journal article·2024-12Open access

Extreme sputtering: Epitaxy of multifunctional oxides heterostructures

Soo Young Jung, Dong-Hun Han, Ruiguang Ning, Min-Seok Kim, Hyung-Jin Choi, Ho Won Jang, Seung-Hyub Baek

Journal of Advanced Ceramics· Volume 13· Issue 12

Abstract

This review provides an in-depth exploration of low-damage sputtering techniques and their importance in synthesizing high-quality epitaxial multifunctional oxide heterostructures. This review examines the factors contributing to damages during sputtering and introduces strategies for minimizing these detrimental effects. Prominent examples are provided to illustrate key milestones in the development of the sputtering technique, addressing critical issues such as maintaining stoichiometry when volatile species are included, achieving precise atomic-level control of interfaces, integrating an additional anion into oxides, selecting a particular phase from many possible polymorphs, and controlling the microstructure of thin films. Additionally, various defect mitigation strategies are discussed, including the use of miscut substrates, in-situ monitoring systems, and chemical buffer layers. By shedding light on the advancements and limitations in sputtering, this review not only enhances our present understanding of thin film deposition but also paves the way for future innovative sputtering techniques, holding tremendous potential for the exploration of new materials and their applications in various industries.
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Research context

OpenAlex topics: Semiconductor materials and devices · Acoustic Wave Resonator Technologies · Electronic and Structural Properties of Oxides

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References (73)

