Crylink

CdWO4 Scintillator Crystal — A monoclinic crystal with high luminous efficiency CdWO4 Scintillator Crystal CdWO4 single crystal  is a monoclinic crystal system with good comprehensive scintillation performance, belonging to wolframite-type structure. Compared with other inorganic scintillation crystals, CdWO4 single crystal has high luminous efficiency, short afterglow time, large X-ray absorption coefficient, strong resistance to radiation damage, high material density, and absence of hygroscopicity. Due to these excellent scintillation properties of CdWO4, it has been widely used in nuclear medicine imaging, security inspection, industrial computer tomography (CT), petroleum logging, high-energy physics and other technical fields, especially in the field of medical X-ray CT, container inspection system has very important applications. CdWO4 Scintillator Crystal Scintillator is a photoelectric functional material, which refers to a material that stimulates pulsed

Eu SrI2 Scintillator Crystal | Scintillator Crylink Eu SrI2 Scintillator Crystal With the application of nuclear safety inspection technology in anti-terrorism and the continuous development of nuclear medical imaging, the requirements for light output and energy resolution of scintillation crystals are continuously improved. Security applications and nuclear non-proliferation depend on the rapid identification of highly enriched uranium, radioactive sources and other special nuclear materials. Halide crystals have been widely used as high-energy physics, nuclear medicine, safety inspection and address exploration as radiation materials since their invention in 1948.  Eu:SrI 2  is expected to become a new generation of gamma scintillator due to its high light output, good energy resolution and high effective atomic number. We specialize in providing high quality crystals to our customers based on their requirements. Eu SrI2 Scintillator Crystal Efficient radiation

Eu:CaF2 — A scintillation material with high optical transparency and low phonon energy Eu:CaF2 — A scintillation material with high optical transparency and low phonon energy Laser Crylink Aug 14  · 2 min read Eu CaF2 Scintillator Crystal Rare earth elements are easily to form clusters in CaF2 crystals, which is beneficial for reducing the doping concentration and maintaining the energy transfer between erbium ions as well. As s one of the phosphors that has efficient excitation in the near UV range, Europium-activated calcium fluoride ( Eu:CaF2 ) is an inert and transparent material with several characteristics that make it attractive for use as a scintillator in radiation detection systems. It has an average light yield of 24,000 photons*MeV–1 and the refractive index is similar to that of many photomultiplier tube windows and optical coupling compounds. Therefore, a high light collection efficiency can often be obtained. Additionally, the maximum

Yb:YAP Scintillator A Promising Laser Crystal for Diode-Pumped Solid-State Lasers Yb YAP Scintillation Crystal In recent years, Yb 3+-doped crystals have attracted a great deal of attention with the rapid development of diode pumped solid-state laser (DPSSL).  Yb:YAP  has demonstrated many attractive characteristics, such as longer lifetimes, higher polarized cross-sections, lower thermal load, very short fluorescence decays and high laser energy capacity. It is a very promising laser crystal in laser-diode-pumped solid-state configurations and neutrino detection. Because of the simple electronic structure of Yb 3+ion, which consists of only two levels, such unfavorable processes like excited state absorption, up-conversion or cross-relaxation are absent in Yb3+lasers. Yb YAP Scintillation Crystal Yb 3+-doped crystals are an attractive gain medium for diode-pumped solid-state lasers. Perovskite-like yttrium aluminate, YAlO 3 (YAP) crystals have good optical, thermo

