Chemistry Books

Book SynopsisPolymers are analyzed to determine their properties and characteristics in order to select the best material for a specific purpose, and to determine why a material has failed. Polymer laboratories use a variety of analytical techniques such as Fourier Transfer Infrared Spectroscopy (FTIR), High Performance Liquid Chromatography.Trade Review"an invaluable guide to all analysts and polymer engineers in industrial and academic laboratories: it can therefore be recommended without any reservations." (Macromolecular Chemistry and Physics, Vol.202, No.6, 2001)Table of ContentsPreface xxxi About the Author xxxiii Acknowledgements xxxv Glossary xxxvii 1 A Methodology for Solving Polymer Problems 1 1 Introduction 1 2 Flow Diagram for Solving Polymer Problems 4 3 Dealing with Special Problem Classes 12 4 Product Life Cycle 15 5 Checklist and Worksheet for Organizing the Problem-Solving Process 17 References 20 2 Sampling and Sample Preparation 21 1 Introduction 21 2 Sampling 22 3 Sample Storage 23 4 Sample Preparation 24 References 36 3 Microscopy of Polymers 37 1 Optical Microscopy Techniques 37 2 Electron Microscopy 55 3 Special Microscopic Techniques 60 4 Practical Examples of the Uses of Microscopy in Polymer Analysis 65 References 70 4 Fourier-Transform Infrared Spectroscopic Analysis Methods for Polymers 71 1 Introduction 71 2 FTIR Techniques 73 3 Special IR Techniques 84 4 Sample Preparation 87 5 FTIR Analysis of Difficult Sample Forms 93 6 Interpreting and Validating FTIR Data 101 7 Derivatization Techniques 105 References 106 5 Thermal Analysis of Polymers 107 1 Introduction 107 2 Differential Scanning Calorimetry 108 2.2.11 Evaluating Heat Ageing of Amorphous Polymers 121 3 Dynamic Mechanical Thermal Analysis 129 4 Dynamic Mechanical Rheological Testing 131 5 Thermomechanical Analysis 132 6 Glass Transition Temperature and its Determination 133 7 Thermogravimetry 138 8 Thermal Volatilization Analysis 145 References 145 6 Identification and Analysis of Polymers 147 1 Introduction 147 2 Examples of Analytical Techniques used for Common Polymers 153 7 Analysis of Blends, Copolymers and Oligomers 193 1 Polymer Blends 193 2 Copolymers 201 3 Oligomers 206 References 213 8 Identification and Analysis of Thermoset Elastomers 215 1 Thermogravimeny 215 2 FTIR Spectroscopic Analysis of Carbon-Filled Rubbers 222 3 Rubber Identification by Pyrolysis Methods 223 4 Analysis of Specific Rubber Types 224 References 228 9 Analysis of 'Difficult' or Intractable Polymer Samples 230 l Introduction 230 2 FTIR Spectroscopic Techniques for Difficult Samples 230 3 Pyrolysis of Intractable Samples 233 4 Thennogravimetry 236 5 Laser-Desorption Fourier-Transfonn Mass Spectrometry 237 References 239 10 Analysis of Additives in Polymers and Elastomers 240 1 Introduction 240 2 Grinding 241 3 Additive Extraction 242 4 Analysis Methods 248 5 In situ Additive Analysis in Rubbers 259 6 Miscellaneous Examples of Additive Analysis Methods 260 References 268 11 Analysis of Contaminants and Inclusions in Polymers 270 1 Introduction 270 2 Classes of Typical Contamination 271 3 Techniques for Analysis of Contamination 280 3.1 Optical Microscopy 280 4 Gel Particles and other Inclusions 288 References 302 12 Mechanical Failure Mechanisms of Polymers 304 1 Introduction 304 2 Tensile Failure 310 3 Shear Failure 310 4 Compressive Failure 311 5 Crazing 311 6 Shear Banding 313 7 Creep 315 8 Fatigue Failure 317 8.1 Introduction 317 9 Impact Fracture 324 10 Physical Ageing 330 11 Failure Due to Temperature Effects 333 11.1 Maximum- and Minimum-Use Temperatures 333 12 Failure Due to Improper Processing 336 13 General Examples of Polymer Failure 339 14 Failure of Medical Plastics 352 15 Failure of Polymers and Elastomers by Explosive Decompression 352 16 Failure Analysis by Fractography 359 References 361 13 Chemical Attack of Polymers 363 1 Introduction 363 2 Factors Determining Chemical Resistance 365 3 Types of Chemical Attack 365 4 Analysis Methods for Assessing Chemical Degradation 391 5 Case Study 395 References 395 14 Oxidative Degradation of Polymers 397 1 Introduction 397 2 Accelerated Ageing Techniques 410 3 Testing Methods 414 References 443 15 Failure of Fibre-Reinforced Composites 449 1 Introduction 449 2 Fibre Adhesion in Composites 452 3 Failure of Composites due to Manufacturing and Cure-Related Factors 454 4 Failure Behaviour of Composites 458 5 Failure of Composites due to Thermal Effects 471 6 Effects of Moisture on Composites 473 7 Chemical Attack on Composites 474 8 Oxidative Degradation 475 9 Photo-Oxidative Degradation of Fibre Reinforcements 475 10 Radiation Degradation of Composites 476 11 Failure Testing of Composites 476 12 Fractography of Composites 477 References 480 16 Problems Related to Additives in Polymers 482 1 Introduction 482 2 Blooming 482 3 Sublimation 487 4 Plateout 488 5 Die Drool 489 6 Bleeding 490 7 Additive Migration 491 8 Additive Interactions 492 9 Additive Decomposition 496 10 Additive-Induced Polymer Decomposition 502 11 Additive Dispersion Problems 507 12 Effect of Additives on the Polymers Mechanical Properties 514 13 Pigment-Induced Distortion 515 14 Abrasion 516 References 516 17 Weathering of Polymers 518 1 Introduction 518 2 Preliminary Investigations 522 3 Case Studies 523 4 Problems with Other Polymer Types and Applications 536 5 Polymer Weatherability Assessment (Accelerated Weathering) 541 References 545 18 Environmental Stress Cracking of Polymers 546 1 Introduction 546 2 ESC Mechanisms 549 3 Special Applications where ESC is likely to Occur 554 4 Testing Methods to Determine ESC Resistance 556 5 Surface-Tension and Solubility-Parameter Effects 561 6 ESC Behaviour of Particular Polymers 563 7 Investigating an ESC Failure 578 8 ESC Case Study 581 References 585 19 Residual Stresses and Weld Lines in Polymers 587 1 Introduction 597 2 Residual Stresses and Molecular Orientation 590 3 Weldlines 607 4 Shrinkage and Warpage 617 References 619 20 Odour, Tainting and Outgassing Problems with Polymers 622 1 Odour Problems in Polymers 622 2 Taste and Off-Flavours 632 3 Out-Gassing 636 4 Volatiles in Polymers and Their Detection 640 References 645 21 Adhesion Problems with Polymers and Interfaces 647 1 Introduction 647 2 Case Studies 649 3 Common Classes of Polymerie Adhesives 660 4 Common Causes of Adhesive Failure 662 References 668 22 Voids, Blisters and Surface Defects 670 1 Voids 670 2 Blisters 683 3 Surface Defects 689 References 691 23 Discoloration of Polymers 692 1 Introduction 692 2 Polyolefins 697 3 Aromatic Polymers Containing Ph–O or Ph–N Linkages 716 4 Aromatic Polymers containing Ph–C=O or Ph–S Linkages 721 5 Nitrile Polymers 726 6 Vinyl Polymers 729 7 Miscellaneous Polymers 733 8 Radiation Yellowing 736 References 738 Index 741

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Book SynopsisThe Chemistry of Heterocyclic Compounds, since its inception, has been recognized as a cornerstone of heterocyclic chemistry. Each volume attempts to discuss all aspects properties, synthesis, reactions, physiological and industrial significance of a specific ring system. To keep the series up-to-date, supplementary volumes covering the recent literature on each individual ring system have been published. Many ring systems (such as pyridines and oxazoles) are treated in distinct books, each consisting of separate volumes or parts dealing with different individual topics. With all authors are recognized authorities, the Chemistry of Heterocyclic Chemistry is considered worldwide as the indispensable resource for organic, bioorganic, and medicinal chemists.Table of ContentsPhysical and Theoretical Aspects of 1H-Pyrroles (D.Chadwick). The Synthesis of 1H-Pyrroles (G. Bean). Reactivity of the 1H-Pyrrole Ring System (A. Jackson, etal.). Physical and Theoretical Aspects, Synthesis, and ChemicalReactivity of 2H- and 3H-Pyrroles (M. Sammes). Index.

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Book SynopsisThe standard work on laboratory analysis of musts and wines, fully updated to cover modern procedures and practice. This second edition contains new material on the use of HPLC, GC, and mass spectrometry; computerized dispensing, recording, and calculation of results; and expanded coverage of statistical analysis. Also includes new material on the detection and measurement of undesirable residues, pesticide degradation products, and trace amounts of naturally produced toxic compounds or carcinogens, reflecting the increased interest of regulatory agencies. Contains hundreds of citations to the research literature.Table of ContentsSampling. Soluble Solids. Acidity and Individual Acids. Alcohols. Carbonyl Compounds. Esters. Nitrogen Compounds. Phenolic Compounds. Chemical Additions. Other Constituents. Gases. Wine Color. General Chemical and Equipment Information and Theory. Index.

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Book SynopsisThe Chemistry of Heterocyclic Compounds, since its inception, has been recognized as a cornerstone of heterocyclic chemistry. Each volume attempts to discuss all aspects properties, synthesis, reactions, physiological and industrial significance of a specific ring system. To keep the series up-to-date, supplementary volumes covering the recent literature on each individual ring system have been published. Many ring systems (such as pyridines and oxazoles) are treated in distinct books, each consisting of separate volumes or parts dealing with different individual topics. With all authors are recognized authorities, the Chemistry of Heterocyclic Chemistry is considered worldwide as the indispensable resource for organic, bioorganic, and medicinal chemists.Table of ContentsHalogenated and Metallated Isoquinolines and Their HydrogenatedDerivatives (M. Nair & M. Premila). Isoquinoline Carboxylic Acids and Their Hydrogenated Derivatives(F. Popp & F. Duarte). Isoquinolines Containing Basic Functions at the Ring and TheirHydrogenated Derivatives (I. Mathison & W. Solomons). Isoquinolines Containing Oxidized Nitrogen Functions and TheirHydrogenated Derivatives (J. Bunting). Index

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Book SynopsisAn introduction to electrochemical methods and their use in the synthetic laboratory. Covers the major organic electrochemical pathways of synthetic interest, while de-emphasizing the mechanistic literature. For each functional group covered, the essential features of its electrochemical behavior are outlined, including the presumed intermediates. This Second Edition has been revised, covering the literature through early 1988, and presents useful electrochemical reactions superior to, and, in some cases, without counterparts in, conventional chemical methods.Table of ContentsElectrochemical Principles. Techniques for Investigation of Electrode Reactions. Manipulation of Experimental Parameters. Cleavage of Single Bonds. Reduction of Multiple Bonds. Electrochemical Reduction of Conjugated Systems. Oxidation Processes. Indirect Electrolysis: Electrocatalysis and ElectrogeneratedReagents. Demystifying Electrochemistry: Equipment and Experiments. Appendix. Index.

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Book SynopsisProvides a description of the thermodynamic model, data treatment procedures and the thermodynamic constants for hydrous ferric oxide. Includes detailed coverage of the model and the parameter extraction procedure.Table of ContentsThe Generalized Two-Layer Model. Experimental Data. Data Compilation and Treatment Methods. Properties of Hydrous Ferric Oxide, Cation Sorption on HydrousFerric Oxide. Anion Sorption on Hydrous Ferric Oxide. Use of the Model and Data Base. The Coulombic Effect. Coherence and Extrapolation of Results. References. Appendices. Author Index. Subject Index.

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Book SynopsisWith contributions from many of the worlda s leading scientists in the field of dendritic research and development, Dendrimers and Other Dendritic Polymers provides a comprehensive review of this rapidly expanding and exciting new field of polymer science.Trade Review"a key work of reference...all serious scientific libraries should acquire a copy." (Reactive & Functional Polymers) "...this book provides a comprehensive review of this rapidly expanding and exciting new field...no doubt very valuable for both academic and industrial scientists, and deserves to be on the shelves of polymer research labs and institutional libraries." (Polymer News) "...provides an overview of the field..." (SciTech Book News, Vol. 26, No. 2, June 2002) "...an excellent introduction...a good reference...will be highly useful..." (Pharmaceutical Research, Vol. 19, No. 12, December 2002) "...a rich source of information..." (Angewandte Chemie International Edition, Vol. 42, 2003)Table of ContentsContibutors. Series Preface. A Brief Historical Perspective (D.A. Tomalia naad J.M.J. Frecht) B>I Introduction and Progress in the Control of Macromolecular Architecture Introduction to the Dendritic State (D.A. Tomalia and J.M. Frechet) Structure Control of Linear Macromolecules (C.J. Hawker) Progress in the Branched Architectural State (J. Roovers) Developments in the Accelerated Convergent Synthesis of Dendrimers (A.W. Freeman and J.M.J. Frechet) Formation, Structure and Properties of the Crosslinked State Relative to Precursor Architecture (K. Dusek and M. Duskova-Smrckova) Regioselectively-Crosslinked Nanostructures (C.G. Clark Jr and K. L. Wooley) Hybridization of Architectural States: Dendritic-linear Copolymer Hybrids (P.R.L. Malenfant and J.M.J. Frechet) Statistically Branched Dendritic Polymers (E. Malmstrom and A. Hult) Semi-Controlled Dendritic Structure Synthesis (R.A. Kee et al) II Characterization of Dendritic Polymers Gel Electrophoretic Characterization of Dendritic Polymers (C. Zhang and D.A. Tomalia) Characterization of Dendritically Branched Polymers by Small Angle Neutron Scattering (SANS), Small Angle X-ray Scattering (SAXS), and Transmission Electron Microscopy (TEM) (B.J. Bauer and E.J. Amis) Atomic Force Microscopy for the Characterization of Dendritic Polymers and Assemblies (J. Li and D.A. Tomalia) Characterization of Dendrimer Structures by Spectroscopic Techniques (N.J. Turro et al) Rheology and Solution Properties of Dendrimers (P. Dvornic and S. Uppuluri) III Properties and Applications of Dendritic Polymers Dendritic and Hyperbranched Glycoconjugates as Biomedical Anti-Adhesion Agents (R. Roy) Some Unique Features of Dendrimers based upon Self-assembly and Host-Guest Properties (J. Weener et al) Dendritic Polymers: Optical and Photchemical Properties (D.L. Jiang and T Aida) Bioapplications of PAMAM Dendrimers (J.D. Eichman et al) Dendrimer-Based Biological Reagents: Preparation And Applications in Diagnostics (P. Singh) Dendritic Polymer Applications: Catalysts (A.W. Kleij et al ) Optical Effects Manifested by PAMAM Dendrimer Metal Nano-Composites (T. Goodson III) Dendrimers in Nanobiological Devices (S.C. Lee) Antibodies to PAMAM dendrimers: Reagents for immune detection, patterning and assembly of Dendrimers (S.C. Lee et al) IV Laboratory Preparation of Dendrimers and Conclusion Preparation of 'Frechet-type' Polyether Dendrons and Aliphatic Polyester Dendrimers by Convergent Growth: an experimental primer (J.M.J. Frechet et al) Laboratory Synthesis of Poly(amidoamine) (PAMAM) Dendrimers (R. Esfand and D.A. Tomalia) Synthesis and Characterization of Poly(Propylene imine) Dendrimers (M.H.P. van Genderen et al) Laboratory Synthesis and Characterization of Megamers: Core-shell Tecto(dendrimers) (D.A. Tomalia) Conclusion/Outlook - Toward Higher Macromolecular Complexity in the Twenty-first Century (D.A. Tomalia and J.M.J. Frechet) Index

