[1]
Sivula K, Le Formal F, Gra¨tzel M (2011) Solar water splitting: progress using hematite (a-Fe2O3) photoelectrodes.
Chemsuschem 4:432–449
[2] Tamirat AG, Rick J, Dubale AA, Su WN, Hwang BJ (2016)
Using hematite for photoelectrochemical water splitting: a
review of current progress and challenges. Nanoscale Horiz
1:243–267
[3] Mulmudi HK, Mathews N, Dou XC, Xi LF, Pramana SS,
Lam YM, Mhaisalkar SG (2011) Controlled growth of
hematite (a-Fe2O3) nanorod array on fluorine doped tin
oxide: synthesis and photoelectrochemical properties. Electrochem Commun 13:951–954
[4] Wen X, Wang S, Ding Y, Wang ZL, Yang S (2005) Controlled growth of large-area, uniform, vertically aligned
arrays of a-Fe2O3 nanobelts and nanowires. J Phys Chem B
109:215–220
[5] Chueh YL, Lai MW, Liang JQ, Chou LJ, Wang ZL (2006)
Systematic study of the growth of aligned arrays of a-Fe2O3
and Fe3O4 nanowires by a vapour–solid process. Adv Funct
Mater 16:2243–2251
[6] Cvelbar U, Chen Z, Sunkara MK, Mozeticˇ M (2008)
Spontaneous growth of superstructure a-Fe2O3 nanowire and
nanobelt arrays in reactive oxygen plasma. Small
4:1610–1614
[7] Srivastava H, Tiwari P, Srivastava AK, Rai S, Ganguli T,
Deb SK (2011) Effect of substrate texture on the growth of
hematite nanowires. Appl Surf Sci 258:494–500
[8] Xie Y, Ju Y, Toku Y, Morita Y (2017) Fabrication of Fe2O3
nanowire arrays based on oxidation-assisted stress-induced
atomic-diffusion and their photovoltaic properties for solar
water splitting. RSC Adv 7:30548–30553
[9] Srivastava H, Tiwari P, Srivastava AK, Nandedkar RV
(2007) Growth and characterization of a-Fe2O3 nanowires.
J Appl Phys 102:054303
[10] Yuan L, Wang Y, Cai R, Jiang Q, Wang J, Li B, Sharma A,
Zhou G (2012) The origin of hematite nanowire growth
during the thermal oxidation of iron. Mater Sci Eng B
177:327–336
[11] Lee YC, Chueh YL, Hsieh CH, Chang MT, Chou LJ, Wang
ZL, Lan YW, Chen CD, Kurata H, Isoda S (2007) p-type a-
A Self-archived copy in
Kyoto University Research Information Repository
https://repository.kulib.kyoto-u.ac.jp
7296
[12]
[13]
[14]
[15]
[16]
[17]
[18]
[19]
[20]
[21]
[22]
[23]
[24]
Fe2O3 nanowires and their n-type transition in a reductive
ambient. Small 3:1356–1361
Chen Z, Cvelbar U, Mozeticˇ M, He J, Sunkara MK (2008)
Long-range ordering of oxygen-vacancy planes in a-Fe2O3
nanowires and nanobelts. Chem Mater 20:3224–3228
Zhu H, Deng J, Chen J, Yu R, Xing X (2014) Growth of
hematite nanowire arrays during dense pentlandite oxidation.
J Mater Chem A 2:3008–3014
Li T, Feng H, Wang Y, Wang C, Zhu W, Yuan L, Zhou G
(2018) Formation of modulated structures induced by oxygen vacancies in a-Fe2O3 nanowires. J Cryst Growth
498:10–16
Lai MW, Kurata H (2020) Understanding ordered structure
in hematite nanowhiskers synthesized via thermal oxidation
of iron-based substrates. Mater Des 191:108596
Yang TY, Kang HY, Sim U, Lee YJ, Lee JH, Koo B, Nam
KT, Joo YC (2013) A new hematite photoanode doping
strategy for solar water splitting: oxygen vacancy generation.
