[18] [18] HENRICI A T, JOHNSON D E. Studies of freshwater bacteria: ii. stalked bacteria, a new order of schizomycetes［J］. Journal of Bacteriology, 1935, 30(1): 61-93.

[21] [21] BALLMAN A A. Growth of piezoelectric and ferroelectric materials by the CzochraIski technique［J］. Journal of the American Ceramic Society, 1965, 48(2): 112-113.

[22] [22] YAMADA T, IWASAKI H, NIIZEKI N. Piezoelectric and elastic properties of LiTaO3: temperature characteristics［J］. Japanese Journal of Applied Physics, 1969, 8(9): 1127-1132.

[23] [23] WHATMORE R W, SHORROCKS N M, O’HARA C, et al. Lithium tetraborate: a new temperature-compensated SAW substrate material［J］. Electronics Letters, 1981, 17(1): 11.

[25] [25] LI F, CABRA M J, XU B.Giant piezoelectricity of Sm-doped Pb(Mg1/3Nb2/3)O3-PbTiO3 single crystals［J］. Science Foundation in China, 2019, 27(2): 17.

[26] [26] PARK S E, SHROUT T R. Relaxor based ferroelectric single crystals for electro-mechanical actuators［J］. Materials Research Innovations, 1997, 1(1): 20-25.

[27] [27] PARK S E, SHROUT T R. Characteristics of relaxor-based piezoelectric single crystals for ultrasonic transducers［J］. IEEE Ultrasonics Symposium Proceedings, 1996, 2: 935-942.

[28] [28] YEO H G, CHOI J, JIN C Z, et al. The design and optimization of a compressive-type vector sensor utilizing a PMN-28PT piezoelectric single-crystal［J］. Sensors, 2019, 19(23): 5155.

[29] [29] LIN D B, LI Z R, LI F, et al. Characterization and piezoelectric thermal stability of PIN-PMN-PT ternary ceramics near the morphotropic phase boundary［J］. Journal of Alloys and Compounds, 2010, 489(1): 115-118.

[31] [31] BELAN R A, TAILOR H N, LONG X F, et al. Growth and characterization of piezo-/ferroelectric Pb(Mg1/3Nb2/3)O3-PbTiO3-Bi(Zn1/2Ti1/2)O3 ternary single crystals［J］. Journal of Crystal Growth, 2011, 318(1): 839-845.

[33] [33] SHIMAMURA K, TAKEDA H, KOHNO T, et al. Growth and characterization of lanthanum gallium silicate La3Ga5SiO14 single crystals for piezoelectric applications［J］. Journal of Crystal Growth, 1996, 163(4): 388-392.

[35] [35] YU F P, YUAN D R, YIN X, et al. Czochralski growth and characterization of the piezoelectric single crystal La3Ga5.5Nb0.5O14［J］. Solid State Communications, 2009, 149(31/32): 1278-1281.

[37] [37] SHI X Z, YUAN D R, YIN X, et al. Crystal growth and dielectric, piezoelectric and elastic properties of Ca3NbGa3Si2O14 single crystal［J］. Journal of Crystal Growth, 2006, 293(2): 485-488.

[38] [38] ZU H F, WU H Y, WANG Y Z, et al. Properties of single crystal piezoelectric Ca3TaGa3Si2O14 and YCa4O(BO3)3 resonators at high-temperature and vacuum conditions［J］. Sensors and Actuators A: Physical, 2014, 216: 167-175.

[41] [41] ZHANG M H, HU C P, ZHOU Z, et al. Determination of polarization states in (K, Na)NbO3 lead-free piezoelectric crystal［J］. Journal of Advanced Ceramics, 2020, 9(2): 204-209.

[42] [42] CHEN F F, KONG L F, YU F P, et al. Investigation of the crystal growth, thickness and radial modes of α-BiB3O6 piezoelectric crystals［J］. CrystEngComm, 2017, 19(3): 546-551.

[43] [43] SCOTT B A, INGEBRIGTSEN K A, TSENG C C. Crystal growth and properties of pyroelectric Li2GeO3［J］. Materials Research Bulletin, 1970, 5(12): 1045-1049.

[44] [44] KUZ′MICHEVA G M, RYBAKOV V B, GAISTER A V, et al. Structure and properties of LiGaO2 crystals［J］.Inorganic Materials, 2001, 37(3): 281-285.