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Book SynopsisAddressing some of the most challenging issues of the industrial world today including, risk and security, green building design, design for green chemistry, globalization, and corporate responsibility, this book provides managers with a practical framework to identify and assess options for improving the sustainability of their firm.Trade Review"...an excellent description of the state of the chemical industry with regard to sustainability...it is a daunting, virtually impossible task to do credit to the wide-ranging discussion in this book." (Journal of Hazardous Materials, August 2006) "...a very significant addition to the efforts to advance sustainable development. It will be widely read and applied by those who are working in the chemical industry." (Journal of Environmental Quality, March/April 2006)Table of ContentsForeword. Preface. 1. Introduction. 2. Addressing Sustainability in the Chemical Industry (Marianne Lines (BRIDGES to Sustainability)). 2.1 Introduction. 2.2 Understanding the Chemical Industry. 2.3 Drivers of Sustainability. 2.4 The Role of Responsible Care in Advancing Sustainable Development. 2.5 Challenges Ahead. 3. Views on Key Issues Facing the Chemical Industry. 3.1 Introduction (Marianne Lines (BRIDGES to Sustainability)). 3.2 The Chemical Industry and the Public: Will the Chemical Experiment Continue? (Beverley Thorpe (Clean Production Action)). 3.3 Risk Assessment. 3.4 The Limits of Risk Management and the New Chemicals Policies (Ken Geiser (Lowell Center for Sustainable Production, University of Massachusetts–Lowell)). 3.5 Impacts to Human Health and the Environment. 3.6 Impacts of, and Issues Associated with, Chemical Production from Manufacture to Final Use and Disposal (Richard Sigman (Organisation for Economic Co-Operation and Development [OECD])). 3.7 Closing the Gap on Chemical Plant Security (Agnes M Shanley (Pharmaceutical Manufacturing Magazine)). 3.8 Economic Issues and Competitiveness (Peter H Spitz (Chemical Advisory Partners)). 4. Planning for Sustainability (Beth Beloff (BRIDGES to Sustainability)). 4.1 Introduction. 4.2 GEMI’s Approach to Sustainable Development Planning (Elizabeth C Girardi Schoen (Pfizer, Inc.), Stephen Poltorzycki (The Boston Environmental Group)). 4.3 Environmental Management Systems (EMS) Frameworks for Sustainability. 4.4 The Natural Step Framework: Backcasting from Principles of Sustainability (Karl-Henrik Robe`rt (Blekinge Technical University and The Natural Step, Stockholm), Sissel Waage (The Natural Step, USA) and Dicksen Tanzil (BRIDGES to Sustainability)). 4.5 Natural Capitalism for the Chemical Industry (Catherine Greener (Rocky Mountain Institute)). 4.6 Sustainable Value in the Chemical Industry (Dave Sherman (Sustainable Value Partners)). 4.7 CSR/SRI Reporting Complexity and the Future 500 CAP Gap Audit: An Opportunity for Improved Strategic Business Planning and Stakeholder Alignment (Cate Gable (Future500)). 5. Designing for Sustainability. 5.1 Introduction. 5.2 Cradle-to-Cradle Material Assessment and Product Design (Lauren Heine (GreenBlue)). 5.3 Principles of Sustainable Engineering (Martin A Abraham (University of Toledo)). 6. Implementing Sustainable Development: Decision-Support Approaches and Tools. 6.1 Assessing Impacts: Indicators and Metrics. 6.2 Assessing Values: Costs and Benefits. 6.3 Auditing Sustainability Performance. 6.4 Reporting Sustainability Performance: Latest Trends in Corporate Reporting, New Tools, and Practices (Stephanie Meyer (Stratos Inc.)). 6.5 Security and Sustainability (Scott Berger (American Institute of Chemical Engineers [AIChE])). 6.6 Building Corporate Social Responsibility (Neil Smith and Joan Bigham (Smith O’Brien)). 7. Future Directions for the Chemical Industry. 7.1 Sustainable Directions for the Chemical Industry: A Look to the Future (Ken Geiser (Lowell Center for Sustainable Production, University of Massachusetts–Lowell)). 7.2 Rethinking Products. 7.3 New Directions. 8. The Business Case for Sustainable Development. 8.1 Introduction. 8.2 PricewaterhouseCoopers/ BRIDGES Survey Results) (Andrew Savitz, Douglas Hileman and Michael Besly (PricewaterhouseCoopers, LLP)). 8.3 Sustainability and Performance: An Overview (Karina Funk (Massachusetts Renewable Energy Trust)). 8.4 DuPont: Growing Sustainably (Dicksen Tanzil (BRIDGES to Sustainability), Dawn G Rittenhouse (DuPont), Beth R Beloff (BRIDGES to Sustainability)). 8.5 Business Value from Sustainable Development at shell (Mark Wade (Shell International Limited) and Joe Machado (Shell Chemical LP)). 8.6 Sustainable Development: An Integral Part of BASF’s Corporate Values (Ernst Schwanhold (BASF Aktiengesellschaft)). 8.7 The GSK Approach to Sustainable Development (David J C Constable, Alan Curzons, Ailsa Duncan, Concepcion Jiménez-González and Virginia L Cunningham (Glaxo Smith Kline, USA)). 8.8 Moving 3M Toward Sustainability: The Business Case for Sustainable Development (Keith J Miller (3M)). 8.9 Achieving Business Value: The Investment Community Perspective on the Importance of Including Environmental and Social Aspects in Valuations (Don Reed (ECOS Corporation)). 8.10 Investment Analysis: Dow and Bhopal, India (Marc Brammer (Innovest Strategic Value Advisors)). 8.11 Scientific, Political, and Investor Drivers of Chemical Industry Sustainability: An NGO Perspective (Richard Liroff (WWF)). 8.12 The Role of Leadership and Corporate Governance (David Robert Taschler (Air Products & Chemicals, Inc.)). Appendix 1: Responsible Care® Global Charter. Appendix 2: Directory of Standards and CSR-Related Organizations. Appendix 3: Author Biographies. Index.

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Book SynopsisFeatures: 1,100 mass spectra of well defined compounds; information including mass spectra, chemical structure, chemical name, molecular formula, molecular weight, base peak, reference, and measurement condition; and, chemical structures elucidated by a variety of techniques including NMR spectroscopy and single crystal X ray structure analysis.

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Book SynopsisThe last few years have seen an unprecedented drive toward the application of proteomics to resolving challenging biomedical and biochemical tasks. Separation techniques combined with modern mass spectrometry are playing a central role in this drive. This book discusses the increasingly important role of mass spectrometry in proteomic research, and emphasizes recent advances in the existing technology and describes the advantages and pitfalls as well. * Provides a scientifically valid method for analyzing the approximatey 500,000 proteins that are encoded in the human genome * Explains the hows and whys of using mass spectrometry in proteomic analysis * Brings together the latest approaches combining separation techniques and mass spectrometry and their application in proteome analysis * Comments on future challenges and how they may be addressed * Includes sections on troubleshootingTrade Review"I highly recommend this book for anyone planning to get involved in proteomics technology or for one who is already involved…it provides an entertaining insight on the field..." (Microbe, March 2006) "...a must reference for anyone interested in proteomics. For me, if Proteomics Today is not in my backpack it will be within arms reach as a great reference to have on hand as I plan future experiments." (Journal of the American Society for Mass Spectrometry, January 2006) "…the book is highly recommended to all scientists interested in protein separation science, and well-thumbed copies will certainly be present in every self-respecting proteomic laboratory." (Proteomics, July 2005) ‘This book is well written and thus easy to read. It contains valuable information and extensive references for readers from a variety of backgrounds.’ (Analytical and Bioanalytical Chemistry, 12 January 2007) "…well-written and thus easy to read. It contains valuable information and extensive references for readers from a variety of backgrounds." (Analytical and Bioanalytical Chemistry, January 2007) Table of ContentsPREFACE TO PART I. ACKNOWLEDGMENT. I: INTRODUCTION TO PART I. 1. INSTRUMENTATION AND DEVELOPMENTS. 1.1 Introduction. 1.2 Ionization Techniques for Macromolecules. 1.3 Examples on Analytical Solutions Based on FAB–MS. 1.4 Electrospray Ionization. 1.5 Matrix-Assisted Laser Desorption Ionization. 1.6 Ion Detection. 1.7 Types of Analyzers. 1.8 Hybrid Analyzers. 1.9 Tandem Mass Spectrometry. 1.10 Current MS Instrumentation in Proteome Analyses. 1.11 Current MS-Based Proteomics. 1.12 Recent Achievements and Future Challenges. 1.13 Concluding Remarks. References. 2. PROTEOMICS IN CANCER RESEARCH. 2.1 Introduction. 2.2 Pancreatic Ductal Adenocarcinoma. 2.3 Proteomic Analysis of Human Breast Carcinoma. 2.4 Proteomic Profiling of Chemoresistant Cancer Cells. 2.5 Signal Pathway Profiling of Prostate Cancer. 2.6 Emerging Role of Functional and Activity-Based Proteomics in Disease Understanding. 2.7 Activity-Based Protein Profiling. 2.8 Probing Protein Functions Using Chromophore-Assisted Laser Inactivation. 2.9 Role of Protein–Tyrosine Kinases. 2.10 Concluding Remarks and Future Prospects. References. 3. CURRENT STRATEGIES FOR PROTEIN QUANTIFICATION. 3.1 Introduction. 3.2 Global Internal Standard Technology. 3.3 Differential In-Gel Electrophoresis. 3.4 Quantification of Modified Proteins. 3.5 Comments and Considerations. 3.6 Other Approaches. 3.7 Emerging Role of Microfluidic Devices. 3.8 Concluding Remarks. References. II: PROTEOMICS TODAY: SEPARATION SCIENCE AT WORK. 4. CONVENTIONAL ISOELECTRIC FOCUSING IN GEL MATRICES AND CAPILLARIES AND IMMOBILIZED pH GRADIENTS. 4.1 Introduction. 4.2 Conventional Isoelectric Focusing in Amphoteric Buffers. 4.3 Immobilized pH Gradients. 4.4 Capillary Isoelectric Focusing. 4.5 Separation of Peptides and Proteins by CZE in Isoelectric Buffers. 4.6 Conclusions. References. 5. SODIUM DODECYL SULFATE–POLYACRYLAMIDE GEL ELECTROPHORESIS. 5.1 Introduction. 5.2 SDS–Protein Complexes: a Refinement of the Model. 5.3 Theoretical Background of Mr Measurement by SDS–PAGE. 5.4 Methodology. 5.5 Gel Casting and Buffer Systems. 5.6 Blotting Procedures. 5.7 Conclusions. References. 6. TWO-DIMENSIONAL MAPS. 6.1 Introduction. 6.2 Some Basic Methodology Pertaining to 2D PAGE. 6.3 Prefractionation Tools in Proteome Analysis. 6.4 Multidimensional Chromatography Coupled to MS. 6.5 Protein Chips and Microarrays. 6.6 Nondenaturing Protein Maps. 6.7 Spot Matching in 2D Gels via Commercial Software. 6.8 Conclusions. References. INDEX.

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Book SynopsisA unique introductory text on quantum mechanics, from basic principles to historical perspective. * Includes description of the historical developments that led to the discovery of QM, often left out of other textbooks.Trade Review"…the treatment of individual topics and concepts is very good and informative…" (Journal of Chemical Education, January 2005) "…this book serves as a skeletal summary of arguments presented in class...” (CHOICE, October 2004)Table of ContentsPreface xi 1 The Discovery of Quantum Mechanics 1 I Introduction 1 II Planck and Quantization 3 III Bohr and the Hydrogen Atom 7 IV Matrix Mechanics 11 V The Uncertainty Relations 13 VI Wave Mechanics 14 VII The Final Touches of Quantum Mechanics 20 VIII Concluding Remarks 22 2 The Mathematics of Quantum Mechanics 23 I Introduction 23 II Differential Equations 24 III Kummer’s Function 25 IV Matrices 27 V Permutations 30 VI Determinants 31 VII Properties of Determinants 32 VIII Linear Equations and Eigenvalues 35 IX Problems 37 3 Classical Mechanics 39 I Introduction 39 II Vectors and Vector Fields 40 III Hamiltonian Mechanics 43 IV The Classical Harmonic Oscillator 44 V Angular Momentum 45 VI Polar Coordinates 49 VII Problems 51 4 Wave Mechanics of a Free Particle 52 I Introduction 52 II The Mathematics of Plane Waves 53 III The Schrödinger Equation of a Free Particle 54 IV The Interpretation of the Wave Function 56 V Wave Packets 58 VI Concluding Remarks 62 VII Problems 63 5 The Schrödinger Equation 64 I Introduction 64 II Operators 66 III The Particle in a Box 68 IV Concluding Remarks 71 V Problems 72 6 Applications 73 I Introduction 73 II A Particle in a Finite Box 74 III Tunneling 78 IV The Harmonic Oscillator 81 V Problems 87 7 Angular Momentum 88 I Introduction 88 II Commuting Operators 89 III Commutation Relations of the Angular Momentum 90 IV The Rigid Rotor 91 V Eigenfunctions of the Angular Momentum 93 VI Concluding Remarks 96 VII Problems 96 8 The Hydrogen Atom 98 I Introduction 98 II Solving the Schrödinger Equation 99 III Deriving the Energy Eigenvalues 101 IV The Behavior of the Eigenfunctions 103 V Problems 106 9 Approximate Methods 108 I Introduction 108 II The Variational Principle 109 III Applications of the Variational Principle 111 IV Perturbation Theory for a Nondegenerate State 113 V The Stark Effect of the Hydrogen Atom 116 VI Perturbation Theory for Degenerate States 119 VII Concluding Remarks 120 VIII Problems 120 10 The Helium Atom 122 I Introduction 122 II Experimental Developments 123 III Pauli’s Exclusion Principle 126 IV The Discovery of the Electron Spin 127 V The Mathematical Description of the Electron Spin 129 VI The Exclusion Principle Revisited 132 VII Two-electron Systems 133 VIII The Helium Atom 135 IX The Helium Atom Orbitals 138 X Concluding Remarks 139 XI Problems 140 11 Atomic Structure 142 I Introduction 142 II Atomic and Molecular Wave Function 145 III The Hartree-Fock Method 146 IV Slater Orbitals 152 V Multiplet Theory 154 VI Concluding Remarks 158 VII Problems 158 12 Molecular Structure 160 I Introduction 160 II The Born-Oppenheimer Approximation 161 III Nuclear Motion of Diatomic Molecules 164 IV The Hydrogen Molecular Ion 169 V The Hydrogen Molecule 173 VI The Chemical Bond 176 VII The Structures of Some Simple Polyatomic Molecules 179 VIII The Hückel Molecular Orbital Method 183 IX Problems 189 Index 191

