Scanning Probe Lithography for Chemical, Biological and Engineering Applications | p. 1 |
Introduction | p. 2 |
Modeling of the DPN Process | p. 4 |
Patterning of Biological and Biologically Active Molecules | p. 7 |
DNA Patterning | p. 8 |
Protein Patterning | p. 10 |
Peptide Patterning | p. 13 |
Patterning of Templates for Biological Bottom-Up Assembly | p. 15 |
Chemical Patterning | p. 17 |
Thiols | p. 17 |
[omega]-Substituted Thiols | p. 18 |
Silanes and Silazanes | p. 19 |
Deposition of Solid Organic Inks | p. 20 |
Polymers | p. 21 |
Polyelectrolytes | p. 23 |
Dendrimers | p. 23 |
Deposition of Supramolecular Materials | p. 24 |
Deposition of Metals | p. 25 |
Deposition of Solid-State Materials | p. 26 |
Deposition of Magnetic Materials | p. 27 |
Engineering Applications of DPN | p. 28 |
Future Challenges and Applications | p. 30 |
Conclusions | p. 31 |
References | p. 31 |
Nanotribological Characterization of Human Hair and Skin Using Atomic Force Microscopy (AFM) | p. 35 |
Introduction | p. 35 |
Human Hair, Skin, and Hair Care Products | p. 39 |
Human Hair and Skin | p. 39 |
Hair Care: Cleaning and Conditioning Treatments, and Damaging Processes | p. 46 |
Experimental Techniques | p. 51 |
Experimental Procedure | p. 53 |
Hair and Skin Samples | p. 57 |
Results and Discussion | p. 59 |
Surface Roughness, Friction, and Adhesion for Various Ethnicities of Hair | p. 59 |
Surface Roughness, Friction, and Adhesion for Virgin and Chemically Damaged Caucasian Hair (with and without Commercial Conditioner Treatment) | p. 70 |
Surface Roughness, Friction, and Adhesion for Hair Treated with Various Combinations of Conditioner Ingredients | p. 78 |
Investigation of Directionality Dependence and Scale Effects on Friction and Adhesion of Hair | p. 85 |
Surface Roughness and Friction of Skin | p. 98 |
Closure | p. 98 |
References | p. 102 |
Appendix | p. 103 |
Nanofabrication with Self-Assembled Monolayers by Scanning Probe Lithography | p. 105 |
SPM-Based Methods of Lithography | p. 105 |
Bias-Induced Nanofabrication | p. 107 |
Force-Induced Nanofabrication of SAMs | p. 108 |
Dip-Pen Nanolithography (DPN) | p. 110 |
Automated Scanning Probe Lithography | p. 111 |
Patterning with Self-Assembled Monolayers | p. 112 |
Structure of SAMs | p. 112 |
Examples of SAM Nanopatterns Generated by Force-Induced SPL | p. 114 |
Nanofabrication of SAMs by DPN and Bias-Induced SPL | p. 118 |
Directed Fabrication of Polymeric Structures | p. 120 |
Fabrication of Metallic Structures | p. 122 |
Nanoscale Patterning of Proteins | p. 126 |
Protein Arrays Generated by DPN | p. 127 |
Applying Bias-Induced SPL for Protein Nanopatterns | p. 128 |
Protein Immobilization on SAMs Generated by Force-Induced SPL | p. 129 |
Conclusions and Outlook | p. 130 |
References | p. 131 |
Fabrication of Nanometer-Scale Structures by Local Oxidation Nanolithography | p. 137 |
Introduction to AFM Nanolithographies | p. 137 |
Basic Local Oxidation Aspects | p. 138 |
Mechanism and Kinetics | p. 141 |
Feature Size | p. 143 |
Applications I: Patterning, Data Storage and Template Growth | p. 146 |
Applications II: Nanoelectronic Devices | p. 151 |
Parallel Oxidation | p. 154 |
References | p. 155 |
Template Effects of Molecular Assemblies Studied by Scanning Tunneling Microscopy (STM) | p. 159 |
Introduction | p. 159 |
Single Guest Molecule Immobilization with Assembled Molecular Networks | p. 160 |
Hydrogen Bonded Supramolecular Networks and Single Molecule Inclusions | p. 160 |
Van der Waals Interaction Stabilized Networks | p. 163 |
Metal-Organic Coordination Networks | p. 165 |
Covalently Bonded Molecular Grids | p. 166 |
Intralayer Heterogeneous Molecular Arrays | p. 166 |
Hydrogen Bond Stabilized Heterogeneous Lamellae | p. 167 |
Van der Waals Interaction Stabilized Intralayer Arrays | p. 168 |
Interlayer Effect on Molecular Adsorption and Assemblies | p. 171 |
Site Selective Adsorption | p. 172 |
Molecular Arrays | p. 176 |
Directional Assembly of Nanoparticle Arrays | p. 177 |
Future Perspectives | p. 179 |
References | p. 179 |
Microfabricated Cantilever Array Sensors for (Bio-)Chemical Detection | p. 183 |
Introduction | p. 183 |
Sensors | p. 183 |
Cantilevers | p. 184 |
Cantilever Operating Modes | p. 186 |
Cantilever Arrays | p. 192 |
Experimental Setup | p. 196 |
Measurement Chamber | p. 196 |
Cantilever Functionalization | p. 198 |
Measurements | p. 203 |
Artificial Nose for Detection of Perfume Essences | p. 204 |
Label-Free DNA Hybridization Detection | p. 206 |
Applications and Outlook | p. 209 |
References | p. 210 |
Nano-Thermomechanics: Fundamentals and Application in Data Storage Devices | p. 215 |
Introduction | p. 215 |
Heat Transfer Mechanisms | p. 215 |
Heat Generation in Microcantilevers | p. 216 |
Heat Transfer Through Air and Silicon | p. 217 |
Heat Transfer Through Radiation | p. 222 |
Heat Transfer Through a Tip-Surface Point Contact | p. 224 |
Momentum Transfer Through Air | p. 227 |
Thermomechanical Nanoindentation of Polymers | p. 229 |
General Considerations | p. 229 |
Indentation Experiments | p. 230 |
Interlude: Carbon Nanotube Tips | p. 232 |
Interlude: Thermal Force and Indentation Formation | p. 234 |
Interlude: Rim Formation on Polymer Samples | p. 234 |
Indentation Kinetics and the Indentation Mechanism | p. 236 |
Interlude: Thermo-Nano-Mechanics Without a Heater | p. 239 |
Thermomechanical Nanowear Testing | p. 241 |
Application to Data-Storage Devices | p. 243 |
Introduction | p. 243 |
Scaling Challenges for Nanoindentation of Polymers | p. 245 |
References | p. 248 |
Applications of Heated Atomic Force Microscope Cantilevers | p. 251 |
Introduction | p. 251 |
Physical and Environmental Sensing | p. 252 |
Pressure Sensing | p. 252 |
Thermal Conductivity Mapping and Subsurface Imaging | p. 253 |
Topographical Detection | p. 258 |
Chemical Sensing Applications | p. 261 |
Calorimetry | p. 261 |
Mass Detection | p. 262 |
Time-of-Flight Scanning Force Microscopy | p. 263 |
Explosives Detection | p. 264 |
Data Storage and Lithography | p. 264 |
Data Storage | p. 265 |
Lithography | p. 269 |
Summary and Conclusions | p. 272 |
References | p. 272 |
Subject Index | p. 277 |
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