[46] [46] ZHANG S J, ZHANG J G, CHENG Z X, et al. Studies on the growth and defects of GdCa4O(BO3)3 crystals［J］. Journal of Crystal Growth, 1999, 203(1/2): 168-172.

[47] [47] YU F P, HOU S, ZHANG S J, et al. Electro-elastic properties of YCa4O(BO3)3 piezoelectric crystals［J］. Physica Status Solidi (a), 2014, 211(3): 574-579.

[48] [48] JIANG C, LONG Y, YU F P, et al. Single crystal growth and temperature dependent behaviors of melilite type piezoelectric crystal Ca2Al2SiO7［J］. Journal of Crystal Growth, 2018, 496/497: 57-63.

[49] [49] ZHANG Y Y, YIN X, YU H H, et al. Growth and piezoelectric properties of melilite ABC3O7 crystals［J］. Crystal Growth & Design, 2012, 12(2): 622-628.

[50] [50] SOULEIMAN M, BHALERAO G M, GUILLET T, et al. Hydrothermal growth of large piezoelectric single crystals of GaAsO4［J］. Journal of Crystal Growth, 2014, 397: 29-38.

[51] [51] KREMPL P, SCHLEINZER G, WALLNFER W. Gallium phosphate, GaPO4: a new piezoelectric crystal material for high-temperature sensorics［J］. Sensors and Actuators A: Physical, 1997, 61(1/2/3): 361-363.

[52] [52] MAIMAN T H. Stimulated optical radiation in ruby［J］. Nature, 1960, 187(4736): 493-494.

[53] [53] DANIELMEYER H G, OSTERMAYER F W. Diode-pump-modulated Nd∶YAG laser［J］. Journal of Applied Physics, 1972, 43(6): 2911-2913.

[57] [57] NING K J, LIU Y C, MA J, et al. Growth and characterization of large-scale Ti∶sapphire crystal using heat exchange method for ultra-fast ultra-high-power lasers［J］. CrystEngComm, 2015, 17(14): 2801-2805.

[58] [58] MOULTON P. Ti-doped sapphire: tunable solid-state laser［J］. Optics News, 1982, 8(6): 9.

[59] [59] MOULTON P F. Spectroscopic and laser characteristics of Ti: Al2O3［J］. Journal of the Optical Society of America B, 1986, 3(1): 125.

[61] [61] FIELDS R A, BIRNBAUM M, FINCHER C L. Highly efficient Nd∶YVO4 diode-laser end-pumped laser［J］. Applied Physics Letters, 1987, 51(23): 1885-1886.

[62] [62] OGINO H, YOSHIKAWA A, NIKL M, et al. Growth and scintillation properties of Pr-doped Lu3Al5O12 crystals［J］. Journal of Crystal Growth, 2006, 287(2): 335-338.

[63] [63] PRACKA I, GIERSZ W, S＇WIRKOWICZ M, et al. The Czochralski growth of SrLaGa3O7 single crystals and their optical and lasing properties［J］. Materials Science and Engineering: B, 1994, 26(2/3): 201-206.

[64] [64] XU Y N, CHING W Y, BRICKEEN B K. Electronic structure and bonding in garnet crystals Gd3Sc2Ga3O12, Gd3Sc2Al3O12, and Gd3Ga3O12 compared to Y3Al3O12［J］. Physical Review B, 2000, 61(3): 1817-1824.

[65] [65] LUCCA A, DEBOURG G, JACQUEMET M, et al. High-power diode-pumped Yb3+∶CaF2 femtosecond laser［J］. Optics Letters, 2004, 29(23): 2767-2769.

[66] [66] SU L B, XU J, LI H J, et al. Codoping Na+ to modulate the spectroscopy and photoluminescence properties of Yb3+ in CaF2 laser crystal［J］. Optics Letters, 2005, 30(9): 1003-1005.

[67] [67] RICAUD S, GEORGES P, CAMY P, et al. Diode-pumped regenerative Yb∶SrF2 amplifier［J］. Applied Physics B, 2012, 106(4): 823-827.

[68] [68] COLUCCELLI N, GALZERANO G, TONELLI M, et al. Diode-pumped Yb3+∶KYF4 femtosecond laser［J］. Optics Letters, 2008, 33(10): 1141-1143.

[69] [69] COLUCCELLI N, GALZERANO G, BONELLI L, et al. Diode-pumped passively mode-locked Yb∶YLF laser［J］. Optics Express, 2008, 16(5): 2922.

