While density functional theory (DFT) at the generalized gradient approximation (GGA) level has made great success in catalysis, it fails in some important systems such as the adsorption of the oxygen molecule on the Ag(111) surface. Previous DFT studies at the GGA level revealed theoretical inconsistencies on the adsorption energies and dissociation barriers of O2 on Ag(111) in comparison with the experimental conclusion. In this study, the strongly constrained and appropriately normed-revised Vydrov van Voorhis van der Waals correction functional (SCAN-rVV10) method at the meta-GGA level with the nonlocal van der Waals (vdW) force correction was used to reinvestigate the adsorption properties of O2 on the Ag(111) surface. The SCAN-rVV10 results successfully confirm the experimental observation that both molecular and dissociative adsorptions can exist for oxygen on Ag(111). The calculated adsorption energy for the physisorption state and the relevant dissociation energy barrier are close to the experimental data. It demonstrates that SCAN-rVV10 can outperform functionals at the GGA level for O2/Ag(111). Therefore, our findings suggest that SCAN-rVV10 can be the desired method for systems where the correct description of intermediate-ranged vdW forces is essential, such as the physisorption of small molecules on the solid surface.
REFERENCES
1.
A.
Jain
, Y.
Shin
, and K. A.
Persson
, Nat. Rev. Mater.
1
(1
), 15004
(2016
).2.
Z. W.
Seh
, J.
Kibsgaard
, C. F.
Dickens
, I.
Chorkendorff
, J. K.
Norskov
, and T. F.
Jaramillo
, Science
355
(6321
), eaad4998
(2017
).3.
J. K.
Norskov
, T.
Bligaard
, J.
Rossmeisl
, and C. H.
Christensen
, Nat. Chem.
1
(1
), 37
–46
(2009
).4.
B.
Liu
, Y.
Wang
, H.-Q.
Peng
, R.
Yang
, Z.
Jiang
, X.
Zhou
, C.-S.
Lee
, H.
Zhao
, and W.
Zhang
, Adv. Mater.
30
(36
), 1803144
(2018
).5.
Z.
Lai
, A.
Chaturvedi
, Y.
Wang
, T. H.
Tran
, X.
Liu
, C.
Tan
, Z.
Luo
, B.
Chen
, Y.
Huang
, G.-H.
Nam
, Z.
Zhang
, Y.
Chen
, Z.
Hu
, B.
Li
, S.
Xi
, Q.
Zhang
, Y.
Zong
, L.
Gu
, C.
Kloc
, Y.
Du
, and H.
Zhang
, J. Am. Chem. Soc.
140
(27
), 8563
–8568
(2018
).6.
S.
Zhao
, Y.
Wang
, J.
Dong
, C.-T.
He
, H.
Yin
, P.
An
, K.
Zhao
, X.
Zhang
, C.
Gao
, L.
Zhang
, J.
Lv
, J.
Wang
, J.
Zhang
, A. M.
Khattak
, N. A.
Khan
, Z.
Wei
, J.
Zhang
, S.
Liu
, H.
Zhao
, and Z.
Tang
, Nat. Energy
1
, 16184
(2016
).7.
S.
Chu
and A.
Majumdar
, Nature
488
(7411
), 294
–303
(2012
).8.
N.
Zhang
, F.
Chen
, D.
Liu
, and Z.
Xia
, ACS Appl. Energy Mater.
1
(8
), 4385
–4394
(2018
).9.
R.
Ma
, G.
Lin
, Y.
Zhou
, Q.
Liu
, T.
Zhang
, G.
Shan
, M.
Yang
, and J.
Wang
, npj Comput. Mater.
5
(1
), 78
(2019
).10.
B. W. J.
Chen
, D.
Kirvassilis
, Y.
Bai
, and M.
Mavrikakis
, J. Phys. Chem. C
123
(13
), 7551
–7566
(2018
).11.
M. G.
Sensoy
and M. M.
Montemore
, J. Phys. Chem. C
124
(16
), 8843
–8853
(2020
).12.
Y.
Yang
, H.
Zhang
, J.
Wang
, S.
Yang
, T.
Liu
, K.
Tao
, and H.
Chang
, J. Mater. Chem. A
7
(18
), 11497
–11505
(2019
).13.
L.
Zhu
, H.
Xu
, Y.
Nan
, Y.
Xie
, J.
Zhu
, and D.
Cheng
, Appl. Surf. Sci.
476
, 115
–122
(2019
).14.
Q.
Yu
, C.
Guo
, J.
Ge
, Y.
Zhao
, Q.
Liu
, P.
Gao
, J.
Xiao
, and H.
Li
, J. Power Sources
453
, 227846
(2020
).15.
Z.
Zhang
, X.
Li
, C.
Zhong
, N.
Zhao
, Y.
Deng
, X.
Han
, and W.
Hu
, Angew. Chem., Int. Ed.
59
(18
), 7245
–7250
(2020
).16.
Y.
Wang
, W.
Wang
, K.-N.
Fan
, and J.
Deng
, Surf. Sci.
490
, 125
–132
(2001
).17.
A.
Michaelides
, K.
Reuter
, and M.