Show source-provided references
2. DG Schlom. Elastic strain engineering of ferroic oxides. 2014, 39: 118-130.10.1557/mrs.2014.1 ↗
3. MJ Choi. Strain engineering in perovskites: Mutual insight on oxides and halides. 2024, 36: 2308827.10.1002/adma.202308827 ↗
4. GF Nataf. Domain-wall engineering and topological defects in ferroelectric and ferroelastic materials. 2020, 2: 634-648.10.1038/s42254-020-0235-z ↗
5. HY Hwang. Emergent phenomena at oxide interfaces. 2012, 11: 103-113.10.1038/nmat3223 ↗
6. YL Sun. Defect engineering in perovskite oxide thin films. 2021, 57: 8402-8420.10.1039/D1CC02276H ↗
7. DB Fraser. Sputter-deposited films for display devices. 1972, 13: 407-412.10.1016/0040-6090(72)90313-6 ↗
8. M Levy. Integrated optical isolators with sputter-deposited thin-film magnets. 1996, 8: 903-905.10.1109/68.502265 ↗
9. VS Smentkowski. Trends in sputtering. 2000, 64: 1-58.10.1016/S0079-6816(99)00021-0 ↗
10. H Park. Effect of sputter deposition on the adhesion and failure behavior between Cu film and glassy calcium aluminosilicate: A molecular dynamics study. 2021, 11: 1365.10.3390/met11091365 ↗
11. A Baptista. On the physical vapour deposition (PVD): Evolution of magnetron sputtering processes for industrial applications. 2018, 17: 746-757.10.1016/j.promfg.2018.10.125 ↗
12. JP Biersack. Sputtering of potassium chloride by H, He, and Ar ions. 1976, 132: 229-235.10.1016/0029-554X(76)90739-4 ↗
13. M Kon. Crystallinity of gallium-doped zinc oxide films deposited by DC magnetron sputtering using Ar, Ne or Kr gas. 2002, 41: 6174-6179.10.1143/JJAP.41.6174 ↗
14. WR. VII Grove. On the electro−chemical polarity of gases. 1852, 142: 87-101.10.1098/rstl.1852.0008 ↗
15. JE Greene. Review article: Tracing the recorded history of thin-film sputter deposition: From the 1800s to 2017. 2017, 35: 05C204.10.1116/1.4998940 ↗
16. PJ Kelly. Magnetron sputtering: A review of recent developments and applications. 2000, 56: 159-172.10.1016/S0042-207X(99)00189-X ↗
17. S Berg. Fundamental understanding and modeling of reactive sputtering processes. 2005, 476: 215-230.10.1016/j.tsf.2004.10.051 ↗
18. S Chowdhury. Effect of target self-bias voltage on the mechanical properties of diamond-like carbon films deposited by RF magnetron sputtering. 2004, 468: 149-154.10.1016/j.tsf.2004.04.006 ↗
19. LT Jr Lamont. The role of dc self-bias potential in the control of rf sputtering. 1974, 11: 47-51.10.1116/1.1318659 ↗
20. MM Hasan. Influence of substrate and annealing temperatures on optical properties of RF-sputtered TiO 2 thin films. 2010, 32: 690-695.10.1016/j.optmat.2009.07.011 ↗
21. PD Raj. Nanostructured V 2O 5 thin films deposited at low sputtering power. 2015, 39: 426-432.10.1016/j.mssp.2015.04.054 ↗
22. P Hones. Characterization of sputter-deposited chromium nitride thin films for hard coatings. 1997, 94: 398-402.10.1016/S0257-8972(97)00443-X ↗
23. N Izyumskaya. Emergence of high quality sputtered III-nitride semiconductors and devices. 2019, 34: 093003.10.1088/1361-6641/ab3374 ↗
24. P Pleskunov. The sputter-based synthesis of tantalum oxynitride nanoparticles with architecture and bandgap controlled by design. 2021, 559: 149974.10.1016/j.apsusc.2021.149974 ↗
25. N Hegedüs. Investigation of the RF sputtering process and the properties of deposited silicon oxynitride layers under varying reactive gas conditions. 2022, 15: 6313.10.3390/ma15186313 ↗
26. U Jansson. Sputter deposition of transition-metal carbide films—A critical review from a chemical perspective. 2013, 536: 1-24.10.1016/j.tsf.2013.02.019 ↗
27. H Larhlimi. Magnetron sputtered titanium carbide-based coatings: A review of science and technology. 2022, 197: 110853.10.1016/j.vacuum.2021.110853 ↗
28. A Iqbal. Reactive sputtering of aluminum nitride (002) thin films for piezoelectric applications: A review. 2018, 18: 1797.10.3390/s18061797 ↗
29. D Manova. Thin film deposition using energetic ions. 2010, 3: 4109-4141.10.3390/ma3084109 ↗
30. Y Taga. Role of kinetic energy of sputtered particles in thin film formation. 1997, 386: 231-240.10.1016/S0039-6028(97)00313-0 ↗
32. PF Carcia. Influence of energetic bombardment on stress, resistivity, and microstructure of indium tin oxide films grown by radio frequency magnetron sputtering on flexible polyester substrates. 2003, 21: 745-751.10.1116/1.1566789 ↗
33. E Aydin. Sputtered transparent electrodes for optoelectronic devices: Induced damage and mitigation strategies. 2021, 4: 3549-3584.10.1016/j.matt.2021.09.021 ↗
34. A Baptista. Sputtering physical vapour deposition (PVD) coatings: A critical review on process improvement and market trend demands. 2018, 8: 402.10.3390/coatings8110402 ↗
35. CB Eom. Synthesis and properties of YBa 2Cu 3O 7 thin films grown in situ by 90° off-axis single magnetron sputtering. 1990, 171: 354-383.10.1016/0921-4534(90)90153-6 ↗
36. RA Rao. Uniform deposition of YBa 2Cu 3O 7 thin films over an 8 inch diameter area by a 90° off-axis sputtering technique. 1996, 69: 3911-3913.10.1063/1.117567 ↗
37. JP Podkaminer. Creation of a two-dimensional electron gas and conductivity switching of nanowires at the LaAlO 3/SrTiO 3 interface grown by 90° off-axis sputtering. 2013, 103: 071604.10.1063/1.4817921 ↗
