Error correction is important in classical and quantum computation. Decoherence caused by
the inevitable interaction of quantum bits with their environment leads to dephasing or even …

Precise control of quantum systems is of fundamental importance in quantum information
processing, quantum metrology and high-resolution spectroscopy. When scaling up …

Chirality, a pervasive phenomenon in nature, is widely studied across diverse fields
including the origins of life, chemical catalysis, drug discovery, and physical optoelectronics …

A strong interaction of a semiconductor with a below-bandgap laser pulse causes a blue-
shift of the bandgap transition energy, known as the optical Stark effect. The energy shift …

Ultrafast spin manipulation for opto–spin logic applications requires material systems that
have strong spin-selective light-matter interaction. Conventional inorganic semiconductor …

Ultrafast pump‐probe spectroscopy provides a powerful tool for deep insight into
sophisticated electron–hole dynamics for materials development and devices optimization …

Semiconductor quantum dots (SQDs) have received much attention due to their high
quantum yield (QY), tunable emission spectrum, and excellent photostability. These unique …

Nonresonant optical driving of confined semiconductors can open up exciting opportunities
for experimentally realizing strongly interacting photon-dressed (Floquet) states through the …

Extensively studied Mn-doped semiconductor nanocrystals have invariably exhibited
photoluminescence over a narrow energy window of width≤<? format?> 150 meV in the …

The optical Stark effect is a universal response of the electronic structure to incident light. In
semiconductors, particularly nanomaterials, the optical Stark effect achieved with sub-band …