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Book SynopsisBased on harnessing the power of light, photonics is the information-processing counterpart of electronics, using photons instead of electrons to far more efficiently process or transmit information, whether that it is inside a microchip, a drug delivery device, or even a living cell.Trade Review"...belongs in the personal library of every researcher who is interested in entering the field...if 'Nanophotonics' had not already existed, it would have been necessary to write it." (Journal of the American Chemical Society, October 12, 2005) "…a blend of textbook, reference work and a very readable assessment of new applications…will likely be the seminal work in this field for some time." (E-STREAMS, September 2005) "...Prasad provides his readers with an introductory-level, multifaceted description of the field." (Journal of Biomedical Optics, May/June 2005) "Paras Prasad has once again produced an invaluable reference source related to photonics...an indispensable reference text for anyone endeavoring to learn or teach photonics…" (Physics Today, March 2005) "The book is well written and well illustrated, covers all the important concepts, and gives the right references. It is an invaluable single resource of information on nanophotonics.” (Journal of Metals Online, September 1, 2004)Table of ContentsPreface. Acknowledgments. 1. Introduction. 1.1 Nanophotonics—An Exciting Frontier in Nanotechnology. 1.2 Nanophotonics at a Glance. 1.3 Multidisciplinary Education, Training, and Research. 1.4. Rationale for this Book. 1.5 Opportunities for Basic Research and Development of New Technologies. 1.6 Scope of this Book. References. 2. Foundations for Nanophotonics. 2.1 Photons and Electrons: Similarities and Differences. 2.1.1 Free-Space Propagation. 2.1.2 Confinement of Photons and Electrons. 2.1.3 Propagation Through a Classically Forbidden Zone: Tunneling. 2.1.4 Localization Under a Periodic Potential: Bandgap. 2.1.5 Cooperative Effects for Photons and Electrons. 2.2 Nanoscale Optical Interactions. 2.2.1 Axial Nanoscopic Localization. 2.2.2 Lateral Nanoscopic Localization. 2.3 Nanoscale Confinement of Electronic Interactions. 2.3.1 Quantum Confinement Effects. 2.3.2 Nanoscopic Interaction Dynamics. 2.3.3 New Cooperative Transitions. 2.3.4 Nanoscale Electronic Energy Transfer. 2.3.5 Cooperative Emission. 2.4 Highlights of the Chapter. References. 3. Near-Field Interaction and Microscopy. 3.1 Near-Field Optics. 3.2 Theoretical Modeling of Near-Field Nanoscopic Interactions. 3.3 Near-Field Microscopy. 3.4 Examples of Near-Field Studies. 3.4.1 Study of Quantum Dots. 3.4.2 Single-Molecule Spectroscopy. 3.4.3 Study of Nonlinear Optical Processes. 3.5 Apertureless Near-Field Spectroscopy and Microscopy. 3.6 Nanoscale Enhancement of Optical Interactions. 3.7 Time- and Space-Resolved Studies of Nanoscale Dynamics. 3.8 Commercially Available Sources for Near-Field Microscope. 3.9 Highlights of the Chapter. References. 4. Quantum-Confined Materials. 4.1 Inorganic Semiconductors. 4.1.1 Quantum Wells. 4.1.2 Quantum Wires. 4.1.3 Quantum Dots. 4.1.4 Quantum Rings. 4.2 Manifestations of Quantum Confinement. 4.2.1 Optical Properties. 4.2.2 Examples. 4.2.3 Nonlinear Optical Properties. 4.2.4 Quantum-Confined Stark Effect. 4.3 Dielectric Confinement Effect. 4.4 Superlattices. 4.5 Core-Shell Quantum Dots and Quantum Dot-Quantum Wells. 4.6 Quantum-Confined Structures as Lasing Media. 4.7 Organic Quantum-Confined Structures. 4.8 Highlights of the Chapter. References. 5. Plasmonics. 5.1 Metallic Nanoparticles and Nanorods. 5.2 Metallic Nanoshells. 5.3 Local Field Enhancement. 5.4 Subwavelength Aperture Plasmonics. 5.5 Plasmonic Wave Guiding. 5.6 Applications of Metallic Nanostructures. 5.7 Radiative Decay Engineering. 5.8 Highlights of the Chapter. References. 6. Nanocontrol of Excitation Dynamics. 6.1 Nanostructure and Excited States. 6.2 Rare-Earth Doped Nanostructures. 6.3 Up-Converting Nanophores. 6.4 Photon Avalanche. 6.5 Quantum Cutting. 6.6 Site Isolating Nanoparticles. 6.7 Highlights of the Chapter. References. 7. Growth and Characterization of Nanomaterials. 7.1 Growth Methods for Nanomaterials. 7.1.1 Epitaxial Growth. 7.1.2 Laser-Assisted Vapor Deposition (LAVD). 7.1.3 Nanochemistry. 7.2 Characterization of Nanomaterials. 7.2.1 X-Ray Characterization. 7.2.1.1 X-Ray Diffraction. 7.2.1.2 X-Ray Photoelectron Spectroscopy. 7.2.2 Electron Microscopy. 7.2.2.1 Transmission Electron Microscopy (TEM). 7.2.2.2 Scanning Electron Microscopy (SEM). 7.2.3 Other Electron Beam Techniques. 7.2.4 Scanning Probe Microscopy (SPM). 7.3 Highlights of the Chapter. References. 8. Nanostructured Molecular Architectures. 8.1 Noncovalent Interactions. 8.2 Nanostructured Polymeric Media. 8.3 Molecular Machines. 8.4 Dendrimers. 8.5 Supramolecular Structures. 8.6 Monolayer and Multilayer Molecular Assemblies. 8.7 Highlights of the Chapter. References. 9. Photonic Crystals. 9.1 Basics Concepts. 9.2 Theoretical Modeling of Photonic Crystals. 9.3 Features of Photonic Crystals. 9.4 Methods of Fabrication. 9.5 Photonic Crystal Optical Circuitry. 9.6 Nonlinear Photonic Crystals. 9.7 Photonic Crystal Fibers (PCF). 9.8 Photonic Crystals and Optical Communications. 9.9 Photonic Crystal Sensors. 9.10 Highlights of the Chapter. References. 10. Nanocomposites. 10.1 Nanocomposites as Photonic Media. 10.2 Nanocomposite Waveguides. 10.3 Random Lasers: Laser Paints. 10.4 Local Field Enhancement. 10.5 Multiphasic Nanocomposites. 10.6 Nanocomposites for Optoelectronics. 10.7 Polymer-Dispersed Liquid Crystals (PDLC). 10.8 Nanocomposite Metamaterials. 10.9 Highlights of the Chapter. References. 11. Nanolithography. 11.1 Two-Photon Lithography. 11.2 Near-Field Lithography. 11.3 Near-Field Phase-Mask Soft Lithography. 11.4 Plasmon Printing. 11.5 Nanosphere Lithography. 11.6 Dip-Pen Nanolithography. 11.7 Nanoimprint Lithography. 11.8 Photonically Aligned Nanoarrays. 11.9 Highlights of the Chapter. References. 12. Biomaterials and Nanophotonics. 12.1 Bioderived Materials. 12.2 Bioinspired Materials. 12.3 Biotemplates. 12.4 Bacteria as Biosynthesizers. 12.5 Highlights of the Chapter. References. 13. Nanophotonics for Biotechnology and Nanomedicine. 13.1 Near-Field Bioimaging. 13.2 Nanoparticles for Optical Diagnostics and Targeted Therapy. 13.3 Semiconductor Quantum Dots for Bioimaging. 13.4 Up-Converting Nanophores for Bioimaging. 13.5 Biosensing. 13.6 Nanoclinics for Optical Diagnostics and Targeted Therapy. 13.7 Nanoclinic Gene Delivery. 13.8 Nanoclinics for Photodynamic Therapy. 13.9 Highlights of the Chapter. References. 14. Nanophotonics and the Marketplace. 14.1 Nanotechnology, Lasers, and Photonics. 14.1.1 Nanonetchnology. 14.1.2 Worldwide Laser Sales. 14.1.3 Photonics. 14.1.4 Nanophotonics. 14.2 Optical Nanomaterials. 14.2.1 Nanoparticle Coatings. 14.2.2 Sunscreen Nanoparticles. 14.2.3 Self-Cleaning Glass. 14.2.4 Fluorescent Quantum Dots. 14.2.5 Nanobarcodes. 14.2.6 Photonic Crystals. 14.2.7 Photonic Crystal Fibers. 14.3 Quantum-Confined Lasers. 14.4 Near-Field Microscopy. 14.5 Nanolithography. 14.6 Future Outlook for Nanophotonics. 14.6.1 Power Generation and Conversion. 14.6.2 Information Technology. 14.6.3 Sensor Technology. 14.6.4 Nanomedicine. 14.7 Highlights of the Chapter. References. Index.

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Book SynopsisBioremediation and Natural Attenuation: Process Fundamentals and Mathematical Models provides, under one cover, the current methodology needed by groundwater scientists and engineers in their efforts to evaluate contamination problems, to estimate risk to human health and ecosystems, and to design and formulate remediation strategies.Trade Review"…does a very good job of bringing together material form disparate sources…readers new to the field will be well served by it." (Ground Water, March-April 2007) "The topic is important; both theory and state-of-the-art are well discussed…this is an excellent book." (Journal of Hazardous Materials, September 1, 2006) “… a reference book for practitioners, regulators, and researchers dealing with contaminant hydrogeology and correction action.” (Environmental Geology, December 2006)Table of ContentsPreface. 1. Introduction to Bioremediation. 2. Geochemical Attenuation Mechanisms. 3. Biodegradation Principles. 4. Fundamentals of Ground Water Flow and Contaminant Transport Processes. 5. Fate and Transport Equations and Analytical Models for Natural Attenuation. 6. Numerical Modeling of Contaminant Transport, Transformation, and Degradation Processes. 7. Field and Laboratory Techniques to Determine Site-Specific Parameters for Modeling the Fate and Transport of Groundwater Pollutants. 8. Bioremediation Technologies. 9. Performance Assessment and Demonstration of Bioremediation and Natural Attenuation. Appendix A: Chemical Properties of Various Compounds. Appendix B: Free Energy and Thermodynamic Feasibility of Chemical and Biochemical Reactions. Appendix C: Commonly Used Numerical Groundwater Flow and Solute Transport Codes (Modified after Wiedemeier et al., 1999). Appendix D: Nonparametric Statistical Tests for Determining the Effectiveness of Natural Attenuation (after Wisconsin Department of Natural Resources). Appendix E: Critical Values of the Student t-Distribution. Glossary. Index.

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Book SynopsisThis excellent guide tells graduate students and other young scientists and engineers everything they need to know to help them work creatively and communicate their achievements in oral presentations and written publications. Also addressing the topics of scientific ethics, electronic publishing, and patents, this concise but comprehensive book will help answer many of the questions faced by novice researchers, thereby making their tasks seem less intimidating.Trade Review"...succeeds at its intent, which is to give good advice on basic skills necessary for a successful scientific career." (Physics Today, December 2005) "...essential for young scientists...as well as for experienced scientists who need to improve their communication skills." (Journal of Chemical Education, September 2005) "…a good book containing great advice on publishing and presenting scientific results, patenting scientific work, and the creative side of science." (Journal of Natural Products, August 2005) “designed to help young scientists to communicate their scientific achievements effectively…” (Physics World, August 2005) "…brings many important aspects of professional scientific endeavor together in one place and in an informal and understandable language…comprehensive and offers much that would be of interest…" (CHOICE, June 2005) "A sensible, eminently readable collection of nuts-and-bolts information…gives a concise, thorough, and above all pragmatic answer to the question 'What's it really like to be a scientist?'" (E-STREAMS, May 2005) "...an excellent and readable guide to developing the right mental attitudes to allow creativity to flourish..." (Chemistry World, Vol.2, No.4, April 2005)Table of ContentsPreface. 1. Introduction. 1.1 What Does It Take to Be a Successful Scientist? 1.2 Creativity. 1.3 Presenting. 1.4 Publishing and Electronic Publishing. 1.5 Patents. 2. Scientific Creativity. 2.1 What is Creativity? 2.2 Creativity in Science. 2.3 Prerequisites for Creative Work. 2.4 Personal Working Conditions. 2.5 Group Creativity: Cooperation and Competition. 2.6 Intelligence and Creativity. 2.7 Scientific Creativity and Productivity Worldwide. 3. Scientific Presenting. 3.1 Planning a Presentation. 3.2 Visual Aids. 3.3 Preparing Slides. 3.4 Practicing Before the Event. 3.5 Delivering a Talk. 3.6 Surviving the Discussion. 3.7 The Art of Asking Questions. 3.8 Poster Presentations. 3.9 Some Tips for Chairing Meetings. 3.10 Dos and Don'ts. 4. The Culture and Ethics of Scientific Publishing. 4.1 Purposes of Scientific Publishing. 4.2 Types of Publications. 4.3 A Few Words About Ethics. 5. Writing and Publishing Your Own Paper. 5.1 Planning and Preparation. 5.2 Style of Writing. 5.3 Structure of a Scientific Paper. 5.4 Formal Aspects of Manuscript Preparation. 5.5 Submission, Refereeing, Revisions. 5.6 Writing for Profit? 5.7 Dos and Don'ts. 6. Electronic Publishing. 6.1 Milestones in the Development of Electronic Publishing. 6.2 Today's Electronic Media and Products. 6.3 Use and Benefits of Online Publications. 6.4 The Roles of the Publisher. 6.5 Problems and Potential Pitfalls. 6.6 Future Prospects, Near and Medium-Term. 6.7 Open Access Publications. 7. Patents. 7.1 Introduction. 7.2 What Is a Patent? 7.3 What Can and Can't Be Patented? 7.4 Conditions for Patentability. 7.5 Who Should Apply? Patent Ownership. 7.6 Before You Apply. 7.7 Patent Application Procedure: Example of European Patent Office. 7.8 The Patent Examination Process (EPO). 7.9 Differences Between US and European Patents. 7.10 Costs of Patents. 7.11 Getting Assistance. 7.12 A Little Relief.