Scheffler
, J. Vac. Sci. Technol. A
23
(6
), 1487
(2005
).18.
M. M.
Montemore
, M. A.
van Spronsen
, R. J.
Madix
, and C. M.
Friend
, Chem. Rev.
118
(5
), 2816
–2862
(2018
).19.
Y.
Xu
, J.
Greeley
, and M.
Mavrikakis
, J. Am. Chem. Soc.
127
(37
), 12823
–12827
(2004
).20.
B. V.
Andryushechkin
, V. M.
Shevlyuga
, T. V.
Pavlova
, G. M.
Zhidomirov
, and K. N.
Eltsov
, J. Chem. Phys.
148
(24
), 244702
(2018
).21.
C. T.
Campbell
, Surf. Sci.
157
, 43
–60
(1985
).22.
A.
Raukema
, D. A.
Butler
, F. M. A.
Box
, and A. W.
Kleyn
, Surf. Sci.
347
(1–2
), 151
–168
(1995
).23.
R. B.
Grant
and R. M.
Lambert
, Surf. Sci.
146
(1
), 256
–268
(1984
).24.
D.
Schmeisser
and K.
Jacobi
, Surf. Sci.
156
, 911
–919
(1985
).25.
D. C.
Ford
, A. U.
Nilekar
, Y.
Xu
, and M.
Mavrikakis
, Surf. Sci.
604
(19–20
), 1565
–1575
(2010
).26.
B.
Santra
, J.
Klimeš
, A.
Tkatchenko
, D.
Alfè
, B.
Slater
, A.
Michaelides
, R.
Car
, and M.
Scheffler
, J. Chem. Phys.
139
(15
), 154702
(2013
).27.
M.
Kim
, W. J.
Kim
, T.
Gould
, E. K.
Lee
, S.
Lebègue
, and H.
Kim
, J. Am. Chem. Soc.
142
(5
), 2346
–2354
(2020
).28.
A. J.
Cohen
, P.
Mori-Sanchez
, and W.
Yang
, Science
321
(5890
), 792
–794
(2008
).29.
S.
Adhikari
, H.
Tang
, B.
Neupane
, A.
Ruzsinszky
, and G. I.
Csonka
, Phys. Rev. Mater.
4
(2
), 025005
(2020
).30.
D.
Mahlberg
, S.
Sakong
, K.
Forster-Tonigold
, and A.
Gross
, J. Chem. Theory Comput.
15
(5
), 3250
–3259
(2019
).31.
A. J. R.
Hensley
, K.
Ghale
, C.
Rieg
, T.
Dang
, E.
Anderst
, F.
Studt
, C. T.
Campbell
, J.-S.
McEwen
, and Y.
Xu
, J. Phys. Chem. C
121
(9
), 4937
–4945
(2017
).32.
S.
Tsuzuki
and H. P.
Lüthi
, J. Chem. Phys.
114
(9
), 3949
–3957
(2001
).33.
M.
Yan
, Z.-Q.
Huang
, Y.
Zhang
, and C.-R.
Chang
, Phys. Chem. Chem. Phys.
19
(3
), 2364
–2371
(2017
).34.
J.
Sun
, A.
Ruzsinszky
, and J. P.
Perdew
, Phys. Rev. Lett.
115
(3
), 036402
(2015
).35.
R.
Sabatini
, T.
Gorni
, and S.
de Gironcoli
, Phys. Rev. B
87
(4
), 41108
–41112
(2013
).36.
H.
Peng
, Z.-H.
Yang
, J. P.
Perdew
, and J.
Sun
, Phys. Rev. X
6
(4
), 41005
–41020
(2016
).37.
G.
Kresse
and J.
Furthmüller
, Comput. Mater. Sci.
6
(1
), 15
–50
(1996
).38.
P. E.
Blöchl
, Phys. Rev. B
50
(24
), 17953
–17979
(1994
).39.
J. P.
Perdew
, K.
Burke
, and M.
Ernzerhof
, Phys. Rev. Lett.
77
(18
), 3865
–3868
(1996
).40.
V. L.
Deringer
, A. L.
Tchougréeff
, and R.
Dronskowski
, J. Phys. Chem. A
115
(21
), 5461
–5466
(2011
).41.
S.
Grimme
, J.
Antony
, S.
Ehrlich
, and H.
Krieg
, J. Chem. Phys.
132
(15
), 154104
(2010
).42.
J.
Klimeš
, D. R.
Bowler
, and A.
Michaelides
, J. Phys.: Condens. Matter
22
(2
), 022201
(2009
).43.
G.
Henkelman
, J. Chem. Phys.
113
(22
), 9901
–9904
(2000
).44.
M. E.
Turano
, R. G.
Farber
, E. C. N.
Oskorep
, R. A.
Rosenberg
, and D. R.
Killelea
, J. Phys. Chem. C
124
(2
), 1382
–1389
(2019
).45.
J. G.
Brandenburg
, J. E.
Bates
, A.
Ruzsinszky
, J.
Sun
, and J. P.
Perdew
, Phys. Rev. B
94
, 115114
(2016
).46.
A. P.
Bartók
and J. R.