[70] [70] YASUKEVICH A S, KISEL V E, KURILCHIK S V, et al. Continuous wave diode pumped Yb∶LLF and Yb∶NYF lasers［J］. Optics Communications, 2009, 282(22): 4404-4407.

[71] [71] FALIN M L, GERASIMOV K I, KAZAKOV B N, et al. Spectrometer for optical detection of magnetic resonance: magneto-optical study of Yb3+ in BaF2 single crystal［J］. Applied Magnetic Resonance, 1999, 17(1): 103-112.

[73] [73] HOU W T, XU Z A, ZHAO H Y, et al. Spectroscopic analysis of Er∶Y2O3 crystal at 2.7 μm mid-IR laser［J］. Optical Materials, 2020, 107: 110017.

[74] [74] HOU W T, ZHAO H Y, LI N, et al. Spectroscopic properties of Er∶Lu2O3 crystal in mid-infrared emission［J］. Optical Materials, 2019, 98: 109508.

[75] [75] NOGINOV M A, LOUTTS G B, JONES D E, et al. Crystal growth of vanadium doped YAlO3, LaGaO3, and CaYAlO4 crystals and spectroscopic studies of vanadium valence states［J］. Journal of Applied Physics, 2001, 91(2): 569-575.

[76] [76] LISIECKI R, SOLARZ P, DOMINIAK-DZIK G, et al. Effect of temperature on spectroscopic features relevant to laser performance of YVO4∶Tm3+, GdVO4∶Tm3+, and LuVO4∶Tm3+ crystals［J］. Optics Letters, 2010, 35(23): 3940-3942.

[77] [77] LI W X, HAO Q, ZHAI H, et al. Diode-pumped Yb∶GSO femtosecond laser［J］. Optics Express, 2007, 15(5): 2354-2359.

[78] [78] LIU J, WANG W W, LIU C C, et al. Efficient diode-pumped self-mode-locking Yb∶LYSO laser［J］. Laser Physics Letters, 2009: NA.

[79] [79] TIAN W L, WANG Z H, LIU J X, et al. Dissipative soliton and synchronously dual-wavelength mode-locking Yb∶YSO lasers［J］. Optics Express, 2015, 23(7): 8731-8739.

[80] [80] ZHENG L H, ZHAO G J, SU L B, et al. Comparison of optical properties between ytterbium-doped Lu2SiO5 (Yb∶LSO) and ytterbium-doped Lu2Si2O7(Yb∶LPS) laser crystals［J］. Journal of Alloys and Compounds, 2009, 471(1/2): 157-161.

[81] [81] SERRES J M, MATEOS X, LOIKO P, et al. Indium-modified Yb∶KLu(WO4)2 crystal: growth, spectroscopy and laser operation［J］. Journal of Luminescence, 2017, 183: 391-400.

[82] [82] HOLTOM G R. Mode-locked Yb∶KGW laser longitudinally pumped by polarization-coupled diode bars［J］. Optics Letters, 2006, 31(18): 2719-2721.

[83] [83] LIU H, NEES J, MOUROU G. Diode-pumped Kerr-lens mode-locked Yb∶KY(WO4)2 laser［J］. Optics Letters, 2001, 26(21): 1723-1725.

[84] [84] ZHANG Y, WANG G F. Optical properties of Yb3+-doped Sr3Y2(BO3)4 crystal［J］. Journal of Materials Research, 2012, 27(16): 2106-2110.

[85] [85] LOU F, SUN S J, HE J L, et al. Direct diode-pumped 58 fs Yb∶Sr3Y2(BO3)4 laser［J］. Optical Materials, 2016, 55: 1-4.

[86] [86] ZHANG Y, LIN Z B, ZHANG L Z, et al. Growth and optical properties of Yb3+-doped Sr3Gd2(BO3)4 crystal［J］. Optical Materials, 2007, 29(5): 543-546.

[87] [87] ZHANG Y Y, LI J R, HU Y Y, et al. Temperature tunable lasers with disordered Nd∶ABC3O7 crystals［J］. Optics & Laser Technology, 2020, 125: 106018.

[91] [91] FRANKEN P A, HILL A E, PETERS C W, et al. Generation of optical harmonics［J］. Physical Review Letters, 1961, 7(4): 118-119.

[92] [92] HULME K F, JONES O, DAVIES P H, et al. Synthetic proustite (Ag3AsS3): a new crystal for optical mixing［J］. Applied Physics Letters, 1967, 10(4): 133-135.

