1 Ingrid Milošev, "Zirconium Nitride by XPS" American Vacuum Society 5 (5): 152-158, 1998
2 Davide Barreca, "Zirconium Dioxide Thin Films Characterized by XPS" American Vacuum Society 7 (7): 303-309, 2000
3 L. -C. Chen, "Zigzag and helical AlN layer prepared byGlancing angle deposition and its application as a buffer layer in a GaNbased light-emitting diode" 2012 : 409123-, 2012
4 Raya El Beainou, "W-Cu sputtered thin films grown at oblique angles from two sources: Pressure and shielding effects" Elsevier BV 343 : 153-159, 2018
5 Muhammad-Sadeeq Balogun, "Updates on the development of nanostructured transition metal nitrides for electrochemical energy storage and water splitting" Elsevier BV 20 (20): 425-451, 2017
6 M. Horprathum, "Ultrasensitive hydrogen sensor based on Pt-decorated WO3 nanorods prepared by glancing-angle dc magnetron sputtering" American Chemical Society (ACS) 6 (6): 22051-22060, 2014
7 C. Oros, "Ultra-sensitive NO 2 sensor based on vertically aligned SnO 2 nanorods deposited by DC reactive magnetron sputtering with glancing angle deposition technique" Elsevier BV 223 : 936-945, 2016
8 Ingrid Milošev, "Titanium Zirconium Nitride by XPS" American Vacuum Society 6 (6): 177-183, 1999
9 Ulrike Diebold, "TiO2 by XPS" American Vacuum Society 4 (4): 227-231, 1996
10 A. R. Shetty, "Texture mechanisms and microstructure of biaxial thin films grown by oblique angle deposition" Wiley 249 (249): 1531-1540, 2012
1 Ingrid Milošev, "Zirconium Nitride by XPS" American Vacuum Society 5 (5): 152-158, 1998
2 Davide Barreca, "Zirconium Dioxide Thin Films Characterized by XPS" American Vacuum Society 7 (7): 303-309, 2000
3 L. -C. Chen, "Zigzag and helical AlN layer prepared byGlancing angle deposition and its application as a buffer layer in a GaNbased light-emitting diode" 2012 : 409123-, 2012
4 Raya El Beainou, "W-Cu sputtered thin films grown at oblique angles from two sources: Pressure and shielding effects" Elsevier BV 343 : 153-159, 2018
5 Muhammad-Sadeeq Balogun, "Updates on the development of nanostructured transition metal nitrides for electrochemical energy storage and water splitting" Elsevier BV 20 (20): 425-451, 2017
6 M. Horprathum, "Ultrasensitive hydrogen sensor based on Pt-decorated WO3 nanorods prepared by glancing-angle dc magnetron sputtering" American Chemical Society (ACS) 6 (6): 22051-22060, 2014
7 C. Oros, "Ultra-sensitive NO 2 sensor based on vertically aligned SnO 2 nanorods deposited by DC reactive magnetron sputtering with glancing angle deposition technique" Elsevier BV 223 : 936-945, 2016
8 Ingrid Milošev, "Titanium Zirconium Nitride by XPS" American Vacuum Society 6 (6): 177-183, 1999
9 Ulrike Diebold, "TiO2 by XPS" American Vacuum Society 4 (4): 227-231, 1996
10 A. R. Shetty, "Texture mechanisms and microstructure of biaxial thin films grown by oblique angle deposition" Wiley 249 (249): 1531-1540, 2012
11 Leshu Yu, "Synthesis of rhombic and triangular cross-sectional AlN nanorods on Si substrate via thermal CVD" Elsevier BV 65 (65): 1499-1502, 2011
12 Soniya Juneja, "Surface plasmon amplification in refractory transition metal nitrides based nanoparticle dimers" Elsevier BV 433 : 89-96, 2019
13 Dominik Jaeger, "Single Crystalline Oxygen-free Titanium Nitride by XPS" American Vacuum Society 20 (20): 1-8, 2013
