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Progress in Chemistry 2007, Vol. 19 Issue (01): 51-58 Previous Articles   Next Articles

• Review •

Application of Surface Display Peptides in Syntheses and Assembly of Inorganic Nanomaterials*

Guo Yi;Zhuang Jiaqi;Yang Wensheng**   

  1. College of Chemistry, Jilin University, Changchun 130012, China
  • Received: Revised: Online: Published:
  • Contact: Yang Wensheng
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The application of surface display peptides in the syntheses and assembly of inorganic nanomaterials is reviewed in this article. The surface display peptides, a kind of peptides screened by surface display technologies of phage, cell etc., can recognize the different inorganic surfaces specifically. On the one hand, these peptides can direct the formation of different kinds of inorganic nanomaterials, which is helpful for us to understand the process and the fundamental principle of biomineralization. On the other hand, the surface display peptides can be used in the fabrication of nanostructures to form inorganic nanomaterials with specific function, providing a new route for the manufacture of nanodevices.

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[ 1 ] Gray J J . Curr. Opin. Struct . Biol . , 2004 , 14 : 110 —115
[ 2 ] Niemeyer C M. Angew. Chem. Int . Ed. , 2001 , 40 : 4128 —4158
[ 3 ] Hirano Y, Mooney D J . Adv. Mater. , 2004 , 16 : 17 —25
[ 4 ] Sugawara A , Nishimura T , Yamamoto Y, et al . Angew. Chem.Int . Ed. , 2006 , 45 : 2876 —2879
[ 5 ] Naik R R , Jones S E , Murray C J , et al . Adv. Funct . Mater. ,2004 , 14 : 25 —30
[ 6 ] Luckarift H R , Dickerson M B , Sandhage K H , et al . Small ,2006 , 2 : 640 —643
[ 7 ] Kantarci N , Tamerler C , Sarikaya M, et al . Polymer , 2005 , 46 :4307 —4313
[ 8 ] Raut V P , Agashe M A , Stuart S J , et al . Langmuir , 2005 , 21 :1629 —1639
[ 9 ] Whaley S R , English D S , Hu E L , et al . Nature , 2000 , 405 :665 —668
[10] Sarikaya M, Tamerler C , Jen A K Y, et al . Nat . Mater. , 2003 ,2 : 577 —585
[11] Smith G P. Science , 1985 , 228 : 1315 —1317
[12] Seeman N C , Belcher A M. Proc. Natl . Acad. Sci . , 2002 , 99 :6452 —6455
[13] Peelle B R , Krauland E M, Wittrup K D , et al . Acta Biomater. ,2005 , 1 : 145 —154
[14] Peelle B R , Krauland E M, Wittrup K D , et al . Langmuir ,2005 , 21 : 6929 —6933
[15] Dickerson M B , Naik R R , Stone M O , et al . Chem. Commun. ,2004 , 15 : 1776 —1777
[16] Flynn C E , Mao C B , Hayhurst A , et al . J . Mater. Chem. ,2003 , 13 : 2414 —2421
[17] Lee S W, Mao C B , Flynn C E , et al . Science , 2002 , 296 :892 —895
[18] Mao C B , Soli D J , Reiss B D , et al . Science , 2004 , 303 :213 —217
[19] Reiss B D , Mao C B , Solis D J , et al . Nano. Lett . , 2004 , 4 :1127 —1132
[20] Brown S. Nat . Biotechnol . , 1997 , 15 : 269 —272
[21] Brown S , Sarikaya M, Johnson E. J . Mol . Biol . , 2000 , 299 :725 —735
[22] Tamerler C , Dincer S , Heidel D , et al . Prog. Org. Coat . ,2003 , 47 : 267 —274
[23] Naik R R , Stringer S J , Agarwal G, et al . Nat . Mater. , 2002 ,1 : 169 —172
[24] Schembri M A , Kj ·rgaard K, Klemm P. FEMSMicrobiol . Lett . ,1999 , 170 : 363 —371
[25] Thai C K, Dai H X, Sastry M S R , et al . Biotechnol . Bioeng. ,2004 , 87 : 129 —137
[26] Brown S. Proc. Natl . Acad. Sci . , 1992 , 89 : 8651 —8655
[27] Goede K, Busch P , Grundmann M. Nano Lett . , 2004 , 4 :2115 —2120
[28] Naik R R , Brott L , Carlson S J , et al . J . Nanosci .Nanotechnol . , 2002 , 2 : 1 —6
[29] Nygaard S , Wendelbo R , Brown S. Adv. Mater. , 2004 , 14 :1853 —1856
[30] Gaskin D J H , Starck K, Turner N A , et al . Enzyme Microb.Tech. , 2001 , 28 : 766 —772
[31] Mann S. Nature , 1988 , 332 : 119 —123
[32] Weissbuch I , Addadi L , Lahav M, et al . Science , 1991 , 253 :637 —645
[33] Braun R , Sarikaya M, Schulten K S. J . Biomater. Sci . , 2002 ,13 : 747 —757
[34] Kulp J L , Sarikaya M, Evans J S. J . Mater. Chem. , 2004 , 14 :2325 —2332
[35] 杨文胜(Yang W S) , 高明远(Gao M Y) , 白玉白(Bai Y B) .纳米材料与生物技术(Nanomaterials and Biotechnology) . 北京: 化学工业出版社(Beijing : Chemical Industry Press ) ,2005. 227 —230
[36] Krêger N , Deutzmann R , Sumper M. Science , 1999 , 286 :1129 —1132
[37] Katz E , Willner I. Angew. Chem. Int . Ed. , 2004 , 42 : 6042 —6108
[38] Zhang S G. Nat . Biotechnol . , 2003 , 21 : 1171 —1178
[39] Rozenzhak S M, Kadakia M P , Caserta T M, et al . Chem.Commun. , 2005 , 17 : 2217 —2219
[40] Zin M T , Ma H , Sarikaya M, et al . Small , 2005 , 1 : 698 —702
[41] Huang Y, Chiang C Y, Lee S K, et al . Nano Lett . , 2005 , 5 :1429 —1434
[42] Nam K T , Kim D W, Yoo P J , et al . Science , 2006 , 312 :885 —888

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