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Progress in Chemistry 2010, Vol. 22 Issue (08): 1610-1618 Previous Articles   Next Articles

• Review •

Conducting Polymers as Electrode Materials for Supercapacitors

Tu Liangliang  Jia Chunyang**   

  1. (State key Laboratory of Electronic Thin Films and Integrated Devices, School of Microelectronics and Solid-State Electronics, University of Electronic Science and Technology of China, Chengdu 610054, China)
  • Received: Revised: Online: Published:
  • Contact: Chunyang Jia E-mail:cyjia@uestc.edu.cn
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Conducting polymers (polyaniline, polypyrrole and polythiophene) as electrode materials for supercapacitor have been attracted great interest due to their low cost, high capacity, rapid charge and discharge, environmental friendliness and safety. In this paper, conducting polymers and hybrid materials of conducting polymers and inorganic materials (carbon materials / metal oxide materials) as electrode materials for supercapacitor have been reviewed, it is believed that the conducting polymers with nanostructures and the hybrid materials of conducting polymers and inorganic nanomaterials are the important research directions of electrode materials for supercapacitor.

Contents 
1 Introduction 
2 The mechanism of storge energy of supercapacitor 
3 Electrode materials of supercapacitor based on polyaniline 
4 Electrode materials of supercapacitor based on polypyrrole 
5 Electrode materials of supercapacitor based on polythiophene 
6 Electrode materials of supercapacitor based on hybrid materials 
7 Conclusions and outlook