14 Noppadon Nuntawong, "Shelf time effect on SERS effectiveness of silver nanorod prepared by OAD technique" Elsevier BV 88 : 23-27, 2013
15 Annop Klamchuen, "Rational Concept for Designing Vapor–Liquid–Solid Growth of Single Crystalline Metal Oxide Nanowires" American Chemical Society (ACS) 15 (15): 6406-6412, 2015
16 A. Rizzo, "Physical properties evolution of sputtered zirconium oxynitride films : effects of the growth temperature" 42 : 235401-, 2009
17 Angel Barranco, "Perspectives on oblique angle deposition of thin films: From fundamentals to devices" Elsevier BV 76 : 59-153, 2016
18 W. Zhou, "Oblique angle deposition-induced anisotropy in Co2FeAl films" Elsevier BV 456 : 353-357, 2018
19 YanHua Yue, "Nanostructured transition metal nitride composites as energy storage material" Springer Science and Business Media LLC 57 (57): 4111-4118, 2012
20 K. M. A. Sobahan, "Nanostructured optical thin films fabricated by oblique angle deposition" 1 : 1-6, 2010
21 Y. Motemani, "Nanostructured Ti–Ta thin films synthesized by combinatorial glancing angle sputter deposition" 27 : 495604-, 2016
22 Jianyun Zheng, "Nanostructured TiN-based thin films by a novel and facile synthetic route" Elsevier BV 113 : 142-148, 2017
23 Boudjemaa Bouaouina, "Nanocolumnar TiN thin film growth by oblique angle sputter-deposition: Experiments vs. simulations" Elsevier BV 160 : 338-349, 2018
24 P. Pedrosa, "Nano-sculptured Janus-like TiAg thin films obliquely deposited by GLAD cosputtering for temperature sensing" 29 : 355706-, 2018
25 M. Horprathum, "NO2-sensing properties of WO3 nanorods prepared by glancing angle DC magnetron sputtering" Elsevier BV 176 : 685-691, 2013
26 D. Escobar, "Microstructure, residual stress and hardness study of nanocrystalline titanium–zirconium nitride thin films" Elsevier BV 41 (41): 947-952, 2015
27 Yu-Wei Lin, "Microstructure and corrosion resistance of nanocrystalline TiZrN films on AISI 304 stainless steel substrate" American Vacuum Society 28 (28): 774-778, 2010
28 Guo-an Cheng, "Influence of residual stress on mechanical properties of TiAlN thin films" Elsevier BV 228 : S328-S330, 2013
29 O. B. Malyshev, "Influence of deposition pressure and pulsed dc sputtering on pumping properties of Ti–Zr–V nonevaporable getter films" American Vacuum Society 27 (27): 521-530, 2009
30 Gang Meng, "Impact of Preferential Indium Nucleation on Electrical Conductivity of Vapor–Liquid–Solid Grown Indium–Tin Oxide Nanowires" American Chemical Society (ACS) 135 (135): 7033-7038, 2013
31 Fuwei Zhuge, "Fundamental Strategy for Creating VLS Grown TiO 2 Single Crystalline Nanowires" American Chemical Society (ACS) 116 (116): 24367-24372, 2012
32 Hiroyuki Hirakata, "Frictional Anisotropy of Oblique Nanocolumn Arrays Grown by Glancing Angle Deposition" Springer Science and Business Media LLC 44 (44): 259-268, 2011
33 B. Samransuksamer, "Facile method for decorations of Au nanoparticles on TiO2 nanorod arrays toward high-performance recyclable SERS substrates" Elsevier BV 277 : 102-113, 2018
34 Zheng Xie, "Fabrication of TiN nanostructure as a hydrogen peroxide sensor by oblique angle deposition" Springer Science and Business Media LLC 9 (9): 105-, 2014
35 Liping Wang, "Fabrication of CrAlN nanocomposite films with high hardness and excellent anti-wear performance for gear application" Elsevier BV 204 (204): 3517-3524, 2010