[93] [93] BARDSLEY W, DAVLES P H, HOBDEN M V, et al. Synthetic proustite (Ag3AsS3): a summary of its properties and uses［J］. Opto-electronics, 1969, 1(1): 29-31.

[94] [94] CHEN C T, WU B C, JIANG A D, et al. A new-type ultraviolet SHG crystal—β-BaB2O4［J］. Science in China, Ser B, 1985, 28(3): 235-243.

[95] [95] WU Y C, CHEN C T. Development of new nonlinear optical crystal LiB3O5［J］. The Review of Laser Engineering, 1991, 19(10): 941-949.

[96] [96] YE N, TANG D. Hydrothermal growth of KBe2BO3F2 crystals［J］. Journal of Crystal Growth, 2006, 293(2): 233-235.

[97] [97] WANG X Y, YAN X, LUO S Y, et al. Flux growth of large KBBF crystals by localized spontaneous nucleation［J］. Journal of Crystal Growth, 2011, 318(1): 610-612.

[99] [99] RYU G, YOON C S, HAN T P J, et al. Growth and characterisation of CsLiB6O10 (CLBO) crystals［J］. Journal of Crystal Growth, 1998, 191(3): 492-500.

[100] [100] WU Y C, SASAKI T, NAKAI S D, et al. CsB3O5: a new nonlinear optical crystal［J］. Applied Physics Letters, 1993, 62(21): 2614-2615.

[101] [101] KRYUKOV P G, MATVEETS Y A, NIKOGOSYAN D N, et al. Generation of frequency-tunable single ultrashort light pulses in an LiIO3 crystal［J］. Soviet Journal of Quantum Electronics, 1977, 7(1): 127-128.

[102] [102] CYRANOSKI D. Materials science: China’s crystal cache［J］.Nature, 2009, 457(7232): 953-955.

[103] [103] ANDRIYEVSKY B, PILZ T, YEON J, et al. DFT-based ab initio study of dielectric and optical properties of bulk Li2B3O4F3 and Li2B6O9F2［J］. Journal of Physics and Chemistry of Solids, 2013, 74(4): 616-623.

[104] [104] PENG G, YE N, LIN Z S, et al. NH4Be2BO3F2 and γ-Be2BO3F: overcoming the layering habit in KBe2BO3F2 for the next-generation deep-ultraviolet nonlinear optical materials［J］. Angewandte Chemie International Edition, 2018, 57(29): 8968-8972.

[105] [105] GUO S, LIU L J, XIA M J, et al. Be2BO3F: a phase of beryllium fluoride borate derived from KBe2BO3F2 with short UV absorption edge［J］. Inorganic Chemistry, 2016, 55(13): 6586-6591.

[106] [106] SHI G Q, WANG Y, ZHANG F F, et al. Finding the next deep-ultraviolet nonlinear optical material: NH4B4O6F［J］. Journal of the American Chemical Society, 2017, 139(31): 10645-10648.

[107] [107] LIU L J, ZHOU H T, HE X L, et al. Hydrothermal growth and optical properties of RbBe2BO3F2 crystals［J］. Journal of Crystal Growth, 2012, 348(1): 60-64.

[109] [109] WANG T J, ZHANG H Z, WU F G, et al. 3-5 μm AgGaS2 optical parametric oscillator with prism cavity［J］. Laser Physics, 2009, 19(3): 377-380.

[110] [110] RUSSELL D A, EBERT R. Efficient generation and heterodyne detection of 4.75-μm light with second-harmonic generation［J］. Applied Optics, 1993, 32(33): 6638-6644.

[111] [111] BUDNI P A, POMERANZ L A, LEMONS M L, et al. Efficient mid-infrared laser using 1.9-μm-pumped Ho∶YAG and ZnGeP2 optical parametric oscillators［J］. Josa B, 2000, 17(5): 723-728.

[112] [112] VODOPYANOV K L, SCHUNEMANN P G. Efficient difference-frequency generation of 7-20 μm radiation in CdGeAs2［J］. Optics Letters, 1998, 23(14): 1096-1098.

[113] [113] ISAENKO L, YELISSEYEV A, LOBANOV S, et al. LiInSe2: a biaxial ternary chalcogenide crystal for nonlinear optical applications in the midinfrared［J］. Journal of Applied Physics, 2002, 91(12): 9475-9480.

