Nanotechnology Books

Book SynopsisThis book will present the theoretical and technological elements of nanosystems. Among the different topics discussed, the authors include the electromechanical properties of NEMS, the scaling effects that give these their interesting properties for different applications and the current manufacturing processes. The authors aim to provide useful tools for future readers and will provide an accurate picture of current and future research in the field.Table of ContentsPREFACE vii PHYSICAL CONSTANTS ix NOTATIONS xi CHAPTER 1. FROM MEMS TO NEMS 1 1.1. Micro- and nanoelectromechanical systems: an overview 1 1.2. Conclusion 9 CHAPTER 2. TRANSDUCTION ON THE NANOMETRIC SCALE AND THE NOTION OF NOISE 13 2.1. Mechanical transfer function 14 2.2. Transduction principles 20 2.2.1. The actuation of nanostructures 23 2.2.2. Detection 31 2.3. Self-oscillation and noises 49 2.4. Conclusion 58 CHAPTER 3. MONOLITHIC INTEGRATION OF NEMS WITH THEIR READOUT ELECTRONICS 61 3.1. Foreword 61 3.1.1. Why integrate NEMS with their readout electronics? 61 3.1.2. What are the differences between MEMS-CMOS and NEMS-CMOS? 62 3.2. The advantages of and main approaches to monolithic integration 64 3.2.1. A comparison of integration schemes and their electrical performance 64 3.2.2. Closed-loop NEMS-CMOS oscillators: the essential building block for NEMS-based frequency sensors 69 3.2.3. Overview of the main achievements from the perspective of manufacturing technology 70 3.3. Analysis of some significant achievements from the perspective of transduction 75 3.3.1. Examples of capacitive NEMS-CMOS 75 3.3.2. Examples of piezoresistive NEMS-CMOS 82 3.3.3. Alternative approaches 85 3.4. Conclusions and future perspectives 86 CHAPTER 4. NEMS AND SCALING EFFECTS 89 4.1. Introduction 89 4.1.1. Intrinsic losses 96 4.1.2. Extrinsic losses 97 4.2. Near field effect in a nanostructure: Casimir force 102 4.2.1. Intuitive explanation of the Casimir force 102 4.2.2. The problem 105 4.2.3. Rigorous calculation of the Casimir force between two silicon slabs 107 4.2.4. Impact of the Casimir force in a nano-accelerometer 113 4.2.5. Conclusion 117 4.3. Example of “intrinsic” scaling effects: electrical conduction laws 117 4.3.1. Electrical resistivity 117 4.3.2. Piezoresistive effect 125 4.4. Optomechanical nano-oscillators and quantum optomechanics 136 4.5. Conclusion 147 CHAPTER 5. CONCLUSION AND APPLICATION PROSPECTS: FROM FUNDAMENTAL PHYSICS TO APPLIED PHYSICS 149 APPENDIX 167 BIBLIOGRAPHY 175 INDEX 193

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Book SynopsisOver the past two decades, the rapid development of nanochemistry and nanotechnology has allowed the synthesis of various materials and oxides in the form of nanopowders making it possible to produce new energetic compositions and nanomaterials. This book has a bottom-up structure, from nanomaterials synthesis to the application fields. Starting from aluminum nanoparticles synthesis for fuel application, it proposes a detailed state-of-the art of the different methods of preparation of aluminum-based reactive nanomaterials. It describes the techniques developed for their characterization and, when available, a description of the fundamental mechanisms responsible for their ignition and combustion. This book also presents the possibilities and limitations of different energetic nanomaterials and related structures as well as the analysis of their chemical and thermal properties. The whole is rounded off with a look at the performances of reactive materials in terms of heat of reaction and reactivity mainly characterized as the self-sustained combustion velocity. The book ends up with a description of current reactive nanomaterials applications underlying the promising integration of aluminum-based reactive nanomaterial into micro electromechanical systems.Table of ContentsINTRODUCTION ix ACKNOWLEDGEMENTS xi CHAPTER 1. NANOSIZED ALUMINUM AS METAL FUEL 1 1.1. Al nanoparticles manufacturing 2 1.1.1. Vapor-phase condensation methods 2 1.1.2. Wet chemistry 6 1.1.3. Mechanical methods 7 1.2. Example of Al nanoparticles passivation technique 8 1.2.1. Metallic coating 9 1.2.2. Organic coating 9 1.3. Characterization of Al nanoparticles properties 11 1.3.1. Light scattering methods 12 1.3.2. Gas adsorption method: specific surface measurement, BET diameter 13 1.3.3. Thermal analysis: purity or aluminum content percentage and oxide thickness 13 1.3.4. Chemical analysis 15 1.4. Oxidation of aluminum: basic chemistry and models 16 1.4.1. Initial stage of aluminum oxidation from first principles calculations 16 1.4.2. Thermodynamic modeling of Al oxidation under low heating rate 18 1.5. Why incorporate Al nanoparticles into propellant and rocket technology? 23 1.5.1. Reduction of the melting point 24 1.5.2. Increase in the reactivity 25 CHAPTER 2. APPLICATIONS: AL NANOPARTICLES IN GELLED PROPELLANTS AND SOLID FUELS 27 2.1. Gelled propellants 27 2.2. Solid propellants 29 2.3. Solid fuel 31 CHAPTER 3. APPLICATIONS OF AL NANOPARTICLES: NANOTHERMITES 33 3.1. Method of preparation 35 3.1.1. Ultrasonic nanopowder mixing 36 3.1.2. Rapid expansion of a supercritical dispersion 38 3.1.3. Molecular self-assembly of nanoparticles 39 3.2. Key parameters 42 3.2.1. The bulk density, theoretical density and compaction 42 3.2.2. The stochiometry 44 3.2.3. The size of Al and oxidizer particles 46 3.2.4. The passivation layer 49 3.3. Pressure generation tests 50 3.4. Combustion tests 52 3.4.1. Open tray experiments 52 3.4.2. Optical temperature measurement: spectroscopy 53 3.4.3. Photodiodes 54 3.4.4. Confined combustion tests 54 3.5. Ignition tests 56 3.5.1. Impact ignition 56 3.5.2. High-rate heating (106–107°C/s) 57 3.5.3. Low and uniform heating (10–100°C/s) 57 3.6. Electrostatic discharge (ESD) sensitivity tests 58 CHAPTER 4. OTHER REACTIVE NANOMATERIALS AND NANOTHERMITE SYSTEMS 63 4.1. Sol–gel materials 63 4.2. Reactive multilayered foils 66 4.2.1. Bimetallic multilayered foils 67 4.2.2. Thermite multilayered foils 72 4.2.3. Summary 77 4.3. Dense reactive materials 77 4.3.1. Arrested reactive milling 78 4.3.2. Cold-spray consolidation 81 4.4. Core–shell structures 83 4.5. Reactive porous silicon 86 4.6. Other energetic systems 88 CHAPTER 5. COMBUSTION AND PRESSURE GENERATION MECHANISMS 91 5.1. General views of Al particle combustion: micro versus nano, diffusion-based kinetics 93 5.2. Stress in the oxide layer and shrinking core model 95 5.3. Aluminum oxidation through diffusion-reaction mechanisms 97 5.4. Melt-dispersion mechanism 99 5.5. Gas and pressure generation in nanothermites 100 5.5.1. Thermodynamic models 100 5.5.2. Application to Al/CuO 103 CHAPTER 6. APPLICATIONS 107 6.1. Reactive bonding 108 6.2. Microignition chips 110 6.3. Microactuation/propulsion 113 6.3.1. High energetic actuators 113 6.3.2. Fast impulse nanothermite thrusters 113 6.3.3. Smooth actuators 116 6.4. Material processing and others 119 CONCLUSIONS 121 BIBLIOGRAPHY 125 INDEX 149

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Book SynopsisDedicated to SiC-based 1D nanostructures, this book explains the properties and different growth methods of these nanostructures. It details carburization of silicon nanowires, a growth process for obtaining original Si-SiC core-shell nanowires and SiC nanotubes of high crystalline quality, thanks to the control of the siliconout-diffusion. The potential applications of these particular nano-objects is also discussed, with regards to their eventual integration in biology, energy and electronics.Table of ContentsFOREWORD ix INTRODUCTION xiii LIST OF ACRONYMS xvii CHAPTER 1. PROPERTIES OF SIC-BASED ONE-DIMENSIONAL NANOSTRUCTURES 1 1.1. Intrinsic properties of silicon carbide 1 1.1.1. Crystallographic description 1 1.1.2. Physical and chemical properties of SiC 7 1.2. Properties of one-dimensional nanostructures 14 1.2.1. Definition and classification 14 1.2.2. High surface/volume ratio and its consequences 17 1.2.3. Specific properties at the nano metric scale 20 1.3. Conclusion 25 CHAPTER 2. STATE OF THE ART OF THE GROWTH OF SIC-1D NANOSTRUCTURES 27 2.1. State of the art of the growth of SiC nanowires 27 2.1.1. Silicidation of carbon nanotubes 28 2.1.2. Synthesis through the VLS mechanism 29 2.1.3. Development in the gaseous phase – VS mechanism 33 2.1.4. Carburization of Si nanowires 34 2.1.5. Conclusion on the growth of SiC nanowires 36 2.2. State of the art of the growth of SiC nanotubes 37 2.3. State of the art of the growth of SiC-based core–shell nanowires 39 2.3.1. Si–SiC core–shell nanowires 39 2.3.2. Other SiC-based core–shell nanowires 40 2.4. Conclusion 41 CHAPTER 3. AN ORIGINAL GROWTH PROCESS: THE CARBURIZATION OF SI NANOWIRES 43 3.1. Si nanowires 44 3.2. The carburization of bulk silicon 48 3.3. Experimental application 55 3.3.1. Carburization apparatus 55 3.3.2. Methods of characterization 56 3.4. Growth of core–shell Si–SiC nanowires 58 3.4.1. Introduction 58 3.4.2. Experimental study 59 3.5. Growth of silicon carbide nanotubes 73 3.5.1. Founding idea and experimental application 73 3.5.2. A word on the kinetics of carburization 77 3.6. Summary of the study of the carburization of silicon nanowires 79 3.6.1. Illustration of carburization mechanisms for the growth of Si–SiC nanowires or SiC nanotubes 79 3.6.2. The carburization of Si NW summarized: construction of an existence domain diagram 81 3.6.3. Criticism of the nanostructures obtained 84 CHAPTER 4. SIC-BASED ONE-DIMENSIONAL NANOSTRUCTURE TECHNOLOGIES 87 4.1. Top-down approach: SiC plasma etching for the production of SiC nanowires 87 4.2. Mechanics 90 4.3. Energy 91 4.4. Electronics 93 4.4.1. Integration of nanostructures in a nanowire transistor 93 4.5. For biology 99 4.6. Future work 100 CONCLUSION 103 BIBLIOGRAPHY 107 INDEX 127

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Book SynopsisApplied RVE Reconstruction and Homogenization of Heterogeneous Materials Statistical correlation functions are a well-known class of statistical descriptors that can be used to describe the morphology and the microstructure-properties relationship. A comprehensive study has been performed for the use of these correlation functions for the reconstruction and homogenization in nano­composite materials. Correlation functions are measured from different techniques such as microscopy (SEM or TEM), small angle X-ray scattering (SAXS) and can be generated through Monte Carlo simulations. In this book, different experimental techniques such as SAXS and image processing are presented, which are used to measure two-point correlation function correlation for multi-phase polymer composites. Higher order correlation functions must be calculated or measured to increase the precision of the statistical continuum approach. To achieve this aim, a new approximation methodology is utilized to obtain N-point correlation functions for multiphase heterogeneous materials. The two-point functions measured by different techniques have been exploited to reconstruct the microstructure of heterogeneous media. Statistical continuum theory is used to predict the effective thermal conductivity and elastic modulus of polymer composites. N-point probability functions as statistical descriptors of inclusions have been exploited to solve strong contrast homogenization for effective thermal conductivity and elastic modulus properties of heterogeneous materials. Finally, reconstructed microstructure is used to calculate effective properties and damage modeling of heterogeneous materials.Table of ContentsPreface ix Introduction xiii Chapter 1 Literature Survey 1 1.1 Random heterogeneous material 1 1.2 Two-point probability functions 2 1.3 Two-point cluster functions 4 1.4 Lineal-path function 4 1.5 Reconstruction 4 1.5.1 X-ray computed tomography (experimental) 4 1.5.2 X-ray computed tomography (applications to nanocomposites) 6 1.5.3 FIB/SEM (experimental) 6 1.5.4 Reconstruction using statistical descriptor (numerical) 10 1.6 Homogenization methods for effective properties 11 1.7 Assumption of statistical continuum mechanics 12 1.8 Representative volume element 13 Chapter 2 Calculation of Two-Point Correlation Functions 15 2.1 Introduction 15 2.2 Monte Carlo calculation of TPCF 17 2.3 Two-point correlation functions of eigen microstructure 19 2.4 Calculation of two-point correlation functions using SAXS or SANS data 21 2.4.1 Case study for structural characterization using SAXS data 24 2.5 Necessary conditions for two-point correlation functions 28 2.6 Approximation of two-point correlation functions 30 2.6.1 Examination of the necessary conditions for the proposed estimation 34 2.6.2 Case study for the approximation of a TPCF 39 2.7 Conclusion 42 Chapter 3 Approximate Solution for N-Point Correlation Functions for Heterogeneous Materials 43 3.1 Introduction 43 3.2 Approximation of three-point correlation functions 45 3.2.1 Decomposition of higher order statistics 45 3.2.2 Decomposition of two-point correlation functions 46 3.2.3 Decomposition of three-point correlation functions 47 3.3 Approximation of four-point correlation functions 51 3.4 Approximation of N-point correlation functions 56 3.5 Results 60 3.5.1 Computational verification 60 3.5.2 Experimental validation 62 3.6 Conclusions 66 Chapter 4 Reconstruction of Heterogeneous Materials Using Two-Point Correlation Functions 67 4.1 Introduction 67 4.2 Monte Carlo reconstruction methodology 69 4.2.1 3D cell generation 72 4.2.2 Cell distribution 75 4.2.3 Cell growth 77 4.2.4 Optimization of the statistical correlation functions 79 4.2.5 Percolation 79 4.2.6 Three-phase solid oxide fuel cell anode microstructure 81 4.2.7 Reconstruction of multiphase heterogeneous materials 82 4.3 Reconstruction procedure using the simulated annealing (SA) algorithm 86 4.4 Phase recovery algorithm 91 4.5 3D reconstruction of non-eigen microstructure using correlation functions 96 4.5.1 Microstructure reconstruction using Monte Carlo methodology 96 4.5.2 Sample production 97 4.5.3 Monte Carlo calculation of a two-point correlation function 98 4.5.4 Microstructure optimization 99 4.5.5 Results and discussion 99 4.6 Conclusion 101 Chapter 5 Homogenization of Mechanical and Thermal Behavior of Nanocomposites Using Statistical Correlation Functions: Application to Nanoclay-based Polymer Nanocomposites 103 5.1 Introduction 103 5.2 Modified strong-contrast approach for anisotropic stiffness tensor of multiphase heterogeneous materials 104 5.3 Strong-contrast approach to effective thermal conductivity of multiphase heterogeneous materials 112 5.4 Simulation and experimental verification 117 5.4.1 Computer-generated model 118 5.4.2 Thermal conductivity 120 5.4.3 Mechanical model 122 5.4.4 Experimental part 125 5.5 Results and discussion 127 5.5.1 Thermal conductivity 127 5.5.2 Thermo-mechanical properties 128 5.6 Conclusion 130 Chapter 6 Homogenization of Reconstructed RVE 133 6.1 Introduction 133 6.2 Finite element homogenization of the reconstructed RVEs 134 6.2.1 Reconstruction of FIB-SEM RVEs 134 6.2.2 Finite element analysis of RVEs 138 6.3 Finite element homogenization of the statistical reconstructed RVEs 141 6.3.1 FEM analysis of reconstruction RVE using statistical correlation functions 141 6.3.2 Finite element analysis of RVEs 143 6.4 FEM analysis of debonding-induced damage model for polymer composites 149 6.4.1 Representative volume element (RVE) 150 6.4.2 Cohesive zone model 152 6.4.3 Material behavior and FE simulation 157 6.4.4 The effect of the GNP’s volume fraction and aspect ratio in perfectly bonded nanocomposite 158 6.4.5 Comparing the effect of the GNP’s volume fraction and aspect ratio in perfectly bonded and cohesively bonded nanocomposites 160 6.4.6 The effect of the GNP’s aspect ratio and volume fraction in weakly bonded nanocomposite 163 6.5 Conclusion and future work 166 Appendices 169 Appendix A 171 Appendix B 175 Bibliography 179 Index 185