36 P. Nuchuay, "Engineered omnidirectional antireflection ITO nanorod films with super hydrophobic surface via glancing-angle ion-assisted electron-beam evaporation deposition" 한국물리학회 17 (17): 222-229, 2017
37 Ruei-San Chen, "Electronic transport properties in aluminum indium nitride nanorods grown by magnetron sputter epitaxy" Elsevier BV 285 : 625-628, 2013
38 Jian-Long Ruan, "Effects of the Ta content on the microstructure and electrical property of reactively sputtered TaxZr1−xN thin films" Elsevier BV 519 (519): 4987-4991, 2011
39 Chi-Lung Chang, "Effect of target composition on the microstructural, mechanical, and corrosion properties of TiAlN thin films deposited by high-power impulse magnetron sputtering" Elsevier BV 352 : 330-337, 2018
40 Yu-Wei Lin, "Effect of nitrogen flow rate on properties of nanostructured TiZrN thin films produced by radio frequency magnetron sputtering" Elsevier BV 518 (518): 7308-7311, 2010
41 A.R. Shetty, "Effect of deposition angle on the structure and properties of pulsed-DC magnetron sputtered TiAlN thin films" Elsevier BV 519 (519): 4262-4270, 2011
42 Yu-Wei Lin, "Effect of bias on the structure and properties of TiZrN thin films deposited by unbalanced magnetron sputtering" Elsevier BV 618 : 13-20, 2016
43 R.B. Tokas, "Effect of angle of deposition on micro-roughness parameters and optical properties of HfO2 thin films deposited by reactive electron beam evaporation" Elsevier BV 609 : 42-48, 2016
44 O. Knotek, "Development of low temperature ternary coatings for high wear resistance" Elsevier BV 42 (42): 21-28, 1990
45 Kasif Teker, "Density and morphology adjustments of gallium nitride nanowires" Elsevier BV 283 : 1065-1070, 2013
46 Ahcene Siad, "Critical angles in DC magnetron glad thin films" Elsevier BV 131 : 305-311, 2016
47 Ren Xingrun, "Comparison of Microstructure and Tribological Behaviors of CrAlN and CrN Film Deposited by DC Magnetron Sputtering" Elsevier BV 47 (47): 1100-1106, 2018
48 Triratna Muneshwar, "Comparing XPS on bare and capped ZrN films grown by plasma enhanced ALD: Effect of ambient oxidation" Elsevier BV 435 : 367-376, 2018
49 Aida M. Echavarría, "Characterization of the structure and electrochemical behavior of Ag-TaN nanostructured composite coating for biomedical applications" Elsevier BV 345 : 1-12, 2018
50 E.W. Niu, "Characterization of Ti–Zr–N films deposited by cathodic vacuum arc with different substrate bias" Elsevier BV 254 (254): 3909-3914, 2008
51 M. Kawamura, "Characterization of TiN films prepared by a conventional magnetron sputtering system: influence of nitrogen flow percentage and electrical properties" Elsevier BV 287 (287): 115-119, 1996
52 S. Chinsakolthanakorn, "Characterization of Nanostructured TiZrN Thin Films Deposited by Reactive DC Magnetron Co-sputtering" Elsevier BV 32 : 571-576, 2012
53 Hyeong Uk Joo, "Characteristics of aluminum nitride nanowhiskers grown via the vapor–liquid–solid mechanism" Elsevier BV 40 (40): 833-835, 2008
54 X.M. Cai, "A systematic study of chemical vapor deposition growth of InN" Elsevier BV 255 (255): 2153-2158, 2008
55 Dong Nyung Lee, "A model for development of orientation of vapour deposits" Springer Science and Business Media LLC 24 (24): 4375-4378, 1989