[1] Y C WU, P Z FU, F ZHENG et al. Growth of a nonlinear optical crystal La₂CaB₁₀O₁₉ (LCB). Optical Materials, 373(2003).

[2] F L JING, Y C WU, P Z FU. Growth of La₂CaB₁₀O₁₉ single crystals from CaO-Li₂O-B₂O₃ flux. Journal of Crystal Growth, 270(2005).

[3] F L JING, Y C WU, P Z FU. Growth of La₂CaB₁₀O₁₉ single crystals by top-seeded solution growth technique. Journal of Crystal Growth, 454(2006).

[4] Y C WU, J G LIU, P Z FU et al. A new lanthanum and calcium borate La₂CaB₁₀O₁₉. Chemistry of Materials, 753(2001).

[5] G L WANG, J H LU, D F CUI et al. Efficient second harmonic generation in a new nonlinear La₂CaB₁₀O₁₉ crystal. Optics Communications, 481(2002).

[6] A BRENIER, Y WU, J X ZHANG et al. Laser properties of the diode-pumped Nd³⁺-doped La₂CaB₁₀O₁₉ crystal. Journal of Applied Physics, 093101(2010).

[7] X Y ZHANG, Y WU, F X SHAN et al. Growth and spectroscopic properties of Sm³⁺-doped La₂CaB₁₀O₁₉ crystal. Journal of Crystal Growth, 39(2014).

[8] Y L ZU, J X ZHANG, F ZHENG et al. Growth and optical properties of Pr³⁺: La₂CaB₁₀O₁₉ crystal. Journal of Rare Earths, 911(2009).

[9] A BRENIER, Y WU, J X ZHANG et al. Lasing Yb³⁺ in crystals with a wavelength dependence anisotropy displayed from La₂CaB₁₀O₁₉. Applied Physics B, 59(2012).

[10] F X SHAN, Y FU, G C ZHANG et al. Growth and spectroscopic properties of Tb³⁺ doped La₂CaB₁₀O₁₉ crystal. Optical Materials, 27(2015).

[11] R GUO, Y C WU, P Z FU et al. Optical transition probabilities of Er³⁺ ions in La₂CaB₁₀O₁₉ crystal. Chemical Physics Letters, 133(2005).

[12] J X ZHANG, L HAN, Y WU et al. Multiple-wavelength lasing by multiform self-frequency conversion in Nd³⁺-doped La₂CaB₁₀O₁₉ crystals. Applied Physics B, 853(2011).

[13] M A DUBINSKII, K L SCHEPLER, V V SEMASHKO et al. Spectroscopic analogy approach in selective search for new Ce³⁺-activated all-solid-state tunable ultraviolet laser materials. Journal of Modern Optics, 221(1998).

[14] M YAMAGA, T IMAI, H MIYAIRI et al. Substitutional disorder and optical spectroscopy of Ce³⁺-doped CaNaYF₆ crystals. Journal of Physics: Condensed Matter, 753(2001).

[15] Z L LIU, K SHIMAMURA, K NAKONO et al. Direct generation of 27-mJ, 309-nm pulses from a Ce³⁺:LiLuF₄ oscillator using a large-size Ce³⁺: LiLuF₄ crystal. Japanese Journal of Applied Physics, 88(2000).

[16] A M SRIVASTAVA, A A SETLUR, H A COMANZO et al. Optical spectroscopy and thermal quenching of the Ce³⁺ luminescence in yttrium oxysulfate Y₂O₂[SO₄]. Optical Materials, 1499(2008).

[17] M MORI, D NAKAUCHI, G OKADA et al. Scintillation and optical properties of Ce³⁺-doped CaGdAl₃O₇ single crystals. Journal of Luminescence, 93(2017).

[18] Y T WU, G H REN. Crystal growth, structure, optical and scintillation properties of Ce³⁺-doped Tb_2.2Lu_0.8Al₅O₁₂ single crystals. CrystEngComm, 4153(2013).

[19] X L ZHANG, Y LI, F L JING et al. Studies on the crystal growth and characterization of large size Sr:LCB single crystals. Crystals, 442(2022).

[20] J X ZHANG, L R WANG, Y WU et al. High-efficiency third harmonic generation at 355 nm based on La₂CaB₁₀O₁₉. Optics Express, 16722(2011).

[21] R REISFELD, J HORMODALY, B BARNETT. Ce³⁺ as a probe of the crystal field and the nature of the impuruty-ligand bond in borate and phosphate glasses. Chemical Physics Letters, 248(1972).

[22] R REISFELD, J K JRGENSEN. Laser and Excited State of Rare Earths(1977).

[23] P X ZHANG, Y B WAN, J G YIN et al. Spectroscopic, thermal and laser characteristics of Nd:LiLuF₄ for 1314 nm laser. Laser Physics Letters, 115803(2014).