000 06249nam a2200349 i 4500
008 090506s2009 gw a b 001 0 eng
020 _a9783527314201
020 _a3527314202
035 _a(OCoLC)321017979
040 _aUKM
_beng
_cUKM
_dBWX
_dZQP
_dTEF
_dIXA
_dSNK
_dBAUN
_erda
049 _aBAUN_MERKEZ
050 0 4 _aQD553
_b.C54 2009
082 0 4 _222
245 0 0 _aChemically modified electrodes /
_cedited by Richard C. Alkire ... [and others]
264 1 _aWeinheim :
_bWiley-VCH,
_c[2009]
264 2 _aChichester :
_bJohn Wiley [distributor],
_c[2009]
264 4 _c©2009
300 _axi, 267 pages :
_billustrations (some col) ;
_c25 cm
336 _atext
_btxt
_2rdacontent
337 _aunmediated
_bn
_2rdamedia
338 _avolume
_bnc
_2rdacarrier
490 0 _aAdvances in electrochemical science and engineering ;
_vv. 11
504 _aIncludes bibliographical references and index
505 0 0 _tContents
_tPreface IX
_tList of Contributors XI
_t1 Nanostructured Electrodes with Unique Properties for Biological and Other Applications 1
_rJ. Justin Gooding, Leo M.H. Lai, and Ian Y. Goon
_t1.1 Introduction 1
_t1.2 High Surface Area Electrodes 2
_t1.2.1 Attachment of Nanoparticles onto Electrodes 3
_t1.2.2 Templating using Membranes 12
_t1.2.3 Templating using Lyotropic Liquid Crystals 19
_t1.2.4 Colloidal Templates 22
_t1.3 Catalytic Properties 23
_t1.4 Exploiting Nanoscale Control to Interface Electrodes with Biomolecules 27
_t1.4.1 Plugging Nanomaterials into Proteins – Nanoparticles 27
_t1.4.2 Plugging Nanomaterials into Proteins – Carbon Nanotubes 29
_t1.4.3 Plugging Nanomaterials into Proteins – Molecular Wires 31
_t1.4.3.1 Nanostructuring Electrodes to Achieve Intimate Connectivity with Biomolecules 32
_t1.4.3.2 Nanostructuring Electrodes using Rigid Molecules 32
_t1.4.3.3 The use of Molecular Wires in Electrochemistry such that Long-Distance Electron Transfer can be Exploited for a Variety of Applications 35
_t1.5 Switchable Surfaces 39
_t1.5.1 Switching Properties of Monolayer Systems 39
_t1.5.2 Control and Enhancement of Electrochemical Reactions using Magnetic Nanostructures on Electrodes 43
_t1.6 Conclusions 50
_tReferences 50
_tAdvances in Electrochemical Science and Engineering: Vol. 11 Chemically Modified Electrodes.
_rEdited by Richard C. Alkire, Dieter M. Kolb, Jacek Lipkowski and Philip N. Ross
_t2 Electrochemically Active Polyelectrolyte-Modified Electrodes 57
_rMario Tagliazucchi and Ernesto J. Calvo
_t2.1 Introduction 57
_t2.1.1 Chemically Modified Electrodes 58
_t2.1.2 Redox Hydrogels 59
_t2.1.3 Redox Polyelectrolyte Monolayers 60
_t2.1.4 Redox Polymer Brushes and Grafted DNA 61
_t2.1.5 Layer-by-Layer Polyelectrolyte Multilayers 62
_t2.2 Structure 64
_t2.2.1 Polyelectrolye Interpenetration 66
_t2.2.2 Compensation of Polyelectrolyte Charges 66
_t2.2.3 Film Inner Structure 66
_t2.2.4 Effect of the Assembly pH 67
_t2.2.5 Theoretical Description 68
_t2.3 Electrochemical Response 72
_t2.3.1 Ideal Response 72
_t2.3.2 Peak Position and Donnan Potential 73
_t2.3.3 Coupling Between the Acid–Base and Redox Equilibria 78
_t2.3.4 Peak Width 79
_t2.3.5 Nonreversible Electrochemistry: Charge Transport 81
_t2.4 Dynamics of Solvent and Ion Exchange 84
_t2.4.1 Ion Exchange 84