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Book SynopsisCurrent discoveries and research into bioactive natural products Medicinal Chemistry of Bioactive Natural Products provides a much-needed survey of bioactive natural products and their applications in medicinal chemistry.Trade Review"…an in-depth resource for anyone concerned about natural products and their application in medicine...it provides concise information that is difficult to find in a compact format elsewhere." (Clinical Chemistry, January 2007) "…I can imagine this book being used in an interdisciplinary graduate course…[or] as a reference text." (Journal of the American Chemical Society, September 13, 2006) "The authors are to be commended on the excellent blending of chemical, biological, and pharmacologic data…highly recommended to all with an interest in medicinal natural products chemistry." (Journal of Medicinal Chemistry, June 1, 2006)Table of ContentsPreface. Contributors. 1 The Chemistry and Biology of Epothilones—Lead Structures for the Discovery of Improved Microtubule Inhibitors (Karl-Heinz Altmann). 1.1. Introduction. 1.2. Biological Effects of Epo B. 1.3. Epothilone Analogs and SAR Studies. 1.4. Pharmacophore Modeling and Conformational Studies. 1.5. Epothilone Analogs in Clinical Development. 1.6. Conclusions. Acknowledgments. References. 2 The Chemistry and Biology of Vancomycin and Other Glycopeptide Antibiotic Derivatives (Roderich D. Su¨ssmuth). 2.1. Introduction. 2.2. Classification of Glycopeptide Antibiotics. 2.3. Mode of Action. 2.4. Glycopeptide Resistance. 2.5. Biosynthesis. 2.6. Total Synthesis. 2.7. Glycopeptides as Chiral Selectors in Chromatography and Capillary Electrophoresis. 2.8. Structural Modifications of Glycopeptide Antibiotics and Structure Activity Relationship (SAR) Studies. Acknowledgment. References. 3 Structure Modifications and Their Influences on Antitumor and Other Related Activities of Taxol and Its Analogs (Wei-Shuo Fang, Qi-Cheng Fang, and Xiao-Tian Liang). 3.1. Discovery and Research and Development of Taxol. 3.2. Paclitaxel Analogs Active Against Normal Tumor Cells. 3.3. Exploration on Mechanism of Paclitaxel Related to Tubulin Binding and Quest for Its Pharmacophore. 3.4. Natural and Semisynthetic Taxoids Overcoming Multidrug Resistance (MDR). 3.5 Design, Synthesis and Pharmacological Activity of Prodrugs of Paclitaxel. 3.6 Other Biological Actions of Paclitaxel. 3.7 New Antimicrotubule Molecules Mimicking Action of Paclitaxel. 3.8 Conclusion. Acknowledgments. References. 4 The Overview of Studies on Huperzine A: A Natural Drug for the Treatment of Alzheimer’s Disease (Da-Yuan Zhu, Chang-Heng Tan, and Yi-Ming Li). 4.1 Introduction. 4.2. Profiles of HA. 4.3. Plant Resources. 4.4. Pharmacology. 4.5. Clinical Trials. 4.6. Synthesis of HA and Its Analogs. 4.7. Structural Biology. 4.8. ZT-1: New Generation of HA AChE. Abbreviations. References. 5 Qinghaosu (Artemisinin)—A Fantastic Antimalarial Drug from a Traditional Chinese Medicine (Ying Li, Hao Huang, and Yu-Lin Wu). 5.1. Introduction. 5.2. Qinghaosu and Qinghao (Artemisia annua L. Composites). 5.3. Reaction of Qinghaosu. 5.4. Chemical Synthesis and Biosynthesis of Qinghaosu. 5.5. Derivatives and Antimalarial Activity. 5.6. Pharmacology and Chemical Biology of Qinghaosu and Its Derivatives. 5.7 Conclusion. References. 6 Progress of Studies on the Natural Cembranoids from the Soft Coral Species of Sarcophyton Genus (Yulin Li, Lizeng Peng, and Tao Zhang). 6.1. Introduction. 6.2. Cembrane-Type Constituents from the Sarcophyton Genus. 6.3. Physiological Action of Sarcophytol A and Sarcophytol B. 6.4. Total Synthesis of the Natural Cembranoids. 6.5. Studies on Novel Macrocyclization Methods of Cembrane-Type Diterpenoids. Acknowledgments. References. 7 Medicinal Chemistry of Ginkgolides from Ginkgo biloba (Kristian Strømgaard). 7.1. Introduction. 7.2. Ginkgolides and the PAF Receptor. 7.3. Ginkgolides and Glycine Receptors. 7.4. Various Effects of Ginkgolides. 7.5. Conclusions and Outlook. Acknowledgment. References. 8 Recent Progress in Calophyllum Coumarins as Potent Anti-HIV Agents (Lin Wang, Tao Ma, and Gang Liu). 8.1. Introduction. 8.2. Anti-HIV-1 Activity of Calophyllum Coumarins. 8.3. Pharmacology of Calanolides. 8.4. Preparation of Calophyllum Coumarins. 8.5. Structure Modification of Calanolides. 8.6. Conclusion. References. 9 Recent Progress and Prospects on Plant-Derived Anti-HIV Agents and Analogs (Donglei Yu and Kuo-Hsiung Lee). 9.1. Introduction. 9.2. Khellactone Coumarin Analogs as Anti-HIV Agents. 9.3. Biphenyl Derivatives as Anti-HIV Agents. 9.4. Triterpene Betulinic Acid Derivatives as Anti-HIV Agents. 9.5. Conclusions. Acknowledgments. References. 10 Recent Progress on the Chemical Synthesis of Annonaceous Acetogenins and Their Structurally Modified Mimics (Tai-Shan Hu, Yu-Lin Wu, and Zhu-Jun Yao). 10.1. Introduction. 10.2. Total Synthesis of Mono-THF Acetogenins. 10.3. Total Synthesis of Bis-THF Acetogenins. 10.4. Total Synthesis of THP-Containing Acetogenins. 10.5. Design and Synthesis of Mimics of Acetogenins. 10.6. Summary. References. Index.

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Book SynopsisThe Advances in Enzymology and Related Areas of Molecular Biology series is one of the most prestigous in the field, devoted to the latest trends in molecular biology and enzymology. Each volume of the series contains contributions from leading authorities in the field. This volume contains the cumulative subject indices for Volume 1-74 in the series, making it an invaluable tool for researchers in the field.

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Book SynopsisHandbook of Plastic Processing fully covers each of the plastic processes used to convert plastic raw materials into finished product forms. Chapters present practical, applications oriented, information, data, and guidelines on the equipment, processes, and materials used in this processing method.Trade Review"The Handbook of Plastics Processes should prove to be very useful for those in the plastics industry." (IEEE Electrical Insulation Magazine, November/December 2008) "…there is an abundance of information on a wide variety of topics within this volume." (IEEE Electrical Insulation Magazine, July/August 2008) "If you are interested in plastic processing or develop molding processes, you would find this book very useful." (IEEE Electrical Insulation Magazine, September-October 2007) "...a worthwhile book to have on the shelf for both the novice and the skilled plastic processor." (CORROSION, May 2007) "Recommended…for those seeking an introductory qualitative description of any of these various plastics processing operations." (CHOICE, January 2007)Table of ContentsContributors Preface. 1. Injection Molding (Peter F. Grelle) 2. Assisted Injection Molding (Steve Ham) 3. Sheet Extrusion (Dana R. Hanson) 4. Thermoforming (Scott Macdonald) 5. Blow Molding (Norman C. Lee) 6. Rotational Molding (Paul Nugent) 7. Compression and Transfer Molding (John L. Hull) 8. Composite Processes (Dale A. Grove) 9. Liquid Resin Processes (John L. Hull and Steven J. Adamson) 10. Assembly (Edward M. Petrie). 11. Decorating and Finishing (Edward M. Petrie and John L. Hull). 12. Polymer Nanocomposite Processing (Nandika Anne D'Souza, Jo Ann Ratto, Ajit Ranade, Will Strauss and Laxmi Sahu). Index.

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Book SynopsisThis text gives a general introduction to the propagator concept, how it can be used to study atomic and molecular properties and spectra, and provides examples and technical details of its use in various common approximate treatments as well as some illustrative applications.Table of Contents1. Introduction. 2. Differential Equations. 3. Propagators and Second Quantization. 4. Double-Time Green's Functions. 5. The Excitation Propagator. 6. Interaction of Radiation and Matter. 7. Temperature Dependent Perturbation Theory. 8. Molecules in Magnetic Fields. 9. Electron Propagator in Higher Order Treatments. 10. Atomic and Molecular Orbitals. 11. The Pariser-Parr-Pople Model. 12. The Excitation Propagator in Higher Orders. 13. Propagators and Chemical Reaction Rate. Appendix A: Complex Calculus Primer. Appendxi B: First and Second Quantization. Appendix C: Stability of Hartree-Fock Solutions. Appendix D: Third-Order Self-Energy. Appendix E: Temperatures-Dependent Propagators. Appendix F: The Eckart Potential and its Propagator. Index.

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Book SynopsisEmphasizing effective, state-of-the art methodology and written by recognized experts in the field, Analytical Methods in Food Science and Technology is an indispensable reference for food scientists and technologists to enable successful analysis.Trade Review"This volume is a valuable source of detailed analytical methods for food science…" (E-STREAMS, May 2005) “...recommendable to everyone in need of a compendium explaining in detail the “how-to” for a… food-analysis laboratory.” (Analytical and Bioanalytical Chemistry, February 2007)Table of ContentsVOLUME 1. Preface. Foreword to Current Protocols in Food Analytical Chemistry. Contributors. A: WATER. A1. Gravimetric Measurements of Water. A1.1 Gravimetric Determination of Water by Drying and Weighing. A1.2 Karl Fischer Titration. A1.3 Application of Low-Resolution NMR for Simultaneous Moisture and Oil Determination in Flood (Oilseeds). A1.4 Traditional Indirect methods for Estimation of Water Content: Measurement of Brix. A.2 Vapor Pressure Measurements of Water. A2.1 Factors to Consider When Estimating Water Vapor Pressure. A2.2 Dew-Point Method for the Determination of Water Activity. A2.3 Measurement of Water Activity Using Isopiestic Method. A2.4 Direct Manometric Determination of Vapor Pressure. A2.5 Measurement of Water Activity by Electronic Sensors. B: PROTEINS. B1. Measurement of Protein Content. B1.1 The Colorimetric Detection and Quantitation of Total Protein. B1.2 Determination of Total Nitrogen. B1.3 Spectrophotometric Determination of Protein Concentration. B.2 Biochemical Compositional Analyses of Proteins. B2.1 Analyses of Protein Quality. B2.2 Evaluation of the Progress of Protein Hydrolysis. B.3 Characterization of Proteins. B3.1 Electrophoresis Analysis. B3.2 Electrobloting from Polyacrylamide Gels. B3.3 Detection of Proteins on Blot Membranes. B3.4 Immunoblot Detection. B3.5 Determining the CD Spectrum of a Protein. B3.6 Determining the Fluorescence Spectrum of a Protein. B.4 Purification of Proteins. B4.1 Overview of Protein Purification and Characterization. B4.2 Overview of Conventional Chromatography. B.5 Functionality of Proteins. B5.1 Measurement of Functional Properties: Overview of Protein Functionality Testing. B5.2 Measurement of Protein Hydrophobicity. B5.3 Water Retention Properties of Solid Foods. C: ENZYMES. C1. Strategies for Enzymes Activity Measurements. C1.1 Expression and Measurement of Enzyme Activity. C1.2 Detecting Enzyme Activity: A Case Study of Polygalacturonase. C.2 Proteolytic Enzymes. C2.1 Activity Measurements of Proteinases Using Synthetic Substrates. C2.2 Peptodase Activity Assays Using Protein Substrates. C.3 Lipolytic Enzymes. C3.1 Lipase Assays. C.4 Oxidoreductases. C4.1 Polarographic and Spectrophotometric Assay of Diphenol Oxidases (Polyphenol Oxidase). C4.2 Analysis of Lipoxygenase Activity and Products. D: LIPIDS. D1. Lipid Composition. D1.1 Extraction and Measurement of Total Lipids. D1.2 Analysis of Fatty Acids in Food Lipids. D1.3 Cholesterol. D1.4 Oil Quality Indices. D1.5 Analysis of Tocopherols and Tocotrienols. D1.6 Quantitation of Lipid Classes by Thin-Layer Chromatography with Flame Ionization Detection. D1.7 Infrared Spectroscopic Determination of Total Trans Fatty Acids. D.2 Lipid Oxidation/Stability. D2.1 Measurement of Primary Lipid Oxidation Products. D2.2 Chromatographic Analysis of Secondary Lipid Oxidation Products. D2.3 Assessment of Oxidative Stability for Lipids. D2.4 Spectrophotometric Measurement of Secondary Lipid Oxidation Products. D.3 Physical Properties of Lipids. D3.1 Determination of Solid Fat Content by Nuclear Magnetic Resonance. D3.2 Lipid Crystal Characterization. D3.3 Emulsion Droplet Size Determination. D3.4 Emulsion Stability Determination. D3.5 Key Concepts of Interfacial Properties in Food Chemistry. D3.6 Static and Dynamic Interfacial Tension Analysis. E: CARBOHYDRATES. E1. Mono- and Oligosaccharides. E1.1 Colorimetric Quantification of Carbohydrates. E1.2 HPLC of Mon- and Disaccharides Using Refractive Index Detection. E.2 Starch and Starch Derivatives. E2.1 Overview of Laboratory Isolation of Starch from Plant Materials. E2.2 Enzymatic Quantitation of Total Starch in Plant Products. E2.3 Determination of Total Amylose Content of Starch. E.3 Cell Wall Polysaccharides. E3.1 Isolation of Plant Cell Walls and Fractionation of Cell wall Polysaccharides. E3.2 Determination of Neutral Sugars by Gas Chromatography of Their Alditol Acetates. E3.3 Determination of the Uronic Acid Content of Plant Cell Walls Using a Colorimetric Assay. E3.4 Determining the Degree of Methylation and Acetylation of Pectin. E3.5 Quantitative Determination of ß-Glucan Content. Index.

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Book SynopsisBeyond Equilibrium Thermodynamics fills a niche in the market by providing a comprehensive introduction to a new, emerging topic in the field. The importance of non-equilibrium thermodynamics is addressed in order to fully understand how a system works, whether it is in a biological system like the brain or a system that develops plastic.Trade Review"This book would…serve graduate students in engineering and scientists working in the this field." (Materials and Manufacturing Processes, May 2006) "It is really very fortunate that Hans Christian Öttinger…one of the prominent researchers in the field…[has] produced the present book. I am convinced that it will be of use for many readers and will have a big impact on future developments in the field." (Applied Rheology, Volume 15, Issue 2, 2005)Table of ContentsPreface. Acknowledgments. Symbols and Notation. 1. Introduction. PART I: PHENOMENOLOGICAL APPROACH. 2. Hydrodynamics. 3. Linear Irreversible Thermodynamics. 4. Complex Fluids. 5. Relativistic Hydrodynamics. PART II: STATISTICAL APPROACH. 6. Projection-Operator Method. 7. Kinetic Theory of Gases. 8. Simulations. Appendix A: Crash-Course on Equilibrium Thermodynamics. Appendix B: Mechanics and Geometry. Appendix C: Functional Derivatives. Appendix D: Quantum Systems. Appendix E: List of Applications of Beyond-Equilibrium Thermodynamics. Appendix F: Solutions to Exercises. References. Author Index. Subject Index.

