Electrosynthesis of hierarchical NiLa-layered double hydroxide electrode for efficient oxygen evolution reaction
|
摘要
Oxygen evolution reaction(OER) is a key process for electrochemical water splitting due to its intrinsic large overpotential. Recently, layered double hydroxides(LDHs), especially Ni Fe-LDH, have been regarded as highly performed electrocatalysts for OER in alkaline condition. Here we first present a new class of Ni La-LDH electrocatalyst synthesized by an electrochemical process for efficient water splitting. The as-prepared NiL a-LDH nanosheet arrays(NSAs) give remarkable electrochemical activity and durability under alkaline environments, with a low overpotential of 209 mV for OER to deliver a current density of 10 mA cm~(-2), surpassing most of previous reported LDHs eletrocatalysts. The presence of NiLa-LDH in this work extends the studies about LDHs-based electrocatalysts, which will benefit the development of electrochemical energy storage and conversion systems.
Oxygen evolution reaction(OER) is a key process for electrochemical water splitting due to its intrinsic large overpotential. Recently, layered double hydroxides(LDHs), especially Ni Fe-LDH, have been regarded as highly performed electrocatalysts for OER in alkaline condition. Here we first present a new class of Ni La-LDH electrocatalyst synthesized by an electrochemical process for efficient water splitting. The as-prepared NiL a-LDH nanosheet arrays(NSAs) give remarkable electrochemical activity and durability under alkaline environments, with a low overpotential of 209 mV for OER to deliver a current density of 10 mA cm~(-2), surpassing most of previous reported LDHs eletrocatalysts. The presence of NiLa-LDH in this work extends the studies about LDHs-based electrocatalysts, which will benefit the development of electrochemical energy storage and conversion systems.
Oxygen evolution reaction(OER) is a key process for electrochemical water splitting due to its intrinsic large overpotential. Recently, layered double hydroxides(LDHs), especially Ni Fe-LDH, have been regarded as highly performed electrocatalysts for OER in alkaline condition. Here we first present a new class of Ni La-LDH electrocatalyst synthesized by an electrochemical process for efficient water splitting. The as-prepared NiL a-LDH nanosheet arrays(NSAs) give remarkable electrochemical activity and durability under alkaline environments, with a low overpotential of 209 mV for OER to deliver a current density of 10 mA cm~(-2), surpassing most of previous reported LDHs eletrocatalysts. The presence of NiLa-LDH in this work extends the studies about LDHs-based electrocatalysts, which will benefit the development of electrochemical energy storage and conversion systems.
引文
[1]Q.Zhang,H.X.Zhong,F.L.Meng,D Bao,X.B.Zhang,X.L.Wei,Nano Res.11(2018)1294-1300.
[2]X.Q.Zhang,X.B.Cheng,Q.Zhang,J.Energy Chem.25(2016)967-984.
[3]C.Tang,H.F.Wang,Q.Zhang,Acc.Chem.Res.51(2018)881-889.
[4]W.B.Lu,T.T.Liu,L.S.Xie,C.Tang,D.N.Liu,S.Hao,F.L.Qu,G.Du,Y.J.Ma,A.M.Asiri,X.P.Sun,Small 13(2017)1700805.
[5]C.Tang,M.M.Titirici,Q.Zhang,J.Energy Chem.26(2017)1077-1093.
[6]S.Cherevko,S.Geiger,O.Kasian,O.Kulyk,J.P.Grote,A.Savan,B.R.Shrestha,S.Merzlikin,B.Breitbach,A.Ludwig,Cataly.Today 262(2016)170-180.
[7]X.F.Xiao,C.T.He,S.L.Zhao,J.Li,W.H.Lin,Z.K.Yuan,Q.Zhang,S.Y.Wang,L.M.Dai,D.S.Yu,Energy Environ.Sci.10(2017)893-899.
[8]Y.M.Lee,J.Suntivich,K.J.May,E.E.Perry,S.H.Yang,J.Phys.Chem.Lett.3(2012)399-404.
[9]B.C.Weng,F.H.Xu,C.L.Wang,W.W.Meng,C.R.Grice,Y.F.Yan,Energy Environ.Sci.10(2017)121-128.