Key words: conducting polymers, supercapacitor, nanostructure, hybrid materials

［1 ］ Huang J，Sumpter B G，Meunier V. Chem. Eur. J. ，2008，14
(22) : 6614—6626
［2 ］ Park J H，Ko J M，Park O O，et al. J. Power Sources，2002，
105(1) : 20—25
［3 ］ Becker H E. US 2800616，1957
［4 ］ Ktz R，Carlen M. Electrochim. Acta，2000，45 ( 15 /16 ) :
2483—2498
［5 ］ Amarnath C A，Chang J H，Kim D， et al. Mater. Chem.
Phys. ，2009，113(1) : 14—17
［6 ］ Zhou S Y，Li X H，Wang Z X，et al. Nonferrous Met. Soc.
China，2007，17(6) : 1328—1333
［7 ］ Burke A. J. Power Sources，2000，91(1) : 37—50
［8 ］ Tao F， Shen Y Z， Liang Y Y， et al. J. Solid State
Electrochem. ，2007，11(6) : 853—858
［9 ］ Gutmann G. J. Power Sources，1999，84(2) : 275—279
［10］ Hu C C，Tsou T W. J. Power Sources，2003，115 (1 ) : 179—
186
［11］ Lota K，Khomenko V，Frackowiak E. J. Phys. Chem. Solids，
2004，65(2 /3) : 295—301
［12］ Kalpana D，Renganathan N G，Pitchumani S. J. Power Sources，
2006，157(1) : 621—623
［13］ Liu C G，Fang H T，Li F，et al. J. Power Sources，2006，160
(1) : 758—761
［14］ Wu N L，Wang S Y，Han C Y，et al. J. Power Sources，2003，
113(1) : 173—178
［15］ Wohlfahrt-Mehrens M，Schenk J，Wilde P M，et al. J. Power
Sources，2002，105(2) : 182—188
［16］ Patil U M，Salunkhe R R，Gurav K V，et al. Appl. Surf. Sci. ，
2008，255(5) : 2603—2607
［17］ Hu C C，Chang K H，Wang C C. Electrochim. Acta，2007，52
(13) : 4411—4418
［18］ Chen L M，Lai Q Y，Hao Y J，et al. J. Alloys Compd. ，2009，
467(1 /2) : 465—471
［19］ Mastragostino M， Arbizzani C， Soavi F. Solid State Ionics，
2002，148(3 /4) : 493—498
［20］ Sung J H，Kim S J，Lee K H. J. Power Sources，2003，124
(1) : 343—350
［21］ 张娜( Zhang N ) ， 张宝宏( Zhang B H ) . 电池( Battery
Bimonthly) ，2003，33(5) : 330—332
［22］ Park J H，Ko J M，Park O O，et al. J. Power Sources，2002，
105(1) : 20—25
［23］ Mi H Y，Zhang X G，Ye X G，et al. J. Power Sources，2008，
176(1) : 403—409
［24］ Li D，Huang J X B. Kaner R. Acc. Chem. Res. ，2009，42
(1) : 135—145
［25］ Ryu K S，Lee Y，Han K S，et al. Solid State Ionics，2004，175
(1 /4) : 765—768
［26］ Zhou H H， Chen H， Luo S L， et al. J. Solid State
Electrochem. ，2005，9(8) : 574—580
［27］ Wang D W，Li F，Zhao J P，et al. ACS Nano，2009，3 ( 7 ) :
1745—1752
［28］ Subramania A，Subbarao L D. Polym. Adv. Technol. ，2008，
19 (7) : 725—727
［29］ Ryu K S，Wu X L，Lee Y G，et al. J. Appl. Polym. Sci. ，
2003，89(5) : 1300—1304
［30］ Gupta V，Miura N. Mater. Lett. ，2006，60(12) :1466—1469
［31］ Raman G，Sangaraju S，Aharon G. Synth. Met. ，2008，158
(21 /24) : 848—853
［32］ Sivaraman P，Rath S K，Hande V R，et al. Synth. Met. ，2006，
156(16 /17) : 1057—1064
［33］ Cui L，Li J，Zhang X G. Mater. Lett. ，2009，63 ( 8 ) : 683—
686
［34］ Mokrane S， Makhloufi L， Alonso-Vante N. J. Solid State
Electrochem. ，2008，12(5) : 569—574
［35］ Kim B C，Ko J M，Wallace G G. J. Power Sources，2008，177
(2) : 665—668
［36］ Sharma R K，Rastogi A C，Desu S B. Electrochem. Commun. ，
2008，10(2) : 268—272
［37］ Ramya R，Sangaranarayanan M V. J. Chem. Sci. ，2008，120
(1) : 25—31
［38］ Sun W，Chen X Y. J. Power Sources，2009，193 ( 2 ) : 924—
929
［39］ Biso M，Mastragostino M，Montanino M，et al. Electrochim.
Acta，2008，53(27) : 7967—7971
［40］ Kim H J， Koizhaiganova R， Vasudevan T， et al. Adv.
Technol. ，2009，20(9) : 736—741
［41］ Ferraris J P，Eissa M M，Brotherston I D，et al. Chem. Mater. ，
1998，10(11) : 3528—3535
［42］ Chen L，Cuan C Y，Bo G，et al. J. Solid State Electrochem. ，
2009，13(12) :1925—1933
［43］ Liu K K，Hu Z L，Xue R，et al. J. Power Sources，2008，179
(2) : 858—862
［44］ Patra S，Munichandraiah N. J. Appl. Polym. Sci. ，2007，106
(2) : 1160—1171
［45］ Bhat D K，Kumar M S. J. Mater Sci，2007，42 (19 ) : 8158—
8162
［46］ Liu R，Cho S I，Lee S B. Nanotechnology，2008，19(21) : art.
no. 215710
［47］ Taberna P L，Chevallier G，Simon P，et al. Mater. Res. Bull. ，
2006，41(3) : 478—484
［48］ Wang K X，Wang Y G，Wang Y R，et al. J. Phys. Chem. C，
2009，113 (3) : 1093—1097
［49］ Vaillant J，Monica L C，Karina C G，et al. Prog. Solid State
Chem. ，2006，34(2 /4) : 147—159
［50］ Li L X，Song H H，Zhang Q C，et al. J. Power Sources，2009，
187(1) : 268—274
［51］ Kim J H，Lee Y S，Sharma A K，et al. Electrochim. Acta，
2006，52(4) : 1727—1732
［52］ Cebeci F ，Sezer E，Sarac A S. Electrochim. Acta，2009，54
(26) : 6354—6360
［53］ Gupta V，Miura N. Electrochim. Acta，2006，52 (4 ) : 1721—
1726
［54］ Sivakkumar S R，Kim W J，Choi J A，et al. J. Power Sources，
2007，171(2) : 1062—1068
［55］ Zhou C F，Kumar S. Chem. Mater. ，2005，17 ( 8 ) : 1997—
2002
［56］ Jiyoung O，Mikhail E K，Kim B G，et al. Synth. Met. ，2008，
158(15) : 638—641
［57］ Fang Y P，Liu J W，Deok J Y，et al. J. Power Sources，2010，
195(2) : 674—679
［58］ Chen L，Yuan C Z，Dou H，et al. Electrochim. Acta，2009，54
(8) : 2335—2341
［59］ Sun L J，Liu X X，Lau K K，et al. Electrochim. Acta，2008，
53(7) : 3036—3042
［60］ Hu Z A，Xie Y L，Wang Y X，et al. Mater. Chem. Phys. ，
2009，114(2 /3) : 990—995
［61］ Song R Y，Jun H P，Sivakkumar S R，et al. J. Power Sources，
2007，166(1) : 297—301
［62］ Mallouki M， Tran-Van F， Sarrazin C， et al. J. Solid State
Electrochem. ，2007，11(3) : 398—406
［63］ Graeme M S，Bhavana A D，Michael S F. Langmuir，2008，24
(3) : 1064—1069
［64］ Zang J F，Bao S J，Li C M，et al. J. Phys. Chem. C，2008，112
(38) : 14843—14847
［65］ Murugan A V，Viswanath A K. J. Appl. Phys，2006，100，art.
no. 074319
［66］ Huang L M，Wen T C，Gopalan A. Electrochim. Acta，2006，
51(17) : 3469—3476
［67］ Fan L Z，Hu Y S，Maier J，et al. Adv. Funct. Mater，2007，
17(16) : 3083—3087
［68］ Deng M G，Yang B C，Hu Y D. J. Mater. Sci. ，2005，40
(18) : 5021—5023
［69］ Ali I N，Dawn T H T，John D M. Synth. Met. ，2005，152(1 /3) : 129—132
［70］ Xiao Q F，Zhou X. Electrochim. Acta，2003，18 ( 5 ) : 575—
580
［71］ Frackowiak E， Khomenko V， Jurewicz K，et al. J. Power
Sources，2006，153(2) : 413—418
［72］ Julien V，Monica L C，Karina C G，et al. Prog. Solid State
Chem. ，2006，34(2 /4) : 147—159
［73］ Lu J F，Wang L，Lai Q Y，et al. J. Solid State Electrochem. ，
2009，13(12) : 1803—1810
［74］ Florence F，Daniel B. J. Phys. Chem. B，1999，103 ( 42 ) :
9044—9054
［75］ Xu Y L，Wang J，Sun W，et al. J. Power Sources，2006，159
(1) : 370—373
［76］ Wang J，Xu Y L，Chen X，et al. J. Power Sources，2007，163
(2) : 1120—1125
［77］ Mi H Y，Zhang X G，Ye X G，et al. J. Power Sources，2008，
176(1) : 403—409
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