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Book SynopsisThis book describes the methods used to detect material defects at the nanoscale. The authors present different theories, polarization states and interactions of light with matter, in particular optical techniques using polarized light. Combining experimental techniques of polarized light analysis with techniques based on theoretical or statistical models to study faults or buried interfaces of mechatronic systems, the authors define the range of validity of measurements of carbon nanotube properties. The combination of theory and pratical methods presented throughout this book provide the reader with an insight into the current understanding of physicochemical processes affecting the properties of materials at the nanoscale.Table of ContentsPreface xi Chapter 1. Uncertainties 1 1.1. Introduction 1 1.2. The reliability based design approach 2 1.2.1. The MC method 2 1.2.2. The perturbation method 3 1.2.3. The polynomial chaos method 7 1.3. The design of experiments method 9 1.3.1. Principle 9 1.3.2. The Taguchi method 10 1.4. The set approach 14 1.4.1. The method of intervals 15 1.4.2. Fuzzy logic based method 18 1.5. Principal component analysis 20 1.5.1. Description of the process 21 1.5.2. Mathematical roots 22 1.5.3. Interpretation of results 22 1.6. Conclusions 23 Chapter 2. Reliability-based Design Optimization 25 2.1. Introduction 25 2.2. Deterministic design optimization 26 2.3. Reliability analysis 27 2.3.1. Optimal conditions 30 2.4. Reliability-based design optimization 31 2.4.1. The objective function 31 2.4.2. Total cost consideration 32 2.4.3. The design variables 33 2.4.4. Response of a system by RBDO 33 2.4.5. Limit states 33 2.4.6. Solution techniques 33 2.5. Application: optimization of materials of an electronic circuit board 34 2.5.1. Optimization problem 36 2.5.2. Optimization and uncertainties 39 2.5.3. Results analysis 43 2.6. Conclusions 44 Chapter 3. The Wave–Particle Nature of Light 47 3.1. Introduction 48 3.2. The optical wave theory of light according to Huyghens and Fresnel 49 3.2.1. The three postulates of wave optics 49 3.2.2. Luminous power and energy 51 3.2.3. The monochromatic wave 51 3.3. The electromagnetic wave according to Maxwell’s theory 52 3.3.1. The Maxwell equations 52 3.3.2. The wave equation according to the Coulomb’s gauge 56 3.3.3. The wave equation according to the Lorenz’s gauge 57 3.4. The quantum theory of light 57 3.4.1. The annihilation and creation operators of the harmonic oscillator 57 3.4.2. The quantization of the electromagnetic field and the potential vector 61 3.4.3. Field modes in the second quantization 66 Chapter 4. The Polarization States of Light 71 4.1. Introduction 71 4.2. The polarization of light by the matrix method 73 4.2.1. The Jones representation of polarization 76 4.2.2. The Stokes and Muller representation of polarization 81 4.3. Other methods to represent polarization 86 4.3.1. The Poincaré description of polarization 86 4.3.2. The quantum description of polarization 88 4.4. Conclusions 93 Chapter 5. Interaction of Light and Matter 95 5.1. Introduction 95 5.2. Classical models 97 5.2.1. The Drude model 103 5.2.2. The Sellmeir and Lorentz models 105 5.3. Quantum models for light and matter 111 5.3.1. The quantum description of matter 111 5.3.2. Jaynes–Cummings model 118 5.4. Semiclassical models 123 5.4.1. Tauc–Lorentz model 127 5.4.2. Cody–Lorentz model 130 5.5. Conclusions 130 Chapter 6. Experimentation and Theoretical Models 133 6.1. Introduction 134 6.2. The laser source of polarized light 135 6.2.1. Principle of operation of a laser 136 6.2.2. The specificities of light from a laser 141 6.3. Laser-induced fluorescence 143 6.3.1. Principle of the method 143 6.3.2. Description of the experimental setup 145 6.4. The DR method 145 6.4.1. Principle of the method 146 6.4.2. Description of the experimental setup 148 6.5. Theoretical model for the analysis of the experimental results 149 6.5.1. Radiative relaxation 152 6.5.2. Non-radiative relaxation 153 6.5.3. The theoretical model of induced fluorescence 160 6.5.4. The theoretical model of the thermal energy transfer 163 6.6. Conclusions 170 Chapter 7. Defects in a Heterogeneous Medium 173 7.1. Introduction 173 7.2. Experimental setup 175 7.2.1. Pump laser 176 7.2.2. Probe laser 176 7.2.3. Detection system 177 7.2.4. Sample preparation setup 180 7.3. Application to a model system 182 7.3.1. Inert noble gas matrix 182 7.3.2. Molecular system trapped in an inert matrix 184 7.3.3. Experimental results for the induced fluorescence 188 7.3.4. Experimental results for the double resonance 198 7.4. Analysis by means of theoretical models 203 7.4.1. Determination of experimental time constants 203 7.4.2. Theoretical model for the induced fluorescence 209 7.4.3. Theoretical model for the DR 214 7.5. Conclusions 216 Chapter 8. Defects at the Interfaces 219 8.1. Measurement techniques by ellipsometry 219 8.1.1. The extinction measurement technique 222 8.1.2. The measurement by rotating optical component technique 223 8.1.3. The PM measurement technique 224 8.2. Analysis of results by inverse method 225 8.2.1. The simplex method 232 8.2.2. The LM method 234 8.2.3. The quasi-Newton BFGS method 237 8.3. Characterization of encapsulating material interfaces of mechatronic assemblies 237 8.3.1. Coating materials studied and experimental protocol 239 8.3.2. Study of bulk coatings 241 8.3.3. Study of defects at the interfaces 244 8.3.4. Results analysis 251 8.4. Conclusions 253 Chapter 9. Application to Nanomaterials 255 9.1. Introduction 255 9.2. Mechanical properties of SWCNT structures by MEF 256 9.2.1. Young's modulus of SWCNT structures 258 9.2.2. Shear modulus of SWCNT structures 259 9.2.3. Conclusion on the modeling results 260 9.3. Characterization of the elastic properties of SWCNT thin films 260 9.3.1. Preparation of SWCNT structures 261 9.3.2. Nanoindentation 262 9.3.3. Experimental results 263 9.4. Bilinear model of thin film SWCNT structure 265 9.4.1. SWCNT thin film structure 266 9.4.2. Numerical models of thin film SWCNT structures 268 9.4.3. Numerical results 269 9.5. Conclusions 274 Bibliography 275 Index 293

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Book SynopsisDoes humanity have a moral obligation to emphasize nanotechnology's role in addressing the critical public health and environmental problems of our age? This well crafted book explores this idea by analyzing the prospects for a macroscience nanotechnology-for-environmental sustainability project in areas such as food, water and energy supply, medicine, healthcare, peace and security. Developing and applying an innovative science-based view of natural law underpinning a global social contract, it considers some of the key scientific and governance challenges such a global project may face. The book concludes that the moral culmination of nanotechnology is a Global Artificial Photosynthesis project. It argues that the symmetric patterns of energy creating photosynthesis, life and us are shaping not only the nanotechnological advances of artificial photosynthesis, but also the ethical and legal norms likely to best govern such scientific achievements to form a sustainable existence on this planet. Nanotechnology for a Sustainable World will appeal to many generations of scientists and policy makers working to improve our world in public health, environmental sustainability and renewable energy and nanotechnology. It will also be a valuable resource for similarly motivated students of chemistry, physics, biology, nanotechnology and photosynthesis, as well as environmental and energy ethics, law and policy.Table of ContentsContents: Preface 1. Introduction 2. Nanoscience for a Sustainable World: A Goal or Set of Principles? 3. Obstacles to Nanotechnology for Environmental Sustainability 4. Core Normative Components of a Global NES Project 5. Nanotechnology for Sustainable Food, Water and Housing 6. Equitable Access to Nanomedicines 7. Nanotechnology for Global Peace and Security 8. Nanotechnology, Climate Change and Renewable Energy 9. Nanotechnology’s Moral Culmination: A Global Artificial Photosynthesis Project Bibliography Index

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Book SynopsisAs scientists and technologists discover how to engineer matter at the nanoscale in increasingly sophisticated ways, conventional approaches to ensuring safe use are being brought into question. Nanotechnologies are challenging traditional regulatory regimes; but they are also prompting new thinking on developing and using emerging technologies safely. In this Handbook, leading international authors from industry, government, non-governmental organisations and academia examine the complex and often controversial regulatory challenges presented by nanotechnologies. Across several disciplinary boundaries, they explore how the future regulatory landscape may evolve. From the Europe Union to the United States, workplaces to personal products, and statutory instruments through to softer approaches, it is clear that considerable vigilance will be needed in governing these powerful and novel technologies. To succeed, society will need new thinking, new partnerships and new mechanisms to balance the benefits of these technologies against their possible downsides. Anything less will prompt cries of illegitimacy and potentially compromise a promising new realm of technology innovation.This Handbook draws on contributions from leading nanotechnology regulation scholars around the globe. It goes beyond articulating how certain nanotechnologies are currently regulated and the significance of existing regulatory gaps, to assessing how the future regulatory landscape may evolve. As well as considering potential legislative responses that could be employed by governments, the Handbook examines a range of other options available to stakeholders. The Handbook employs new and innovative lenses through which to view these regulatory challenges and by adopting an in-depth, systematic and whole-of-life-approach, synergistically combines contributions from many countries, many fields and many disciplines. Informative and insightful, it presents thought-provoking and stimulating perspectives on the coming nano-age and on how we as citizens will govern its future.Trade Review’. . . this Handbook is an essential tool and guide to better comprehend nanotechnologies, and should be read by the full range of people involved in its development and governance. . . This is an important and timely publication, essential for all engaged in developing policy to manage this innovative, transformative and revolutionary technology.' -- Anna George, Prometheus'The Handbook's 26 chapters do a remarkable job of capturing the last decade of commentary and policy perspective regarding nano-related environmental health and safety regulatory issues, along with providing some fresh perspectives on where its future might be headed. It is an invaluable primer for those wanting to hear about the issue from some of the most authoritative voices in the area.' -- John C. Monica, Jr., Porter Wright Morris & Arthur LLPTable of ContentsContents: PART I: CONCEPTS AND FOUNDATIONS 1. Introduction: The Regulatory Challenges for Nanotechnologies Graeme A. Hodge, Diana M. Bowman and Andrew D. Maynard 2. Philosophy of Technoscience in the Regime of Vigilance Alfred Nordmann 3. Tracing and Disputing the Story of Nanotechnology Chris Toumey 4. The Age of Regulatory Governance and Nanotechnologies Roger Brownsword PART II: FRAMEWORKS FOR REGULATING NANOTECHNOLOGIES 5. Nanotechnology Captured John Miles 6. The Scientific Basis for Regulating Nanotechnologies David Williams 7. The Current Risk Assessment Paradigm in Relation to the Regulation of Nanotechnologies Qasim Chaudhry, Hans Bouwmeester and Rolf F. Hertel 8. Regulating Risk: The Bigger Picture Karinne Ludlow and Peter Binks 9. Producing Safety or Managing Risks? How Regulatory Paradigms Affect Insurability Thomas K. Epprecht PART III: CASE STUDIES IN REGULATING NANOTECHNOLOGIES AND NANO-PRODUCTS 10. The Evolving Nanotechnology Environmental, Health, and Safety Landscape: A Business Perspective Oliver Tassinari, Jurron Bradley and Michael Holman 11. Regulation of Carbon Nanotubes and Other High Aspect Ratio Nanoparticles: Approaching this Challenge from the Perspective of Asbestos Robert J. Aitken, Sheona A.K. Peters, Alan D. Jones and Vicki Stone 12. Approaching the Nanoregulation Problem in Chemicals Legislation in the EU and US Markus Widmer and Christoph Meili 13. A Good Foundation? Regulatory Oversight of Nanotechnologies Using Cosmetics as a Case Study Geert van Calster and Diana M. Bowman 14. Therapeutic Products: Regulating Drugs and Medical Devices Rogério Sá Gaspar 15. Regulatory Perspectives on Nanotechnologies in Foods and Food Contact Materials Anna Gergely, Qasim Chaudhry and Diana M. Bowman 16. Regulation of Nanoscale Materials under Media-specific Environmental Laws Linda K. Breggin and John Pendergrass 17. Military Applications: Special Conditions for Regulation Jürgen Altmann 18. Regulating Nanotechnology through Intellectual Property Rights Gregory N. Mandel PART IV: THE FUTURE REGULATORY LANDSCAPE 19. The Role of NGOs in Governing Nanotechnologies: Challenging the ‘Benefits versus Risks’ Framing of Nanotech Innovation Georgia Miller and Gyorgy Scrinis 20. Voluntary Measures in Nanotechnology Risk Governance: The Difficulty of Holding the Wolf by the Ears Christoph Meili and Markus Widmer 21. The Role of Risk Management Frameworks and Certification Bodies Thorsten Weidl, Gerhard Klein and Rolf Zöllner 22. Risk Governance in the Field of Nanotechnologies: Core Challenges of an Integrative Approach Ortwin Renn and Antje Grobe 23. International Coordination and Cooperation: The Next Agenda in Nanomaterials Regulation Robert Falkner, Linda K. Breggin, Nico Jaspers, John Pendergrass and Read Porter 24. Transnational Regulation of Nanotechnology: Reality or Romanticism? Kenneth W. Abbott, Douglas J. Sylvester and Gary E. Marchant 25. From Novel Materials to Next Generation Nanotechnology: A New Approach to Regulating the Products of Nanotechnology J. Clarence Davies PART V: CONCLUSION 26. Conclusions: Triggers, Gaps, Risks and Trust Andrew D. Maynard, Diana M. Bowman and Graeme A. Hodge Index

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Book SynopsisThis book throws light on the various methods of preparation and characterization of liposomes.With the advancements in technology since their discovery, newer methods of generating liposomes have been developed. Needless to say, over time liposomes have been modified to a large extent and engineered to suit many of our growing needs. This book throws light on the various methods of preparation and characterization of liposomes. It also discusses the several biochemical and indirect methods that have made it possible to understand the biological and physicochemical mechanisms of liposomes that decide their fate in vivo.In spite of certain limitations, liposomes have proved to be more suitable for a number of unconventional applications. This versatility of liposomes outlined in the book brings out the importance of these nanoparticles in the future applications of nanotechnology besides targeted drug delivery. Overall, this book provides the necessary information about the various aspects of liposomes for beginners.

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Book SynopsisThis book examines recent developments in inert anodes for aluminum electrolysis. It describes the composition and application of the most promising metal ceramic inert anode materials and nickel-oxide nanotechnology in the aluminum industry. The volume addresses concepts, analysis, properties, conductivity and corrosion, microstructure and microanalysis, and machinability of inert anodes for aluminum electrolysis. The book will be valuable to the aluminum industry, where inert anodes are having a profound impact in creating more energy saving, greener, and more functional aluminum materials in high-strength and high-temperature applications.Table of ContentsResearch background of inert anodes for aluminum electrolysis.- Nanomaterials and Nanocermets.- Nancermet anodes for aluminum electrolysis.- Metallographic analysis of cermet materials.- X-ray diffraction analysis of nanocermets.- Bulk density, apparent porosity, and density of nanocermets.- Conductivity of nanocermets.- Corrosion resistance of nanocermet.- Post processing of samples.- Characterization of specimen structure of nanocermets.- Measurement of mechanical properties of NiFe2O4 nanocermet.- Microstructure and microanalysis of cermet materials.- Optimization and machinability of nanocermets for aluminum electrolysis.