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Book SynopsisRegulatory Calculations Handbook addresses the environmental concerns of individuals by presenting the basic fundamentals of many environmental regulatory topics.Trade Review?It is a hands-on reference for practitioners in federal, state, and local environmental agencies and environmental training and consulting firms, as well as environmental managers and engineers in industry.? (APADE, 2009) "This work is highly recommended for special libraries, large public libraries, and academic libraries serving upper-level undergraduates and graduate students in courses covering the environment." (American Reference Books Annual, March 2009)Table of ContentsPreface. Introduction. 1. Early Environmental History. 2. Current Environmental Regulatory Framework. 3. Clean Air Act (CAA). 4. Clean Water Act (CWA). 5. Safe Drinking Water Act (SDWA). 6. Resource Conservation and Recovery Act (RCRA). 7. Toxic Substances Control Act (TSCA). 8. Comprehensive Environmental Response, Compensation and Liability Act (CERCLA-SUPERFUND). 9. Occupational Safety and health Act (OSHA). 10. Pollution Prevention Act (PPA). Appendix A. International Regulations. Appendix B. ISO 14000. Appendix C. Miscellaneous Topics. Index.

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Book SynopsisPost Genomics Drug Discovery and Research explores and discusses some of the most important topics in post-genomics life and biopharmaceutical sciences. It provides an introduction to the field, outlining examples of many techniques currently used, as well as those still under development, which are important for the research of biopharmaceutical discovery in the post-genomics era. Integrates several developing and cutting-edge technologies and methods like bioinformatics, experimental therapeutics, and molecular recognition Includes discussion on topics such as: computer-aided ligand design; peptide and protein chemistry and synthesis; synthesis of active natural products; and the use of emerging technologies like proteomics, nanotechnology, or bioengineering. Trade Review"A valuable resource for scientists … Chapters in each section are filled with in-depth biological and chemical data and, importantly, include worked examples of drugs identified from these approaches." (The Biochemist, October 2008) "..the book achieves the objective of the Editor in providing a useful tool and reference for scientists concerned with state-of-the-art postgenomic drug discovery…this book will be of interest to medicinal chemistry, as well as to other concerned with developing new drug products." (Journal of Medicinal Chemistry, January 2008)Table of ContentsFOREWORD. INTRODUCTION. CONTRIBUTORS. PART I. COMPUTATIONAL AND STRUCTURAL APPROACHES IN DRUG DISCOVERY. CHAPTER 1. MOLECULAR DOCKING AND STRUCTURE-BASED DESIGN (P. Therese Lang, University of California, San Francisco, CA; Tiba Aynechi, University of California, San Francisco, CA; Demetri Moustakas, University of California, Berkeley, CA; Brian Shoichet, Irwin D. Kuntz,* University of California, San Francisco, CA; Natasja Brooijmans, University of California, San Francisco, CA; and Connie M. Oshiro, Roche, Palo Alto, CA). CHAPTER 2. RECENT ADVANCES IN DRUG DISCOVERY RESEARCH USING STRUCTURE-BASED VIRTUAL SCREENING TECHNIQUES: EXAMPLES OF SUCCESS FOR DIVERSE PROTEIN TARGETS (Sutapa Ghosh (Burnham Institute for Medical Research La Jolla, CA), Aihua Nie (Burnham Institute for Medical Research La Jolla, CA), Jing An (Burnham Institute for Medical Research La Jolla, CA), and Ziwei Huang* (University of California, San Diego; Burnham Institute for Medical Research La Jolla, CA). CHAPTER 3. VIRTUAL SCREENING IN DRUG DISCOVERY (Malcolm J. McGregor, Zhaowen Luo, and Xuliang Jiang* (Serono Research Institute, Rockland, MA). CHAPTER 4. COMPUTER-AIDED DRUG DESIGN (Grace Shiahuy Chen, Providence University, Shalu, Taiwan, Republic of China and Ji-Wang Chern,* National Taiwan University, Taipei, Taiwan, Republic of China). CHAPTER 5. FOCUSED LIBRARY DESIGN BASED ON HIT AND TARGET STRUCTURES: METHOD AND APPLICATION IN DRUG DISCOVERY (Weiliang Zhu (Shanghai Institute ofMateriaMedica, Chinese Academy of Sciences, Shanghai, P.R. China), Jian Li (Shanghai Institute ofMateriaMedica, Chinese Academy of Sciences, Shanghai, P.R. China), Zhen Gong (Shanghai Institute ofMateriaMedica, Chinese Academy of Sciences, Shanghai, P.R. China), Hong Liu (Shanghai Institute ofMateriaMedica, Chinese Academy of Sciences, Shanghai, P.R. China), and Hualiang Jiang* (Shanghai Institute ofMateriaMedica, Chinese Academy of Sciences, Shanghai, P.R. China, East China University of Science and Technology, Shanghai, P.R. China). PART II. CHEMICAL AND SYNTHETIC APPROACHES IN DRUG DISCOVERY. CHAPTER 6. BEYOND NATURAL PRODUCTS: SYNTHETIC ANALOGUES OF BRYOSTATIN 1 (Paul A. Wender*, Jeremy L. Baryza, Michael K. Hilinski, Joshua C. Horan, Cindy Kan, and Vishal A. Verma (Stanford University, Stanford, CA). CHAPTER 7. THE PROMISES AND PITFALLS OF SMALL-MOLECULE INHIBITION OF POLY(ADP-RIBOSE) GLYCOHYDROLASE (PARG) (Amanda C. Nottbohm and Paul J. Hergenrother* (University of Illinois at Urbana-Champaign, Urbana, IL). CHAPTER 8. CYCLIC ADP-RIBOSE ANALOGUES WITH MINIMAL STRUCTURE: SYNTHESIS AND CALCIUM-RELEASE ACTIVITY (Lihe Zhang* (Peking University, Beijing, P.R. China) and Andreas H. Guse (University Hospital Hamburg—Eppendorf, Institute of Biochemistry and Molecular Biology, Hamburg, Germany). CHAPTER 9. EVALUATION OF NEUROIMMUNOPHILIN LIGANDS (Junhai Xiao, Aihua Nie, and Song Li* (Beijing Institute of Pharmacology and Toxicology, Beijing, P.R. China). CHAPTER 10. CHIRAL DRUGS AND THE ASSOCIATED ASYMMETRIC SYNTHESIS (Jiange Zhang (Zhengzhou University, Zhengzhou, P.R. China) and Guoqiang Lin* (Shanghai Institute of Organic Chemistry, Chinese Academy of Sciences, Shanghai, P.R. China). CHAPTER 11. ALPHA-HELIX MIMETICS IN DRUG DISCOVERY 281 Hang Yin, Gui-In Lee, and Andrew D. Hamilton* Yale University, New Haven, CT CHAPTER 12. BASIC AND TRANSLATIONAL RESEARCH OF CHEMOKINE LIGANDS AND RECEPTORS AND DEVELOPMENT OF NOVEL THERAPEUTICS (Won-Tak Choi, University of Illinois at Urbana-Champaign, Urbana, IL; Yohichi Kumaki, Raylight Corporation, Chemokine Pharmaceutical Inc., La Jolla, CA; I. M. Krishna Kumar, Burnham Institute for Medical Research, La Jolla, CA; Jing An, Burnham Institute for Medical Research, La Jolla, CA; Douglas D. Richman, Department of Molecular Pathology, University of California, San Diego, CA; Joseph G. Sodroski, Dana-Farber Cancer Institute, Harvard Medical School, Boston, MA; and Ziwei Huang,* University of Illinois at Urbana-Champaign, Urbana, IL, Burnham Institute for Medical Research, La Jolla, CA; Department of Molecular Pathology, University of California, San Diego, CA). CHAPTER 13. RESEARCH PROGRESS IN PROTEIN POST-TRANSLATIONAL MODIFICATION (Jia Hu, Yanting Guo, and Yanmei Li,* Tsinghua University, Beijing, P.R. China). CHAPTER 14. CONTROLLED RELEASE OFANTIBIOTICS ENCAPSULATED IN NANOPOROUS SOL–GEL MATERIALS WITH TUNABLE PORE PARAMETERS (Houping Yin, Laura Zheng, and Yen Wei,* Drexel University, Philadelphia, PA). PART III. BIOLOGICAL APPROACHES AND TRANSLATIONAL RESEARCH IN DRUG DISCOVERY. CHAPTER 15. RETINOIC ACID AND ARSENIC TRIOXIDE TREATMENT IN ACUTE PROMYELOCYTIC LEUKEMIA: A MODEL OF ONCOPROTEIN TARGETED THERAPY (Jian-Hua Tong, Sai-Juan Chen, and Zhu Chen,* Shanghai Institute of Hematology, Rui Jin Hospital, School of Medicine, Shanghai Jiao Tong University, Shanghai, P.R. China). CHAPTER 16. 2-CHLORODEOXYADENOSINE (CLADRIBINE): RATIONAL DEVELOPMENT OFA NOVEL CHEMOTHERAPEUTIC AGENT (Howard B. Cottam and Dennis A. Carson,* Moores Cancer Center, University of California, San Diego, CA). CHAPTER 17. APOPTOSIS-BASED DRUG DISCOVERY FOR CANCER (John C. Reed*, Dayong Zhai, Marc Hyer, and Kate Welsh, Burnham Institute for Medical Research, La Jolla, CA). CHAPTER 18. MECHANISM-BASED DEVELOPMENT OF MEMANTINE AS A THERAPEUTIC AGENT IN TREATING ALZHEIMER’S DISEASE AND OTHER NEUROLOGIC DISORDERS: LOW-AFFINITY, UNCOMPETITIVE ANTAGONISM WITH FAST OFF-RATE (Huei-Sheng Vincent Chen*, and Stuart A. Lipton,* Burnham Institute for Medical Research, La Jolla, CA; University of California, San Diego, CA). CHAPTER 19. BRIDGING BENCH TO CLINIC: ROLES OFANIMAL MODELS FOR POST-GENOMICS DRUG DISCOVERY ON METABOLIC DISEASES (Chi-Wai Wong and Ling Chen,* Guangzhou Institute of Biomedicine and Health, Chinese Academy of Sciences, Guangzhou, P.R. China). CHAPTER 20. STEM CELL RESEARCH AND APPLICATIONS FOR HUMAN THERAPIES (Prithi Rajan, Kook In Park, Vaclav Ourednik, Jean Pyo Lee, Jamie Imitola, Franz-Joseph Mueller, Yang D. Teng, and Evan Snyder,* Burnham Institute for Medical Research, La Jolla, CA). INDEX.

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Book SynopsisThe definitive guide to peptidomics- a hands-on lab reference The first truly comprehensive book about peptidomics for protein and peptide analysis, this reference provides a detailed description of the hows and whys of peptidomics and how the techniques have evolved. With chapters contributed by leading experts, it covers naturally occurring peptides, peptidomics methods and new developments, and the peptidomics approach to biomarker discovery. Explaining both the principles and the applications, Peptidomics: Methods and Applications: * Features examples of applications in diverse fields, including pharmaceutical science, toxicity biomarkers, and neuroscience * Details the successful peptidomic analyses of biological material ranging from plants to mammals * Describes a cross section of analytical techniques, including traditional methodologies, emerging trends, and new techniques for high throughput approachesTrade Review"This volume provides an ample and up-to-date view about this maturing field…" (Quarterly Review of Biology, December 2008)Table of ContentsSECTION 1: STUDIES OF NATURALLY OCCURRING PEPTIDES. Chapter 1: Analysis of the peptidomes of amphibian skin granular gland secretions - an integrated functional genomic strategy (Chris Shaw, and Tianbao Chen). Chapter 2: A short history of insect (neuro)peptidomics - A personal story of the birth and youth of an excellent model for studying peptidome biology (Peter D.E.M. Verhaert, Martijn W.H. Pinkse, Maria C. Prieto-Conaway, and Markus Kellmann). Chapter 3: Peptidomics of short linear cytolytic peptides from spider venom (Sergey A. Kozlov, Alexander A. Vassilevski, and Eugene V. Grishin). Chapter 4: Molecular cloning approaches to peptidomics: the identification of novel cDNAs encoding neurotoxin-like peptide pools (Zhensheng Pan, Richard Barry, and Mikhail Soloviev). Chapter 5: Wheat antimicrobial peptides (Tatyana I. Odintsova, and Tsezi A. Egorov). Chapter 6: Immunopeptidomics: Applications to dissect immune responses through proteomic-based approaches (Ernesto Oviedo-Orta, and Alexandra Bermudez-Fajardo). Chapter 7: Strategies for reliable and improved identification of peptides (Karl Skuld, Maria Folth, Marcus Svensson, Anna Nilsson, Per Svenningsson, and Per E. Andrun). SECTION 2: PEPTIDOMICS METHODS AND NEW DEVELOPMENTS. Chapter 8: Peptidomics approach to proteomics (Petra Zarbig, and Harald Mischak). Chapter 9: The importance of sample handling in neuropeptidomics (Karl Skuld, Marcus Svensson, Anna Nilsson, Maria Folth, Per Svenningsson, and Per E. Andrun). Chapter 10: Affinity peptidomics and protein microarrays: application to forensics and biometrics (Julian Bailes, and Mikhail Soloviev). Chapter 11: Selective depletion and enrichment methods for the analysis of protein and peptide pools (Paul Finch, and Mikhail Soloviev). Chapter 12: Detection of target peptides in foods and feeds by mass spectrometry (Mireia Fernandez Ocaca). Chapter 13: Quantification of Polypeptides by Mass Spectrometry (Pedro R. Cutillas). SECTION 3: PEPTIDOMICS APPROACH TO BIOMARKER DISCOVERY. Chapter 14: Biomarker discovery (Petra Zarbig, and Harald Mischak). Chapter 15: Can peptidomics provide a useful approach for the identification of biomarkers of toxicological exposure or effect (Helen Griffiths)? Chapter 16: Peptidomics in Neuroendocrine research: a Caenorhabditis elegans and Mus musculus study (Kurt Boonen, Steven J. Husson, Geert Baggerman, Anja Cerstiaens, Walter Luyten, and Liliane Schoofs). CONCLUSION. Chapter 17: Peptidomics and Biology: two scientific disciplines driving each other (Chris Shaw, and Peter D.E.M. Verhaert).

