Nd 3+:YAG–Al 2O 3 nanocrystalline transparent ceramics with high inflexion concentration quenching of Nd 3+ prepared by amorphous crystallization
Source abstract
Abstract
Rare earth ions doped YAG-based transparent ceramics have acted as important laser gain medium for a long time, yet the doping concentration of active ions is limited due to concentration quenching wherein the inflexion concentration quenching of Nd3+ is recognized as 1.0 at%. In this work, YAG-Al2O3 nanocrystalline transparent ceramics with the concentration of Nd3+(0~5.0 at%) have been fabricated via amorphous crystallization, and the crystal structure evolution, the morphology and the optical properties were systematically investigated by DSC, XRD, TEM, MAS NMR and fluorescence spectra. The doping of Nd3+can promote the transition of Al[5] and Al[6]to Al[4], indicating the improvements of the amorphous formation ability to gain Nd3+:Y2O3-Al2O3 vitrify beads, and 1.5 at% Nd3+:YAG-Al2O3nanocrystalline transparent ceramics can be obtained by crystallized at 1050°C with the matrix compositing of YAG and concomitant δ-Al2O3 and θ-Al2O3. The nanocrystalline transparent ceramics show the internal transmittance of 89.56% at 1064 nm, and the strongest emission peak corresponding to the energy transfer from 4F3/2 to 4I11/2 of Nd3+ with the fluorescence lifetime of 231 μs pumped by 808 nm laser. Specially, spectral broadening begins to occur, indicating the onset of concentration quenching, when the concentration of Nd3+ exceeds 1.5 at%, substantially higher than 1.0 at% observed in YAG ceramics. YAG-Al2O3 nanocrystalline transparent ceramics obtained by amorphous crystallization can be utilized as the matrix to increase the inflexion point of doping concentration quenching of Nd3+, and this material may have great potential as laser gain medium.
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Research context
OpenAlex topics: Solid State Laser Technologies · Luminescence Properties of Advanced Materials · Glass properties and applications
SciVX discovery tags are terminology-based. OpenAlex topics are source-provided classifications.
References (54)
Show source-provided references
1. PA Arsenev. Studies of dislocations in single crystals of alumo–yttrium garnet (YAG). 1974, 9: 257-264.10.1002/crat.19740090310 ↗
2. B Cockayne. The uses and enigmas of the Al 2O 3–Y 2O 3 phase system. 1985, 114: 199-206.10.1016/0022-5088(85)90402-3 ↗
4. WF Krupke. Ytterbium solid-state lasers. The first decade. 2000, 6: 1287-1296.10.1109/2944.902180 ↗
5. PA Arsenev. The spectroscopic investigation of neodymium in mixed aluminates of yttrium and gadolinium. 1976, 33: 511-515.10.1002/pssa.2210330209 ↗
6. RC Ohlmann. Spectroscopic and laser characteristics of neodymium-doped calcium fluorophosphate. 1968, 7: 905-914.10.1364/AO.7.000905 ↗
7. T Taira. Modeling of quasi-three-level lasers and operation of cw Yb:YAG lasers. 1997, 36: 1867-1874.10.1364/AO.36.001867 ↗
8. JE Geusic. Laser oscillations in Nd-doped yttrium aluminum, yttrium gallium and gadolinium garnets. 1964, 4: 182-184.10.1063/1.1753928 ↗
9. A Ikesue. Ceramic laser materials. 2008, 2: 721-727.10.1038/nphoton.2008.243 ↗
