Abstract

Keywords
References
1.
Rhodes C.J.
(2014 ) Sci. Prog. , 97 , 279 –287 .
2.
Rhodes C.J.
(2016 ) Sci. Prog. , 99 , 335 –345 .
3.
Rhodes C.J.
(2018 ) Sci. Prog. , 101 , 192 –204 .
4.
Zhou D.
,
Zhou T.
,
Tian Y.
(2018 ) J. Nanomater. , 2018 , Article ID 8148072, https://doi.org/10.1155/2018/8148072.
5.Cintelliq (2018 ) The OSADIRECT Newsletter. 17 July. http://www.osadirect.com/news/article/2102/perovskite-photovoltaic-a-review-of-the-patent-landscape-2018-q1-now-includes-patents-to-dec-2017/ [accessed 17 July 2018].
6.
Wells H.L.
(1893 ) Z. Anorg. Allg. Chem. , 3 , 195 –210 .
7.
Kojima A.
,
Teshima K.
,
Shirai Y.
, and
Miyasakaet T.
(2009 ) J. Am. Chem. Soc. , 131 , 6050 –6051 .
8.
Prato M.
, and
Di Stasio F.
(2017 ) LED Professional. 18 May. https://www.led-professional.com/resources-1/articles/lead-halide-perovskite-nanocrystals-a-new-promise-for-light-emitting-devices [accessed 17 July 2018].
9.National Renewable Energy Laboratory (2018 ) NREL efficiency chart. https://www.nrel.gov/pv/assets/images/efficiency-chart.png [accessed 17 July 2018].
10.
Quiroz R.
,
Omar C.
,
Yilei S.
(2018 ) J. Mater. Chem. A. , 6 , 3583 –3592 .
11.
Sahli F.
,
Werner J.
, and
Kamino B.A.
(2018 ) Nature Mater. , https://doi.org/10.1038/s41563-018-0115-4.
12.Solliance (2018 ) Solliance sets 14.5% cell performance record on large perovskite modules https://solliance.eu/solliance-sets-14-5-cell-performance-record-on-large-perovskite-modules/ [accessed 17 July 2018].
13.
Shockley W.
, and
Queisser H.J.
(1961 ) J. Appl. Phys. , 32 , 510 –519 .
14.
Tan Z.-K.
,
Moghaddam R.S.
,
Lai M.L.
(2014 ) Nat. Nanotechnol. , 9 , 687 –692 .
15.
Ha S.-T.
,
Su R.
,
Xing J.
(2017 ) Chem. Sci. , 8 , 2522 –2536 .
16.
Rhodes C.J.
(2010 ) Sci. Prog. , 93 , 37 –112 .
17.
Protesescu L.
,
Yakunin S.
,
Bodnarchuk M.I.
(2015 ) Nano Lett. , 15 , 3692 –3696 .
18.
Cho H.
,
Jeong S.H.
,
Park M.H.
, (2015 ) Science , 350 , 1222 –1225 .
19.
Song J.
,
Li J.
,
Li X.
(2015 ) Adv. Mater. , 27 , 7162 –7167 .
20.
Li J.
,
Xu L.
,
Wang T.
, (2017 ) Adv. Mater. , 29 , 1603885 .
21.
Yang X.
,
Zhang X.
,
Deng J.
(2018 ) Nat. Comm. , 9 , 570 .
22.
Li G.
,
Wisnivesky F.
,
Rivarola R.
(2016 ) Adv. Mater. , 28 , 3528 –3534 .
23.
Song Y.H.
,
Yu J.S.
,
Kang B.K.
(2016 ) Nanoscale , 8 , 19523 –19526 .
24.
Palazon F.
,
Di Stasio F.
, and
Akkerman Q.A.
(2016 ) Chem. Mater. , 28 , 2902 –2906 .
25.
Pathak S.
,
Sakai N.
,
Wisnivesky F.
(2015 ) Chem. Mater. , 27 , 8066 –8075 .
26.
Dursun I.
,
Shen C.
,
Parida M.R.
(2016 ) ACS Photonics , 3 , 1150 –1156 .
27.
Sun J.
,
Wu J.
,
Tong X.
(2018 ) Adv. Sci. , 5 , 1700780 .
28.
Zhang Q.
,
Ha S.T.
,
Liu X.