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Book SynopsisThis book is a basic reference providing concise, accurate definitions of the key terms and concepts of organic chemistry. Not simply a listing of organic compounds, structures, and nomenclatures, the book is organized into topical chapters in which related terms and concepts appear in close proximity to one another, giving context to the information and helping to make fine distinctions more understandable. Areas covered include: bonding, symmetry, stereochemistry, types of organic compounds, reactions, mechansims, spectroscopy, and photochemistry.Trade Review"..worth having in a collection as a first place to look for an answer." (Journal of Chemical Education, May 2006) "…very valuable for professional chemists who wish to review material from organic chemistry and also should be welcomed by current organic students…highly recommended." (American Reference Books Annual, 2006) "….curious cross between dictionary and textbook, a welcome update from the previous edition…offers ease of use…highly recommended." (CHOICE, November 2005)Table of ContentsPreface. 1. Atomic Orbital Theory. 2. Bonds Between Adjacent Atoms: Localized Bonding, Molecular Orbital Theory. 3. Delocalized (Multicenter) Bonding. 4. Symmetry Operations, Symmetry Elements, and Applications. 5. Classes of Hydrocarbons. 6. Functional Groups: Classes of Organic Compounds. 7. Molecular Structure Isomers, Stereochemistry, and Conformational Analysis. 8. Synthetic Polymers. 9. Organometallic Chemistry. 10. Separation Techniques and Physical Properties. 11. Fossil Fuels and Their Chemical Utilization. 12. Thermodynamics, Acids and Bases, and Kinetics. 13. Reactive Intermediates (Ions, Radicals, Radical Ions, Electron-Deficient Species, Arynes). 14. Types of Organic Reaction Mechanisms. 15. Nuclear Magnetic Resonance Spectroscopy. 16. Vibrational and Rotational Spectroscopy: Infrared, Microwave, and Raman Spectra. 17. Mass Spectrometry. 18. Electronic Spectroscopy and Photochemistry. Name Index. Compound Index. General Index.

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Book SynopsisA concise and authoritative overview of mass spectrometry instrumentation, techniques, and applications in a very readable, user-friendly format filled with chapter summaries, exercises and answers, and references to useful outside resources. * Includes numerous exercises in every chapter, with the answers at the back of the book.Trade Review“It presents a well written, informative, and welcome addition to the selection of textbooks on the topic.” (Analytical Science and Bioanalytical Chemistry, August 2007) "The book will be a good teaching tool of the principles of mass spectrometry to undergraduates and graduates." (International Journal of Environmental and Analytical Chemistry, 2008)Table of ContentsPART 1: INSTRUMENTATION. 1. BASICS OF MASS SPECTROMETRY. 1.1. A BRIEF HISTORY OF MASS SPECTROMETRY. 1.2. UNIQUE FEATURES OF MASS SPECTROMETRY. 1.3. BASIC PRINCIPLES OF MASS SPECTROMETRY. 1.4. ANATOMY OF A MASS SPECTRUM. 1.5. ATOMIC AND MOLECULAR MASSES. 1.5.1. Mass-to-charge Ratio. 1.6. GENERAL APPLICATIONS. 1.7. OVERVIEW OF THE CHAPTER. 1.8. EXCERCISES. 1.9. REFERENCES. 2. MODES OF IONIZATION. 2.1. WHY IONIZATION IS REQUIRED? 2.2. GENERAL CONSTRUCTION OF THE ION SOURCE. GAS-PHASE IONIZATION TECHNIQUES. 2.3. ELECTRON IONIZATION. 2.4. CHEMICAL IONIZATION. 2.4.1. Charge-exchange Chemical Ionization. 2.4.2. Negative-Ion Chemical Ionization. 2.5. PHOTOIONIZATION. 2.6. FIELD IONIZTION. 2.7. METASTABLE ATOM BOMBARDMENT IONIZATION. CONDENSED-PHASE IONIZATION TECHNIQUES: IONIZATION OF SOLID-STATE SAMPLES. 2.8. FIELD DESORPTION. 2.9. PLASMA DESORPTION IONIZATION. 2.10. SECONDARY-ION MASS SPECTROMETRY . 2.11. FAST ATOM BOMBARDMENT. 2.12. LASER DESORPTION/IONIZATION. 2.13. MATRIX-ASSISTED LASER DESORPTION/IONIZATION. 2.13.1. Analysis of Low Molecular Mass Compounds by MALDI . 2.13.2. Atmospheric Pressure-MALDI. 2.13.3. Surface-enhanced Laser Desorption/Ionization. CONDENSED-PHASE IONIZATION TECHNIQUES: IONIZATION OF LIQUID-STATE SAMPLES . 2.14. THERMOSPRAY IONIZATION. 2.15. ATMOSPHERIC PRESSURE CHEMICAL IONIZATION. 2.16. ATMOSPHERIC PRESSURE PHOTOIONIZATION. 2.17. ELECTROSPRAY IONIZATION. 2.17.1. Mechanism of Electrospray Ionization . 2.17.2. Sample Consideration . 2.17.3. Nanoelectrospray Ionization . 2.18. DESORPTION ELECTROSPRAY IONIZATION. 2.18.1. DART Ion Source. 2.19. OVERVIEW OF THE CHAPTER. 2.19. EXERCISES. 2.20. ADDITIONAL READING. 2.21. REFERENCES. 3. MASS ANALYSIS AND ION DETECTION. 3.1. MASS RESOLUTION. 3.2. KINETIC ENERGY OF IONS. MASS ANALYZERS. 3.3. MAGNETIC SECTOR MASS SPECTROMETERS. 3.3.1. Working Principle of a Magnetic Analyzer. 3.3.2. Working Principle of an Electrostatic Analyzer. 3.3.3. Working Principle of Double-Focusing Magnetic Sector Mass Spectrometers. 3.3.4. Performance Characteristics . 3.4. QUADRUPOLE MASS SPCETROMETERS. 3.4.1. Working Principle. 3.4.2. Performance Characteristics . 3.4.3. RF-only quadrupole . 3.5. TIME-OF-FLIGHT MASS SPECTROMETERS. 3.5.1. Working Principle. 3.5.2. Delayed Extraction of Ions . 3.5.3. Reflectron TOF Instrument . 3.5.4. Orthogonal Acceleration TOF Mass Spectrometer. 3.5.5. Performance Characteristics. 3.6. QUADRUPOLE ION TRAP MASS SPECTROMETERS. 3.6.1. Working Principle. 3.6.2. Operational Modes. 3.6.3. Performance Characteristics . 3.7. LINEAR ION TRAP MASS SPECTROMETERS. 3.7.1. Rectilinear Ion Trap. 3.8. FOURIER-TRANSFORM ION CYCLOTRON RESONANCE MASS SPECTROMETERS. 3.8.1. Working Principle. 3.8.2. Performance Characteristics. 3.9. ORBITRAP MASS ANALYZER. 3.10. ION MOBILITY MASS SPECTROMETERS. 3.11. DETECTORS. 3.11.1. Faraday Cup Detector. 3.11.2. Electron Multipliers. 3.11.3. Photomultiplier detectors. 3.11.4. Post-acceleration Detectors. 3.11.5. Low-temperature Calorimetric Detectors for High Mass Ions. 3.11.6. Focal-plane Detectors. 3.12. OVERVIEW OF THE CHAPTER. 3. 13. EXCERCISES. 3. 14. ADDITIONAL READING. 3.15. REFERENCES. 4. TANDEM MASS SPECTROMETRY. 4.1. BASIC PRINCIPLES OF TANDEM MASS SPECTROMETRY. 4.2. TYPES OF SCAN FUNCTIONS. 4.3. ION ACTIVATION AND DISSOCIATION. 4.3.1. Collision-induced Dissociation. 4.3.2. Surface-induced Dissociation. 4.3.3. Absorption of Electromagnetic Radiations. 4.3.4. Electron-capture Dissociation. 4.4. REACTIONS IN TANDEM MASS SPECTROMETRY. 4.5. TANDEM MASS SPECTROMETRY INSTRUMENTATION. 4.5.1. Magnetic Sector Tandem Mass Spectrometers. 4.5.2. Tandem Mass Spectrometry with Multiple Quadrupole Devices. 4.5.3. Tandem Mass Spectrometry with Time-of-Flight Instruments . 4.5.4. Tandem Mass Spectrometry with a Quadrupole Ion Trap Mass Spectrometer. 4.5.5. Tandem Mass Spectrometry with an FT-ICR Mass Spectrometer. 4.5.6. Tandem Mass Spectrometry with Hybrid Instruments. 4.6. OVERVIEW OF THE CHAPTER. 4.7. EXCERCISES. 4.7. ADDITIONAL READING. 4.8. REFERENCES. 5. HYPHENATED SEPARATION TECHNIQUES. 5.1. BENEFITS OF THE COUPLING OF SEPARATION DEVICES WITH MASS SPECTROMETRY. 5.2. GENERAL CONSIDERATIONS. 5.2.1. Characteristics of an Interface. 5.2.2. Mass Spectral Data Acquisition. 5.2.3. Characteristics of Mass Spectrometers. 5.3. CHROMATOGRAPHIC PROPERTIES. 5.4. GAS CHROMATOGRAPHY/MASS SPCTROMETRY. 5.4.1 Basic Principles of Gas Chromatography. 5.4.2 Interfaces for the Coupling of Gas Chromatography with Mass Spectrometry. 5.5. LIQUID CHROMATOGRAPHY/MASS SPECTROMETRY. 5.5.1. Basic Principle of HPLC Separation . 5.5.2 Fast-Flow Liquid Chromatography. 5.6. INTERFACES FOR THE COUPLING OF LIQUID CHROMATO-GRAPHY WITH MASS SPECTROMETRY. 5.6.1. The Moving-belt Interface. 5.6.2. The Direct-Liquid Introduction Probe . 5.6.3. The Continuous-Flow Fast Atom Bombardment Interface. 5.6.4. The Thermospray Interface. 5.6.5. The Particle-beam Interface. 5.6.6. The Electrospray Ionization Interface. 5.6.7. The Atmospheric Pressure Chemical Ionization Interface. 5.6.8. The Atmospheric Pressure Photoionization (APPI) Interface. 5.6.9. The Coupling of LC with TOF-MS. 5.6.10. The Coupling of LC with MALDI-MS. 5.7. MULTI-DIMENSIONAL LC/MS. 5.8. CAPILLARY ELECTROPHORESIS/MASS SPECTROMETRY. 5.8.1. The Basic Principles of Capillary Electrophoresis. 5.8.2. Interfaces for the Coupling of Capillary Electrophoresis with Mass Spectrometry. 5.9. AFFINITY CHROMATOGRAPHY/MASS SPECTROMETRY . 5.10. SUPERCRITICAL-FLUID CHROMATOGRAPHY/MASS SPECTROMETRY. 5.11. THE COUPLING OF PLANAR CHROMATOGRAPHY WITH MASS SPECTROMETRY. 5.12. OVERVIEW OF THE CHAPTER. 5.13. EXCERCISES. 5.14. ADDITIONAL READING. 5.15. REFERENCES. PART 2: ORGANIC AND INORGAANIC MASS SPECTROMETRY . 6. ORGANIC MASS SPECTROMETRY. 6.1. DETERMINATION OF MOLECULAR MASS. 6.1.1. Molecular Mass Measurements at Low-mass Resolving Power. 6.1.2. Molecular Mass Measurements at High-mass Resolving Power . 6.1.3. Molecular Mass Measurements by ESI and MALDI. 6.1.4. Mass Calibration Standards. 6.2. MOLECULAR FORMULA FROM ACCURATE MASS VALUES . 6.3. MOLECULAR FORMULA FROM ISOTOPIC PEAKS. 6.4. GENERAL GUIDELINES FOR THE INTERPRETATION OF A MASS SPECTRUM . 6.4.1. Odd- and Even-electron Ions. 6.4.2. Recognize the Molecular Ion. 6.4.3. The Nitrogen Rule . 6.4.4. The Rings Plus Double Bonds (R + DB) Value . 6.4.5. Systematic Steps to Interpret a Mass Spectrum. 6.4.6. Mass Spectral Compilations. 6.5. FRAGMENTATION PROCESSES. 6.5.1. Simple Bond-cleavage Reactions. 6.5.2. Rearrangement Reactions. 6.5.3. Fragmentation of Cyclic Structures. 6.5.4. Differentiation of Isomeric Structures. 6.5.5. Structurally Diagnostic Fragment Ions. 6.6. FRAGMENTATION REACTIONS OF SPECIFIC CLASSES OF COMPOUNDS. 6.6.1. Hydrocarbons. 6.6. FRAGMENTATION REACTIONS OF SPECIFIC CLASSES OF COMPOUNDS. 6.6.1. Hydrocarbons. 6.6. FRAGMENTATION REACTIONS OF SPECIFIC CLASSES OF COMPOUNDS. 6.6.1. Hydrocarbons. 6.6.2. Alcohols. 6.6.3. Ethers. 6.6.4. Aldehydes and Ketones. 6.6.5. Carboxylic Acids. 6.6.6. Esters. 6.6.7. Nitrogen-containing Compounds6.6.8. Sulfur-containing Compounds. 6.6.8. Sulfur-containing Compounds. 6.6.9. Halogen-containing Compounds. 6.7. THEORY OF ION DISSOCIATION. 6.8. STRUCTURE DETERMINATION OF GAS-PHASE ORGANIC IONS. 6.9. OVERVIEW OF THE CHAPTER. 6. 10. EXCERCISES. 6.11. ADDITIONAL READING. 6.12. REFERENCES. 7. INORGANIC MASS SPECTROMETRY. 7.1. IONIZTION OF INORGANIC COMPOUNDS. 7.2. THERMAL IONIZATION MASS SPECTROMETRY. 7.3. SPARK-SOURCE MASS SPECTROMETRY (SSMS). 7.4. GLOW DISCHARGE IONIZATION MASS SPECTROMETRY. 7.5. INDUCTIVELY COUPLED PLASMA MASS SPECTROMETRY. 7.5.1. Inductively Coupled Plasma Ion Source . 7.5.2. Coupling of the ICP Source with Mass Spectrometry . 7.5.3. Sample Introduction Systems for the ICP Source. 7.5.4. Spectral Interferences. 7.5.5. Laser Ablation-ICPMS. 7.6. RESONANCE IONIZATION MASS SPCTROMETRY. 7.7. ISOTOPE RATIO MASS SPCTROMETRY. 7.7.1. Isotope Ratio MS Systems . 7.8. ACCELERATOR MASS SPECTROMETRY. 7.9. ISOTOPE DILUTION MASS SPECTROMETRY. 7.10. OVERVIEW OF THE CHAPTER. 7.11. EXCERCISES. 7.12. ADDITIONAL READING. 7.13. REFERENCES. PART 3: BIOLOGICAL MASS SPECTROMETRY. 8. PROTEINS AND PEPTIDES: STRUCTURE DETERMINATION. 8.1. INTRODUCTION . 8.1.1. Structure of Proteins . 8.2. DETERMINATION OF THE SEQUENCE OF A PROTEIN. 8.3. GENERAL PROTOCOL FOR THE AMINO ACID SEQUENCE DETERMINATION OF PROTEINS . 8.3.1. Homogenization and Subcellular Fractionation. 8.3.2. Enrichment and Purification of Proteins. 8.4. MOLECULAR MASS MEASUREMENT OF PROTEINS. 8.5. PEPTIDE MASS MAPPING. 8.5.1. Reduction and Carboxymethylation. 8.5.2. Cleavage of Proteins. 8.5.3. Mass Spectrometry Analysis of Peptide Maps . 8.6. PROTEOMICS. 8.6.1. Strategies for Proteomics. 8.7. QUANTITATIVE PROTEOMICS. 8.8. BIOMARKER DISCOVERY. 8.9. DE NOVO PROTEIN SEQUENCING . 8.9. DETERMINATION OF THE AMINO ACID SEQUENCE OF PEPTIDES. 8.9.1. Peptide Fragmentation Rules . 8.9.2. Mass Spectrometry Techniques for Sequence Determination of Peptides. 8.9.3. Guidelines to Obtain the Amino Acid Sequence from a Mass Spectrum. 8.10. OVERVIEW OF THE CHAPTER. 8.11. EXCERCISES. 8.12. ADDITIONAL READING. 8.13. REFERENCES. 9. Proteins and Peptides: Post-Translational Modifications Disulfide Bonds in Proteins. 9.1. TRADITIONAL APPROACHES TO IDENTIFY DISULFIDE BONDS . 9.2. MASS SPECTROMETRY-BASED METHODS TO IDENTIFY DISULFIDE BONDS. 9.2.1. Determination of the Number of Disulfide Bonds . 9.2.2. Generation of the Disulfide-containing Peptides . 9.2.3. Identification of Disulfide-containing Peptides by FAB-MS . 9.2.4. Identification of the Disulfide-containing Peptides by MALDI-MS . 9.2.5. Identification of the Disulfide-containing Peptides by Electron-capture Dissociation (ECD) . 9.2.6. Identification of Disulfide-containing Peptides by Tandem MS . ANALYSIS OF PHOPHOPROTEINS AND PHOSPHO-PROTEOMICS. 9.3. 32[P]-Labeling for the Analysis of Phosphoproteins. 9.4. MASS SPECTROMETRY PROTOCOL FOR THE ANALYSIS OF PHOSPHOPROTEINS. 9.4.1. Cleavage of Purified Phosphoproteins . 9.4.2. Fractionation of Peptide Fragments in the Digest . 9.4.3. Determination of the Average Number of Phosphate Groups . 9.4.4. Identification of Phosphopeptides . 9.4.5. Identification of Phosphorylation Sites . ANALYSIS OF GLYCOPROTEINS. 9.5. STRUCTURAL DIVERSITY OF GLYCOPROTEINS. 9.6. ANALYSIS OF GLYCOPROTEINS. 9.6.1. Molecular Mass Determination of Glycoproteins. 9.6.2. Identification of Glycosylation. 9.6.3. Site of Glycosylation . 9.7. OVERVIEW OF THE CHAPTER. 9.8. EXCERCISES. 9.9. REFERENCES. 10. Proteins and Peptides: Higher-Order Structures. 10.1. CHARGE-STATE DISTRIBUTION. 10.2. HYDROGEN/DEUTERIUM EXCHANGE TO STUDY CONFORMATIONAL STATES OF PROTEINS. 10.2.1. Folding/Unfolding Dynamics of Proteins. 10.2.2. Experimental Measurements of the Amide Hydrogen Isotopic Exchange . 10.3. CHEMICAL CROSS-LINKING AS A PROBE FOR THE 3-D STRUCTURE OF PROTEINS. 10.4. ION MOBILITY MEASUREMENTS TO STUDY PROTEIN CONFORMATIONAL CHANGES. 10.5. OVERVIEW OF THE CHAPTER. 10.6. EXCERCISES. 10.7. ADDITIONAL READING. 10.8. REFERENCES. 11. Characterization of Oligosaccharides. 11.1. STRUCTURAL DIVERSITY IN OLIGOSACCHARIDES. 11.2. CLASSES OF GLYCANS. 11.3. MASS SPECTROMETRIC METHODS FOR COMPLETE STRCUTURE ELUCIDATION OF OLIGOSACCHARIDES. 11.3.1. Release of Glycans. 11.3.2. Derivatization of Carbohydrate chains. 11.3.3. Composition Analysis by GC/MS. 11.3.4. Linkage Analysis by GC/MS. 11.3.5. Rapid Identification by a Precursor-ion Scan . 11.3.6. Composition Analysis by Direct Mass Measurement. 11.3.7. Structure Determination of Oligosaccharides by Sequential Digestion. 11.3.8. Tandem Mass Spectrometry for Structural Analysis of Carbohydrates. 11.4. OVERVIEW OF THE CHAPTER. 11.5. EXCERCISES. 11.6. REFERENCES. 12. Characterization of Lipids. 12.1. CLASSIFICATION AND STRUCTURES OF LIPIDS. 12.2. MASS SPECTROMETRY OF FATTY ACIDS AND ACYLGLYCEROLS. 12.2.1. Analysis of Fatty Acids. 12.2.2. Analysis of Acylglycerols. 12.3. MASS SPECTROMETRY OF PHOSPHOLIPIDS. 12.4. MASS SPECTROMETRY OF GLYCOLIPIDS. 12.5. ANALYSIS OF BILE ACIDS AND STEROIDS. 12.6. ANALYSIS OF EICOSANOIDS. 12.7. LIPIDOMICS. 12.8. OVERVIEW OF THE CHAPTER. 12.9. EXCERCISES . 12.10. REFERENCES. 13. Structure Determination of Oligonucleotides. 13.1. STRUCTURES OF NUCLEOTIDES AND OLIGONUCLEOTIDES. 13.2. MASS SPECTROMETRY ANALYSIS OF NUCLEOSIDES AND NUCLEOTIDES. 13.3. CLEAVAGE OF OLIGONUCLEOTIDES. 13.4. MOLECULAR MASS DETERMINATION OF OLIGONUCLEOTIDES. 13.4.1. Electrospray Ionization for the Molecular Mass Determination . 13.4.2. Matrix-assisted Laser Desorption/Ionization for Molecular Mass Determination. 13.4.3. Base Composition from an Accurate Mass Measurement. 13.5. MASS SPECTROMETRY SEQUENCING OF OLIGONUCLEAOTIDES. 13.5.1. Gas-phase Fragmentation for Oligonucleotide Sequencing. 13.5.2. Solution-phase Techniques for Oligonucleotide Sequencing . 13.6. OVERVIEW OF THE CHAPTER. 13.7. EXCERCISES. 13.8. REFERENCES. 14. Quantitative Analysis. 14.1. ADVANTAGES OF MASS SPECTROMETRY. 14.2. DATA ACQUISITION. 14.2.1. Selected-ion Monitoring. 14.2.2. Selected-reaction Monitoring. 14.3. CALIBRATION. 14.3.1. External Standard Method. 14.3.2. Standard Addition Method. 14.3.3. Internal Standard Method . 14.4 VALIDATION OF A QUANTITATIVE METHOD. 14.5. SELECTED EXAMPLES. 14.5.1. Applications of Gas Chromatography/Mass Spectrometry. 14.5.2. Applications of Liquid Chromatography/Mass Spectrometry . 14.5.3. Applications of MALDI-MS. 14.6. OVERVIW OF THE CHAPTER. 14.7. EXCERCISES. 14.8. ADDITIONAL READING. 14.9. REFERENCES. 15. Misclaneous Topics. 15.1. ENZYME KINETICS. 15.1.1. Theory. 15.1.2. Reaction Monitoring. 15.2. IMAGING MASS SPECTROMETRY. 15.2.2. Imaging with SIMS. 15.2.2. Imaging with MALDI-MS. 15.3. ANALYSIS OF MICROORGANISMS. 15.3.1. Bacterial Identification. 15.3.2. Analysis of Viruses. 15.4. CLINICAL MASS SPECTROMETRY. 15.4.1. Low Molecular Mass Compounds as Biomarkers of Disease. 15.4.2. Analysis of DNA to diagnose Genetic Disorders. 15.4.3. Proteins as Biomarkers of Disease . 15.5. METABOLOMICS. 15.6. FORENSIC MASS SPECTROMETRY. 15.6.1. Analysis of Banned Substances of Abuse. 15.6.2 Analysis of Explosives. 15.6.3. Analysis of Glass and Paints. 15.6.4. Authenticity of Questioned Documents. 15.6.5. Mass spectrometry in Bioterror Defense. 15.7. SCREENING COMBINATORIAL LIBRARIES. 15.7.1. Combinatorial Synthetic Procedures. 15.7.2. Screening Methods. 15.8. ADDITIONAL READING. 15.9. REFERENCES . Appendix A: Abbreviations. Appendix B: Physical Constants, Units, and Conversion Factors . Appendix C: Isotopes of Naturally Occurring Elements and their Abundances. Appendix D: Reference Ions and Their Exact Masses. Appendix E: Internet Resources. Appendix F. Answers and Hints to Exercises. Index.