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Book SynopsisThis exhaustive Handbook covers the synthesis and applications of nanomaterials that can be used in energy and environmental science applications. Given the pressing need for more efficient energy sources at lower costs, this book will help to provide a more cohesive understanding of nanocomposites and nanomaterials. Each chapter in this handbook is written by an expert in his or her field, and topics ranging from energy efficiency to material performance are presented. Catalysis, ceramic science, metallurgy, coatings, and green, sustainable materials are included. This Handbook provides a comprehensive guide to the field of applied nanomaterials. It will drive interest and research in the use of nanocomposites and nanomaterials for energy and environmental applications.Table of ContentsAdvanced Oxidation Processes leading to nanomaterials.- Environmental Photocatalysis.- Photocatalytic Decontamination.- Water Splitting.- Hydrogen Generation.- Hydrogen Production.- P Photocatalysts.- Water Treatment using nanomaterials.- Photolysis and Photoelectrochemistry.- Heterogeneous Catalysis.- Photochemical Processes.- Nanomaterials Synthesis.- Wastewater Treatment and Purification Technologies.- Thin Films and Nanotechnology.- Porous Materials.- Artificial photosynthesis.- Hydrogen storage.- Materials with noise-reduction properties.- Construction materials reinforced with natural products.- Nano-Catalysis.- Degradation of pollutants.- Mesoporous Materials.- Oil Pollutants Degradation.- Titanium Dioxide Films.- Photochemical Oxidants.- Biomass.- Glass ceramics from wastes.- Recycled plastics.- Silica fertilizer.- Wood ceramics.- Non-Metallic Building Materials.- Marine block.- Soil ceramics.- Stabilization of heavy metals from industrial wastes into ceramic matrices.- Biobased & biodegradable plastics.- Wear resistant metals and composites.- Pre-paint steel and alloys.- Hydrogen absorbing alloys and materials.- Gas separation membranes.- Ion-exchange resin for wastes treatment.- Microbial enzymes.- Absorbents for oil and grease removal.- Catalysts for fuel cells.- Coating materials for construction.- Functionally graded materials.- Lead-free solders.- Halogen flame retardant-free plastics.- Chromium-free steel.- Heavy metal free polyesters.- Vibration dumping steels.- Antibacterial coating materials.- Bone-cream for orthopedic and brain surgery.- Ultra-light steels.- Light-weight alloys.- Heat resistant alloys.- Heat mirror films.- Chromophobic fibers.- Endothermic steels.- High magnetic induction steels.- Silicon for solar cells.- Thermoelectric conversion materials.- Special glasses.- Sealing sheets for solar cells.- Materials for CO2, SOx, NOx emission reduction.- Materials for fixation and removal of radioactive wastes.- Sensors for nanoparticle detection.- Sensors for hazardous gases detection.- “Greener” aspects of materials synthesis.- “Greener” fabrication of nanomaterials.- Energy Harvesting.- Solar Fuel Production from CO2 and Water.- Lithium-Ion Batteries.- Electrochemical Capacitor Applications.- Catalysts in Biofuel Production.

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Book SynopsisMechanics of Biological Systems & Micro-and Nanomechanics, Volume 5 of the Proceedings of the 2020 SEM Annual Conference & Exposition on Experimental and Applied Mechanics, the fifth volume of seven from the Conference, brings together contributions to important areas of research and engineering. The collection presents early findings and case studies on a wide range of topics, including:Cell Mechanics & Traumatic Brain InjuryMicromechanical TestingAdhesion and FractureMEMS Devices and TechnologyNano-scale Deformation Mechanisms1D & 2D MaterialsTribology & WearResearch and Applications in ProgressTable of ContentsChapter 1. Determination of Texture Properties of White Long Turnip Flesh.- Chapter 2. Impact Testing of a Commercial Poly-Lactic Acid.- Chapter 3. Underwater Explosion Gas Bubble Collapse in the Vicinity of a Rigid Boundary.- Chapter 4. Optimization for Improved Energy Absorption and the Effect of Density Gradation in Cellular Materials.- Chapter 5. Quantifying Ultrasonic Deformation of Cell Membranes with Ultra-High Speed Imaging.- Chapter 6. A Mathematical Model of Nitric Oxide Mechanotransduction in Brain.- Chapter 7. Evaluating the Application 0f DIC on Heartbeat Detection by Using a Self-Developed Artery Vessel Simulator.- Chapter 8. Measuring Strain Distribution of Knee Cartilage Using Digital Volume Correlation.- Chapter 9. Characterization of Shear Band Nucleation and Propagation in Bulk Metallic Glasses.- Chapter 10. Suppression of Parkisonian Hand Tremors.- Chapter 11. Biomechanical Testing of Human Red Blood Cells Under Controlled Oxygen Tension.- Chapter 12. High Speed Holographic Shape and Vibration Measurement of the Semi-transparent Tympanic Membrane.- Chapter 13. Adhesion Index- A Novel Bio-compatibility Assessment Standard for Medical Devices.- Chapter 14. Evaluate the Fidelity of Synthetic Tissues Used in Escharotomy Simulators.- Chapter 15. Bacterial Cell Wall Glycopolymers Affect Polymer Chain Alignment and Mechanics of Streptococcus mutans.- Chapter 16. Characterization of Reversible Tablet Sliding In Nacre From Haliotis Rufescens (Red Abalone).- Chapter 17. Failure of Three-Tab Shingle System Subjected to Wind Gusts up to 150 MPH – A DIC Based Study.- Chapter 18. Design and Rapid Prototyping of Fiber Optic-Based Micro-Force Sensors by Two-Photon Polymerization.- Chapter 19. Experimental study of shear and tensile properties of LIGA Ni-Fe and Ni-Co alloys at quasi-static and intermediate strain rates.

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Book SynopsisThe range of nanomaterial applications has expanded recently from catalysis, electronics, and filtration to therapeutics, diagnostics, agriculture, and food because of unique properties and potentials of different nanoparticles and nanomaterials. Research shows that these exquisite particles can interact with an organism at the cellular, physiological, biochemical, and molecular levels. However, our knowledge of how they affect these changes, selectively or generally, in diverse organism or ecosystems is very limited and far from satisfactory. Data indicate that the biological function largely depends on the shape, size, and surface characteristics of the nanoparticles used besides life cycle stages of an organism. Therefore, this compilation will focus on the body of work carried out by distinguished investigators using diverse nanomaterials and plant and animal species. This book includes specific case studies as well as general review articles highlighting aspects of multilayered interactions, and targets not only research and academic scholars but also the concerned industry and policy makers as well.Table of ContentsPreface1. Pros and cons of metal oxide nanomaterial use in Australian broadacre agriculture: Nazanin Nikoo Jamal, Elliott Duncan & Gary Owens; Environmental Contaminants Group, Future Industries Institute, University of South AustraliaBuilding X2-06 Mawson Lakes Campus2. Accumulation of metal-oxide nanomaterials by unicellular algae and their transfer within marine and aquatic food-webs; Elliott Duncan & Gary Owens: Environmental Contaminants Group, Future Industries Institute, University of South Australia3. The chemistry behind nanotoxicological processes in living systems: Guadalupe de la Rosa, Edgar Vazquez, Concepcion Garcia, Laura Lopez, Gustavo Cruz and Gustavo Basurto; Departamento de Ingenierías Química, Electrónica y Biomédica, División de Ciencias e Ingenierías Campus León, Universidad de Guanajuato 4. Nanoparticles and Sustainable Agriculture: Concepts and controversies: Durgesh Kumar Tripathi, Namira Arif, Shivesh Sharma, N K Dubey and D K Chauhan; Center of Medical Diagnostic and Research, Motilal Nehru National Institute of Technology, Allahabad5. Elucidating the role of nano-bio interactions in nanotoxicology: Lok R. Pokhrel; Department of Epidemiology and Biostatistics, College of Public Health, Temple University, USA 6. Potential of nonotechnology for increasing micronutrients fertilizer use efficiency in crop production: S K Singh and Yukti Verma; Department of Soil Science & Agricultural Chemistry, Institute of Agricultural Sciences, Banaras Hindu University, Varanasi, India7. Fate and effect of engineered nanomaterials in agricultural systems; Jason White: The Connecticut Agricultural Experiment Station, New Haven, CT, USA8. Effects of engineered nanomaterials on the alleviation of abiotic stress in plants: M. Djanaguiraman, P.V.V. Prasad and O.P. Dhankher; Sustainable Intensification Innovation Lab, Kansas State University, Manhattan, Kansas, USA 9. Titanium Dioxide Nanoparticles Interactions: I. In vitro Studies in Animal Cells: Ashley Cox and Shivendra Sahi; Department of Biology, University of Sciences, 600 South 43rd Street, Philadelphia, USA10. Titanium Dioxide Nanoparticles Interactions: II. An Analysis Based on Animal Organ System: Ashley Cox and Nilesh Sharma; Department of Biology, Western Kentucky University, Bowling Green, KY, USA11. Engineered nanomaterials toxicity at different growth phases of agricultural species: Swati Rawat, Yi Wang, Chaoyi Deng, Yuqing Yeb, Carolina B. Valdes, Jose R. Peralta-Videa and Jorge. L. Gardea-Torresdey; Department of Chemistry & Environmental Science & Engineering, University of Texas at El Paso, El Paso, TX, USA 12. Nanotoxicology Research Based on Drosophila Models: Ananya Sharma & Ajay Srivastava; Dept of Biology, Western Kentucky University, Bowling Green, KY USA13. Caenorhabditis elegans – A unique animal model to study soil–nanoparticles–organism interactions; Daniel Starnes, Catherine Starnes: Department of Biology, Belmont University, Nashville, TN, USA14. Cytotoxic efficacy of green engineered biomolecules-loaded silver nanoparticles on HeLa Cell line using leaf extracts of Leucas aspera: P. Venkatachalam, U. Jinu and T. Bhuvaneswari; Department of Biotechnology, Periyar University, Salem, India15. Zebrafish models of nanotoxicity – A comprehensive account: Silvia Giordani; University of Turin, Chemistry Department, Via Giuria, Torino, Italy16. Responses of terrestrial plants to metallic nanomaterial exposure – a Mechanistic analysis: Keni Cota-Ruiz, Swati Rawat, Jose R. Peralta-Videa and Jorge. L. Gardea-Torresdey; Department of Chemistry & Biochemistry, The University of Texas at El Paso, El Paso, TX, USAIndex

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Book SynopsisThe book highlights recent developments in the field of biomedical sensors with a focus on technology and design aspects of novel sensors and sensor systems. Diagnosis plays a central role in healthcare and requires a variety of novel biomedical sensors and sensor systems. This creates an enormous ongoing demand for sensors for both the everyday life as well as for medical care. Technologies concerning the analysis of human activities as well as for the early detection of diseases are moving into the focus of interest and form the basis for supporting human health and quality of life. As such, the book offers a key reference guide about novel medical sensors and systems for students, engineers, sensors designers and technicians.Table of ContentsA Survey of Human Action Recognition using Accelerometer Data.- Ultra Thin Nanocomposite In-Sole Pressure Sensor Matrix for Gait Analysis.- Piezo-resistive Pressure and Strain Sensors for Biomedical and Tele-manipulation Applications.- Wireless Body Sensor Networks with Enhanced Reliability by Data Aggregation based on Machine Learning Algorithms.- Accelerated Human Movement Detection Algorithm using combined Global Descriptors on GPU Based on CUDA.- Human Breathing Monitoring by Graphene Oxide Based Sensors.- Impediametric Detection of Human Interleukin 10 on Diazonium Salt Alectroaddressed Gold Microelectrode Surfaces.- Review on Recent Advances in Urinary Biomarkers based Electrochemical Sensors for Prostate Cancer Detection.- Recent Advances in Ultrasensitive miRNA Biomarkers Detection.- Early Detection of Helicobacter Pylori Bacteria in Complex Samples.

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Book SynopsisThis book highlights the mechanical properties of nanomaterials produced by several techniques for various applications. The dislocations observed in specimens obtained in nanomaterials are discussed on the chapter about deformation process. Partial dislocations and grain boundary sliding deformation phenomena in nanomaterial specimens are also deeply discussed. Tests for tension, compression, and hardness are described. The behavior of nanomaterials is compared to macrosize specimens, and the results obtained for different fabrication methods are also compared. The special characteristics of nanomaterials are summarized at the end of the book.Table of ContentsPreface Contents About the Author 1 What are nanomaterials 2 Structure of nanomaterials 3 Basic concepts for producing nanomaterials 4 Imperfections in nanomaterial 5 Static deformation 5.1 tension 5.2 Compression 5.3 torsion 5.4 Flexure (bending) 5.5 Indentation – Hardness 6 Dynamic deformation 7 Time dependent deformation – Creep 8 cyclic deformation – Fatigue 9 Fracture in nanomaterials 10 Epilogue

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Book Synopsis This book presents selected peer-reviewed contributions from the 2020 International Conference on “Physics and Mechanics of New Materials and Their Applications”, PHENMA 2020 (26–29 March 2021, Kitakyushu, Japan), focusing on processing techniques, physics, mechanics, and applications of advanced materials. The book describes a broad spectrum of promising nanostructures, crystal structures, materials, and composites with unique properties. It presents nanotechnological design approaches, environmental-friendly processing techniques, and physicochemical as well as mechanical studies of advanced materials. The selected contributions describe recent progress in computational materials science methods and algorithms (in particular, finite-element and finite-difference modelling) applied to various technological, mechanical, and physical problems. The presented results are important for ongoing efforts concerning the theory, modelling, and testing of advanced materials. Other results are devoted to promising devices with higher accuracy, increased longevity, and greater potential to work effectively under critical temperatures, high pressure, and in aggressive environments.Table of Contents