[115] [115] YAO J Y, MEI D J, BAI L, et al. BaGa4Se7: a new congruent-melting IR nonlinear optical material［J］. Inorganic Chemistry, 2010, 49(20): 9212-9216.

[116] [116] ISAENKO L, YELISSEYEV A, LOBANOV S, et al. Growth and properties of LiGaX2 (X=S, Se, Te) single crystals for nonlinear optical applications in the mid-IR［J］. Crystal Research and Technology, 2003, 38(35): 379-387.

[117] [117] DOU Y W, CHEN Y, LI Z, et al. SrCdGeS4 and SrCdGeSe4: promising infrared nonlinear optical materials with congruent-melting behavior［J］. Crystal Growth & Design, 2019, 19(2): 1206-1214.

[119] [119] MAKER P D, TERHUNE R W. Study of optical effects due to an induced polarization third order in the electric field strength［J］. Physical Review, 1965, 137(3A): A801-A818.

[120] [120] KAMINOW I P, JOHNSTON W D. Quantitative determination of sources of the electro-optic effect in LiNbO3 and LiTaO3［J］. Physical Review, 1967, 160(3): 519-522.

[121] [121] PAPUCHON M. Recent progresses in electrooptic modulation and switching using LiNbO3 waveguides［J］. Frequenz, 1978, 32(3): 75-78.

[122] [122] SASAKI H, DE LA RUE R M. Electro-optic Y-junction modulator/switch［J］. Electronics Letters, 1976, 12(18): 459.

[124] [124] SHANG J F, SUN J, LI Q L, et al. Single-block pulse-on electro-optic Q-switch made of LiNbO3［J］. Scientific Reports, 2017, 7: 4651.

[127] [127] WARNER J. Simulation of a double 45°, z-cut KDP, electro-optic Q-switch by desk-top computer［J］. Optics & Laser Technology, 1971, 3(4): 215-217.

[128] [128] ROSNER R D, TURNER E H, KAMINOW I P. Clamped electrooptic coefficients of KDP and quartz［J］. Applied Optics, 1967, 6(4): 778.

[129] [129] GOODNO G D, GUO Z, MILLER R J D, et al. Investigation of β-BaB2O4 as a Q switch for high power applications［J］. Applied Physics Letters, 1995, 66(13): 1575-1577.

[130] [130] LEBIUSH E, LAVI R, TZUK Y, et al. High repetition rate end-pumped electro-optic RTP Q-switch Nd∶YVO4 laser［C］. Proceedings of the Lasers and Electro-Optics Europe, Nice, France, F. IEEE Xplore, 2000.

[131] [131] KONG H K, WANG J Y, ZHANG H J, et al. Growth, properties and application as an electrooptic Q-switch of langasite crystal［J］. Journal of Crystal Growth, 2003, 254(3/4): 360-367.

[133] [133] ZGONIK, BERNASCONI, DUELLI, et al. Dielectric, elastic, piezoelectric, electro-optic, and elasto-optic tensors of BaTiO3 crystals［J］. Physical Review B, Condensed Matter, 1994, 50(9): 5941-5949.

[134] [134] ZGONIK M, NAKAGAWA K, GNTER P. Electro-optic and dielectric properties of photorefractive BaTiO3 and KNbO3［J］. Josa B, 1995, 12(8): 1416-1421.

[135] [135] WANG J Y, GUAN Q C, WEI J Q, et al. Growth and characterization of cubic KTa1-xNbxO3 crystals［J］. Journal of Crystal Growth, 1992, 116(1/2): 27-36.

[137] [137] XU F, ZHANG G, LUO M, et al. A powder method for the high-efficacy evaluation of electro-optic crystals［J］. National Science Review, 2020, 8(3): nwaa104.

[138] [138] LIU X, TAN P, MA X, et al. Ferroelectric crystals with giant electro-optic property enabling ultracompact Q-switches［J］. Science, 2022, 376(6591): 371-377.

[139] [139] HOFSTADTER R. Alkali halide scintillation counters［J］. Physical Review, 1948, 74(1): 100-101.

[140] [140] NITSCHE R. Crystal growth and electro-optic effect of bismuth germanate, Bi4(GeO4)3［J］. Journal of Applied Physics, 1965, 36(8): 2358-2360.

[145] [145] JI Z M, NI H H, YUAN L Y, et al. Investigation of optical transmittance and light response uniformity of 600-mm-long BGO crystals［J］. Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment, 2014, 753: 143-148.