[10]L.Han,S.J.Dong,E.K.Wang,Adv.Mater.28(2016)9266-9291.
[11]X.L.Han,Y.F.Yu,Y.Huang,D.L.Liu,B.Zhang,ACS Catal.7(2017)6464-6470.
[12]M.K.Bates,Q.Y.Jia,H.Doan,W.T.Liang,S.Mukerjee,ACS Catal.6(2016)155-161.
[13]Chen G,Z.W.Hu,Y.P.Zhu,Z.G.Chen,Y.J.Zhong,H.J.Lin,C.T.Chen,L.H.Tjeng,W.Zhou,Z.P.Shao,J.Am.Chem.Soc.6(2018)9854-9859.
[14]L.Laurent,X.L.Hu,ACS Catal.8(2018)644-650.
[15]Q.Zhang,D.D.Liu,C.C.Zhang,Y.Tian,Electrochim.Acta 280(2018)266-277.
[16]X.P.Han,X.Y.Wu,C.Zhong,Y.D.Deng,N.Q.Zhao,W.B.Hua,Nano Energy 31(2017)541-550.
[17]M.Gong,Y.G.Li,H.L.Wang,Y.Y.Liang,J.Z.Wu,J.G.Zhou,J.Wang,T.Regier,F.Wei,H.J.Dai,J.Am.Chem.Soc.135(2013)8452-8455.
[18]A.Sumboja,J.W.Chen,Y.Zong,P.S.Lee,Z.L.Liu,Nanoscale 9(2017)774-780.
[19]M.Luo,Z.Cai,C.Wang,Y.M.Bi,L.Qian,Y.C.Hao,L.Li,Y.Kuang,Y.P.Li,X.D.Lei,Z.Y.Huo,W.Liu,H.L.Wang,X.M.Sun,X.Duan,Nano Res.10(2017)1732-1739.
[20]X.Long,S.Xiao,Z.L.Wang,X.L.Zheng,S.H.Yang,Chem.Commun.51(2015)1120-1123.
[21]F.Y.Ning,M.F.Shao,S.M.Xu,Y.Fu,R.K.Zhang,M.Wei,D.G.Evans,X.Duan,Energy Environ.Sci.9(2016)2633-2643.
[22]Y.Y.Wang,Y.Q.Zhang,Z.J.Liu,C.Xie,S.Feng,D.D.Liu,M.F.Shao,S.Y.Wang,Angew.Chem.Int.Ed.56(2017)5867-5871.
[23]X.L.Zhu,C.Tang,H.F.Wang,B.Q.Li,Q.Zhang,C.Y.Li,C.H.Yang,F.Wei,J.Mater.Chem.A 4(2016)7245-7250.
[24]Y.Zhang,Q.Shao,Y.C.Pi,J.Guo,X.Q.Huang,Small 13(2017)1700355.
[25]X.Y.Li,X.Wang,X.T.Yuan,W.J.Dong,Q.F,J.Mater.Chem.A 4(2016)167-172.
[26]Z.H.Li,H.H.Duan,M.F.Shao,J.B.Li,D.O’Hare,M.Wei,Z.L.Wang,Chem 4(2018)1-12.
[27]R.Liu,Y.Y.Wang,D.D.Liu,Y.Q.Zou,S.Y.Wang,Adv.Mater.29(2017)1701546.
[28]XY.Chu,T.Deng,W.Zhang,D.Wang,X.F.Li,C.Zhang,T.T.Qin,L.Y.Zhang,B.S.Zhang,C.M.Chen,W.T.Zheng,J.Energy Chem.27(2018)507-512.
[29]M.Gorlin,P.Chernev,J.F.Araujo,T.Reier,S.Dresp,B.Paul,R.Krahnert,H.Dau,P.Strasser,J.Am.Chem.Soc.138(2016)5603-5614.
[30]J.Y.C.Chen,L.Dang,H.F.Liang,W.L.Bi,J.B.Gerken,S.Jin,E.E.Alp,S.S.Stah,J.Am.Chem.Soc.137(2015)15090-15093.
