Optical Absorption and Photoluminescence Spectra of Ce-doped SrMgF4 Polycrystalline with Superlattice Structure

Qi LIU; Can ZHU; Guizhen XIE; Jun WANG; Dongming ZHANG; Gangqin SHAO

doi:10.15541/jim20210773

[1] I N OGORODNIKOV, V A PUSTOVAROV, L I ISAENKO et al. Radiation-stimulated processes in SrMgF₄ single crystals irradiated with fast electrons. Optical Materials, 111234(2021).

[2] V S SINGH, P D BELSARE, S V MOHARIL. Wet chemical synthesis and study of luminescence in some Eu²⁺ activated AEMgF₄ hosts. Physics of the Solid State, 2318-2324(2021).

[3] A Y SOFRONOVA, V A PUSTOVAROV, I N OGORODNIKOV. Radiation-induced defects in SrMgF₄ single crystals irradiated by fast electrons. AIP Conference Proceedings, 020172(2019).

[4] A C GARCIA-CASTRO, W IBARRA-HERNANDEZ, E BOUSQUET et al. Direct magnetization-polarization coupling in BaCuF₄. Physical Review Letters, 117601(2018).

[5] V V ATUCHIN, A A GOLOSHUMOVA, L I ISAENKO et al. Crystal growth and electronic structure of low-temperature phase SrMgF₄. Journal of Solid State Chemistry, 89-93(2016).

[6] J F SCOTT. Searching for new ferroelectrics and multiferroics: a user’s point of view. npj Computational Materials, 15006(2015).

[7] F KUBEL, H HAGEMANN, H BILL. Synthesis, crystal structures and spectroscopic investigations on samarium-doped mixed Ba_1-δSr_δMgF₄ crystals. Materials Research Bulletin, 263-269(1997).

[8] B QUI, E BANKS. The binary system SrF₂-MgF₂: phase diagram and study of growth of SrMgF₄. Materials Research Bulletin, 1185-1189(1982).

[9] E BANKS, S NAKAJIMA, M SHONE. New complex fluorides EuMgF₄, SmMgF₄, SrMgF₄, and their solid solutions: photoluminescence and energy transfer. Journal of the Electrochemical Society, 2234-2239(1980).

[10] M EIBSCHÜTZ, H J GUGGENHEIM. Antiferromagnetic-piezoelectric crystals: BaMF₄(M = Mn, Fe, Co and Ni). Solid State Communications, 737-739(1968).

[11] N ISHIZAWA, K SUDA, B E ETSCHMANN et al. Monoclinic superstructure of SrMgF₄ with perovskite-type slabs. Acta Crystallographica Section C, 784-786(2001).

[12] S C ABRAHAMS. Structurally ferroelectric SrMgF₄. Acta Crystallographica Section B, 34-37(2002).

[13] S V MEL’NIKOVA, L I ISAENKO, A A GOLOSHUMOVA et al. Investigation of the ferroelastic phase transition in the SrMgF₄ pyroelectric crystal. Physics of the Solid State, 757-760(2014).

[14] A P YELISSEYEV, X X JIANG, L I ISAENKO et al. Structures and optical properties of two phases of SrMgF₄. Physical Chemistry Chemical Physics, 500-508(2015).

[15] M YAMAGA, N KODAMA. Vacuum ultraviolet spectroscopy of Ce³⁺-doped SrMgF₄with superlattice structure. Journal of Physics- Condensed Matter, 6033-6044(2006).

[16] H HAGEMANN, F KUBEL, H BILL et al. ⁵D₀→ ⁷F₀ transitions of Sm²⁺ in SrMgF₄. Journal of Alloys and Compounds, 194-196(2004).

[17] Z C CAO, C S SHI, J Z NI. The valency and spectra of samarium ions in MF₂-MgF₂ (M=Ca, Sr, Ba). Journal of Luminescence, 221-224(1993).

[18] S TAMBOLI, R M KADAM, S J DHOBLE. Photoluminescence and electron paramagnetic resonance properties of a potential phototherapic agent: MMgF₄: Gd³⁺ (M = Ba, Sr) sub-microphosphors. Luminescence, 1321-1328(2016).

[19] H Y TIAN, H Y SHEN, Q H YANG et al. Synthesis, characterization and fluorescent properties of complex fluoride BaNiF₄: Ce³⁺. Advanced Materials Research, 56-60(2012).

[20] G X ZHU, M B XIE, Q YANG et al. Hydrothermal synthesis and spectral properties of Ce³⁺ and Eu²⁺ ions doped KMgF₃ phosphor. Optics and Laser Technology, 162-167(2016).

