Knowledge

Custom Sapphire Window for Vacuum & Optical Sys...

Custom sapphire windows for high-vacuum chambers, optical systems, and high-temperature reactors. UV–IR transparent, precision polished, flange-compatible, and prototype-friendly for university and startup R&D projects.

Custom Sapphire Window for Vacuum & Optical Sys...

Custom sapphire windows for high-vacuum chambers, optical systems, and high-temperature reactors. UV–IR transparent, precision polished, flange-compatible, and prototype-friendly for university and startup R&D projects.

Custom Sapphire Tube for R&D & Furnaces | Resea...

Custom sapphire tubes engineered for high-temperature furnaces, CVD systems, and advanced research laboratories. Supporting diameters up to 150 mm with 3–4 week lead times, low MOQ, and research-grade precision for...

Custom Sapphire Tube for R&D & Furnaces | Resea...

Custom sapphire tubes engineered for high-temperature furnaces, CVD systems, and advanced research laboratories. Supporting diameters up to 150 mm with 3–4 week lead times, low MOQ, and research-grade precision for...

LaBr₃–SiPM Gamma-Ray Detector: 1D Array with 3.1% Energy Resolution

LaBr₃–SiPM Gamma-Ray Detector: 1D Array with 3....

A LaBr₃:Ce gamma-ray detector coupled with SiPM readout and implemented as a one-dimensional array demonstrates an average energy resolution of 3.1% FWHM at 662 keV, enabling compact, PMT-free high-resolution gamma...

LaBr₃–SiPM Gamma-Ray Detector: 1D Array with 3....

A LaBr₃:Ce gamma-ray detector coupled with SiPM readout and implemented as a one-dimensional array demonstrates an average energy resolution of 3.1% FWHM at 662 keV, enabling compact, PMT-free high-resolution gamma...

CLYC Detector Design Considerations

This article discusses key detector design considerations for CLYC scintillators, focusing on pulse shape discrimination (PSD), photosensor selection, electronics, optical coupling, and application-driven neutron–gamma detection trade-offs.

CLYC Detector Design Considerations

This article discusses key detector design considerations for CLYC scintillators, focusing on pulse shape discrimination (PSD), photosensor selection, electronics, optical coupling, and application-driven neutron–gamma detection trade-offs.

CLLB Detector Design Considerations for Neutron...

This article outlines key detector design considerations for CLLB scintillators, focusing on pulse shape discrimination (PSD), photosensor selection, electronics, optical coupling, and system-level trade-offs for neutron–gamma detection.  

CLLB Detector Design Considerations for Neutron...

This article outlines key detector design considerations for CLLB scintillators, focusing on pulse shape discrimination (PSD), photosensor selection, electronics, optical coupling, and system-level trade-offs for neutron–gamma detection.  

Pulse Shape Discrimination (PSD) in Neutron–Gam...

Pulse shape discrimination (PSD) enables neutron–gamma separation in lithium-based scintillators by exploiting differences in scintillation decay profiles. This article provides a technical comparison of CLLB and CLYC crystals, focusing on...

Pulse Shape Discrimination (PSD) in Neutron–Gam...

Pulse shape discrimination (PSD) enables neutron–gamma separation in lithium-based scintillators by exploiting differences in scintillation decay profiles. This article provides a technical comparison of CLLB and CLYC crystals, focusing on...