the next generation of quantum
sensors to probe minute quantum phase information. Therefore, estimating the loss of …

We investigate the quantum signature of gravity in optomechanical systems under quantum
control. We analyze the gravity-induced entanglement and squeezing in mechanical mirrors …

A defining signature of classical systems is “in principle measurability” without disturbance: a
feature manifestly violated by quantum systems. We describe a multi-interferometer …

Utilizing the Stern-Gerlach apparatus to create matter-wave superposition states is a long-
sought-after goal, not only due to its potential applications in the quantum realm, but also …

Creating macroscopic spatial quantum superposition with a nanoparticle has a multitude of
applications, ranging from testing the foundations of quantum mechanics, matter-wave …

Creating macroscopic spatial superposition states is crucial for investigating matter-wave
interferometry and advancing quantum sensor technology. Currently, two potential methods …

Various attempts to surpass the theory of general relativity start from the assumption that
spacetime is not a four-dimensional but rather a higher-dimensional manifold. Among …