[21] B P KORE, S TAMBOLI, N S DHOBLE et al. Efficient resonance energy transfer study from Ce³⁺ to Tb³⁺ in BaMgF₄. Materials Chemistry and Physics, 233-244(2017).

[22] S JANSSENS, G V M WILLIAMS, D CLARKE. Synthesis and characterization of rare earth and transition metal doped BaMgF₄ nanoparticles. Journal of Luminescence, 277-283(2013).

[23] S WATANABE, T ISHII, K FUJIMURA et al. First-principles relativistic calculation for 4f-5d transition energy of Ce³⁺ in various fluoride hosts. Journal of Solid State Chemistry, 2438-2442(2006).

[24] M YAMAGA, K HATTORI, N KODAMA et al. Superlattice structure of Ce³⁺-doped BaMgF₄ fluoride crystals-X-ray diffraction, electron spin-resonance, and optical investigations. Journal of Physics-Condensed Matter, 10811-10824(2001).

[25] N KODAMA, T HOSHINO, M YAMAGA et al. Optical and structural studies on BaMgF₄:Ce³⁺ crystals. Journal of Crystal Growth, 492-496(2001).

[26] M YAMAGA, T IMAI, N KODAMA. Optical properties of two Ce³⁺-site centers in BaMgF₄: Ce³⁺ crystals. Journal of Luminescence, 992-994(2000).

[27] J M REY, H BILL, D LOVY et al. Europium doped BaMgF₄, an EPR and optical investigation. Journal of Alloys and Compounds, 60-65(1998).

[28] E HAYASHI, K ITO, S YABASHI et al. Vacuum ultraviolet and ultraviolet spectroscopy of BaMgF₄ co-doped with Ce³⁺ and Na⁺. Journal of Luminescence, 69-74(2006).

[29] E HAYASHI, K ITO, S YABASHI et al. Ultraviolet irradiation effect of Ce³⁺-doped BaMgF₄ crystals. Journal of Alloys and Compounds, 883-885(2006).

[30] V A PUSTOVAROV, I N OGORODNIKOV, S I OMELKOV et al. Electronic excitations and luminescence of SrMgF₄ single crystals. Physics of the Solid State, 456-467(2014).

[31] I N OGORODNIKOV, V A PUSTOVAROV, S I OMELKOV et al. A far ultraviolet spectroscopic study of the reflectance, luminescence and electronic properties of SrMgF₄ single crystals. Journal of Luminescence, 872-879(2014).

[32] G SCHOLZ, S BREITFELD, T KRAHL et al. Mechanochemical synthesis of MgF₂-MF₂ composite systems (M = Ca, Sr, Ba). Solid State Sciences, 32-41(2015).

[33] Q LIU. Photoluminescence properties of rare-earth Ce-doped SrMgF₄ powder prepared through a wet-chemical route. Wuhan: Master Thesis of Wuhan University of Technology(2019).

[34] D M ZHANG, Q LIU, G Q SHAO et al. The Ce-doped SrMgF₄ fluorescent materials and their preparation method thereof. Chinese Invention Patent, Appl.

[35] C VEITSCH, F KUBEL, H HAGEMANN. Photoluminescence of nanocrystalline SrMgF₄ prepared by a solution chemical route. Materials Research Bulletin, 168-175(2008).

[36] R D SHANNON. Revised effective ionic radii and systematic studies of interatomic distances in halides and chalcogenides. Acta Crystallographica, 751-767(1976).

[37] Z P LIU, Y XU, Z H LI et al. Sulfur-resistant methanation over MoO₃/CeO₂-ZrO₂ catalyst: influence of Ce-addition methods. Journal of Energy Chemistry, 31-38(2019).

[38] D W JEONG, H S NA, J O SHIM et al. A crucial role for the CeO₂-ZrO₂ support for the low temperature water gas shift reaction over Cu-CeO₂-ZrO₂ catalysts. Catalysis Science & Technology, 3706-3713(2015).

[39] W P SHAN, F D LIU, H HE et al. A superior Ce-W-Ti mixed oxide catalyst for the selective catalytic reduction of NO_x with NH₃. Applied Catalysis B: Environmental, 100-106(2012).

[40] E V D LOEF, P DORENBOS, C W E EIJK et al. Scintillation properties of LaBr₃: Ce³⁺ crystals: fast, efficient and high-energy- resolution scintillators. IEEE Transactions on Nuclear Science, 254-258(2002).

[41] G BLASSE, A BRIL. Investigation of some Ce³⁺-activated phosphors. Journal of Chemical Physics, 5139-5145(1967).

[42] P DORENBOS, L PIERRON, L DINCA et al. 4f-5d spectroscopy of Ce³⁺ in CaBPO₅, LiCaPO₄ and Li₂CaSiO₄. Journal of Physics Condensed Matter, 511-520(2003).