10. RL Aggarwal. Measurement of thermo-optic properties of Y 3Al 5O 12, Lu 3Al 5O 12, YAIO 3, LiYF 4, LiLuF 4, BaY 2F 8, KGd(WO 4) 2, and KY(WO 4) 2 laser crystals in the 80–300 K temperature range. 2005, 98: 103514.10.1063/1.2128696 ↗
11. M Nikl. Defect engineering in Ce-doped aluminum garnet single crystal scintillators. 2014, 14: 4827-4833.10.1021/cg501005s ↗
12. A Ikesue. Synthesis and performance of advanced ceramic lasers. 2006, 89: 1936-1944.10.1111/j.1551-2916.2006.01043.x ↗
13. null10.1007/s40145-016-0208-y ↗
14. TR Hinklin. Transparent, polycrystalline upconverting nanoceramics: Towards 3-D displays. 2008, 20: 1270-1273.10.1002/adma.200701235 ↗
15. HM Wang. A new methodology to obtain the fracture toughness of YAG transparent ceramics. 2019, 8: 418-426.10.1007/s40145-019-0324-6 ↗
16. A Ikesue. Fabrication and optical properties of high-performance polycrystalline Nd:YAG ceramics for solid-state lasers. 1995, 78: 1033-1040.10.1111/j.1151-2916.1995.tb08433.x ↗
17. G Boulon. Fifty years of advances in solid-state laser materials. 2012, 34: 499-512.10.1016/j.optmat.2011.04.018 ↗
18. YT Wu. Single crystal and optical ceramic multicomponent garnet scintillators: A comparative study. 2015, 780: 45-50.10.1016/j.nima.2015.01.057 ↗
19. M Nikl. Recent R&D trends in inorganic single-crystal scintillator materials for radiation detection. 2015, 3: 463-481.10.1002/adom.201400571 ↗
20. null10.1007/978-3-540-70749-3 ↗
21. A Ikesue. Progress in ceramic lasers. 2006, 36: 397-429.10.1146/annurev.matsci.36.011205.152926 ↗
22. L Zhang. High performance of La-doped Y 2O 3 transparent ceramics. 2020, 9: 493-502.10.1007/s40145-020-0392-7 ↗
23. GL Messing. Toward pore-free ceramics. 2008, 322: 383-384.10.1126/science.1160903 ↗
24. A Ikesue. Polycrystalline Nd:YAG ceramics lasers. 2002, 19: 183-187.10.1016/S0925-3467(01)00217-8 ↗
25. WW Cao. Highly nonstoichiometric YAG ceramics with modified luminescence properties. 2023, 33: 2213418.10.1002/adfm.202213418 ↗
26. DY Kosyanov. Effect of Nd 3+ ions on phase transformations and microstructure of 0–4 at%Nd 3+:Y 3Al 5O 12 transparent ceramics. 2016, 686: 526-532.10.1016/j.jallcom.2016.06.046 ↗
27. RP Yavetskiy. Microstructure evolution during reactive sintering of Y 3Al 5O 12:Nd 3+ transparent ceramics: Influence of green body annealing. 2019, 39: 3867-3875.10.1016/j.jeurceramsoc.2019.05.013 ↗
28. IO Vorona. Reactive sintering of highly-doped YAG/Nd 3+:YAG/YAG composite ceramics. 2017, 11: 290-295.10.2298/PAC1704290V ↗
29. XG Ma. Pressureless glass crystallization of transparent yttrium aluminum garnet-based nanoceramics. 2018, 9: 1175.10.1038/s41467-018-03467-7 ↗
30. Y Hou. Effect of melt convection on the growth of Nd:YAG crystal by the czochralski method. 1993, 28: 311-315.10.1002/crat.2170280307 ↗
31. A Ikesue. Fabrication and laser performance of polycrystal and single crystal Nd:YAG by advanced ceramic processing. 2007, 29: 1289-1294.10.1016/j.optmat.2005.12.013 ↗
32. J Li. Fabrication, microstructure and properties of highly transparent Nd:YAG laser ceramics. 2008, 31: 6-17.10.1016/j.optmat.2007.12.014 ↗