Phys Chem Chem Phys 15:2117–2124
Zhu C, Li C, Zheng M, Delaunay JJ (2015) Plasma-induced
oxygen vacancies in ultrathin hematite nanoflakes promoting
photoelectrochemical water oxidation. ACS Appl Mater
Interfaces 7:22355–22363
Rioult M, Stanescu D, Fonda E, Barbier A, Magnan H
(2016) Oxygen vacancies engineering of iron oxides films
for solar water splitting. J Phys Chem C 120:7482–7490
Mock J, Klingebiel B, Ko¨hler F, Nuys M, Flohre J, Muthmann S, Kirchartz T, Carius R (2017) Oxygen vacancy
doping of hematite analyzed by electrical conductivity and
thermoelectric power measurements. Phys Rev Mater
1:065407
Forster M, Potter RJ, Ling Y, Yang Y, Klug DR, Li Y, Cowan
AJ (2015) Oxygen deficient a-Fe2O3 photoelectrodes: a
balance between enhanced electrical properties and trapmediated losses. Chem Sci 6:4009–4016
Kirkland AI, Haigh S, Chang LY (2008) Aberration corrected TEM: current status and future prospects. J Phys Conf
Ser 126:012034
Ricolleau C, Nelayah J, Oikawa T, Kohno Y, Braidy N,
Wang G, Hue F, Alloyeau D (2012) High resolution imaging
and spectroscopy using Cs-corrected TEM with cold FEG
JEM-ARM200F. JEOL News 47:2–8
Mitterbauer C, Kothleitner G, Grogger W, Zandbergen H,
Freitag B, Tiemeijer P, Hofer F (2003) Electron energy-loss
near-edge structures of 3d transition metal oxides recorded at
high-energy resolution. Ultramicroscopy 96:469–480
Kimoto K (2014) Practical aspects of monochromators
developed for transmission electron microscopy. Microscopy
63:337–344
J Mater Sci (2021) 56:7286–7297
[25] Zheng Z, Chen Y, Shen Z, Ma J, Sow CH, Huang W, Yu T
(2007) Ultra-sharp a-Fe2O3 nanoflakes: growth mechanism
and field-emission. Appl Phys A 89:115–119
[26] Yuan L, Jiang Q, Wang J, Zhou G (2012) The growth of
hematite nanobelts and nanowires-tune the shape via oxygen
gas pressure. J Mater Res 27:1014–1021
[27] Xu R, Yan H, He W, Su Y, Nie JC, He L (2012) Ultrathin aFe2O3 nanoribbons and their Moire´ patterns. J Phys Chem C
116:6879–6883
[28] Yuan L, Cai R, Jang JI, Zhu W, Wang C, Wang Y, Zhou G
(2013) Morphological transformation of hematite nanostructures during oxidation of iron. Nanoscale 5:7581–7588
[29] Scott J, Thomas PJ, MacKenzie M, McFadzean S, Wilbrink
J, Craven AJ, Nicholson WAP (2008) Near-simultaneous
dual energy range EELS spectrum imaging. Ultramicroscopy
108:1586–1594
[30] Rehr JJ, Kas JJ, Vila FD, Prange MP, Jorissen K (2010)
Parameter-free calculations of X-ray spectra with FEFF9.
Phys Chem Chem Phys 12:5503–5513
[31] Williams DB, Carter CB (2009) Transmission electron
microscopy: a textbook for materials science. Springer, New
York
[32] Wang C, Wang Y, Liu X, Yang H, Sun J, Yuan L, Zhou G,
Rosei F (2016) Structure versus properties in a-Fe2O3
nanowires and nanoblades. Nanotechnology 27:035702
[33] Shen G, Chen PC, Bando Y, Golberg D, Zhou C (2008)
Bicrystalline Zn3P2 and Cd3P2 nanobelts and their electronic
transport properties. Chem Mater 20:7319–7323
[34] Srivastava H, Srivastava AK, Babu M, Rai S, Ganguli T
(2016) Topotaxial growth of a-Fe2O3 nanowires on iron
substrate in thermal annealing method. J Appl Phys
119:244311
[35] Watanabe Y, Ishii K (1995) Geometrical consideration of the
crystallography of the transformation from a-Fe2O3 to
Fe3O4. Phys Stat Sol (a) 150:673–686
[36] Frati F, Hunault MOJY, de Groot FMF (2020) Oxygen
K-edge X-ray absorption spectra. Chem Rev 120:4056–4110
[37] de Groot FMF, Grioni M, Fuggle JC, Ghijsen J, Sawatzky
GA, Petersen H (1989) Oxygen 1s x-ray-absorption edges of
transition-metal oxides. Phys Rev B 40:5715–5723
[38] Wu ZY, Gota S, Jollet F, Pollak M, Gautier-Soyer M, Natoli
CR (1997) Characterization of iron oxides by X-ray
absorption at the oxygen K edge using a full multiple-scattering approach. Phys Rev B 55:2570–2577
[39] Stavitski E, de Groot FMF (2010) The CTM4XAS program
for EELS and XAS spectral shape analysis of transition
metal L edges. Micron 41:687–694
[40] Delgado-Jaime MU, Zhang K, Vura-Weis J, de Groot FMF
(2016) CTM4DOC: electronic structure analysis from X-ray
spectroscopy. J Synchrotron Rad 23:1264–1271
A Self-archived copy in
Kyoto University Research Information Repository
https://repository.kulib.kyoto-u.ac.jp
J Mater Sci (2021) 56:7286–7297
[41] Bagus PS, Illas F, Pacchioni G, Parmigiani F (1999)
Mechanisms responsible for chemical shifts of core-level
binding energies and their relationship to chemical bonding.
J Electron Spectrosc Relat Phenom 100:215–236
[42] Kalinin SV, Spaldin NA (2013) Functional ion defects in
transition metal oxides. Science 341:858–859
[43] Aschauer U, Pfenninger R, Selbach SM, Grande T, Spaldin
NA (2013) Strain-controlled oxygen vacancy formation and
ordering in CaMnO3. Phys Rev B 88:054111
7297
[44] Chandrasena RU, Yang W, Lei Q, Delgado-Jaime MU,
Wijesekara KD, Golalikhani M, Davidson BA, Arenholz E,
Kobayashi K, Kobata M, de Groot FMF, Aschauer U,
Spaldin NA, Xi X, Gray AX (2017) Strain-engineered
oxygen vacancies in CaMnO3 thin films. Nano Lett
17:794–799
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