Yates
, J. Chem. Phys.
150
(16
), 161101
(2019
).47.
S.
Ehlert
, U.
Huniar
, J.
Ning
, J. W.
Furness
, J.
Sun
, A. D.
Kaplan
, J. P.
Perdew
, and J. G.
Brandenburg
, J. Chem. Phys.
154
(6
), 061101
(2021
).48.
P.
Mkhonto
, H.
Chauke
, and P.
Ngoepe
, Minerals
5
(4
), 665
–678
(2015
).49.
Y.
Xu
and M.
Mavrikakis
, J. Phys. Chem. B
107
(35
), 9298
–9307
(2003
).50.
J.
Xie
, S.
de Gironcoli
, S.
Baroni
, and M.
Scheffler
, Phys. Rev. B
59
(2
), 970
–974
(1999
).51.
H.
Oughaddou
, S.
Sawaya
, J.
Goniakowski
, B.
Aufray
, G.
Le Lay
, J. M.
Gay
, G.
Tréglia
, J. P.
Bibérian
, N.
Barrett
, C.
Guillot
, A.
Mayne
, and G.
Dujardin
, Phys. Rev. B
62
(24
), 16653
–16656
(2000
).52.
P.
Quaino
, E.
Santos
, G.
Soldano
, and W.
Schmickler
, Adv. Phys. Chem.
2011
, 1
–14
.53.
T.
Björkman
, A.
Gulans
, A. V.
Krasheninnikov
, and R. M.
Nieminen
, Phys. Rev. Lett.
108
(23
), 235502
(2012
).54.
S.
Liu
, M. G.
White
, and P.
Liu
, ChemCatChem
10
(3
), 540
–549
(2018
).55.
Z.-y.
Gao
, W.-j.
Yang
, X.-l.
Ding
, G.
Lv
, and W.-p.
Yan
, Phys. Chem. Chem. Phys.
20
(10
), 7333
–7341
(2018
).56.
S.
Gautier
, S. N.
Steinmann
, C.
Michel
, P.
Fleurat-Lessard
, and P.
Sautet
, Phys. Chem. Chem. Phys.
17
(43
), 28921
–28930
(2015
).57.
B.
Vlaisavljevich
, J.
Huck
, Z.
Hulvey
, K.
Lee
, J. A.
Mason
, J. B.
Neaton
, J. R.
Long
, C. M.
Brown
, D.
Alfè
, A.
Michaelides
, and B.
Smit
, J. Phys. Chem. A
121
(21
), 4139
–4151
(2017
).58.
W.-X.
Li
, C.
Stampfl
, and M.
Scheffler
, Phys. Rev. B
65
(7
), 75407
(2002
).59.
B.-T.
Teng
, X.-D.
Wen
, M.
Fan
, F.-M.
Wu
, and Y.
Zhang
, Phys. Chem. Chem. Phys.
16
(34
), 18563
–18569
(2014
).60.
A. W.
Czanderna
, J. Phys. Chem.
68
(10
), 2765
–2771
(1964
).61.
I.
Goikoetxea
, J.
Beltrán
, J.
Meyer
, J.
Iñaki Juaristi
, M.
Alducin
, and K.
Reuter
, New J. Phys.
14
(1
), 013050
(2012
).62.
A. F.
Carley
, P. R.
Davies
, M. W.
Roberts
, and K. K.
Thomas
, Surf. Sci.
238
(1–3
), L467
–L472
(1990
).63.
M.
Endo
, T.
Matsumoto
, J.
Kubota
, K.
Domen
, and C.
Hirose
, J. Phys. Chem. B
104
(20
), 4916
–4922
(2000
).64.
A. W.
Kleyn
, D. A.
Butler
, and A.
Raukenma
, Surf. Sci.
363
(1–3
), 29
–41
(1996
).65.
M.
Poberžnik
and A.
Kokalj
, J. Phys. Chem. C
120
(45
), 25915
–25922
(2016
).66.
S.
Alvarez
, Dalton Trans.
42
(24
), 8617
–8636
(2013
).67.
P. J.
Feibelman
, B.
Hammer
, J. K.
Nørskov
, F.
Wagner
, M.
Scheffler
, R.
Stumpf
, R.
Watwe
, and J.
Dumesic
, J. Phys. Chem. B
105
(18
), 4018
(2001
).68.
P.
Lazić
, M.
Alaei
, N.
Atodiresei
, V.
Caciuc
, R.
Brako
, and S.
Blügel
, Phys. Rev. B
81
(4
), 045401
(2010
).69.
F.
Abild-Pedersen
and M. P.
Andersson
, Surf. Sci.
601
(7
), 1747
–1753
(2007
).70.
Y.
Wang
, S.
de Gironcoli
, N. S.
Hush
, and J. R.
Reimers
, J. Am. Chem. Soc.
129
(34
), 10402
–10407
(2007
).71.
T.
Gould
, E. R.
Johnson
, and S. A.
Tawfik
, Beilstein J. Org. Chem.
14
, 1181
–1191
(2018
).© 2021 Author(s). Published under an exclusive license by AIP Publishing.
2021
Author(s)
You do not currently have access to this content.