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Book SynopsisWith the start of 2020, the wrath of pandemic challenged the scientific community to develop more advanced drug delivery approaches for biomedical applications, endowing conventional drugs with additional therapeutic benefits and minimum side effects. Although significant advancements have been done in the field of drug delivery, there is a need to focus towards strategizing novel and improved drug delivery systems that should be convenient and cost-effective to the patients, and simultaneously they should also provide financial benefits to pharmaceutical companies. Controlled drug delivery technology offers ample opportunities and scope for improvising the therapeutic efficacy of drugs via optimizing the drug release rate and time. For this endeavour, smart nanomaterials have served as remarkable candidates for biomedical applications, owing to their ground-breaking properties and design. The development of such nanomaterials requires a broad knowledge related to their physio-chemical properties, molecular structure, mechanisms by which the nanomaterials interact with the cells, and methods by which drugs are released at the site of action. This knowledge must also be allied with the knowledge of signaling crosstalk mechanisms that are modulated by the nanomaterial-drugs composite. It can be anticipated that these emerging drug delivery technologies can facilitate the world to successfully encounter such pandemic outbursts in the future in a cost-effective and time-effective manner. The chapters in this book deal with the advanced technologies and approaches that can benefit advanced students, researchers, and industry experts in developing smart and intelligent nanomaterials for future biomedical applications, and development, manufacturing, and commercialization for controlled and targeted drug delivery.Table of ContentsFOREWORDProf. G. VeerabhadramPREFACEChapter 1: Introduction to active smart nanomaterials for biomedical applicationsJin-Chul KimKangwon National University, Chuncheon, South Korea Chapter 2: Cancer cell sensing and therapy using affinity tag-conjugated gold nanoparticlesAlle MadhusudhanKangwon National University, Chuncheon, South Korea Chapter 3: Gold nanoparticles enlighten the future of cancer theranosticsJianfeng GuoSchool of Pharmaceutical Sciences, Jilin University, 1266, Fujin Road, Changchun 130021, ChinaChapter 4: Recent advances in hydrogels smart drug delivery systems Sharif AhmadDepartment of Pharmacology, All India Institute of Medical Sciences, India Chapter 5: Carbon-based nanomaterials for biomedical applicationsKai YangState Key Laboratory of Radiation Medicine and Protection, School of Radiation Medicine and Protection, School for Radiological and Interdisciplinary Sciences (RAD-X), Collaborative Innovation Center of Radiation Medicine of Jiangsu Higher Education Institutions, Soochow University, Suzhou, China Chapter 6: A new era of cancer treatment: carbon nanotubes as drug delivery toolsAlexander M SeifalianCentre for Nanotechnology and Regenerative Medicine, University, College London, London, UK Chapter 7: pH- and ion-sensitive materials for control drug delivery Takayuki YoshidaDrug Delivery, Pharmaceutical Research and Technology Labs, Astellas Pharma, Inc., 180 Ozumi, Yaizu, Shizuoka 425-0072, JapanChapter 8: Thermo-responsive polymers and their application as smart biomaterialsYukiko T. MatsunagaCenter for International Research on Integrative Biomedical Systems (CIBiS), The University of Tokyo, 4-6-1 Komaba, Meguro-ku, Tokyo 153-8505, JapanChapter 9: Redox-responsive polymers and their application in drug delivery systemsJohn F. QuinnARC Centre of Excellence in Convergent Bio-Nano Science & Technology, Monash Institute of Pharmaceutical Sciences, Monash University, Parkville, Melbourne, Victoria 3052, AustraliaChapter 10: Recent strategies to explore the biomedical applications of nanocelluloseDinesh KumarKangwon National University, Chuncheon, South Korea Chapter 11: Tissue engineering using cellulose nanofibrils as Scaffold MaterialAndrew E. PellingSymbioticA, School of Human Sciences, University of Western Australia, Perth, WA, AustraliaChapter 12: Use of solid lipid nanoparticles to improve the oral bioavailability of poor soluble drugsDeepti PanditaDepartment of Pharmaceutics, Jan Nayak Ch. Devi Lal Memorial College of Pharmacy, Sirsa 125055, Haryana, IndiaChapter 13: Applications of dendrimers in drug delivery systemsE. BustosCentro de Investigacion y Desarrollo Tecnol ´ ogico en Electroqu ´ ´ımica S.C., Parque Tecnologico Quer ´ etaro s/n, Sanfandila, 76703 Pedro Escobedo, QRO, MexicoChapter 14: Liposomes for drug delivery: progress and problemsJin-Chul KimKangwon national University, Chuncheon, South KoreaChapter 15: Cubosome nanoparticles for enhanced delivery of anticancer drugJana B. NiederDepartment of Nanophotonics, Ultrafast Bio- and Nanophotonics Group, INL - International Iberian Nanotechnology Laboratory, Av. Mestre José Veiga s/n, 4715-330, Braga, PortugalChapter 16: Layer‐by‐Layer assemblies for cancer diagnosis and treatment UMR CNRS/INPG 5628 (LMGP), 3 parvis Louis Néel, 38016 Grenoble, FranceChapter 17: Polymeric micelles for drug deliveryAfsanesh Lavasanifar University of Albert, Edmonton, Alberta T6G2N8, CanadaChapter 18: Role of plant-based materials/gums in developing drug delivery systems B. Sashidhar Rao Department of Biochemistry, Osmania University, Hyderabad, IndiaChapter 19: Ethosomes: A novel tool for drug delivery through the skinAmarachinta Padmanabha RaoChapter 20: Niosomes as nanoparticular drug carriers: fundamentals and recent applicationsNoufel SamedChapter 21: Graphene oxide nanosheets used in photothermal therapyHongjie Dai Department of Chemistry, Stanford University, Stanford, California 94305, United States Chapter 22: Metal doped carbon dots used in bio-imaging and cancer therapyJoydeep DasSchool of Chemistry, Shoolini University of Biotechnology and Management Sciences, Bajhol, PO Sultanpur, Solan, HP, 173229, IndiaBIBLIOGRAPHYGLOSSARYINDEX

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Book SynopsisThis book presents synthesis, characterization, and applications of macroporous, mesoporous, nanoporous, hierarchical porous, porous metals, and porous ceramics. Special emphasis is given to the preparation of porous activated carbon materials and porous ionic liquid-derived materials for CO2 emissions mitigation. Additionally, a chapter includes the physical and mathematical modeling in porous media. Many analytical techniques for characterization are discussed in this book. Also, the biomedical and industrial applications of porous materials in adsorption, catalysis, biosensors, drug delivery, nanotechnology are described. The content helps solving fundamental and applied problems in porous materials with length scales varying from macro- to nano-level. Table of Contents