[31]C.Tang,H.F.Wang,H.S.Wang,F.Wei,Q.Zhang,J.Mater.Chem.A 4(2016)3210-3216.
[32]K.Fan,H.Chen,Y.F.Ji,H.Huang,P.M.Claesson,Q.Daniel,B.Bertrand Philippe,H.Rensmo,F.S.Li,Y.Luo,L.C.Sun,Nat.Commun.7(2016)11981.
[33]F.Pointillart,O.Cador,B.L.Guennic,L.Ouahab,Coordin.Chem.Rev.346(2017)150-175.
[34]L.Babel,L.Guenee,C.Besnard,S.V.Eliseeva,S.Petoud,C.Piguet,Chem.Sci.9(2018)325-335.
[35]X.Qin,X.W.Liu,W.Huang,M.Bettinelli,X.G.Liu,Chem.Rev.117(2017)4488-4527.
[36]Z.H.Li,M.F.Shao,H.L.An,Z.X.Wang,S.M.Xu,M.Wei,D.G.Evans,X.Duan,Chem.Sci.6(2015)6624-6631.
[37]Y.Q.Xu,Y.C.Hao,G.X.Zhang,Z.Y.Lu,S.Han,Y.P.Li,X.M.Sun,RSC Adv.5(2015)55131-55135.
[38]J.M.Li,S.Jiang,M.F.Shao,M.Wei,Catalysts 8(2018)214.
[2]X.Q.Zhang,X.B.Cheng,Q.Zhang,J.Energy Chem.25(2016)967-984.
[3]C.Tang,H.F.Wang,Q.Zhang,Acc.Chem.Res.51(2018)881-889.
[4]W.B.Lu,T.T.Liu,L.S.Xie,C.Tang,D.N.Liu,S.Hao,F.L.Qu,G.Du,Y.J.Ma,A.M.Asiri,X.P.Sun,Small 13(2017)1700805.
[5]C.Tang,M.M.Titirici,Q.Zhang,J.Energy Chem.26(2017)1077-1093.
[6]S.Cherevko,S.Geiger,O.Kasian,O.Kulyk,J.P.Grote,A.Savan,B.R.Shrestha,S.Merzlikin,B.Breitbach,A.Ludwig,Cataly.Today 262(2016)170-180.
[7]X.F.Xiao,C.T.He,S.L.Zhao,J.Li,W.H.Lin,Z.K.Yuan,Q.Zhang,S.Y.Wang,L.M.Dai,D.S.Yu,Energy Environ.Sci.10(2017)893-899.
[8]Y.M.Lee,J.Suntivich,K.J.May,E.E.Perry,S.H.Yang,J.Phys.Chem.Lett.3(2012)399-404.
[9]B.C.Weng,F.H.Xu,C.L.Wang,W.W.Meng,C.R.Grice,Y.F.Yan,Energy Environ.Sci.10(2017)121-128.
[10]L.Han,S.J.Dong,E.K.Wang,Adv.Mater.28(2016)9266-9291.
[11]X.L.Han,Y.F.Yu,Y.Huang,D.L.Liu,B.Zhang,ACS Catal.7(2017)6464-6470.
[12]M.K.Bates,Q.Y.Jia,H.Doan,W.T.Liang,S.Mukerjee,ACS Catal.6(2016)155-161.
[13]Chen G,Z.W.Hu,Y.P.Zhu,Z.G.Chen,Y.J.Zhong,H.J.Lin,C.T.Chen,L.H.Tjeng,W.Zhou,Z.P.Shao,J.Am.Chem.Soc.6(2018)9854-9859.
[14]L.Laurent,X.L.Hu,ACS Catal.8(2018)644-650.
[15]Q.Zhang,D.D.Liu,C.C.Zhang,Y.Tian,Electrochim.Acta 280(2018)266-277.
[16]X.P.Han,X.Y.Wu,C.Zhong,Y.D.Deng,N.Q.Zhao,W.B.Hua,Nano Energy 31(2017)541-550.
[17]M.Gong,Y.G.Li,H.L.Wang,Y.Y.Liang,J.Z.Wu,J.G.Zhou,J.Wang,T.Regier,F.Wei,H.J.Dai,J.Am.Chem.Soc.135(2013)8452-8455.
