In this review, the current landscape of emergent quantum materials for quantum photonic
applications is described. The review focuses on three specific solid‐state platforms: single …

Point defect quantum bits in semiconductors have the potential to revolutionize sensing at
atomic scales. Currently, vacancy-related defects are at the forefront of high spatial …

Recently discovered quantum emitters in 2D materials have opened new prospects for
integrated photonic devices for quantum information. Most of these applications require the …

Light–matter interactions in optical cavities underpin many applications of integrated
quantum photonics. Among various solid-state platforms, hexagonal boron nitride (hBN) is …

The ability of hexagonal boron nitride to host quantum emitters in the form of deep-level
color centers makes it an important material for quantum photonic applications. This work …

Hexagonal boron nitride (hBN) holds promise as a solid state, van der Waals host of single
photon emitters for on‐chip quantum photonics. The B‐center defect emitting at 436 nm is …

Color centers in hexagonal boron nitride (hBN) have attracted considerable attention due to
their remarkable optical properties enabling robust room temperature photonics and …

Point defects in semiconductors are attractive candidates for quantum information science
applications owing to their ability to act as spin-photon interface or single-photon emitters …

Single-photon emitters in hexagonal boron nitride (h-BN) exhibit compelling optical
properties, such as high brightness and photostability, making them promising candidates …

Quantum sensing has emerged as a powerful technique to detect and measure physical and
chemical parameters with exceptional precision. One of the methods is to use optically …