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Book SynopsisThis Handbook covers the fundamentals of carbon nanotubes (CNT), their composites with different polymeric materials (both natural and synthetic) and their potential advanced applications. Three different parts dedicated to each of these aspects are provided, with chapters written by worldwide experts in the field. It provides in-depth information about this material serving as a reference book for a broad range of scientists, industrial practitioners, graduate and undergraduate students, and other professionals in the fields of polymer science and engineering, materials science, surface science, bioengineering and chemical engineering.Part 1 comprises 22 chapters covering early stages of the development of CNT, synthesis techniques, growth mechanism, the physics and chemistry of CNT, various innovative characterization techniques, the need of functionalization and different types of functionalization methods as well as the different properties of CNT. A full chapter is devoted to theory and simulation aspects. Moreover, it pursues a significant amount of work on life cycle analysis of CNT and toxicity aspects.Part 2 covers CNT-based polymer nanocomposites in approximately 23 chapters. It starts with a short introduction about polymer nanocomposites with special emphasis on CNT-based polymer nanocomposites, different manufacturing techniques as well as critical issues concerning CNT-based polymer nanocomposites. The text deeply reviews various classes of polymers like thermoset, elastomer, latex, amorphous thermoplastic, crystalline thermoplastic and polymer fibers used to prepare CNT based polymer composites. It provides detailed awareness about the characterization of polymer composites. The morphological, rheological, mechanical, viscoelastic, thermal, electrical, electromagnetic shielding properties are discussed in detail. A chapter dedicated to the simulation and multiscale modelling of polymer nanocomposites is an additional attraction of this part of the Handbook.Part 3 covers various potential applications of CNT in approximately 27 chapters. It focuses on individual applications of CNT including mechanical applications, energy conversion and storage applications, fuel cells and water splitting, solar cells and photovoltaics, sensing applications, nanofluidics, nanoelectronics and microelectronic devices, nano-optics, nanophotonics and nano-optoelectronics, non-linear optical applications, piezo electric applications, agriculture applications, biomedical applications, thermal materials, environmental remediation applications, anti-microbial and antibacterial properties and other miscellaneous applications and multi-functional applications of CNT based polymer nanocomposites. One chapter is fully focussed on carbon nanotube research developments: published papers and patents. Risks associated with carbon nanotubes and competitive analysis of carbon nanotubes with other carbon allotropes are also addressed in this Handbook.Table of Contents Part 1: Carbon nanotube- Fundamentals and fascinating attributes 1 History and Development of Carbon Nanotubes2 Synthesis methods for Carbon nanotubes 1. Introduction 2. Arc Discharge Method 3. Laser Ablation Method 4. Chemical Vapour Deposition Method 5. Hydrothermal Synthesis 6. Electrolysis 7. Solar Technique 8. Conclusions 9. References 3 Carbon nanotube Growth mechanisms 1. Vapour phase growth 2. Liquid phase growth. 3. Solid phase growth 4. The crystallization model 5. Catalytically assisted growth mechanism 6. Existing challenges and future directions 4 Chemistry of Carbon nanotube structures 1. Introduction 2. Structure 3. Chemical bonding 4. Bonding models 5. Chemical Reactivity 6. Functionalization Chemistry 7. Doping Chemistry 8. Supramolecular chemistry 9. Catalytic chemistry 10. Photochemistry 11. Purification of cnt 12. Conclusions 13. References 5 Physics of Carbon nanotubes structures 1. Introduction 2. Electronic States 3. Fundamental parameters and relations for carbon nanotubes 4. Symmetry of carbon nanotubes 5. Elastic Continuum Models of Phonons in Carbon Nanotubes 6 Innovative approaches in Characterization of Carbon nanotube 1. Infrared spectroscopy 2. UV–visible spectroscopy 3. Photoluminescence spectroscopy 4. X-ray photoelectron spectroscopy (XPS)< 5. X-ray diffraction 6. Raman spectroscopy 7. Neutron diffraction 8. Scanning tunneling microscopy (STM) 9. Transmission electron microscopy 10. Atomic force microscopy 7 Mechanics of Carbon nanotube 1. Basic mechanical properties: stiffness, strength, toughness 2. Elastic properties of CNT 3. Theoretical results on elastic constants of nanotubes 4. Nonlinear elastic behaviour 5. Strength and fracture 8 Optical properties of Carbon nanotube 1. 2. Electronic structure of carbon nanotube 3. Optical absorption 4. Luminescence 5. fluorescence 6. Raman scattering 7. Rayleigh scattering. 9 Thermal properties of Carbon nanotube 1. Introduction 2. Specific Heat 3. Specific Heat of Nanotubes 4. Thermal Stability of Nanotubes 5. Thermal conductivity 6. Thermal Conductivity: Theory 7. Ballistic Conduction 10 Electronic and electronic transport properties of Carbon nanotube 1. Energy dispersion relations 2. Density of states 3. Electronic transport 4. Field emission and total energy distribution 5. Band structures in a magnetic field 6. Curvature effects: Beyond the zone-folding model 7. Nanotube bundle and multiwall system 8. Structural defects in carbon nanotubes 9. Conductance Quantization in One Dimension 10. Metallic Single-Walled Nanotubes 11. Semiconducting Single-Walled Nanotubes 12. Summary of Electronic Transport Properties 11 Electrical properties of Carbon nanotube 1. Conductance of Carbon Nanotube Systems 2. Dynamic Conductance of Carbon Nanotubes 3. Semiconducting CNTs 4. Superconductivity 5. Thermoelectric Properties 6. Photoconductivity and Luminescence 12 Field emission from Carbon nanotube 1. Field Emission Basics 2. Emitter Characteristics 3. Field Emission Mechanism 4. Single nanotube field emitter 5. Nanotube film field emitter 6. Macroscopic CNT structures 7. Field emission induced luminescence 13 Physical Properties of Carbon nanotubes 1. Ability to be manipulated 2. Electronic structure 3. Hardness 4. Impervious to Environmental Factors 5. One Dimensional Transport 6. Strength 7. Toxicity 14 Why functionalization of Carbon nanotube 1. Aggregation and poor solubility of carbon nanotubes 2. To resolve dispersion problems 30 15 Dispersion of Carbon nanotube 1. Current approaches for dispersing carbon nanotubes 2. Characterization of CNT dispersion 3. Water-soluble dispersions of carbon nanotubes 4. Dispersions of carbon nanotubes in organic solvents 5. Stabilization of carbon nanotube dispersions by polymers 6. Carbon Nanotube Dispersion – High Viscosity Material 7. Carbon Nanotube Dispersion – Medium Viscosity Material 8. Carbon Nanotube Dispersion – Low Viscosity Material 16 Covalent functionalization of Carbon nanotube 1. Oxidation 2. Esterification/Amidation 3. Halogenation reactions 4. Cycloaddition 5. Radical addition 6. Nucleophilic addition 7. Electrophilic addition< 17 Non covalent functionalization of Carbon nanotube 1. Polynuclear aromatic compounds 2. Biomolecules 3. π-π stacking and electrostatic interactions 4. Non covalent endohedral functionalization 18 Other functionalization methods 1. Functionalization with Nanoparticles 2. Substitutional Doping 19 Hetro atom Doped CNT and their properties 1. Nitrogen-doped carbon nanotubes 2. Carbon nanotubes doped with heteroatoms other than nitrogen 20 CNT based hybrid materials 1. Hybrid materials based on carbon nanotubes and metal oxides 2. Hybrid materials based on carbon nanotubes and metals 3. Hybrid materials based on carbon nanotubes and other inorganic carbonaceous materials 4. Hybrid materials based on carbon nanotubes and other organic materials 21 Theory, calculations, modelling and simulation for Carbon nanotube 1. Introduction 2. models of CNT growth 3. Electronic structure calculations 4. Mechanical models 5. Molecular dynamics simulation 22 The main challenges of Carbon nanotube 1. lack of a detailed understanding of the nanotube growth mechanism 2. lack of control of the synthesis process to produce nanotubes with a desired diameter and chirality. 3. Proper dispersion 4. Release characteristics of selected carbon nanotube polymer composites 23 Life cycle analysis of Carbon nanotube 1. Environmental effects of Carbon nanotube 2. Health impacts Carbon nanotube 3. Life Cycle Assessment 4. Inventory Analysis 5. Emerging technologies in life cycle impacts 6. Life cycle modelling 7. LCA and its social imapacts 8. Strategy to Overcome Existing Gaps 24 The current market for CNT materials and products 1. Carbon nanotubes manufacturers 2. Raw Material suppliers 3. Traders, distributors, and suppliers of carbon nanotubes 4. Regional manufacturers’ associations and general carbon nanotubes associations 5. Government and regional agencies and research organizations 6. Investment research firms 7. Market Outlook 8. Global demand for carbon nanotubes 9. Regulations and standards 10. Competition from other materials 25 Competitive analysis of carbon nanotubes with other carbon allotropes 1. Comparative properties 2. Cost and production 3. Carbon nanotube hybrids 4. Competitive market analysis of carbon nanotubes and other carbon allotropes Part 2 CNT based Polymer composites- Fabrication and Characterization 1 Structure–property relationships in polymer nanocomposites 1. Introduction 2. structure–property relationships in CNT-polymer nanocomposites 3. structure–property relationships in POSS-polymer nanocomposites 4. structure–property relationships in Clay/graphene/LDH-polymer nanocomposites 5. Effects of nanoparticles on the glass-formation in polymer nanocomposites 6. Effects of nanoparticles on the percolation threshold in polymer nanocomposites 7. Mechanisms for nanoparticle clustering and effects on material properties 8. Nanoparticle self-assembly 2 Manufacturing Techniques for CNT-Polymer composites 1. Solution based 2. In-situ polymerisation 3. Melt mixing 4. Latex stage mixing 5. Interface modification 6. Use of a third component 7. Other methods 3 Carbon Nanotube Composites: Critical Issues 1. Carbon Nanotubes 2. Structure control of CNTs 3. The problem of CNT Bundles 4. Dispersion of CNTs within polymer matrix 5. Carbon Nanotube/Polymer Interfaces 6. Nanocomposite Morphology 7. Contacts between individual CNTs 8. Other problems 4 Dispersion and alignment of carbon nanotubes in polymer matrix 1. the principles and techniques for CNT dispersion 2. The effects of CNT dispersion on the properties of CNT/polymer nanocomposites 5 Amorphous thermoplastic/CNT based composites 1. Polyamideimide 2. Polyethersulphone 3. Polyetherimide 4. Polyarylate 5. Polysulphone 6. Polyamide (amorphous) 7. Polymethylmethacrylate 8. Polyvinylchloride 9. Acrylonitrile butadiene styrene 10. Polystyrene 6 Semi-crystalline thermoplastic/CNT based composites < 1. Polyetheretherketone 2. Polytetrafluoroethylene 3. Polyamide 6,6 4. Polyamide 11 5. Polyphenylene sulphide 6. Polyethylene terephthalate 7. Polypropylene 8. High Density Polyethylene 9. Low Density Polyethylene 7 Thermoset/CNT based composites 1. Polyester 2. Epoxy resin 3. Polyimides 8 CNT-filled Elastomer composites 1. Natural rubber 2. Acrylic Rubber (ACM) 3. Butadiene Rubber (BR) 4. Butyl Rubber (IIR) <5. Chlorosulfonated Polyethylene (CSM)/ Hypalon 6. Ethylene Propylene Diene Monomer (EPDM) 7. Fluoroelastomers (FKM)/ Viton 8. Isoprene Rubber (IR) 9. Nitrile Rubber (NBR) 10. Perfluoroelastomer (FFKM) 11. Polychloroprene (CR)/ Neoprene 12. Polysulfide Rubber (PSR) 13. Silicone Rubber (SiR) 14. Styrene Butadiene Rubber (SBR) 9 Latex based/CNT composites 1. NR Latex/CNT 2. Synthetic rubber latex/CNT 10 nanocomposites based on polymer blends and CNT 1. miscible polymer blend 2. Immiscible polymer blend 3. Interpenetrating polymer network 4. Compatible polymer blend 11 Fibers/CNT 1. Introduction 2. Micro-Structural Development in Polymer/CNT Fibers 3. CNT Structure and Dispersion 4. Orientation and Alignment Effects 5. Prospects and Challenges for Processing Polymer/CNT Composites with Controlled Structural Development 12 Carbon nanotubes embedded in polymer nanofibers by electrospinning 1. Electro spinning of multi walled carbon nanotubes- polymer composites 13 X-ray scattering investigation of CNT-polymer composites 1. Basic principles 2. X-ray scattering methods 3. Wide angle X-ray diffraction 4. Small angle X-ray scattering 5. X-ray scattering methods 6. Morphology of carbon nanotubes 7. Morphology of polymer-CNT nanocomposites 8. crystalline disorder 9. orientation analysis; 10. phase analysis 14 Neutron scattering investigation of CNT-polymer composites 1. Basic principles 2. SANS methods and instrumentation 3. elucidating structural information 4. morphology 5. phase transition 6. Inhomogeneities and deformation mechanisms 15 Structural investigation of CNT-polymer composites by FTIR, UV, NMR and Raman spectroscopy 1. FTIR 2. UV-Visible spectroscopy 3. NMR 4. Raman Spectroscopy 16 Mechanical properties of carbon nanotube–polymer composites 1. Tensile strength 2. Abrasion resistance 3. Hardness 4. Compression strength 5. specific strength 6. toughness 7. Resilence 8. Impact properties 9. Flexural properties 10. Friction and wear properties 11. Thermomechanical analysis 12. Dynamic mechanical analysis 13. Creep, stress relaxation, hysteresis 14. Anisotropic mechanical behaviour 15. Modelling and Simulation< 17 Crystallization behavior of carbon nanotube− polymer nanocomposites 1. Measurements of radial growth rates of spherulites 2. Measurements of isothermal crystallization kinetics of iPP/CNTs by using DSC 3. Nonisothermal Crystallization Kinetics 18 Self-healing and shape memory effects of CNT based polymer composites 1. Self-healing: concept and materials 2. Self-healing of CNT based polymer nanocomposites: chemistry and applications 3. Theoretical study of self-healing polymer nanocomposites 4. Shape memory effect: definitions and characterization 5. Reinforcement of shape memory polymers 6. Reinforcement of shape memory polymers with CNT 7. Challenges 8. Future outlook 19 Thermal characterizations CNT-Polymer composites 1. Thermal stability 2. Thermal conductivity: definition, mechanisms and parameters 3. Modeling of thermal conductivity in composites 4. Thermal glass transition 5. Flame retardancy 6. Synergism between nanocomposites and flame retardants 7. Heat distortion temperature 20 Morphological characterizations CNT-Polymer composites 1. TEM 2. SEM 3. Scanning probe microscopy 4. AFM 5. Optical microscopy 21 Rheological studies of CNT-Polymer composites 1. theory practice and the new challenges in rheology of polymer nanocomposite 2. Rheological properties of polymer/carbon nanotube composites 3. Off-line” rheometry 4. “In-line” rheometry 5. Dilute regime: below the percolation threshold 6. Semi-dilute regime: dispersion and percolation 7. linear viscoelasticity 8. non- linear viscoelasticity 9. Steady shear viscosity 10. Dynamic shear rheology 22 Dielectric and Electrical conductivity studies of CNT-Polymer composites 1. Electrical percolation 2. Effects of filler attributes 3. Effects of nanocomposite microstructure 4. Effects of polymer matrix properties 5. Dielectric measurements 23 EMI shielding studies of CNT-Polymer composites 1. electromagnetic theory 2. foundations of the strategies to be employed to design efficient EMI shielding materials 3. carbon nanotubes based polymer composites for EMI shielding 4. The importance of the dispersion method into the polymer matrix 5. The combination of CNT with other constituents such as metallic nanoparticles or conductive polymers 6. complex architectures that are currently studied to improve the performances of EMI materials 24 Simulation and Multiscale modeling of polymer nanocomposites 1. Modeling and simulation techniques 2. Molecular scale methods 3. Microscale methods. 4. Mesoscale and macroscale methods 5. Modeling and simulation of CNT-polymer nanocomposites 6. Nanocomposite thermodynamics 7. Nanocomposite kinetics 8. Nanocomposite molecular structure and dynamic properties 9. Nanocomposite morphology 10. Nanocomposite rheological and processing behaviors 11. anocomposite mechanical properties 25 Life cycle analysis of CNT based polymer composites 1. Introduction to life cycle engineering 2. The life cycle of polymer composites 3. Life cycle engineering in product development 4. Recycling and recovery of polymer composites 5. What is Life Cycle Assessment? 6. Goal definition, scope, and functional unit 7. Inventory analysis 8. Impact assessment 9. Improvement analysis 10. Key issues in life cycle as sessment 11. Active and passive applications 12. Life Cycle Assessment of RecyclingPart 3:Recent advances in Carbon nanotube structures for potential applications 1 General Introduction 2 Carbon Nanotubes for mechanical applications 1. CNT nano mechanics2. Electromechanical Probes 3. in MEMS Technologies 4. CNT resonators as mass or force sensors5. Advanced Composites (fillers)6. The Space Elevator7. super-strong fabrics8. Mechanical Stabilizers (additives)9. Miscellaneous Applications10. Challenges and future prospects 3 Carbon Nanotubes for energy conversion and storage 1. The energy problem2. How and why carbon nanotubes can address the issues of energy storage and conversion3. Super capacitors4. Li ion batteries5. Conclusions and future developments 4 Carbon Nanotubes for Fuel Cells and water splitting 1. Carbon as a structural component in fuel cells2. Carbon as a catalyst support3. Carbon as a fuel4. Various Carbon Nanotubes in Portable Fuel Cells5. Doped Carbon Nanotube as electrodes6. Metal supported CNT as electrodes7. Functionalized carbon nanotubes fuel cells electrode 5 Carbon Nanotubes for solar cells and Photovoltaics1. Photovoltaic properties of CNT.2. Silicon-based solar cells. 3. Organic solar cells 4. Dye-sensitized solar cells 5. Polymer solar cells with CNT6. CNT as additives7. CNT as electrode8. CNT as Separate layer 6 Carbon Nanotubes for sensing applications 1. Electrochemical sensors2. Chemical sensors3. Organic Vapor4. Optical sensors5. Gas sensors6. Biosensors7. Strain sensing8. Pressure sensors9. Temperature sensors 7 Nanofluidics in Carbon Nanotube 1. Nanofluidics2. Nanofluidic Transport through Isolated Carbon Nanotube Channels: Advances, Controversies, and Challenges.3. Water transport inside carbon nanotubes4. Gas transport inside carbon nanotubes5. Carbon Nanotube Nanofluidics for Energy Technology and Sustainability 8 Carbon Nanotubes for Nanoelectronics and microelectronic Devices 1. Field Effect Transistors2. Single-Electron Transistors3. Nanotube Heterojunction Devices4. Mechanical Devices5. Nanotube Interconnects6. Modelling and simulation of carbon nanotubes (CNT) for nanoelectronics device applications 9 Carbon Nanotubes for Nano-optics, nanophotonics and nano-optoelectronics, non -liner ptical applicationss 1. Optical gain and lasing in carbon nanotubes2. Carbon nanotubes for optical limiting3. Carbon nanotube based fiber lasers4. Carbon-nanotube-based bulk solid-state lasers5. Carbon nanotube-based nonlinear photonic devices,6. Carbon nanotube-based optical platforms for biomolecular detection,7. Single carbon nanotube transistors for digital electronics8. Carbon nanotube thin-film transistors for digital electronics9. Carbon nanotubes for radio frequency analog circuits 10 Carbon nanotubes applications in agriculture 1. Interfacing carbon nanotubes (CNT) with plants2. Carbon Nanotubes Are Super Fertilizer3. Carbon Nanotubes as Plant Growth Regulators4. A general reduction of applied agrochemicals using nano encapsulated plant protection products and slow-release fertilizers5. Nanotechnologies for optimization of agricultural practices by introducing precision farming6. Negative Effects of CNT7. CNT as contaminant carriers and be transported to the edible parts of crops 11 Carbon Nanotubes for piezo electric applications 1. Effective Properties of Carbon Nanotube and Piezoelectric Fiber Reinforced Hybrid Smart Composites2. Flexible Piezoelectric Generators using CNT3. Reinforcement of Piezoelectric Polymers with Carbon Nanotubes 12 Carbon Nanotubes for thermal Materials 1. Spacecraft2. Heat dissipation in integrated circuits (IC) chips3. Carbon nanotubes for thermal interface materials in microelectronic packaging4. Carbon Nanotubes Thermal Radiation Coating Dispersion 13 Carbon Nanotubes for tissue engineering scaffold applications 1. Cell tracking and labeling.2. Sensi ugmenting cellular behavior . 3. Augmenting cellular behaviour4. Matrix enhancement5. Cytotoxicity 14 Carbon Nanotubes for Drug delivery applications 1. Therapeutic-CNT interaction2. Drug delivery with carbon nanotubes3. In vivo studies on drug delivery4. Drug delivery targeted to tumor5. Drug delivery targeted to central nervous system6. The biosafety of SWCNT used as drug carriers7. The future of CNTs used as drug carriers for cancer treatments 15 Carbon Nanotubes for Bio-imaging applications1. SWNT bioconjugates2. NIR Photoluminescence imaging with SWNTs3. Raman imaging 4. Photoacoustic imaging5. Imaging with radio labelled CNTs6. Magnetic resonance imaging with CNTs7. Nuclear imaging8. Prospects and challenges 16 Carbon Nanotubes in Regenerative Medicine 1. Applications of /CNTs in bone regeneration2. Possible mechanisms of increased biocompatibility of CNTs-based scaffolds: the role of adhesive protein adsorption3. Carbon nanotubes (CNTs) for neural tissue regeneration4. Carbon Nanotubes Directions and Perspectives in Oral Regenerative Medicine5. Regeneration of Other Tissues6. Carbon Nanotube Artificial Muscles 17 Carbon Nanotubes in Cancer therapy 1. Carbon nanotubes and their importance in anticancer drug delivery2. Advantages of carbon nanotubes over conventional cancer therapy3. Methods for opening, filling and capping carbon nanotubes 18 Carbon Nanotube as a multifunctional coating material 1. Multifunctional Coatings with Carbon Nanotubes for Electrostatic Charge Mitigation2. Multifunctional Carbon Nanotube Coatings Used as Strain Sensors3. Carbon coatings for membrane application and catalysis4. anticorrosion coatings for metals 19 Carbon Nanotube based hydrogel and aerogels 1. Carbon Nanotubes Hybrid Hydrogels in Drug Delivery2. For environmental remediation3. CNTs nanocomposite hydrogels preparation4. CNTs Nanocomposite Based Hydrogels for Actuators and Sensors5. CNTs Nanocomposite Based Hydrogels for Effluents Treatment6. CNTs Nanocomposite Based Hydrogels for Biofuel and Solar Cells7. CNTs Nanocomposite Based Hydrogels for Tissue Engineering and Biomedicine8. Conducting CNTs Nanocomposite Based Hydrogels9. aerogels for electronic applications10. MWCNT Aerogels for Sensing11. Composites, catalysis, supercapacitors, substrate for biomaterial growth (bones), filtration, membranes, decontamination, 20 Carbon Nanotubes for Environmental remediation applications 1. Nanosensors for environmental monitoring2. Nanosorbents3. Photocatalysis4. Carbon Nanotubes in Biotechnology 5. Carbon Nanotubes Used for Renewable Energy Applications 21 Anti-microbial and antibacterial properties and other miscellaneous applications of CNT1. Anti-microbial applications of CNT2. Antibacterial applications of CNT3. Solid-phase extraction4. Chromatographic applications 22 Multifunctional applications of CNT based polymer composites 1. Development of multifunctional composites for aerospace application2. Lightweight structural composites with electromagnetic applications3. Transparent wear-resistant multifunctional polymeric nanocoatings4. Multifunctional polymer composites for intelligent structures5. Self-sensing carbon nanotube composites6. Recent advances in shape memory epoxy resins and composites7. The application of carbon nanotube-polymer composite as gas sensing materials8. EMI shielding composites, coatings for enclosures, ESD composites, antistatic materials, conductive coatings, electromagnetic absorption materials for low-observable applications, electrode materials for supercapacitor and fuel cell, etc9. Thermal management materials, such as TIMs, temperature sensors, resistance heating and flame-retardance materials, etc.10. CNT/polymer composites in nanoelectronic and biomedical devices and sensoring, etc. 23 Carbon nanotube research developments: published papers and patents, synthesis and production 1. Publication progress of CNT research2. Carbon Nanotube Fabrication: Patent Analysis3. Carbon Nanotubes in Energy Storage4. Carbon nanotube fiber-reinforced composite structures for EM and lightning strike protection5. The carbon nanotube patent landscape in nanomedicine:6. Carbon nanotube structures in sensor apparatuses 24 Assessment of the risks associated with carbon nanotubes 1. Toxicity of carbon nanotubes2. Factors found to affect CNT toxicity3. Toxicity of CNTs on the lungs4. In Vitro Toxicological Studies of Carbon Nanotubes5. In Vivo Toxicological Studies of Carbon Nanotubes 6. Cytotoxity of functionalized CNTs

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Book SynopsisAntibiotics, the backbone of modern clinical-medicine, are facing serious challenges from emerging antimicrobial-resistance (AMR), a complicated phenomenon expanding in bacterial species, from nosocomial to community origins, where microbes are no longer sensitive to a range of commonly used antibiotics. AMR has exploded in recent years and is posing a serious threat to human health and survival. This necessitates novel and effective ways of diagnosis, drug-delivery, and treatment; nanotechnology and advanced nanomaterials are hailed as a potent solution in containing AMR.The main thrust of this volume is to explain the most current research on the central theme of potential use of nano-approaches for diagnosis, detection, drug-delivery and as antimicrobial agents against drug-resistant pathogenic microbes. This book provides an integrated blend of basic and advanced information for students, scholars, scientists and practitioners, interested or already engaged in research in these areas. We have brought together leading international authors to present and highlight various aspects of nanotechnology in combating AMR in WHO-prioritized microbes. Topics range from advances in nanomaterial synthesis, characterization, functionalization and improvisation, as well as applications in sensing, diagnosis of AMR, and their therapeutic and drug-delivery potential against MDR and XDR microbial phenotypes.Table of Contents1 The History of Antibiotics Illumes the Future of Antimicrobial Peptides Administered Through Nano-Systems2 Current approaches and prospects of nanomaterials in rapid diagnosis of antimicrobial resistance3 Nanomaterials-mediated delivery of antimicrobial agents ‘The Nanocarriers’4 Nanoparticle functionalization: Approaches and applications5 Nano-adjuvants as effective next-generation antimicrobial agents6 Limiting antibiotic-resistant bacteria using multifunctional nanomaterials7 Microbial resistance mechanisms and potential of metal-organic framework in mitigation thereof8 Silver-based Nano-Formulations for Treating Antibiotic-Resistant Microbial Strains9 Gold Nanoparticles: A Lethal Nanoweapon against Multidrug Resistant Bacteria10 Antimicrobial Potentials of Zinc and Iron Oxide Nanoparticles11 Carbon Nanostructures for Fighting Antimicrobial Resistant Bacteria12 Nano-formulations against Multidrug Resistant Members of ESKAPE pathogens