33. V Lupei. High-resolution spectroscopy and emission decay in concentrated Nd:YAG ceramics. 2002, 19: 360-368.10.1364/JOSAB.19.000360 ↗
34. RH Mao. Optical and scintillation properties of inorganic scintillators in high energy physics. 2008, 55: 2425-2431.10.1109/TNS.2008.2000776 ↗
35. J Lu. Optical properties and highly efficient laser oscillation of Nd:YAG ceramics. 2000, 71: 469-473.10.1007/s003400000394 ↗
36. JKR Weber. The containerless synthesis of glass. 2010, 1: 248-256.10.1111/j.2041-1294.2010.00026.x ↗
37. Y Zhang. Crystallization kinetics of Al 2O 3–26 mol%Y 2O 3 glass and full crystallized transparent Y 3Al 5O 12-based nanoceramic. 2021, 41: 1557-1563.10.1016/j.jeurceramsoc.2020.09.036 ↗
38. JJ Han. Large-sized La 2O 3–TiO 2 high refractive glasses with low SiO 2 fraction by hot-press sintering. 2019, 10: 371-377.10.1111/ijag.13154 ↗
39. J Fu. Ce 3+:Lu 3Al 5O 12–Al 2O 3 optical nanoceramic scintillators elaborated via a low-temperature glass crystallization route. 2023, 12: 268-278.10.26599/JAC.2023.9220681 ↗
40. M Allix. Highly transparent BaAl 4O 7 polycrystalline ceramic obtained by full crystallization from glass. 2012, 24: 5570-5575.10.1002/adma.201202282 ↗
41. J Fu. Biphasic (Lu,Gd) 3Al 5O 12-based transparent nanoceramic color converters for high-power white LED/LD lighting. 2023, 12: 2331-2344.10.26599/JAC.2023.9220823 ↗
42. S Alahraché. Perfectly transparent Sr 3Al 2O 6 polycrystalline ceramic elaborated from glass crystallization. 2013, 25: 4017-4024.10.1021/cm401953d ↗
43. K Lu. Nanocrystalline metals crystallized from amorphous solids: Nanocrystallization, structure, and properties. 1996, 16: 161-221.10.1016/0927-796X(95)00187-5 ↗
44. null10.1107/S0021889813003531 ↗
45. P Florian. A multi-nuclear multiple-field nuclear magnetic resonance study of the Y 2O 3–Al 2O 3 phase diagram. 2001, 105: 379-391.10.1021/jp0008851 ↗
46. R Kasuya. Photoluminescence enhancement of PEG-modified YAG:Ce 3+ nanocrystal phosphor prepared by glycothermal method. 2005, 109: 22126-22130.10.1021/jp052753j ↗
47. JH Kwak. Coordinatively unsaturated Al 3+ centers as binding sites for active catalyst phases of platinum on γ-Al 2O 3. 2009, 325: 1670-1673.10.1126/science.1176745 ↗
48. S Krishnan. Structure of normal and supercooled liquid aluminum oxide. 2005, 17: 2662-2666.10.1021/cm050254p ↗
49. S Ansell. Structure of liquid aluminum oxide. 1997, 78: 464-466.10.1103/PhysRevLett.78.464 ↗
50. J Kvapil. Nonstoichiometric defects in YAG and YAP. 1985, 20: 473-478.10.1002/crat.2170200410 ↗
51. X Zhan. Theoretical prediction of elastic stiffness and minimum lattice thermal conductivity of Y 3Al 5O 12, YAlO 3 and Y 4Al 2O 9. 2012, 95: 1429-1434.10.1111/j.1551-2916.2012.05118.x ↗
52. L Kovarik. Quantification of high-temperature transition Al 2O 3 and their phase transformations. 2020, 59: 21719-21727.10.1002/anie.202009520 ↗
53. RS Zhou. Structures and transformation mechanisms of the η, γ and θ transition aluminas. 1991, 47: 617-630.10.1107/S0108768191002719 ↗
54. O Fabrichnaya. The assessment of thermodynamic parameters in the Al 2O 3–Y 2O 3 system and phase relations in the Y–Al–O system. 2001, 30: 175-183.10.1034/j.1600-0692.2001.300308.x ↗