[147] [147] ERIKSSON L, TOWNSEND D, ERIKSSON M, et al. Experience with scintillators for PET: towards the fifth generation of PET scanners［J］. Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment, 2004, 525(1/2): 242-248.

[150] [150] MELCHER C L, SCHWEITZER J S, UTSU T, et al. Scintillation properties of GSO［J］. IEEE Transactions on Nuclear Science, 1990, 37(2): 161-164.

[153] [153] WU Y T, KOSCHAN M, LI Q, et al. Revealing the role of calcium codoping on optical and scintillation homogeneity in Lu2SiO5: Ce single crystals［J］. Journal of Crystal Growth, 2018, 498: 362-371.

[154] [154] DORENBOS P, DE HAAS J T M, VAN EIJK C W E, et al. Nonlinear response in the scintillation yield of Lu2SiO5∶Ce3［J］. IEEE Transactions on Nuclear Science, 1994, 41(4): 735-737.

[157] [157] BLAHUTA S, BESSIRE A, GOURIER D, et al. Effect of the X-ray dose on the luminescence properties of Ce∶LYSO and co-doped Ca, Ce∶LYSO single crystals for scintillation applications［J］. Optical Materials, 2013, 35(10): 1865-1868.

[158] [158] TANJI K, ISHII M, USUKI Y, et al. Crystal growth of PbWO4 by the vertical Bridgman method: effect of crucible thickness and melt composition［J］. Journal of Crystal Growth, 1999, 204(4): 505-511.

[159] [159] ZHAO W, RISTIC G, ROWLANDS J A. X-ray imaging performance of structured cesium iodide scintillators［J］. Medical Physics, 2004, 31(9): 2594-2605.

[160] [160] SHAH K S, GLODO J, KLUGERMAN M, et al. LaCl3∶Ce scintillator for γ-ray detection［J］. Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment, 2003, 505(1/2): 76-81.

[162] [162] SHIRWADKAR U, GLODO J, VAN LOEF E V, et al. Scintillation properties of Cs2LiLaBr6 (CLLB) crystals with varying Ce3+ concentration［J］. Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment, 2011, 652(1): 268-270.

[163] [163] BESSIERE A, DORENBOS P, van EIJK C W E, et al. Luminescence and scintillation properties of CS［J］. Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment, 2005, 537(1/2): 242-246.

[165] [165] UTSU T, AKIYAMA S. Growth and applications of Gd2SiO5∶Ce scintillators［J］. Journal of Crystal Growth, 1991, 109(1/2/3/4): 385-391.

[166] [166] YANG X B, LI H J, BI Q Y, et al. Growth of large-sized Ce∶Y3Al5O12 (Ce∶YAG) scintillation crystal by the temperature gradient technique (TGT)［J］. Journal of Crystal Growth, 2009, 311(14): 3692-3696.

[167] [167] ZHONG J P, LIANG H B, SU Q, et al. Effects of annealing treatments on luminescence and scintillation properties of Ce∶Lu3Al5O12 crystal grown by Czochralski method［J］. Journal of Rare Earths, 2007, 25(5): 568-572.

[168] [168] MENG F, KOSCHAN M, TYAGI M, et al. A novel method to create an intrinsic reflective layer on a Gd3Ga3Al2O12∶Ce scintillation crystal［J］. Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment, 2014, 763: 591-595.

[169] [169] YANG F, PAN S K, DING D Z, et al. Growth and optical properties of the Ce-doped Li6Gd(BO3)3 crystal grown by the modified Bridgman method［J］. Journal of Alloys and Compounds, 2009, 484(1/2): 837-840.

[170] [170] WU Y G, GU M, CAO E H, et al. Design of a one-dimensional photonic crystal for the modification of BaF2 scintillation spectrum［J］. Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment, 2003, 496(1): 129-137.

[171] [171] COMBES C M, DORENBOS P, VAN EIJK C W E, et al. Optical and scintillation properties of LiBaF3∶Ce crystals［J］. Journal of Luminescence, 1997, 72/73/74: 753-755.

[172] [172] SHIMAMURA K, MUJILATU N, NAKANO K, et al. Growth and characterization of Ce-doped LiCaAlF6 single crystals［J］. Journal of Crystal Growth, 1999, 197(4): 896-900.

