Synthesis and TL/OSL properties of CaSiO 3 :Ce biomaterial

Characterization of CaSiO3:Ce crystals for α- and X-ray detection

“…Therefore, the storage luminescence properties have been eagerly studied. [24][25][26][27][28][29] However, most of the studies treated powder or ceramic forms, and to the best of our knowledge, storage luminescence properties of CaSiO 3 :Ce in a bulk crystal form have not been reported yet. Compared with ceramic and powder form, bulk crystal form is advantageous owing to its high transparency, which allows us to detect the light emission not only from the surface but also from the inside.…”

Thermoluminescence study and evaluation of trapping parameters of samarium doped barium silicate phosphor

“…As one of the most significant compounds, silicates are extensively used as the matrix of inorganic phosphors due to their advantages such as easy synthesis, good thermal quenching, high chemical stability, and ideal excitation and emission wavelengths [1,2]. Especially, alkaline-earth silicates are appropriate compounds as radiation detectors due to their water resistance and chemical stability, and exceptional storage luminescence properties have been explicated for dosimetry [3][4][5][6]. The barium silicate compound comprises different compositions as a host material with the various ratios of BaO and SiO 2 , namely Ba 2 SiO 4 , BaSiO 3 , Ba 2 Si 3 O 8 , Ba 5 Si 8 O 21 , and BaSi 2 O 5 [7].…”

Bioceramics in the CaMgSi2O6–Li2O System: A Glass‐Ceramic Strategy for Excellent Mechanical Strength and Enhanced Bioactivity by Spontaneous Elemental Redistribution

“…In particular, some researchers have proposed that CaSiO 3 exhibits superior bioactivity and osseointegration properties to the widely studied hydroxyapatite (HAp), which motivates further investigation into CaSiO 3 -based materials for bone tissue repair and regeneration. [11,12] The presence of bioavailable calcium (Ca) and silicon (Si) ions in tissue engineering materials can directly influence the quality of bone as Ca is the main constituent of biological apatite and Si was reported to have the ability of inducing osteogenesis and angiogenesis. [13,14] However, it has been proposed that the poor mechanical strength and rapid dissolution rate of CaSiO 3 may hinder its biomedical application to be used as bulk implants and would be detrimental for cell growth because of a rapid increase in pH value in the surrounding environment during the first few weeks.…”