(2014 ) Nano Lett. , 14 , 5995 –6001 .
29.
Kogelnik H.
, and
Shank C.V.
(1971 ) Appl. Phys. Lett. , 18 , 152 –154 .
30.
Saliba M.
,
Wood S.M.
,
Patel J.B.
(2016 ) Adv. Mater. , 28 , 923 –929 .
31.
Zhang Z-Y.
,
Wang H.-Y.
,
Zhang Y.-X.
(2017 ) Phys. Chem. Chem. Phys. , 19 , 2217 –2224 .
32.
Zhang C.
,
Wang K.
,
Yi N.
(2016 ) Adv. Opt. Mater. , 4 , 2057 .
33.
Deng W.
,
Xu X.
,
Zhang X.
(2016 ) Adv. Funct. Mater. , 26 , 4797 –4802 .
34.
Eames C.
,
Frost J.M.
,
Barnes P.R.F.
(2015 ) Nat. Comm. , 6 , 7497 .
35.
Bakulin A.A.
,
Selig O.
,
Bakker H.J.
(2015 ) J. Phys. Chem. Lett. , 6 , 3663 –3669 .
36.
Frost J.M.
, and
Walsh A.
(2016 ) Acc. Chem. Res. , 49 , 528 –535 .
37.
Karakus M.
,
Jensen S.A.
, and
D'Angelo F.
(2015 ) J. Phys. Chem. Lett. , 6 , 4991 –4996 .
38.
Stranks S.D.
, and
Snaith H.J.
(2015 ) Nat. Nanotechnol. , 10 , 391 –402 .
39.
Li Z.
,
Klein T.R.
,
Kim D.H.
(2018 ) Nat. Rev. Mater. , 3 , 18017 .
40.
Ye F.
,
Chen H.
,
Xie F.
(2016 ) Energy Environ. Sci. , 9 , 2295 –2301 .
41.
Chen H.
,
Ye F.
,
Tang W.
(2017 ) Nature , 550 , 92 –95 .
42.
Uličná S.
,
Dou B.
,
Kim D.H.
(2018 ) ACS Appl. Energy Mater. , 1 , 1853 –1857 .
43.
Yang M.
,
Kim D.H.
,
Klein T.R.
(2018 ) ACS Energy Lett. , 3 , 322 –328 .
44.
Rhodes C.J.
(2011 ) Sci. Prog. , 94 , 339 –413 .
45.
Rhodes C.J.
(2013 ) Sci. Prog. , 96 , 309 –316 .
46.
Kumar A.
,
Schuerings C.
,
Kumar S.
(2018 ) Beilstein J. Nanotechnol. , 9 , 671 –685 .
47.
Chen J.
,
He Z.
,
Li G.
(2017 ) Appl. Catal. B Environ. , 209 , 146 –154 .
48.
Hammouda S.B.
,
Zhao F.
,
Safaei Z.
(2017 ) Appl. Catal. B Environ. , 215 , 60 –73 .
49.
Zhang Y.-P.
,
Liu H.-F.
,
Hu H.-L.
(2018 ) R. Soc. Open Sci. , 5 , 171376 .
50.
Moira K.F.
,
Chantelle L.
,
Rosendo D.
(2017 ) Mater. Res. , 20 (Suppl. 2 ), 317 –324 .
51.
Wang H.
,
Zhang L.
, and
Hu C.
(2018 ) Chem. Eng. J. , 332 , 572 –581 .
52.
Deretzis I.
,
Smecca E.
,
Mannino G.
(2018 ) J. Phys. Chem. Lett. , 9 , 3000 –3007 .
53.
Khenkin M.V.
,
Anoop K.M.
,
Visoly-Fisher I.
(2018 ) ACS Appl. Energy Mater. , 1 , 799 –806 .
54.
Christians J.
,
Schulz P.
,
Tinkham J.S.
(2018 ) Nature Energy , 3 , 68 –74 .
55.
Mali S.S.
,
Kim H.
,
Kim H.H.
(2018 ) Mater. Today , 21 , 483 –500 .
56.
Nie R.
,
Mehta A.
,
Park B.-W.
(2018 ) J. Am. Chem. Soc. , 140 , 872 –875 .
57.
Peplow M.
(2018 ) Chem. Eng. News , 96 , 15 –18 .