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Book SynopsisAbout this bookThis book features a collection of reviews focusing on interrelated topics in nano-optics and nanophononics written by some of the world's leading scientists in these fields. The book discusses recent results of numerical investigations of light-matter interactions at the nanoscale using first-principles calculations. Additionally, it reviews selected topics in the areas of nanophotonic devices based on functional nanoparticles for energy harvesting and the development of photo materials for advanced applications in optics and nanotechnologies. Finally, the book reviews the experimental development of quantum-dot single-photon sources on integrated photonic circuits and looks at applications in quantum information processing and quantum information distribution based on color center in diamond.Table of Contents

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Book SynopsisThis​ book reviews the latest advances and biomedical applications of nanozymes, which are artificial nanomaterials exhibiting enzymatic properties similar to natural enzymes, but with less limitations than natural enzymes. Nanozymes display advantages such as facile synthesis, easy surface modification, improved stability, higher catalytic power, and target-specific binding. Nanozymes containing metals, metal oxides, carbon, and metal sulfide are actually used for cancer therapy, biomolecules sensing, bioimaging, disease diagnostics and diabetes management. The book discloses underlying mechanisms, concepts, recent trends, constraints, and prospects for nanomedicine using nanozymes.Table of Contents1. Nano cerium oxide in medicine, agriculture and the industry2. Synthesis and sensing applications of peroxidase-mimic nanozyme3. Nanozymes for glucose sensing and diabetes management4. Nanozymes for bioimaging and disease diagnostics5. Nanozymes for improving anticancer therapy6. Enzyme-based nanomedicine for cancer therapy7. Synthesis of two-dimensional metal, metal oxide and metal hydroxide nanomaterials for biosensing8. Biological applications of nanozymes

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Book SynopsisThis​ book reviews the latest advances and biomedical applications of nanozymes, which are artificial nanomaterials exhibiting enzymatic properties similar to natural enzymes, but with less limitations than natural enzymes. Nanozymes display advantages such as facile synthesis, easy surface modification, improved stability, higher catalytic power, and target-specific binding. Nanozymes containing metals, metal oxides, carbon, and metal sulfide are actually used for cancer therapy, biomolecules sensing, bioimaging, disease diagnostics and diabetes management. The book discloses underlying mechanisms, concepts, recent trends, constraints, and prospects for nanomedicine using nanozymes.Table of Contents1. Nano cerium oxide in medicine, agriculture and the industry2. Synthesis and sensing applications of peroxidase-mimic nanozyme3. Nanozymes for glucose sensing and diabetes management4. Nanozymes for bioimaging and disease diagnostics5. Nanozymes for improving anticancer therapy6. Enzyme-based nanomedicine for cancer therapy7. Synthesis of two-dimensional metal, metal oxide and metal hydroxide nanomaterials for biosensing8. Biological applications of nanozymes

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Book SynopsisThis book focuses on the recent progress of nanotechnology with emphasis on the interaction between nanoparticles and plants on the cellular level. It is devoted to understanding the pathways of nanomaterials entry into plant cell and their influence on cellular organelle processes and influence on crop yield. It consists of 16 chapters grouped in 3 parts: Part I Cellular mechanisms, Part II Cellular macromolecules, and Part III Implications of nanomaterials. Chapters present the plant response to nanomaterial applications including morphological, physiochemical, and anatomical changes and their effect on plant growth and productivity. The book discusses the mechanisms of absorbance and translocation of nanoparticles and their interaction with the plant cellular biochemical compounds and organelles. It presents the current perspective of nanomaterials influence on cellular processes which include photosynthesis, photorespiration and pigment synthesis and accumulation. In addition, it provides current understanding of the impact of nanomaterials on cellular macromolecules including carbohydrates, lipids, nucleic acids, proteins, hormones, and antioxidant defense activities. Collectively, these processes and biochemical compounds have implications on crop yield. Chapters are written by globally recognized scientists and subjected to a rigorous review process to ensure quality presentation and scientific precision. Chapter begins with an introduction that covers similar contexts and includes a detailed discussion of the topic accompanied by high-quality color images, diagrams, and relevant details and concludes with recommendations for future study directions.Chapter "Impact of Nanomaterials on Plant Secondary Metabolism" is available open access under a Creative Commons Attribution 4.0 International License via link.springer.com.Table of Contents1. Introduction: Impact of Nanotechnology on Plant Cell BiologyLina M. Alnaddaf, Jameel M. Al-Khayri, and S. Mohan JainPart I Cellular Mechanisms 2. Effect of Nanomaterials on Water and Solutes Translocation in PlantsKhaled F. M. Salem, Sawsan Abd-Ellatif, El-Sayed S. Abdel Razik, Mayada S. Fadel, Ahmed E.M. Elkhawas, Ezzat R. Marzouk, Mohamed A. M. Bassouny, and Amira A. Ibrahim3. Response of Plant Photosynthesis to NanomaterialsSashi Sonkar, Prakash Kumar Sarangi, Brijesh Pandey, Anand Prakash, and Akhilesh Kumar Singh4. Impact of Nanomaterials on Chlorophyll Content in PlantsLuis Páramo, Humberto Aguirre Becerra, José Emilio Ramírez Piña, José Antonio Cervantes Chávez, Ana A. Feregrino-Pérez, and Karen Esquivel5. Interactions of Nanomaterials with Plant PigmentsMontcharles S. Pontes, Jaqueline S. Santos, Simone Y. Fernandes, Ivan P. Oliveira, Thaiz B.A.R. Miguel, Emilio C. Miguel, Gilberto J. Arruda, Renato Grillo, Anderson R.L. Caires, and Etenaldo F. Santiago 6. Impact of Nanomaterials on Plant Secondary MetabolismRajendran K Selvakesavan, Dariusz Kruszka, Preeti Shakya, Dibyendu Mondal, and Gregory Franklin7. Toxic Effects of Nanomaterials on Plant Cellular MechanismsAna A. Feregrino-Pérez, Susana Meraz Dávila, Claudia Elena Pérez García, Alejandro Escobar Ortiz, Daniel Mendoza Jiménez, José Emilio Piña Ramírez, José Antonio Cervantes Chávez, and Karen EsquivelPart II Cellular Macromolecules8. Interaction of Nanoparticles with Plant Macromolecules: Carbohydrates and LipidsLei Qiao and Chunlan Xu9. Interaction of Nanomaterials with Plant Macromolecules: Nucleic Acid, Proteins and HormonesRoseanne Mascarenhas, Tanvi Mathur, Jaya Maheshwari, and Praveen Nagella10. Influence of Nanomaterials on Non-Enzymatic Antioxidant Defense Activities in PlantsAntonio Juárez-Maldonado11. 2D-Nanosheets Based Hybrid Nanomaterials Interaction with PlantsDivya Chauhan, Mohammad Ashfaq, R.V. Mangalaraja, and Neetu TalrejaPart III Agricultural Implications 12. Nanomaterial Impact on Plant Morphology, Physiology and ProductivityMahroos A. Bahwirth, Salim F. Bamsaoud, and Lina M. Alnaddaf13. Role of Nanomaterials in Improving Crop ProductivityLina M. Alnaddaf, Jameel M. Al-Khayri, and S. Mohan Jain14. Role of Nanomaterials in Plant Cell and Tissue CultureSanaz Feizi15. Role of Nanomaterials in Improving the Nutritional Value of CropsMansoureh Nazari, Mojtaba Kordrostami, Ali Akbar Ghasemi-Soloklui, and Jameel M. Al-Khayri16. Role of Nanomaterials in Improving Crop Tolerance to Abiotic StressFarhat Yasmeen17. Plant Mediation to Tolerate Cadmium Stress with Selenium and Nano-seleniumAli Akbar Ghasemi-Soloklui, Fardad Didaran, Mojtaba Kordrostami, and Jameel M. Al-Khayri18. Synthesis and Applications of Cellulose Nanomaterials Derived from Agricultural Waste and Byproducts Amira A. Ibrahim, Sawsan Abd-Ellatif, El-Sayed S. Abdel Razik, Mayada S. Fadel, Ahmed E. M. Elkhawas, Mahmoud Shaban, Khaled F. M. Salem, and Mohamed F. M. Salem

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Book SynopsisThis book provides a holistic compilation on applications of carbon nanostructures, especially in advanced healthcare applications. It comprises chapters on utility of diverse multifunctional nanocarriers in drug delivery and biomedical applications, especially emphasizing on the synthesis and characterizations of nanosystems along with surface engineering approaches used for active targeting of the drugs. Moreover, the chapters also include the recent updates on the applications of the nanocarriers to fulfill the needs of various healthcare systems.Table of ContentsTitles Contributing author 1). Introduction to carbon nanomaterials Dr. Amit Kumar Nayak Department of Pharmaceutics, Seemanta Institute of Pharmaceutical Sciences, Mayurbhanj-757086, Odisha, India E-mail: amitkrnayak@yahoo.co.in 2). Emergence in carbon nanotubes for drug delivery and biomedical applications Ibrahim M. El-Sherbiny, PhD, NZIC, MRS, AAPS, BMES Professor of Smart Nanomaterials & Nanomedicine, Director, Center for Materials Science (CMS), Founding Chairman, Nanoscience Program Founding Former Chairman, Materials Science Program Editor, Drug Development and Industrial Pharmacy (DDIP, USA) Editor-in-Chief, Journal of Nanotechnology & advanced Materials - Natural Sciences (USA) Vice President, National Council for New & Advanced Materials, National Council of Drug Research, HS-Board Member, National Organization for Drug Control and Research (NODCAR) Zewail City of Science and Technology Nano-Building, Room F003 Ahmed Zewail Road, October Gardens, 6th of October, 12578, Giza, Egypt Website: https://www.zewailcity.edu.eg/main/content.php?lang=en&alias=ibrahim_m._el-sherbiny e-mail: ielsherbiny@zewailcity.edu.eg 3). Graphene nanocomposites in healthcare appllications Prof. Dr. Cornelia Vasile "P.Poni" Institute of Macromolecular Chemistry Department of Physical Chemistry of Polymers 41A Grigore Ghica Voda Alley R0 700487 IASI ROMANIA e-mail: cvasile@icmpp.ro 4). Fullerenes: Bucky balls in promising therapeutic applications Prof. Sanjay K. Jain, Professor of Pharmaceutics, Head, Department of Pharmaceutical Sciences, Dr. Harisingh Gour University, Sagar (MP)-470002, India Emails: drskjainin@gmail.com, drskjainin@yahoo.com 5). Nanodiamonds as next geneation carriers in exploring therapeutic benefits Dr. Nafiu Aminu Lecturer, Department of Pharmaceutics, Faculty of Pharmaceutical Sciences, Usmanu Danfodiyo University, P.M.B. 2346 Sokoto, Nigeria. E-mail: nafiu.aminu@udusok.edu.ng, nabgus@yahoo.com 6). Nanographites as multidimenssional carriers for advanced therapeutic applications Dr. Wazed Ali Department of Textile and Fibre Engineering, Indian Institute of Technology Delhi, HauzKhas, New Delhi-11016, India. E-mail: wazed@textile.iitd.ac.in 7). Carbon nanohorns in drug delivery and medical applications Dr. Samuel Eshorame Sanni Department of Chemical Engineering, Covenant University, Ota, Ogun State, Nigeria E-mail: sanni@covenantuniversity.edu.ng 8). Carbon nanotorous for advanced therapeutic applications Dr. Prashant Kumar Sharma, Assistant Professor, Department of Physics, Indian Institute of Technology, (Indian School of Mines), Dhanbad 826004, India. E-mail: prashantnac@gmail.com, prashant@iitism.ac.in 9). Carbon nanobombs: Newer class of materials for multifunctional applications Dr. Mehrdad Hamidi Professor of Pharmaceutics, School of Pharmacy, Zanjan University of Medical Sciences, Iran E-mail: hamidim@zums.ac.ir 10). Bio-inspired carbon nanostructures: Advances and challenges Dr. Joash Ban Lee Tan School of Science, Monash University, Malaysia E-mail: tan.ban.lee@monash.edu 11). Functionalized carbon dots in theraputic applications Dr. Wanpen Tachaboonyakiat Department of Materials Science, Faculty of Science, Chulalongkorn University, Phayathai, Pathumwan, Bangkok 10330, Thailand. E-mail: wanpen.ta@chula.ac.th 12). Carbon quantum dots: Perspectives and Prospects Dr. Yadollah Omidi Professor of Pharmaceutical Sciences, Department of Pharmaceutical Sciences, College of Pharmacy, Nova Southeastern University, 3200 South University Drive, Davie, FL 33328, USA E-mail: yomidi@nova.edu 13). Carbon-based host-guest nanosystems in biomedical applications Dr. MiIlan MIlivojevic University of Belgrade, Karnegijeva 4, 11000 Belgrade, Serbia E-mail: mmilan@tmf.bg.ac.rs 14). Carbon nanotropes with newer potential for drug delivery and biomedical applications Dr. Jaison Jeevanandam Department of Chemical Engineering, Faculty of Engineering and Sciences, Curtin University, Malaysia E-mail: jaison.jeevanandam@gmail.com 15). Carbon nanofibres in diversified healthcare applications Dr. Classius Ferreira da Silva Universidade Federal de São Paulo - UNIFESP Departamento de Engenharia Química, Laboratório de Biotecnologia e Produtos Naturais - BIONAT (3o. Andar), Brazil E-mail: classiusferreira@yahoo.com.br 16). Biosafety and toxcity evaluation of carbon nanomaterials Dr. Md Saquib Hasnain Department of Pharmacy, Shri Venkateshwara University, NH-24, Rajabpur, Gajraula, Amroha – 244236, U.P., India E-mail: msaquibhasnain@gmail.com

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Book SynopsisThis volume deals with the various fabrication techniques, surface functionalization and biomedical applications of polymeric fibers possessing different scale and structure. It provides an overview of fabrication techniques such as Co-axial, Centrifugal, Melt and Yarning to procure multiscale, tubular and layered fibrous scaffold employed for biomedical applications. The chapters in this volume discusse the surface/chemical functionalization of fibers which enhance the biological properties of the fibrous scaffolds as well as the development of hybrid, layered and external stimuli-responsive fibrous scaffolds that hold potential application in biosensor and other biomedical fields. In addition, recent advances and applications of polymeric multiscale fibers in tissue engineering, regenerative medicine and drug delivery are presented. The potential use of fibrous scaffolds in bone, neural, tendon/ligament and cardiac tissue engineering, nanofibers as an antimicrobial wound dressing, employed in cancer theragnostics and in the treatment of skin/periodontal infections are discussed. The volume provides expert knowledge on the fabrication techniques, development of different scale and hybrid structure fibers, surface functionalization, layered and external stimuli responsive fibrous scaffolds. It will be beneficial to material/biomaterials scientists, bioengineering and biotechnologists by providing a better understanding on the subject of the innovative applications of fibrous scaffolds in drug delivery, tissue engineering, wound dressings and regenerative medicine.Table of ContentsRecent Developments in Electrospinning Spinnertte and Collector Assembly for Biomedical Applications.- Fabrication of Multiscale Polymeric fibers for Biomedical Applications.- Coaxial Electrospun Nanofibrous Scaffolds and Its Biomedical Applications.- Melt Electrospun Nanofibers and Its Biomedical Applications.- Centrifugal Electrospun Nanofibers and Its Biomedical Applications.- Progress, Challenges and Opportunities in Electrospun Yarn-Engineered Biomaterials.- Fabrications of Textile Based Scaffolds Using Electrospun Nanofibers for Biomedical Applications.- Biomedical Applications of Electrospun Piezoelectric Nanofibrous Scaffolds.- Surface Modified Polymeric Nanofibers in Tissue Engineering and Regenerative Medicine.- Polymer/Ceramic Nanocomposite Fibers in Bone Tissue Engineering.- Electrospun Fibrous Scaffolds for Cardiac Tissue Engineering.- Electrospun Nanofibrous Scaffolds for Neural Tissue Engineering.- External Stimuli Responsive Nanofibers in Biomedical Engineering.- Electrospun Antimicrobial Polymeric Nanofibers in Wound dressings.- Application of Electrospun Polymeric Fibrous Membranes as Patches for Atopic Skin Treatments.- Nanofibrous Scaffolds for the Management of Periodontal Diseases.- Recent Advances in Brain Tumour Therapy using Electrospun Nanofibers.- Layered Fibrous Scaffolds/Membranes in Wound Healing.

