Note: Supplemental materials are not guaranteed with Rental or Used book purchases.
Purchase Benefits
What is included with this book?
Ultrathin Fullerene-Based Films via STM and STS | p. 1 |
Introduction | p. 1 |
Basic Principles of STM and STS | p. 2 |
Survey of Fullerene-Based Systems | p. 4 |
Bulk Properties | p. 4 |
Electronic Structure | p. 6 |
Alkali-Metal-Doped C[subscript 60] | p. 8 |
Interaction of C[subscript 60] with Surfaces | p. 10 |
Summary | p. 17 |
References | p. 18 |
Quantitative Measurement of Materials Properties with the (Digital) Pulsed Force Mode | p. 23 |
Introduction | p. 23 |
Modes of Intermittent Operation | p. 24 |
Destructive Versus Nondestructive Measurements | p. 25 |
The Pulsed Force Mode | p. 26 |
Operating Principle of the Pulsed Force Mode | p. 26 |
Analog Pulsed Force Mode | p. 32 |
Digital Pulsed Force Mode | p. 32 |
Contact Mechanics Relevant for Pulsed Force Mode Investigations | p. 33 |
Hertz Model | p. 33 |
Sneddon's Extensions to the Hertz Model | p. 36 |
Models Incorporating Adhesion | p. 37 |
Data Processing | p. 39 |
Polymers | p. 42 |
Other Applications | p. 47 |
Pulsed Force Mode and Friction Measurements | p. 47 |
Cell Mechanics | p. 50 |
Summary | p. 51 |
References | p. 52 |
Advances in SPMs for Investigation and Modification of Solid-Supported Monolayers | p. 55 |
Introduction | p. 55 |
SSMs and Their Preparation | p. 57 |
Self-Assembled Monolayers | p. 57 |
LB Monolayers | p. 60 |
Fundamental and Technological Applications of SSMs | p. 61 |
Characterization and Modification of SSMs | p. 64 |
Characterization of SSMs | p. 64 |
Modification of SSMs | p. 67 |
Latest Advances in SPMs and Applications for Imaging of SSMs | p. 67 |
Dynamic SFM in the Attractive Regime | p. 69 |
Dynamic SFM at Different Level of Interaction Forces | p. 71 |
Nanopatterning by SPMs and SSMs | p. 76 |
Addition Nanolithography | p. 76 |
Elimination and Substitution Nanolithography | p. 78 |
Nanoelectrochemical Lithography | p. 79 |
3D Nanolithography | p. 82 |
Conclusions and Perspectives | p. 84 |
References | p. 85 |
Atomic Force Microscopy Studies of the Mechanical Properties of Living Cells | p. 89 |
Introduction | p. 89 |
Principle of Operation | p. 90 |
AFM Imaging | p. 92 |
Force Measurements | p. 92 |
Cell Viscoelasticity | p. 93 |
AFM Tip Geometries | p. 94 |
Elasticity: Young's Modulus | p. 94 |
Viscoelasticity: Complex Shear Modulus | p. 96 |
Cell Adhesion | p. 98 |
Concluding Remarks and Future Directions | p. 104 |
References | p. 105 |
Towards a Nanoscale View of Microbial Surfaces Using the Atomic Force Microscope | p. 111 |
Introduction | p. 111 |
Imaging | p. 112 |
Sample Preparation | p. 112 |
Visualizing Membrane Proteins at Subnanometer Resolution | p. 112 |
Live-Cell Imaging | p. 113 |
Force Spectroscopy | p. 116 |
Customized Tips | p. 116 |
Probing Nanoscale Elasticity and Surface Properties | p. 117 |
Stretching Cell Surface Polysaccharides and Proteins | p. 119 |
Nanoscale Mapping and Functional Analysis of Molecular Recognition Sites | p. 120 |
Conclusions | p. 123 |
References | p. 124 |
Cellular Physiology of Epithelium and Endothelium | p. 127 |
Introduction | p. 127 |
Epithelium | p. 128 |
Transport Through a Septum | p. 128 |
In the Kidney | p. 130 |
Endothelium | p. 136 |
Paracellular Gaps | p. 137 |
Cellular Drinking | p. 139 |
Wound Healing | p. 142 |
Transmigration of Leukocytes | p. 143 |
Technical Remarks | p. 144 |
Summary | p. 145 |
References | p. 145 |
Application of Atomic Force Microscopy to the Study of Expressed Molecules in or on a Single Living Cell | p. 149 |
Introduction | p. 150 |
Methods of Manipulation To Study Molecules in or on a Living Cell Using an AFM | p. 151 |
AFM Tip Preparation To Manipulate Receptors on a Cell Surface | p. 151 |
Analysis of Molecular Interactions Where Multiple Bonds Formed | p. 153 |
Measurement of Single-Molecule Interaction Strength on Soft Materials | p. 155 |
Observation of the Distribution of Specific Receptors on a Living Cell Surface | p. 156 |
Distribution of Fibronectin Receptors on a Living Fibroblast Cell | p. 156 |
Distribution of Vitronectin Receptors on a Living Osteoblast Cell | p. 159 |
Quantification of the Number of Prostaglandin Receptors on a Chinese Hamster Ovary Cell Surface | p. 161 |
Further Application of the AFM to the Study of Single-Cell Biology | p. 164 |
Manipulation of Expressed mRNAs in a Living Cell Using an AFM | p. 164 |
Manipulation of Membrane Receptors on a Living Cell Surface Using an AFM | p. 170 |
References | p. 173 |
What Can Atomic Force Microscopy Say About Amyloid Aggregates? | p. 177 |
Introduction | p. 178 |
Techniques and Methods Used To Study Amyloid Aggregates | p. 181 |
Optical Methods | p. 182 |
Electron Microscopy | p. 183 |
X-ray Diffraction | p. 185 |
Nuclear Magnetic Resonance | p. 185 |