_t2.4.2 Solvent Exchange 86
_t2.4.3 Specific Ionic Effects 86
_t2.4.4 Break-In 88
_t2.5 Molecular Description of Redox Polyelectrolyte-Modified Electrodes 89
_t2.5.1 Formulation of the Molecular Theory 89
_t2.5.2 Comparison with Phenomenological Models, Advantages and Limitations 96
_t2.6 Applications 97
_t2.6.1 Amperometric Enzymatic Electrodes 97
_t2.6.2 Electrochromic Devices 105
_t2.7 Conclusions 106
_tReferences 109
_t3 Electrochemistry on Carbon-Nanotube-Modified Surfaces 117
_rMaría José Esplandiu
_t3.1 Introduction 117
_t3.2 Structure and Properties of Carbon Nanotubes 118
_t3.2.1 Structure and Electronic Properties 118
_t3.2.2 Chemical Properties 121
_t3.2.3 Electrochemical Properties 123
_t3.3 Towards the Design of CNT-Modified Electrodes 128
_t3.3.1 Synthesis of CNTs 128
_t3.3.2 CNT Purification Methods 129
_t3.3.3 Chemical and Biochemical Functionalization 130
_t3.3.3.1 Covalent Modification 131
_t3.3.3.2 Noncovalent Modification 133
_t3.3.3.3 Chemical Modification for CNT Sorting 133
_t3.3.3.4 Chemical Doping, Intercalation and Artificial Defects 135
_t3.3.4 CNT Deposition on Electrode Surfaces 135
_t3.3.4.1 Randomly Dispersed CNTs 135
_t3.3.4.2 Oriented CNT Electrodes 141
_t3.3.4.3 Individual CNT Electrodes 144
_t3.3.5 CNT-Modified Electrode Pretreatments 146
_t3.4 Electrochemical Applications of CNT Electrodes 147
_t3.4.1 Biosensors 147
_t3.4.1.1 Enzymatic and Redox Protein Biosensors 148
_t3.4.1.2 CNT/DNA and Genosensors 151
_t3.4.1.3 Immunosensors 156
_t3.4.2 Electrochemical Actuators 157
_t3.4.3 Electrochemical Energy-Harvesting Devices 157
_t3.5 Conclusions and Future Prospects 160
_tReferences 162
_t4 Electrochemistry of Electroactive Surface-Immobilized Nanoparticles 169
_rDaniel A. Buttry
_t4.1 Introduction 169
_t4.2 Synthetic Approaches and Characterization 171
_t4.3 Immobilization Schemes 174
_t4.4 Metal Oxides 178
_t4.4.1 TiOx 178
_t4.4.2 MnOx 180
_t4.4.3 FeOx 184
_t4.4.4 NiOx and CoOx 185
_t4.5 Other Metal Oxides and Metal Sulfides 186
_t4.6 Prussian Blue and Its Derivatives 187
_t4.7 Concluding Remarks 192
_tReferences 193
_t5 Structure, Electrochemistry and Applications of Self-Assembled Monolayers of Thiols 197
_rManfred Buck
_t5.1 Introduction 197
_t5.2 Structural Aspects of Thiol-Like SAMs 200
_t5.3 Reductive Desorption of SAMs 209
_t5.4 Metal Deposition on SAM-Modified Electrodes 218
_t5.4.1 General Remarks 218
_t5.4.2 On-Top Deposition 220
_t5.4.3 Underpotential Deposition 228
_t5.4.4 Bulk-Metal Deposition 239
_t5.5 Summary and Outlook 245
_tReferences 247
_tIndex 257
520 _a"With contributions from an international group of expert authors, this book includes the latest trends in tailoring interfacial properties electrochemically. The chapters cover various organic and inorganic compounds, with applications ranging from electrochemistry to nanotechnology and biology."--pub. desc
650 0 _aElectrochemistry
650 0 _aElectrodes
700 1 _aAlkire, R. C.,
_d1941-
830 0 _9110984
_aAdvances in electrochemical science and engineering ;
_vvolume 11.
900 _a30899
942 _2lcc
_cKT
999 _c27695
_d27695