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Book SynopsisThis book summarizes and provides a detailed overview of the enhanced mechanical and functional properties of bulk nanostructured metallic materials with respect to their potential applications.

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Book SynopsisThis open access book offers a timely and comprehensive review of the field of neurotronics. Gathering cutting-edge contributions from neuroscientists, biologists, psychologists, as well as physicists, microelectronics engineers and information scientists, it gives extensive information on fundamental information pathways in selected nervous systems. It also highlights their relevance as building blocks for novel computing architectures, such as bio-inspired electronic devices, neuromorphic architectures, memristive devices, adaptive sensors and emergent, pulsed-coupled oscillatory networks. All in all, this book offers a unique bridge between fundamental research in neuroscience, neural information processing, nonlinear dynamics, and self-organization, and advanced practical applications concerning the fabrication of hardware-oriented computing.Table of ContentsMatter & Mind Matter.- Neuromorphic circuits with redox-based memristive devices.- Redox-based bi-layer oxide metal memristive devices.- MemFlash – Floating Gate Transistors as Memristors.- Critical discussion of ex situ and in situ TEM measurements of memristive devices.- Modeling and Simulation of of Silver-based Filamentary Memristive Devices.- Bio-inspired, neuromorphic acoustic sensing.

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Book SynopsisLarge-scale chemical fertilizer application causes irreparable damage to soil structure, mineral cycles, soil microbial flora, plants, and other food chains across ecosystems, culminating in heritable mutations in future generations of consumers. A better way forward is the use of nanofertilizers to focus on macro elements (N, P, K), as switching to nanofertilizers may result in large environmental benefits by replacing the majority of these nutrients. Furthermore, the biosynthesis of nanomaterials using bacteria, algae, yeast, fungus, actinomycetes, and plants has opened up a new avenue of research in the production of inorganic nanoparticles as ecologically friendly fertilizers. Nanofertilizers should also attain increased efficiency because of a several-fold increase in the surface-to-volume ratio of nano-forms of nutrients and their suitability for foliar application, where environmental losses are further reduced. Nanostructured fertilizers can also improve nutrient use efficiency through strategies such as targeted distribution and progressive or controlled-release as they can precisely release their active molecules in response to environmental cues and biological demands. Recent research shows nanofertilizers can increase agricultural productivity by speeding up seed germination, seedling growth, photosynthetic activity, nitrogen metabolism, and carbohydrate and protein synthesis. The potential agricultural benefits of nanofertilizers, their modes of action, and the fate of nanomaterials in soil are all discussed in this book. It also covers nanofertilizer formulation and delivery, applications, uptake, translocation, and their fate in plants, as well as their impact on plant physiology and metabolism. Nutrient nanoformulation is a valuable method that has the potential to alter the agricultural sector and provide solutions to current and future concerns for sustainable and climate-sensitive cropsTable of Contents​Preface1. Introduction: Nano fertilizers for development agriculture production Kamel A. Abd-Elsalam, Agricultural Research Center, Giza, Egypt Part 1: Synthesis 2. Fabricated Nano Fertilizers as a clean and viable substitute for conventional fertilizers Mahendra P. Singh and Najitha Banu, Dept. of Zoology, School of Biosciences, Lovely Professional University, Jalandhar, Punjab, India E-Mail: najirila2010@gmail.com 3. Nano fertilizers: types, synthesis methods, mechanisms Karl Eastman, Department of Plant Breeding and Genetics, College of Agriculture, North Dakota State University, USA. Email: keastman@gmail.com 4. Nanocomposite fertilizersAniruddha Chatterjee, Department of Plastic & Polymer Engineering Maharashtra Institute of Technology, India. Email: aniruddha.chatterjee@mit.asia 5. Environmentally Benign Synthesis of Metal Nanoparticles for Fertilizer Applications in AgricultureAchintya Bezbaruah, Mohammad E. Hossain, Environmental Engineering, North Dakota State University, USA. Email: enayetswe@du.ac.bd; enaswe@gmail.com 6. Smart Fertilizers and slow-release of N and Zn V. Sugumari, Mepco Schlenk Engineering CollegeEmail: sugumari@mepcoeng.ac.in 7. Plant Nanonutrients for sustainable agricultureHrishikesh Upadhyaya, Department of Botany, Cotton University, College Hostel Road, Panbazar, Guwahati- 781001, Assam, INDIA E-Mail: hkupbl_au@rediffmail.com 8. Microalgae-based nanofertilizers for sustainable agriculture Iffat Zareen Ahmad, Departments of Biotechnology, Biochemistry, Bioinformatics & Microbiology Chairperson, Women Grievance/Harrassment Cell Integral University, Lucknow, India E-Mail: iffat@iul.ac.in Part 2: Applications 9. Green synthesis of nanofertilizers and its role in plant protection Mohammad Akram, Sabiha Saeed, Division of Plant Protection, Indian Institute of Pulses Research, Kanpur, India. e-mail: sabihasaeed106@gmail.com 10. Preparation and Characterization of Nanofertilizers and Their Utility in Control of Phyto-pathogens: Towards Sustainable Agriculture Lamy M. M. HAMED, Muhammad A. Fathy, Aya A. M. Abdellati, Soil and Water Department, Faculty of Agriculture, Cairo University, 12613, Giza, Egypt lamy.hamed@agr.cu.edu.eg 11. Green Synthesis of Nanofertilizers and Their Application for Rice Production Vishnu D Rajput, Southern Federal University, Rostov-on-Don, RussiaE-mail: rvishnu@sfedu.ru 12. Nano-biofertilizers: Applications in sustainable agriculture and crop productivityKavya Bakka, Dept. of Microbiology, Iowa State University, USA E-mail: kavyabakka@gmail.com 13. ZnO nanoparticles: sustainable plant production Tapan Kumar Mandal, Dean of Research & Development, ICFAI University Tripura, IndiaE-mail: tapankumarmandal@iutripura.edu.in 14. Influential Relevance of Nanofertilizers in the Sustainable Cultivation of Horticultural Crops M. Shafiq Ansari, Rabiya Basri, Department of Plant Protection, Aligarh Muslim University, Aligarh, India E-mail: rbsiddique21@gmail.com 15. Nano-engineering of Metal-based Fertilizers Using Biopolymers: An Innovative Strategy for A More Sustainable Agriculture Lebogang Katata-Seru, Department of chemistry, North-West University, South Africa E-mail: Lebo.Seru@nwu.ac.za 16. Silica Nanoparticles for Improving Abiotic Stress Tolerance Suriyaprabha Rangaraj, Mythili Ravichandran, Sona College of Arts and Science, Salem, India e-mail: ms.microhoney@gmail.com 17. Smart fertilizers: the prospect of slow-release nanofertilizers in modern agricultural practices Swarnendu Roy Department of Botany, University of North Bengal, India E-mail: swarnendubotany@nbu.ac.in 18. Metal nanoparticles in agriculture: impacts on plants, and associated microorganisms Eman Tawfik, Faculty of Science, Helwan University, Egypt E-mail: emantawfik@science.helwan.edu.eg 19. The Use of nanobiofetilizers in Agricultural production: An ecofriendly technology towards environmental sustainabilityEmmanuel S. Okeke, University of Nigeria, e-mail: emmanuel.okeke@unn.edu.ng 20. Large-scale production of Nanofertilizers: Commercialization, Challenges and Future trendsMohammad Ashfaq, University Center of Research & Development (UCRD), Chandigarh University, Mohali, Punjab, India E-mail: mohdashfaqbiotech@gmail.com 21. Impact of Nanofertilizers for Mitigation of Multiple Environmental Stresses Vishnu D Rajput, Southern Federal University, Rostov-on-Don, RussiaE-mail: rvishnu@sfedu.ru intmsc.abhi@gmail.com 22. Ecotoxicological and regulatory aspects of environmental sustainability of nanofertilizers Luqman AZEEZ, Department of Pure and Applied Chemistry, Osun State University, Osogbo, Nigeria luqman.azeez@uniosun.edu.ng 23. The fate of nanofertilizers in agroecosystemsAuthor to be determined. BibliographyIndex

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Book SynopsisThis book covers Poly(vinyl chloride) Fundamentals, Fabrication and characterization of PVC based composites and nanocomposites specifically natural fibre reinforced PVC composites, carbonaceous filler reinforced PVC composites , metal oxide fled PVC composites and nanocomposites etc. This book also covers the conducting PVC composites and recent advances in nanocomposites based on PVC .The rheological, mechanical, barrier, thermal, dielectric behaviour of PVC composites and nanocomposites are discussed in details. Table of ContentsPolyvinylchloride ,Its composites and nanocomposites: State of art, new challenges and opportunities.- Synthesis, morphology, structure and properties of PVC.- Micro and nano fillers for PVC.- Surface modification of fillers.- Fabrication of PVC based composites and nanocomposites by mechanical mixing.- Fabrication of PVC based composites and nanocomposites by solution mixing.- Fabrication of PVC based composites and nanocomposites by latex stage mixing.- Fabrication of PVC based composites and nanocomposites by freeze drying.- Interface modification and characterization of PVC based composites and nanocomposites.- Natural fibre reinforced PVC composites and nanocomposites.- Chitin and chitosan based PVC composites and nanocomposites.- Carbon fibre and carbon black reinforced PVC composites and nanocomposites.- Clay reinforced PVC composites and Nanocomposites.- Mica and Glass fibre filled PVC composites.- Conducting PVC composites and nanocomposites.- Metal oxide reinforced PVC composites and nanocomposites.- Silica reinforced PVC composites and nanocomposites.- Nanocomposites of PVC with graphene.- POSS reinforced PVC nanocomposites.- Metal carbonate reinforced PVC composites and nanocomposites.- Metal particle filled PVC composites and nanocomposites.- Nanocomposite of PVC with CNT.- Composites and nanocomposites of PVC with hybrid fillers.- Rheological behavior of PVC composites and Nanocomposites.- Microscopy of PVC composites and Nanocomposites.- Morphology –property correlation in PVC based composites and nanocomposites.- Mechanical properties of PVC composites and nanocomposites.- Viscoelastic characterization of PVC composites and nanocomposites.- Scattering (X-ray, light, neutron) PVC composites and nanocomposites.- Thermal properties.- PVC composites and nanocomposites.- Spectroscopy of PVC composites and nanocomposites.- Prov.- Dielectric properties PVC composites and nanocomposites.- Barrier properties of PVC based composites and nanocomposites.- Aging behavior of PVC based composites and nanocomposites.- Fire retardant PVC based composites and nanocomposites.- Possible interaction of PVC with micro and nanofillers.- Antistatic PVC nanocomposites.- Glass transition temperature of PVC based composites and nanocomposites.- Applications of PVC based composites and nanocomposites.

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Book SynopsisNanoinsecticide - An introduction.- Nanotechnology in Crop Insect Pest Management - Scope and Approach.- Nanoinsecticide Perspectives for Plant Protection and Nutrition - An Emerging Field.- Nanoinsecticide Preparation Methods (Chemical, Physical, and Biological Methods).- Nanoinsecticide Formulation Types.- Mechanisms of Nanoinsecticide Formulation Release.- Bioavailability and Environmental Safety of Nanoinsecticide.- Risks of Nanoinsecticide Toxicity on NonTarget Species and their Effects on Environmental Regulatory Considerations.- Human Toxicity of Nano-insecticides.- Successful Examples of Nanopesticides Against Major Insect Pests in Agricultures.- Impact of Nanoinsecticides in Combination with Nanofertilizers.- Biogenic Nanoinsecticides as New Directions for Insect Pest Control.- Nanoparticles-Based Bioinsecticide for Insect Pest Control: Current Status and Future Trends in Agriculture.- Patent Issues in Nanoinsecticide.- Nanoinsecticide in Agriculture - State of the Art and Future Opportunities.

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Book SynopsisChapter 1. Contribution of Microbial Nanotechnology to Sustainable Development Goals.- Chapter 2. Microbial nanotechnology: a potentially useful tool for environmental sustainability.- Chapter 3. Algal-mediated nanoparticle synthesis for environmental sustainability.- Chapter 4. Sustainable Production of Nanoparticles from Fungi and Their Agricultural Applications.- Chapter 5. Biorefining Agro-Industrial Waste into Green Nanomaterials for Sustainable Agriculture.- Chapter 6. Nanobiotechnology for sustainable food preservations and shelf-life enhancement.- Chapter 7. Eco-friendly production of antimicrobial nanoparticles for sustainability.- Chapter 8. Nano-Biosensors for Detecting Microbial Pathogens in Agriculture.- Chapter 9. Revolutions in Biotic Stress Management and Sustainable Agriculture through microbial-mediated Nanoformulation.- Chapter 10. From Lab to Landfill: Exploring Nanobiotechnological Approaches for E-Waste Remediation and Environmental Sustainability.- Chapter 11. Impact of microbial nanobiotechnology on the economy of developing countries.- Chapter 12. Nanotechnology and Microbes: Revolutionizing Water Management.- Chapter 13. Bioengineered Nano-sorbents: Microbial Allies in Pollutant Sequestration.- Chapter 14. Bioremediation of various industrial effluents utilizing microorganism-assisted nanotechnology within a circular economy.- Chapter 15. Microorganism-assisted bionanotechnology for textile dye wastewater treatment.

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Book SynopsisIntroduction to Nanoparticles in Neurology.- Nanoparticles mediated gene therapy for Neurological disorders.- Nanoparticle Based Imaging Techniques in Neurological Disorders.- Nanoparticles mediated treatment for brain tumors.- Role of Nanoparticles in Neurological Regeneration and Repair.- Nanoparticle-Based Biomarkers for Neurological Disorders.- Nanoparticle-Mediated Therapy for Alzheimer's Diseases.- Curcumin-Loaded Nanoparticles in Neurodegenerative Diseases: Alzheimer's, Parkinson's, and Amyotrophic Lateral Sclerosis.- Gold Nanoparticles in Neurological Therapeutics.- Carbon-Based Nanoparticles for Neural Regeneration.- Lipid-Based Nanoparticles for Neurological Drug Discovery.

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Book Synopsis1. TiO2 nanomaterials: Synthesis, properties, modifications, and applications.- 2. Synthesis and Characterizations of Hybrid TiO2 Based Multifunctional Nanomaterials.- 3. TiO2 SOL-GEL NANOMATERIALS: SYNTHESIS, PROPERTIES AND APPLICATIONS.- 4. Recent Advances in Titanium Dioxide Nanotube Synthesis: A Comprehensive Review.- 5. TiO2-based heterostructure coatings for photocatalytic water purification.- 6. SERS Application of Titanium Dioxide Based Nanomaterials in Health and Environmental Monitoring.- 7. One-dimensional TiO2 Nanostructures for the Degradation of Emerging Contaminants.- 8. Advancing Sunscreen Technology with Multifunctional Hybrid Titanium Dioxide Nanoparticles.- 9. PROPERTIES OF PHOTOCATALYTICALLY ACTIVE TiO2 NANOPARTICLES AND PROSPECTS FOR THEIR APPLICATIONS IN AGRICULTURE.- 10. Recent Development and Future Prospects of Hierarchical Nanostructures of TiO2 in Energy Applications.- 11. Exploring TiO2-based catalysts for seawater splitting: Mechanistic insights and efficiency in hydrogen and oxygen evolution reactions.- 12. Biomedical Applications of TiO2-based Nanomaterials.- 13. Titanium Dioxide-Based Multifunctional Hybrid Nanomaterials: A Comprehensive Study of their Biological Applications.- 14. Antibacterial Applications of TiO2 Based Hybrid Semiconductor Nanomaterials: Recent Advances and Future Prospects.- 15. TiO2 hybrid nanomaterials for electrochemical sensing and biosensing applications.