[176] [176] JORIO A, CURRAT R, MYLES D A A, et al. Ferroelastic phase transition in Cs3Bi2I9: a neutron diffraction study［J］. Physical Review B, 2000, 61(6): 3857-3862.

[177] [177] WANG W Z, MENG H, QI H Z, et al. Electronic-grade high-quality perovskite single crystals by a steady self-supply solution growth for high-performance X-ray detectors［J］. Advanced Materials, 2020, 32(33): e2001540.

[178] [178] LI J C, DU X Y, NIU G D, et al. Rubidium doping to enhance carrier transport in CsPbBr3 single crystals for high-performance X-ray detection［J］. ACS Applied Materials & Interfaces, 2020, 12(1): 989-996.

[180] [180] LIU J, ZHANG Y. Growth of lead iodide single crystals used for nuclear radiation detection of Gamma-rays［J］. Crystal Research and Technology, 2017, 52(3): 1600370.

[181] [181] HANY I, YANG G, PHAN Q V, et al. Thallium lead iodide (TlPbI3) single crystal inorganic perovskite: electrical and optical characterization for gamma radiation detection［J］. Materials Science in Semiconductor Processing, 2021, 121: 105392.

[183] [183] DONNAY J, HARKER D. A new law of crystal morphology extending the law of Bravais［J］. American Mineralogist, 1937, 22: 446-467.

[184] [184] FRANK F C. In: growth and perfection of crystals［M］. New York: John Wiley, 1958.

[188] [188] HARTMAN P, PERDOK W G. On the relations between structure and morphology of crystals. I［J］. Acta Crystallographica, 1955, 8(1): 49-52.

[191] [191] UELTZEN M. The Verneuil flame fusion process: substances［J］. Journal of Crystal Growth, 1993, 132(1/2): 315-328.

[192] [192] KURLOV V N. Sapphire: properties, growth, and applications［M］//Reference Module in Materials Science and Materials Engineering. Amsterdam: Elsevier, 2016.

[193] [193] BOONIN K, SONGPAKOB W, AMINAH N S, et al. Fabrication of ruby by flame fusion technique and their properties［J］. Materials Today: Proceedings, 2018, 5(7): 15010-15013.

[194] [194] WONGWAN W, SANGWARANATEE N, KEAWKHAO J, et al. Fabrication of Mn2+ doped Al2O3 bulk crystal by flame fusion technique and their properties［J］. Materials Today: Proceedings, 2021, 43: 2641-2646.

[199] [199] LABELLE H E Jr. EFG, the invention and application to sapphire growth［J］. Journal of Crystal Growth, 1980, 50(1): 8-17.

[200] [200] BRIDGMAN P W. Thermal conductivity and thermo-electromotive force of single metal crystals［J］. Proceedings of the National Academy of Sciences of the United States of America, 1925, 11(10): 608-612.

[201] [201] STOCKBARGER D C. The production of large single crystals of lithium fluoride［J］. Review of Scientific Instruments, 1936, 7(3): 133-136.

[202] [202] DEMINA S E, BYSTROVA E N, POSTOLOV V S, et al. Use of numerical simulation for growing high-quality sapphire crystals by the Kyropoulos method［J］. Journal of Crystal Growth, 2008, 310(7/8/9): 1443-1447.

[203] [203] PFANN W G. Principles of zone-melting［J］. JOM, 1952, 4(7): 747-753.

[204] [204] ZHANG X X, FRIEDRICH S, FRIEDRICH B. Production of high purity metals: a review on zone refining process［J］. Journal of Crystallization Process and Technology, 2018, 8(1): 33-55.

[205] [205] KECK P H, GOLAY M J E. Crystallization of silicon from a floating liquid zone［J］. Physical Review, 1953, 89(6): 1297.

[206] [206] VIECHNICKI D, SCHMID F. Growth of large monocrystals of Al2O3 by a gradient furnace technique［J］. Journal of Crystal Growth, 1971, 11(3): 345-347.

[207] [207] SCHMID F, KHATTAK C P. Growth of Co∶MgF2 and Ti∶Al2O3 crystals for solid state laser applications［M］//Tunable Solid State Lasers. Berlin, Heidelberg: Springer Berlin Heidelberg, 1985: 122-128.

[208] [208] JOYCE D B, SCHMID F. Progress in the growth of large scale Ti: sapphire crystals by the heat exchanger method (HEM) for petawatt class lasers［J］. Journal of Crystal Growth, 2010, 312(8): 1138-1141.