Pr:LuAG Scintillator Crystal — A promising Fast Scintillator used for TOF Pr LuAG Scintillator Crystal Scintillators with high light yield and fast decay are essential in the time-of-flight (TOF) technique for a satisfactory coincidence timing resolution to give precise TOF information. Among garnets, Pr:Lu3Al5O12 was pointed out as a promising fast scintillator already in 2005.  Pr:LuAG  has a decay time of about 20 ns, which is even shorter than that of Ce:LSO. The light yield of Pr:LuAG is 3 times higher than that of BGO. In addition, Pr:LuAG has a high density of 6.7 g/cm3 which is important of x and g-ray detection, as well as an outstanding energy resolution of 4.6% at 662 keV that is beneficial for gamma ray discrimination. It has been attracting much attention and is presently commercially used in Positron Emission Mammography (PEM). Pr LuAG Scintillator Crystal In application of medical imaging,  Pr doped Lu3Al5O12(LuAG) , which was first introduced in 200

BGO Scintillator Crystal — A crystal used for high energy physics with nonlinear effects BGO( Bi4Ge3O12) Scintillator Crystal As a novel generation of scintillation crystals,  BGO  shows the superior characteristics including high density, well chemical resistance, fine energy resolution, large refractive index, non-hygroscopic nature and high mechanical strength, which make it utilized in high energy physics experiments like the large electron-positron collider in CERN. It is worth noting that the BGO scintillating crystals as the direct medium for the possible annihilation of dark matter (energetic electrons and gamma rays) play an important role in the dark matter detection. In addition, compared with conventional nonlinear optical crystals, BGO exhibits three- and five-order non- linear absorption response in the visible and infrared optical band, respectively. It performed as well as the other excellent nonlinear optical materials in the nonlinear optical field due to i

TI:CsI, Na:CsI,CsI Scintillator Crystals CsI Scintillator Crystal Scintillators with fast decay time characteristics have always been the radiation detection materials pursued by high-energy physics experiments, nuclear physics and positron emission tomography. They are beneficial for high count rate and time resolution of nanosecond and sub-nanosecond orders. CsI Scintillator Crystal TI:CsI  is one of the brightest scintillators. It has most of its emission in the long wavelength part of the spectrum (>500nm), it is well-suited for photodiode readout. TI:CsI crystal has high light yield, no cleavage surface, low melting point and easy growth. It has good optical properties, mechanical properties, physical and chemical stability and high photoelectric conversion efficiency. It is a scintillator with excellent comprehensive performance. It has been widely used in many fields, such as Security check, Detection of neutrinos, Detection of neutrinos andγ-ray, XCT. P

Ce:BaF2 Scintillator Crystal — A reasonably fast and rugged scintillator Ce BaF2 Scintillator Crystal BaF2 has a decay time of less than 1 ns, which makes it unique among the high-Z scintillators and consequently very attractive for many applications where good timing is important. BaF2 has a low refractive index of about 1.478 at a wavelength of 500 nm and can be relatively easily matched with a proper polymeric matrix. Moreover, BaF2’s conversion of light for ionising radiation is quite linear with energy. However, the integrated intensity of the fast component is low and the emission spectrum of BaF2 contains an exciton band with undesirably long decay time. This problem can be solved by the introduction of an activator, which transforms the exciton emission into the faster activator luminescence. Trivalent cerium has been became a natural choice for the activator, because the Ce3+ ion has a fairly short decay time. Ce:BaF2 scintillator is a well-known, reasonably fast an

Ce:LuAG Scintillator  Crystal — A  scintillation material suitable for high-power laser lighting Cerium-activated LuAG was proposed as a proper candidate scintillator and a potential phosphor to make white light-emitting diodes. Single crystal Ce:LuAG has better detection rate than isostructural cerium-activated yttrium aluminum garnet (Ce:YAG) because of its higher density and higher effective atomic number. Ce:LuAG was significantly better than the other phosphors with respect to the thermal quenching. In addition, the luminescence spectrum of Ce:LuAG contains a large enough green component. Ce:LuAG single crystals are also widely used as scintillation detectors for γ-rays and high energy particles. The latest generation Ce:LuAG crystal shows a high light yield up to 26,000 pH/MeV, which has been considered as potential candidate in PET scanners due to the six times shorter decay time and almost identical density. Besides, Ce:LuAG has excellent physical and chemical perform