38. A Brewer. Uniform sputter deposition of high-quality epitaxial complex oxide thin films. 2017, 35: 060607.10.1116/1.4998956 ↗
39. ZJ Radzimski. Directional copper deposition using dc magnetron self-sputtering. 1998, 16: 1102-1106.10.1116/1.590016 ↗
40. SP Balmuchu. Enhanced magnetic properties and leakage current mechanism in bismuth lanthanum ferrite thin films coupled with impedance and magnetic studies. 2023, 215: 112356.10.1016/j.vacuum.2023.112356 ↗
41. SD Bernstein. Effects of excess Pb on crystallization and electrical properties of ferroelectric PZT films deposited by reactive RF magnetron sputtering. 1994, 361: 477-482.10.1557/PROC-361-477 ↗
42. J Kwo. Single domain high T C La 2− x Sr x CuO 4 films with tilted CuO 2 planes. 1992, 60: 1905-1907.10.1063/1.107149 ↗
43. CB Eom. Single-crystal epitaxial thin films of the isotropic metallic oxides Sr 1– x Ca x RuO 3 (0 ≤ x ≤ 1). 1992, 258: 1766-1769.10.1126/science.258.5089.1766 ↗
45. SH Baek. Giant piezoelectricity on Si for hyperactive MEMS. 2011, 334: 958-961.10.1126/science.1207186 ↗
46. JF Shepard. The wafer flexure technique for the determination of the transverse piezoelectric coefficient ( d 31) of PZT thin films. 1998, 71: 133-138.10.1016/S0924-4247(98)00161-7 ↗
47. SH Baek. Ferroelastic switching for nanoscale non-volatile magnetoelectric devices. 2010, 9: 309-314.10.1038/nmat2703 ↗
48. HW Jang. Domain engineering for enhanced ferroelectric properties of epitaxial (001)BiFeO thin films. 2009, 21: 817-823.10.1002/adma.200800823 ↗
49. YH Chu. Domain control in multiferroic BiFeO 3 through substrate vicinality. 2007, 19: 2662-2666.10.1002/adma.200602972 ↗
50. J Seidel. Conduction at domain walls in oxide multiferroics. 2009, 8: 229-234.10.1038/nmat2373 ↗
51. S Farokhipoor. Conduction through 71° domain walls in BiFeO 3 thin films. 2011, 107: 127601.10.1103/PhysRevLett.107.127601 ↗
52. SH Baek. The nature of polarization fatigue in BiFeO 3. 2011, 23: 1621-1625.10.1002/adma.201003612 ↗
53. HN Tsai. Characteristics of sputter-deposited BaTiO 3/SrTiO 3 artificial superlattice films on a LaNiO 3-coated SrTiO 3 substrate. 2005, 284: 65-72.10.1016/j.jcrysgro.2005.03.078 ↗
54. I Kanno. Superlattices of PbZrO 3 and PbTiO 3 prepared by multi-ion-beam sputtering. 1996, 68: 328-330.10.1063/1.116705 ↗
55. J Ravichandran. Crossover from incoherent to coherent phonon scattering in epitaxial oxide superlattices. 2014, 13: 168-172.10.1038/nmat3826 ↗
56. MA Zurbuchen. Synthesis of the superlattice complex oxide Sr 5Bi 4Ti 8O 27 and its band gap behavior. 2012, 100: 223109.10.1063/1.4722942 ↗
57. P Moetakef. Electrostatic carrier doping of GdTiO 3/SrTiO 3 interfaces. 2011, 99: 232116.10.1063/1.3669402 ↗
58. AS Disa. Control of hidden ground-state order in NdNiO 3 superlattices. 2017, 1: 024410.10.1103/PhysRevMaterials.1.024410 ↗
59. M Dawber. Tailoring the properties of artificially layered ferroelectric superlattices. 2007, 19: 4153-4159.10.1002/adma.200700965 ↗
60. A Ohtomo. A high-mobility electron gas at the LaAlO 3/SrTiO 3 heterointerface. 2004, 427: 423-426.10.1038/nature02308 ↗
61. G Singh-Bhalla. Built-in and induced polarization across LaAlO 3/SrTiO 3 heterojunctions. 2011, 7: 80-86.10.1038/nphys1814 ↗
62. B Kalisky. Critical thickness for ferromagnetism in LaAlO 3/SrTiO 3 heterostructures. 2012, 3: 922.10.1038/ncomms1931 ↗
63. JP Podkaminer. Real-time and in situ monitoring of sputter deposition with RHEED for atomic layer controlled growth. 2016, 4: 086111.10.1063/1.4961503 ↗
64. WJ Meng. Epitaxial growth of aluminum nitride on Si(111) by reactive sputtering. 1991, 59: 2097-2099.10.1063/1.106092 ↗
65. P Li. Fabrication of ultrathin epitaxial γ-Fe 2O 3 films by reactive sputtering. 2011, 44: 075003.10.1088/0022-3727/44/7/075003 ↗
66. BS Jeong. Epitaxial stabilization of single crystal anatase films via reactive sputter deposition. 2002, 422: 166-169.10.1016/S0040-6090(02)00719-8 ↗
67. YS Fang. Reactive sputtering deposition of epitaxial TiC film on Si(100) substrate. 2020, 10: 647.10.3390/coatings10070647 ↗
68. HJ Gwon. Enhancement of mechanical hardness in SnO x N y with a dense high-pressure cubic phase of SnO 2. 2016, 28: 7051-7057.10.1021/acs.chemmater.6b02888 ↗
69. TH Kil. Selective growth and texturing of VO 2(B) thin films for high-temperature microbolometers. 2020, 40: 5582-5588.10.1016/j.jeurceramsoc.2020.05.052 ↗
70. HJ Lee. Wide-temperature (up to 100 °C) operation of thermostable vanadium oxide based microbolometers with Ti/MgF 2 infrared absorbing layer for long wavelength infrared (LWIR) detection. 2021, 547: 149142.10.1016/j.apsusc.2021.149142 ↗
71. J Ji. A review on recent advances in fabricating freestanding single-crystalline complex-oxide membranes and its applications. 2023, 98: 052002.10.1088/1402-4896/acccb4 ↗
72. W Nunn. A review of molecular-beam epitaxy of wide bandgap complex oxide semiconductors. 2021, 36: 4846-4864.10.1557/s43578-021-00377-1 ↗
73. JL MacManus-Driscoll. New approaches for achieving more perfect transition metal oxide thin films. 2020, 8: 040904.10.1063/5.0003268 ↗