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Book SynopsisSuitable for safety or health professionals, this title emphasizes effective management of safety, health, and environmental programs through increased participation and active involvement of various levels of the organization.Table of ContentsForeword. Preface. 1. The Hierarchy of Safety, Health and Environmental Management. 2. Understanding OSHA and Safety and Health Regulations. 3. The Basics of Managing Safety, Health and Environmental Programs. 4. The Facility Safety and Health Committee System. 5. The Safety Activities Task Group. 6. The Rules and Procedures Task Group. 7. The Education and Training Task Group. 8. The Inspections and Audits Task Group. 9. The Health and Environment Task Group. 10. The Fire and Emergency Task Group. 11. The Housekeeping Task Group. 12. The Incident Investigations Task Group. 13. The Security Task Group. 14. Safety and Health Responsibilities. Appendix A: Tools and Forms. Appendix B: Frequently Asked Questions. Appendix C: Environmental, Safety, Health, and Security Resources. Index.

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Book SynopsisThis is the only series of volumes available that represents the cutting edge of research relative to advances in chemical physics. Provides the chemical physics field with a forum for critical, authoritative evaluations of advances in every area of the discipline. Continues to report recent advances with significant, up-to-date chapters. .Table of ContentsTHE INFLUENCE OF THE GEOMETRIC PHASE ON REACTION DYNAMICS (Stuart C. Althorpe, Juan Carlos Juanes-Marcos, and Eckart Wrede). OPTIMAL CONTROL THEORY FOR MANIPULATING MOLECULAR PROCESSES (Gabriel G. Balint-Kurti, Shiyang Zou, and Alex Brown). NONADIABATIC CHEMICAL DYNAMICS: COMPREHENSION AND CONTROL OF DYNAMICS, AND MANIFESTATION OF MOLECULAR FUNCTIONS (Hiroki Nakamura). EXPLORING MULTIPLE REACTION PATHS TO A SINGLE PRODUCT CHANNEL (David L. Osborn). PHOTOELECTRON CIRCULAR DICHROISM IN CHIRAL MOLECULES (Ivan Powis). SPECTROSCOPY OF THE POTENTIAL ENERGY SURFACES FOR C–H AND C–O BOND ACTIVATION BY TRANSITION METAL AND METAL OXIDE CATIONS (R. B. Metz). STABILIZATION OF DIFFERENT CONFORMERS OFWEAKLY BOUND COMPLEXES TO ACCESS VARYING EXCITED-STATE INTERMOLECULAR DYNAMICS (David S. Boucher and Richard A. Loomis). Author Index. Subject Index.

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Book SynopsisThe Journal of the American Chemical Society says this reference provides "a wealth of information on frontier photochemistry" and "could easily serve as a definitive source of background information for future researchers. " This volume features critical evaluations written by recognized experts and covers cutting-edge advances.Table of ContentsEnsemble Photophysics of Rigid Polyphenylene Based Dendritic Structures (M. Lor, G. Schweitzer, M. Van Der Auweraer, J. Hofkens, and F. C. De Schryver). Photochemistry of Short-Lived Species Using Multibeam Irradiation (Mamoru Fujitsuka and Tetsuro Majma). Two-Photon Physical, Organic, and Polymer Chemistry: Theory, Techniques, Chromophore Design, and Applications (Bernd Strehmel and Veronika Strehmel). Index. Cumulative Index Volumes.

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Book SynopsisVolume 28 contains chapters representing the cutting edge of research relative to advances in photochemistry. * Hypericin and its Perylene Quinone Analogs: Probing Structure, Dynamics, and Interactions with the Environment. * Thiophosgene, a Tailor-Made Molecule for Photochemical and Photophysical Studies.Table of ContentsHypericin and Its Perylene Quinone Analogs: Probing Structure, Dynamics, and Interactions with the Environment (K. DAS, M. HALDER, P. K. CHOWDHURY, J. PARK, Y. ALEXEEV, M. S. GORDON, AND J. W. PETRICH). Thiophosgene: A Tailor-Made Molecule for Photochemical and Photophysical Studies (DAVID C. MOULE, TAKASHIGE FUJIWARA, AND EDWARD C. LIM). 1,2-Cycloaddition Reaction of Carbonyl Compounds and Pentaatomic Heterocyclic Compounds (M. D. D’AURIA, L. EMANUELE, AND R. RACIOPPI). The Invention of Dylux1 Instant-Access Imaging Materials and the Development of Habi Chemistry—A Personal History (ROLF DESSAUER). Index. Cumulative Index, Volumes 1–28.

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Book SynopsisThe cutting edge of scientific reporting . . . PROGRESS in Inorganic Chemistry Nowhere is creative scientific talent busier than in the world of inorganic chemistry experimentation. Progress in Inorganic Chemistry continues in its tradition of being the most respected avenue for exchanging innovative research. This series provides inorganic chemists and materials scientists with a forum for critical, authoritative evaluations of advances in every area of the discipline. With contributions from internationally renowned chemists, this latest volume offers an in-depth, far-ranging examination of the changing face of the field, providing a tantalizing glimpse of the emerging state of the science. This series is distinguished not only by its scope and breadth, but also by the depth and quality of the reviews.Journal of the American Chemical Society [This series] has won a deservedly honored place on the bookshelf of the chemisTrade Review"This one serves its purpose to 'cutting edge of scientific reporting' and provides stimulation to various inorganic subdisciplines." (Journal of the American Chemical Society, March 5, 2008)Table of ContentsChapter 1 Elucidation of Electron-Transfer Pathways in Copper and Iron Proteins by Pulse Radiolysis Experiments (OLE FARVER AND ISRAEL PECHT). Chapter 2 Peptide- or Protein-Cleaving Agents Based on Metal Complexes (WOO SUK CHEI AND JUNGHUN SUH). Chapter 3 Coordination Polymers of the Lanthanide Elements: A Structural Survey (DANIEL T. dE LILL AND CHRISTOPHER L. CAHILL). Chapter 4 Supramolecular Chemistry of Gases (DMITRY M. RUDKEVICH). Chapter 5 The Organometallic Chemistry of Rh-, Ir-, Pd-, and Pt-Based Radicals: Higher Valent Species (BAS dE BRUIN, DENNIS G. H. HETTERSCHEID, ARJAN J. J. KOEKKOEK, AND HANSJO¨ RG GRU¨ TZMACHER). Chapter 6 Unique Metal–Diyne, –Enyne, and –Enediyne Complexes: Part of the Remarkably Diverse World of Metal–Alkyne Chemistry (SIBAPRASAD BHATTACHARYYA, SANGITA, AND JEFFREY M. ZALESKI). Chapter 7 Oxygen Activation Chemistry of Pacman and Hangman Porphyrin Architectures Based on Xanthene and Dibenzofuran Spacers (JOEL ROSENTHAL AND DANIEL G. NOCERA). Chapter 8 Metal-Containing Nucleic Acid Structures Based on Synergetic Hydrogen and Coordination Bonding (WEI HE, RAPHAEL M. FRANZINI, AND CATALINA ACHIM). Chapter 9 Bispidine Coordination Chemistry (PETER COMBA, MARION KERSCHER, AND WOLFGANG SCHIEK). Subject Index. Cumulative Index, Volumes 1–55.