[18]A.Sumboja,J.W.Chen,Y.Zong,P.S.Lee,Z.L.Liu,Nanoscale 9(2017)774-780.
[19]M.Luo,Z.Cai,C.Wang,Y.M.Bi,L.Qian,Y.C.Hao,L.Li,Y.Kuang,Y.P.Li,X.D.Lei,Z.Y.Huo,W.Liu,H.L.Wang,X.M.Sun,X.Duan,Nano Res.10(2017)1732-1739.
[20]X.Long,S.Xiao,Z.L.Wang,X.L.Zheng,S.H.Yang,Chem.Commun.51(2015)1120-1123.
[21]F.Y.Ning,M.F.Shao,S.M.Xu,Y.Fu,R.K.Zhang,M.Wei,D.G.Evans,X.Duan,Energy Environ.Sci.9(2016)2633-2643.
[22]Y.Y.Wang,Y.Q.Zhang,Z.J.Liu,C.Xie,S.Feng,D.D.Liu,M.F.Shao,S.Y.Wang,Angew.Chem.Int.Ed.56(2017)5867-5871.
[23]X.L.Zhu,C.Tang,H.F.Wang,B.Q.Li,Q.Zhang,C.Y.Li,C.H.Yang,F.Wei,J.Mater.Chem.A 4(2016)7245-7250.
[24]Y.Zhang,Q.Shao,Y.C.Pi,J.Guo,X.Q.Huang,Small 13(2017)1700355.
[25]X.Y.Li,X.Wang,X.T.Yuan,W.J.Dong,Q.F,J.Mater.Chem.A 4(2016)167-172.
[26]Z.H.Li,H.H.Duan,M.F.Shao,J.B.Li,D.O’Hare,M.Wei,Z.L.Wang,Chem 4(2018)1-12.
[27]R.Liu,Y.Y.Wang,D.D.Liu,Y.Q.Zou,S.Y.Wang,Adv.Mater.29(2017)1701546.
[28]XY.Chu,T.Deng,W.Zhang,D.Wang,X.F.Li,C.Zhang,T.T.Qin,L.Y.Zhang,B.S.Zhang,C.M.Chen,W.T.Zheng,J.Energy Chem.27(2018)507-512.
[29]M.Gorlin,P.Chernev,J.F.Araujo,T.Reier,S.Dresp,B.Paul,R.Krahnert,H.Dau,P.Strasser,J.Am.Chem.Soc.138(2016)5603-5614.
[30]J.Y.C.Chen,L.Dang,H.F.Liang,W.L.Bi,J.B.Gerken,S.Jin,E.E.Alp,S.S.Stah,J.Am.Chem.Soc.137(2015)15090-15093.
[31]C.Tang,H.F.Wang,H.S.Wang,F.Wei,Q.Zhang,J.Mater.Chem.A 4(2016)3210-3216.
[32]K.Fan,H.Chen,Y.F.Ji,H.Huang,P.M.Claesson,Q.Daniel,B.Bertrand Philippe,H.Rensmo,F.S.Li,Y.Luo,L.C.Sun,Nat.Commun.7(2016)11981.
[33]F.Pointillart,O.Cador,B.L.Guennic,L.Ouahab,Coordin.Chem.Rev.346(2017)150-175.
[34]L.Babel,L.Guenee,C.Besnard,S.V.Eliseeva,S.Petoud,C.Piguet,Chem.Sci.9(2018)325-335.
[35]X.Qin,X.W.Liu,W.Huang,M.Bettinelli,X.G.Liu,Chem.Rev.117(2017)4488-4527.
[36]Z.H.Li,M.F.Shao,H.L.An,Z.X.Wang,S.M.Xu,M.Wei,D.G.Evans,X.Duan,Chem.Sci.6(2015)6624-6631.
[37]Y.Q.Xu,Y.C.Hao,G.X.Zhang,Z.Y.Lu,S.Han,Y.P.Li,X.M.Sun,RSC Adv.5(2015)55131-55135.
[38]J.M.Li,S.Jiang,M.F.Shao,M.Wei,Catalysts 8(2018)214.