Atomic Force Microscopy | p. 186 |
Monitoring the Aggregation Process by AFM | p. 188 |
Effect of Surfaces on the Aggregation Process | p. 190 |
Interaction with Model Membranes | p. 193 |
Physical Properties of Fibrils Obtained by AFM | p. 197 |
References | p. 201 |
Atomic Force Microscopy: Interaction Forces Measured in Phospholipid Monolayers, Bilayers and Cell Membranes | p. 207 |
Introduction | p. 207 |
Phase Transitions of Lipid Bilayers in Water | p. 209 |
Morphology Change During Lamellar Phase Transition | p. 210 |
Change in Forces During Phase Transition | p. 212 |
Force Measurements on Pulmonary Surfactant Monolayers in Air | p. 219 |
Adhesion Measurements: Monolayer Stiffness and Function | p. 221 |
Repulsive Forces: The Interaction of Charged Airborne Particles with Surfactant | p. 222 |
Interaction Forces Measured on Lung Epithelial Cells in Buffer | p. 224 |
Cell Culture/Force Measurement Setup | p. 225 |
Mechanical Properties | p. 227 |
Conclusions | p. 230 |
References | p. 231 |
Self-Assembled Monolayers on Aluminum and Copper Oxide Surfaces: Surface and Interface Characteristics, Nanotribological Properties, and Chemical Stability | p. 235 |
Introduction | p. 236 |
Substrate Preparation | p. 238 |
Aluminum | p. 238 |
Copper | p. 239 |
Phosphonic Acid and Silane Based SAMs on Al and Cu | p. 239 |
SAM Preparation | p. 239 |
Surface and Interface Characterization | p. 240 |
Nanotribological Properties | p. 261 |
Chemical Stability | p. 268 |
Summary | p. 277 |
References | p. 279 |
High Sliding Velocity Nanotribological Investigations of Materials for Nanotechnology Applications | p. 283 |
Bridging Science and Engineering for Nanotribological Investigations | p. 283 |
Microtribology/Nanotribology | p. 284 |
Historical Perspective for Velocity Dependence of Friction | p. 284 |
Need for Speed: Extending the AFM Capabilities for High Sliding Velocity Studies | p. 285 |
Modifications to the Commercial AFM Setup | p. 287 |
Friction Investigations on the Microscale/Nanoscale at High Sliding Velocities | p. 298 |
Microscale/Nanoscale Friction and Wear Studies at High Sliding Velocities | p. 300 |
Nanoscale Friction Mapping: Understanding Normal Load and Velocity Dependence of Friction Force | p. 301 |
Nanoscale Wear Mapping: Wear Studies at High Sliding Velocities | p. 303 |
Closure | p. 308 |
References | p. 309 |
Measurement of the Mechanical Properties of One-Dimensional Polymer Nanostructures by AFM | p. 311 |
Introduction | p. 311 |
AFM-Based Techniques for Measuring the Mechanical Properties of 1D Polymer Nanostructures | p. 312 |
Mechanical Properties of Electrospun Polymer Nanofibers | p. 318 |
Test of Reliability of AFM-Based Measurements | p. 323 |
References | p. 327 |
Evaluating Tribological Properties of Materials for Total Joint Replacements Using Scanning Probe Microscopy | p. 329 |
Introduction | p. 329 |
Total Joint Replacements | p. 329 |
Social and Economic Significance | p. 330 |
Problems Associated with Total Joint Replacements | p. 330 |
Tribology | p. 332 |
Materials | p. 332 |
Lubrication in Joints-the Synovial Fluid | p. 333 |
Conventional Tribological Testing of Material Pairs for Total Joint Replacements | p. 334 |
Wear Tests | p. 334 |
Friction Tests | p. 334 |
Scanning Probe Microscopy as a Tool to Study Tribology of Total Joint Replacements | p. 334 |
Nanotribology of Ultrahigh Molecular Weight Polyethylene | p. 335 |
Fretting Wear of Cobalt-Chromium Alloy | p. 343 |
Summary and Future Outlook | p. 347 |
References | p. 348 |
Near-Field Optical Spectroscopy of Single Quantum Constituents | p. 351 |
Introduction | p. 351 |
General Description of NSOM | p. 353 |
NSOM Aperture Probe | p. 354 |
Basic Process of Aperture Probe Fabrication | p. 354 |
Tapered Structure and Optical Throughput | p. 355 |
Fabrication of a Double-Tapered Aperture Probe | p. 356 |
Evaluation of Transmission Efficiency and Collection Efficiency | p. 357 |
Evaluation of Spatial Resolution with Single QDs | p. 358 |
Single-Quantum-Constituent Spectroscopy | p. 360 |
Light-Matter Interaction at the Nanoscale | p. 361 |
Real-Space Mapping of an Exciton Wavefunction Confined in a QD | p. 363 |
Carrier Localization in Cluster States in GaNAs | p. 367 |
Perspectives | p. 370 |
References | p. 371 |
Subject Index | p. 373 |
Table of Contents provided by Ingram. All Rights Reserved. |
The New copy of this book will include any supplemental materials advertised. Please check the title of the book to determine if it should include any access cards, study guides, lab manuals, CDs, etc.
The Used, Rental and eBook copies of this book are not guaranteed to include any supplemental materials. Typically, only the book itself is included. This is true even if the title states it includes any access cards, study guides, lab manuals, CDs, etc.