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Book SynopsisCurrent overview of nano-solutions in water and wastewater management.- Nanotechnology-Based Adsorption and Membrane Processes for Water and Wastewater Treatment.- Nanomaterials for Heavy Metal Removal from Water and Wastewater.- Nanotechnology for the Elimination of Emerging Contamination in Wastewater Treatment.- Nanomaterial-Based Filtration Technologies for Particle and Colloid Removal.- Sensing and efficient removal of polycyclic aromatic hydrocarbons (PAHs) in (waste) water using nanomaterials.- Insights into Nanofiltration and Reverse Osmosis Membranes for Water Purification.- Nanotechnological Approaches in Desalination and Brackish Water Treatment.- Nanomaterial-Enhanced Catalytic Processes for Wastewater Treatment.- Nanotechnology in Advanced Oxidation Processes for Water Remediation.- Waste dye removal with nanotechnological methods: photocatalytic processes.- Nanostructured Catalysts for Sustainable Water Treatment.- Nanomaterial-Based Sensors and Monitoring Devices for Water Quality Assessment.- Advancements in Real-Time Water Quality Monitoring: Integrating Sensing Technology, ICT, and Data-driven Approaches.- Integration of artificial intelligence in aquaculture water management.- Intelligent Monitoring and Control Systems for Smart Water Management.- Nano-enabled Microbial Control and Disinfection in Water and Wastewater.- Integration of Advanced Biological Processes and Nanotechnology for Sustainable Wastewater Treatment.- Polymer Nanocomposites: A Promising Approach to treat Tannery Wastewater.- Nanotechnology in Infrastructure of Urban Water: Enhancing Resilience and Efficiency.- Challenges and Future Perspectives in Nanotechnology for Sustainable Water and Wastewater Management.- Application of nano-based solutions for water and wastewater management through science and technological innovations for sustainable environmental and economic growth.

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Book Synopsis1. Green Nanotechnology Applications for Ecosystem Sustainability.- 2. Harnessing the silica mesoporous nanoparticles for sustainable agriculture.- 3. Green nanotechnology in manufacturing processes.- 4. Sensors Containing Hybrid Nanomaterials to Access Environmental Pollution Level.- 5. Green nanotechnology to remedy oil spills.- 6. Green nanotechnology for water purification.- 7. Water and Wastewater Treatment by Membrane-Separation Technology and Nanofiltration Membrane Applications.- 8. Green nanotechnology in food packing and preservation.- 9. Green nanotechnology for harnessing energy.- 10. Applications of green-synthesized nanoparticles in agriculture.

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Book Synopsis1. : Introduction to Graphene and Heavy Metal Contamination.- 2.Graphene-Based Adsorption Strategies for Heavy Metal Removal.- 3.Graphene Nanocomposites and Their Role in Heavy Metal Clean-up.- 4.Challenges and Future Directions in Graphene-Based Heavy Metal Remediation.

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Book SynopsisExosomes Unveiling their Vital Role in Diagnosis Prognosis and Therapeutic Advancements.- Green Synthesis Characterization and Biomedical Applications of Metal Nanocomposites.- Emerging Trends in Green Synthesis of Metal Nanocomposites and Biomedical Applications.- Exploring the Potential of Carbon Quantum Dots Green Synthesis Characterization and Diverse Applications in Biomedical Imaging Drug Delivery Biosensing and Theranostics.- A Complete Overview on Origin and Application of Carbon-Based Nanoparticle from Biomatter in Different Nanotheranostics Medical Applications.- Novel Nanomaterial Carbon Quantum Dots for Biomedical Application.- Cannabidiol in the Immune Response and Its Role in Nanotheranostics.- Piperlongumie Derivates Nanoparticles Causes Cell Death Induced by Oxidative Stress.- Advanced Green Synthesis Techniques of Metal Nanocomposites for Enhanced Biomedical Applications Investigating Biocompatibility Drug Delivery and Therapeutic Efficacy.- Non Thermal Atmospheric Pressure Plasma Fabricated Metal Nanocomposite and Their Biomedical Applications.- Emerging Advanced Green Synthesis of Carbon Nanocomposites and the Potential Biomedical Applications.- Metal Nanocomposite Strategies in Alzheimers and Parkinsons Diseases Nano Therapeutics.- Applications Self Assembled Biomolecules Based Nanostructures and Their Biomedical Applications.- Unveiling the Potential Green Synthesis and Characterizations of Metal Nanocomposites in Biomedical Applications.- Metal Nanoparticles Loaded Biomaterials for Wound Healing Applications.- Overcoming Multidrug Resistance in Chemotherapy: Nano Therapeutics with Metal Nanocomposites.- Metal and Metal Oxide Nanoparticles: A Pivotal Tool for Therapeutic and Diagnostic Applications.- Exploring Nano Bio Materials in Lung Cancer Therapy A Focus on Herbal Remedies Enhancing Herbal Efficacy Through Phytosomal Formulation.- Nano-Bio Materials in Agriculture and Food Sector.- Recent Biomedical Advances of Green Mediated Magnetic Nanoparticles.

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Book SynopsisPart 1: Role of Medicinal Plants in Nanoparticles Technology.- Green nanotechnology: Medicinal plants as nano-factories. Role of phytocompounds: Synergism between nanomaterial and medicinal plants.- Part 2: Application of Medicinal Plant-derived Nanoparticles Against Bacterial Pathogens.- Medicinal plant-derived nanoparticles against foodborne pathogens.- Medicinal plant-derived nanoparticles against Gram-negative bacteria.- Medicinal plant-derive nanoparticles against biofilm-forming bacteria.- Rise of Multiple Drug Resistant Bacteria: Need for alternatives.- Mechanistic insights: Behaviour of nanomaterial in bacterial environment.-  Part 3: Application of Medicinal Plant-derived Nanoparticles Against Fungal Pathogens.- Global burden of fungal infections and medicinal plant-based treatments.- Medicinal plant-derived nanoparticles against disease-causing fungi.- Medicinal plant-derived nanoparticles against pathogenic Candida species.- Part 4: Role of Medicinal Plant-derived Nanoparticles Against Cancers.- Emerging Hope Beyond Chemotherapy: Phyto-nanotechnology Fights Cancer.- Role of Medicinal Plant-derived Nanoparticles Against Cancers.- Boosting Immunotherapy: Nanoparticles aiding body’s defence.- Mechanism of Action: Nanoparticles targeting Tumors.- Part 5: Role of Medicinal Plant-derived Nanoparticles Against Chronic Diseases.- Shaping the Future of Chronic Diseases: A phyto-mediated natural approach.- Role of Medicinal Plant-derived Nanoparticles Against Chronic Diseases. Phytomediated nanoparticles and Diabetes.- Cardiovascular Health: Green Nanoparticles and heart health.- Neurodegenerative Diseases: Nanotechnology to Rescue.- Respiratory Disorders: Breath Healthy with Green Nanotechnology.

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Book SynopsisNanotechnology is increasingly being utilized within the food industry to create innovative products with new or improved properties. This book introduces the history of nanotechnology applications in the food industry. It then discusses the key physicochemical and structural characteristics of the different kinds of nanoparticles found in foods, as well as showing how these characteristics lead to their unique functional attributes. Applications of nanotechnology in the food and agricultural industries are then covered, including the creation of nanopesticides, nanofertilizers, nutrient delivery systems, functional ingredients, smart packaging materials, nanofilters, and sensors, as well as for the conversion of waste materials into value-added products. Finally, the potential toxicity of both organic and inorganic nanoparticles found in foods is critically assessed. The author is a Distinguished Professor of food science who uses physics, chemistry, and biology to improve the quality, safety, and healthiness of foods. He has published over a thousand scientific articles and numerous books in this area and is currently the most highly cited food scientist in the world. He has won numerous awards for his scientific achievements. The aim of this book is to provide scientists and technologists with an understanding of the basic principles of nanotechnology and how they can be used in the food and agricultural industry to improve the quality, sustainability, safety, and healthiness of our foods.

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Book SynopsisExperience the eco-friendly breakthrough in corrosion mitigation through functionalized thin fi lm coatings! This book delves deep into the cutting-edge advancements in synthesizing and applying functionalized thin fi lm coatings to safeguard metals and alloys by replacing commercially available toxic inhibitors. It includes an overview, of properties, applications, and methodologies to detect and inhibit corrosion.

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Book SynopsisRecently, surface-engineered and modified nanomaterials have been developed as corrosion inhibitors for different metals alloys in coating and solution phases. This book covers current emerging trends and applications in nanomaterials and nanotechnologies and their applications in corrosion prevention. It offers synthesis, surface modification for enhanced dispersibility and protection, composite formation and their anticorrosive applications.

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Book SynopsisNanocatalysis, a subdiscipline of nanoscience, seeks to control chemical reactions by changing the size, dimensionality, chemical composition, and morphology of the reaction center and by changing the kinetics using nanopatterning of the reaction center. This book offers a detailed pedagogical and methodological overview of the field. Readers discover many examples of current research, helping them explore new and emerging applications.Trade ReviewFrom the reviews: "This book is one in the series Nanoscience and Technology by Springer. It should be useful to chemists, chemical engineers, and material scientists entering the field of nanocatalysts as well as to experts already in the area. … this book on the whole is an excellent contribution. It could be used as a textbook, reference, and starting point for other books in this series. It is easy to read and well organized as well as contains a significant number of graphics of all types." (Steven L. Suib, Journal of the American Chemical Society, Vol. 129 (21), 2007)Table of ContentsChemical and Catalytic Properties of Size-Selected Free and Supported Clusters.- Theory of Metal Clusters on the MgO Surface: The Role of Point Defects.- Catalysis by Nanoparticles.- Lithographic Techniques in Nanocatalysis.- Nanometer and Subnanometer Thin Oxide Films at Surfaces of Late Transition Metals.- Catalytic Applications for Gold Nanotechnology.

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Book SynopsisDieses Essential vermittelt einen grundlegenden Einblick in die Systemische Bionik als Grenzen überwindende Disziplin. Der Autor erläutert auf leicht verständliche Weise, welchen Wert die Bionik für ganzheitliche Problemlösungen bietet und welche Rolle eine intakte Natur dabei spielt. Wegweisend und zielführend bei diesem systembionischen Vorgehensmodell ist das Erkennen von Zusammenhängen in Natur und Technik.Table of ContentsHistorischer Blick nach vorn.- Schlüsselbegriffe der Systemischen Bionik.- Bionik als System.- Epilog mit Blick in eine unsichere Zukunft.

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Book SynopsisHäufig liegen natürliche und technische partikuläre Nanomaterialien (NM) in Formulierungen (i.d.R. Suspensionen, Emulsionen oder Suspoemulsionen) und Produkten vor, welche aus mehreren dispersen Phasen und komplexen Dispersionsmedien bestehen. Dabei gilt es, spezifische Grenzflächeneigenschaften der Partikel, ihre Wechselwirkungen untereinander und mit dem Dispersionsmedium zu berücksichtigen. Beispielsweise bestimmen die Grenzflächeneigenschaften, ob sich die Partikel eher in wässriger Phase oder in Lipidphase bzw. an deren Phasengrenzen anordnen. Die Grenzflächeneigenschaften werden maßgeblich durch die Adsorption gelöster Spezies beeinflusst, hängen also von der Zusammensetzung des Dispersionsmediums ab. In dieser Arbeit werden mit theoretischer und empirischer Forschung wie methodischer Vorgehensweise neue Beiträge zur Nanopartikelcharakterisierung erarbeitet. Die notwendige Ausarbeitung von Richtlinien an SOPs für die Charakterisierung von Nanopartikelsystemen wird hierbei berücksichtigt. Diese Richtlinien ermöglichen eine Anwendung im Kontext verschiedenartiger Analyseaufgaben, und die Ergebnisse können dem Leser dieser Arbeit unmittelbar Nutzen bringen.Table of ContentsEinleitung und Einordnung.- Stand der Technik und des Wissens.- Grundzüge der Charakterisierung von flüssigen Nanopartikelsystemen.- Materialien und Methoden.- Wissensgenerierende Experimente.- Demonstrationsexperimente.- Fazit und Diskussion

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Book SynopsisThis comprehensive handbook has become the definitive reference work in the field of nanoscience and nanotechnology, and this 4th edition incorporates a number of recent new developments. It integrates nanofabrication, nanomaterials, nanodevices, nanomechanics, nanotribology, materials science, and reliability engineering knowledge in just one volume. Furthermore, it discusses various nanostructures; micro/nanofabrication; micro/nanodevices and biomicro/nanodevices, as well as scanning probe microscopy; nanotribology and nanomechanics; molecularly thick films; industrial applications and nanodevice reliability; societal, environmental, health and safety issues; and nanotechnology education. In this new edition, written by an international team of over 140 distinguished experts and put together by an experienced editor with a comprehensive understanding of the field, almost all the chapters are either new or substantially revised and expanded, with new topics of interest added. It is an essential resource for anyone working in the rapidly evolving field of key technology, including mechanical and electrical engineers, materials scientists, physicists, and chemists.Table of ContentsIntroduction to Nanotechnology.- Molecule-Based Devices.- Introduction to Micro-/Nanofabrication.- Three-Dimensional Nanostructure fabrication by Focused-Ion Beam, Electron Beam and Laser Beam.- Nanoimprint Lithography.- Stamping Techniques for Micro- and Nanofabrication.- Materials Aspects of Micro-and Nanoelectromechanical Systems.- Introduction to Carbon Nanotubes.- Nanowires.- Nanoribbons.- Nanoparticles and Applications in Nanotechnology.- Graphene.- MEMS/NEMS Devices and Applications.- Single-Walled Carbon Nanotube Sensor Concepts.- Nanomechanical Cantilever Array Sensors.- Microfluidic Devices and their Applications.- Microfluidic Micro/Nano Droplets.- Nanorobotics.- Applications of MEMS to Cell Biology.- Contact-free Mechanical Manipulation of Biological Materials.- Nano-Particles for Biomedical Applications.- Biological Molecules in Therapeutic Nanodevices.- Scanning Probe Microscopy - Principle of Operation, Instrumentation and Probes.- Low-Temperature Scanning Probe Microscopy.- Biomedical Sensing with the Atomic Force Microscope.- Superresolution Microscopy.- Nanotribology, Nanomechanics and Materials Characterization.- Surface forces and nanorheology of molecularly thin films.- Atomic Scale Friction Phenomena.- Computer Simulations of Nanometer-Scale Indentation and Friction.- Cellular Nanomechanics.- Mechanical Properties of Nanostructures and Scale Effects.- Nanotribology of Ultrathin and Hard Amorphous Carbon Films.- Self-Assembled Monolayers for Nanotribology and Surface Protection.- Nanoscale Boundary Lubrication Studies.- Plant Surfaces: Structures and Functions for Biomimetic Applications.- Bioinspired Nanostructured Anti-Biofouling and Anti-inorganic Surfaces.- MEMS/NEMS and BioMEMS/BioNEMS: Tribology, Mechanics, Materials and Devices.- Friction and Wear in Micro and Nanomachines.- Failure Mechanisms in MEMS/NEMS Devices.- Mechanical Properties of Micromachined Structures.- High Volume Manufacturing and Field Stability of MEMS Products.- Packaging and Reliability Issues in Micro/Nano Systems.- Nanotechnologies in Societal Context.- Environment, Health and Safety Issues in Nanotechnology.- Nanoscience and Nanotechnology Convergence.- Global Perspectives of Nanotechnology Education.

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