Inorganic scintillators play a major role in ionizing radiation detection due to their high
versatility to detect multiple radiation sources such as X-rays, gamma-rays, alpha, beta, and …

The present work reviews some fundamental aspects of scintillators, including the light yield,
decay time, emission wavelength, afterglow, timing resolution and energy resolution …

Radiation detection, using materials to convert high-energy photons to low-energy photons
(X-ray imaging) or electrical charges (X-ray detector), has become essential for a wide range …

Detecting hard X-rays and γ-rays with high energy resolution is critical for medical and
industrial applications, high-energy fundamental physics, and homeland security. Two types …

Low‐dimensional halide perovskites with highly efficient luminescent properties have
attracted huge attention in optoelectronic and radiation detection applications in recent …

The current progress in the improvement of membrane materials enlarges the utilizations
and necessities for innovative, more efficient, resistant, and highly specialized separation …

X-ray detection has been extensively applied in various fields including medical imaging,
security detection, and industrial non-destructive testing. Recently, organic-metal halide …

Organic–inorganic and all-inorganic halide perovskites have become leading candidates
toward high-performance optoelectronic devices and radiation detectors. In this work, we …

Halide scintillators have been playing a crucial role in the detection of ionizing radiation
since the discovery of scintillation in NaI: Tl in 1948. The discovery of NaI: Tl motivated the …

There are many properties of scintillators that are of importance for application. One property
is the energy resolution for the detection of γ-rays, and during past 20 years we witnessed …