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Book SynopsisThe highly successful Fieser & Fieser series has provided several generations of professional chemists and students with an up-to-date survey of the reagent literature. Reagents are listed in alphabetical order by common name, and the brief entry tells how to make it or buy it, what it is good for, and where to find complete details.Table of ContentsGeneral Abbreviations xi Reference Abbreviations xv Reagents 1 Author Index 447 Subject Index 515

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Book SynopsisThe Inorganic Syntheses series provides all users of inorganic substances with detailed and foolproof procedures for the preparation of important and timely compounds. * Includes complete, up-to-date procedures involving important inorganic substances * Contains subject, contributor, and formula indexes .Table of ContentsPreface. Contributors. Dedication. Notice to Contributors and Checkers. Toxic Substances and Laboratory Hazards. Chapter One COMPLEXES OF BULKY ß-DIKETIMINATE LIGANDS. 1. Introduction. 2. ß-Diketiminate Precursors HLMe,Me3 and TlLMe,Me3 (LMe,Me3 = 2,4-Bis-(Mesitylimido)Pentyl). 3. ß-Diketiminate Precursors LMe,iPr2H, [LMe,iPr2Li]x, and [LtBu,iPr2K]x (LMe,iPr2 = 2,4-Bis-(2,6-Diisopropylphenylimido)Pentyl; LtBu,iPr2 = 2,2,6,6- Tetramethyl-3,5-Bis-(2,6-Diisopropylphenylimido)Heptyl). 4. ß-Diketiminate Precursors LtBu,iPr2H and LtBu,iPr2Li(THF) (LtBu,iPr2=2,2,6,6-Tetramethyl-3,5- Bis-(2,6-Diisopropylphenylimido)Heptyl). 5. Scandium Trichloride Tris(Tetrahydrofuran) and ß-Diketiminate-Supported Scandium Chloride Complexes. 6. ß-Diketiminate-Supported Titanium and Vanadium Dichloride Complexes. 7. ß-Diketiminate-Supported Vanadium and Chromium Chloride Complexes. 8. ß-Diketiminate-Supported Manganese and Zinc Complexes. 9. Iron 2,4-Bis-(2,6-Diisopropylphenylimido)Pentyl Chloride (LMe,iPr2FeCl). 10. Iron 2,2,6,6-Tetramethyl-3,5-Bis-(2,6-Diisopropylphenylimido)Heptyl Chloride (LtBu,iPr2FeCl). 11. Cobalt 2,2,6,6-Tetramethyl-3,5-Bis-(2,6-Diisopropylphenylimido) Heptyl Chloride (LtBu,iPr2CoCl). 12. ß-Diketiminate-Supported Nickel(II) and Nickel(I) Complexes of LMe,Me3 (LMe,Me3 = 2,4-Bis-(Mesitylimido)Pentyl). 13. Nickel 2,4-Bis-(2,6-Diisopropylphenylimido)Pentyl Chloride Dimer, [LMe,iPr2Ni(µ-Cl)]2. 14. Bis[Copper 2,4-Bis-(2,4,6-Trimethylphenylimido)Pentyl] Toluene, (LMe,Me3Cu)2(µ-n2:n2-C7H8). 15. Copper 2,4-Bis-(2,6-Diisopropylphenylimido)Pentyl Chloride (LMe,iPr2CuCl). Chapter Two BORON CLUSTER COMPOUNDS. 16. Salts of Dodecamethylcarba-closo-Dodecaborate(—) Anion, CB11Me12, and the Radical Dodecamethylcarba-closo-Dodecaboranyl, CB11Me12. 17. Cesium Dodecahydroxy-closo-Dodecaborate, Cs2[B12(OH)12]. Chapter Three COORDINATION COMPOUNDS. 18. Pentaaquanitrosylchromium Sulfate. 19. The Tetradentate Bispidine Ligand Dimethyl-(3,7-Dimethyl-9-oxo-2,4-bis(2-pyridyl)-3,7-Diazabicyclo[3.3.1]nonane)-1, 5-dicarboxylate and Its Copper(ll) Complex. 20. Tris(2-Picolinyl)Methane and Its Copper(I) Complex. Chapter Four CARBENE LIGANDS AND COMPLEXES. 21. 1,3-Dialkyl-Imidazole-2-Ylidenes. 22. A Chelating Rhodium N-Heterocyclic Carbene Complex by Transmetallation from a Silver–NHC Intermediate. 23. Rhodium and Iridium N-Heterocyclic Carbene Complexes from Imidazolium Carboxylates. Chapter Five FUNCTIONAL LIGANDS AND COMPLEXES. 24. N-tert-Butyl ortho-Aminophenol, ortho-Iminoquinone, and a Zirconium(IV) bis(Aminophenolate) Complex. 25. Synthesis of the Water-Soluble Bidentate (P, N) Ligand PTN(Me) (PTN(Me) = 7-Phospha-3-methyl-1,3,5-triazabicyclo[3.3.1]nonane). 26. Synthesis of Metal-Organic Frameworks: MOF-5 and MOF-177. Chapter Six ORGANOMETALLIC REAGENTS. 27. Tricarbonyl 1,3,5-Trimethyl-1,3,5-Triazacyclohexane Complexes of Chromium(0), Molybdenum(0), and Tungsten(0) [M(CO)3(Me3TACH) (M = Cr, Mo, W)]. 28. Manganese Tricarbonyl Transfer (MTT) Agents. 29. Bis(1,5-Cyclooctadiene)Nickel(0). 30. Sodium (n5-Cyclopentadienyl)Tris(Dimethylphosphito-P) Cobaltate(III), Na[(C5H5)Co{P(O)(OMe)2}3]. Chapter Seven BIO-INSPIRED IRON AND NICKEL COMPLEXES. 31. Iron–Cyanocarbonyl Complexes [PPN][Fe(CO)4(CN)] and [PPN][FeBr(CO)3(CN)2]. 32. Nickel Complexes of Bis(Diethylphosphinomethyl) Methylamine. 33. Monomeric Iron(II) Complexes Having Two Sterically Hindered Arylthiolates. 34 (1,3-Propanedithiolato)-Hexacarbonyldiiron and Cyanide Derivatives. Chapter Eight RUTHENIUM COMPLEXES. 35. Ruthenium(II)-Chlorido Complexes of Dimethylsulfoxide. 36. Synthesis of Chloride-Free Ruthenium(II) Hexaaqua Tosylate, [Ru(H2O)6]tos2. 37. Basic Ruthenium Acetate and Mixed Valence Derivatives. 38. Di-µ-Chloro(Ethylbenzoate)Diruthenium(II), [(n6-etb)RuCl2]2. Chapter Nine IRIDIUM COMPLEXES. 39. The Diphosphine tfepma and its Diiridium Complex Ir20,II(tfepma)3Cl2. 40. Heteroleptic Cyclometalated Iridium(III) Complexes. 41. Oxygen and Carbon Bound Acetylacetonato Iridium(III) Complexes. Contributor Index. Subject Index. Formula Index.

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Book SynopsisField technicians and emergency response personnel are often faced with the dangers of flammable, combustible, and chemically unstable materials.Trade Review"...reads well and the information is clearly delivered." (Journal of Hazardous Materials, September 2006)Table of Contents1 Regulations, Agencies, and Resources 1 Introduction—History of Employee Health and Safety Regulations 1 Regulations 2 The Environmental Protection Agency 2 Hazardous Waste Numbers 3 EPA Identification Numbers 4 Clean Water Act 4 Clean Air Act 5 Resource Conservation and Recovery Act (RCRA) 5 Toxic Substance Control Act 6 Comprehensive Environmental Response Compensation and Liability Act (CERCLA) 7 Superfund Amendment and Reauthorization Act (SARA) 7 Department of Labor—Occupational Safety and Health Administration 8 National Institute for Occupational Safety and Health (NIOSH) 9 Department of Transportation (DOT) 9 National Fire Protection Association (NFPA) 10 NFPA 704 Labeling 10 Hazard Communication Standard 12 Hazardous Waste Operations and Emergency Response (HAZWOPER) 13 Hazwoper Training 13 Incident Command System (ICS) 15 Resources 16 Materia] Safety Data Sheets (MSDS) 16 NIOSII Pocket Guide to Chemical Hazards 19 Emergency Response Guidebook 19 Summary 20 2 Hazard Classification 21 Chemical Exposure 24 Explosion and Fire 27 Oxygen Deficiency 28 Ionizing Radiation 28 Biological Hazards 29 General Safety Hazards 29 Electrical Hazards 31 Heat Stress 32 Cold Exposure 32 Noise 33 Poisonous Snakes Insects and Plants 33 Weather 34 Heavy Equipment 34 Tools 37 Definition of Hazardous Materials vs. Hazardous Waste 38 Classification of Hazardous Materials 40 Physical Properties of Hazardous Materials 41 Vapor Density and Specific Gravity 41 Flammability 43 Explosive Limits 43 Hash Point 43 Hammable Solids 44 Firefighting and Fire Prevention 44 Portable Fire Extinguishers 45 Toxic Products of Combustion 47 Corrosives 47 Acids 47 Alkalis 48 Reactivity of Some Common Elements 48 Water-Reactive Materials 48 Oxidizing Materials 49 Boiling Liquid Expanding Vapor Explosion (BLEVE) 49 Flammable and Combustible Liquid 51 Summary 53 3 Site Safety Plan 55 The Plan 56 Emergencies 57 Incident Characterization 57 Remedial Actions 58 Safety Plan Development 58 Routine Operations 59 Describe the Known Hazards and Risks 59 List Key Personnel and Alternates 60 Designate Levels of Protection to be Worn 60 Delineate Work Areas 60 List Control Procedures 60 Establish Decontamination Procedures 62 Address Requirements for an Environmental Surveillance Program 62 Specify Any Routine and/or Special Training Required 63 Establish Procedures for Weather-Related Problems 63 On Site Emergencies 65 Establish Site Emergency Procedures 65 Address Emergency Medical Care 66 Implementation of the Site Safety Plan 68 Typical Safety Plan Outline 72 Responsibilities 74 Client 74 Engineering Firm 75 Site Contractors 75 Consulting Firm / Site Safety Officer (SSO) 75 Summary 76 4 Site Characterization 77 Offsite Characterization 78 Interview/Records Research 79 Perimeter Investigation 81 Protection of Site Entry Workforce 83 Onsite Survey 84 Continuing the Survey 86 Information Documentation 90 Hazard Assessment 93 Threshold Limit Values 93 Permissible Exposure Limit 95 Recommended Exposure Limit 95 IDLH Concentrations 95 Potential Skin Absorption and Irritation 96 Potential Eye Irritation 96 Flammable and Explosive Range 96 Monitoring 97 Summary 100 5 Site Control 101 Site Map 102 Site Preparation 103 Site Preparation Tasks 104 Site Work Zones 105 Exclusion or Hot Zone 108 Contamination Reduction or Warm Zone 109 Support Zone or Cold Zone 111 Buddy System 112 Enforce Decontamination Procedures 115 Security Measures 116 Communication Networks 118 Internal Communications 118 Safety Meetings 119 External Communications 119 Summary 120 6 Toxicology and Medical Monitoring 121 Toxicity vs. Hazard 122 Toxicity Tests 122 Dose-Response Relationship 123 Measurement of Response 123 Dose-Response Terms 123 Use of Dose-Response Relationship 124 Limitations of Dose-Response Data 126 Routes of Exposure 127 Gender Differences 127 Age 127 Synergism, Antagonism, and Potentiation 128 Genetics 128 Species Variation 129 Kinds of Toxicity 129 Types of Toxic Effects 129 Toxic Substances and Cancer-Causing Agents 130 Introduction to Medical Monitoring 131 Developing a Program 133 Pre-Employment Screening 138 Sample Pre-Employment Examination 140 Additional Medical Testing 142 Baseline Monitoring 142 Periodic Medical Examinations 142 Sample Periodic Medical Examination 143 Termination Examination 143 Emergency Treatment 144 Non-Emergency Treatment 147 Medical Records 147 Program Review and Summary 147 7 Air Monitoring 149 Monitoring Instruments 149 Direct-Reading Instruments 150 Laboratory Analysis 155 Site Monitoring 158 Monitoring for Dangerous Conditions 159 General On-Site Monitoring 159 Perimeter Monitoring 160 Periodic Monitoring 160 Personal Monitoring 160 Variables of Hazardous - Waste Site Exposure 161 Limitations and Advantages of Monitoring Equipment 161 Summary 162 8 Personal Protective Equipment 163 Introduction 163 Developing a Personal Protective Equipment Program 165 Equipment Use 165 Program Review and Evaluation 166 Selection of Protective Clothing 167 Examples of Protective Clothing 167 Selection of Chemical Protective Clothing (CPC) 169 Selection of Ensembles 179 Personal Protective Equipment Use 185 Training 186 Work Duration 189 Inspection 195 Storage 196 Heat Stress and Other Physiological Factors 196 Monitoring 197 Prevention 199 Cold Weather Operations 200 Other Factors 205 Physical Condition 206 Level of Acclimatization 206 Age 207 Sex 207 Weight 207 Maintenance 208 Summary 208 9 Decontamination Procedures 209 Introduction 209 General Procedures 210 Preplanning for Decontamination 210 Personal Protective Equipment 211 Types of Decontamination 213 Physical Removal 213 Chemical Removal 213 Equipment Needs 215 Proper Disposal 215 Personal Protection 218 Preliminary Concerns 218 Level of Protection 220 Work Function 220 Location of Contamination 221 Reasons for Leaving Site 221 Establishment of Procedures 221 Decontamination during Medical Emergencies 222 Physical Injury 222 Partial and Full Decontamination 222 Persistent Contamination 225 Summary 230 10 Respiratory Protection 231 Selection of Respiratory Equipment 231 Air-Purifying Respirators 235 Air-Line Respirators (ALRs) 239 Self-Contained Breathing Apparatus (SCBA) 241 ln-Use Monitoring 246 Storage 247 Inspection 247 Cleaning of Respirators 248 Summary 248 11 Engineering Controls 249 Buddy System 249 Site Security 251 Communications Systems 255 Handling Hazardous-Waste Containers 258 Planning 259 Packaged Laboratory Wastes 263 Bulging, Leaking, Open, Deteriorated, or Buried Drums 263 Sampling 266 Characterization 267 Staging 268 Bulking 269 Shipment 269 Vacuum Trucks 270 Elevated Tanks 271 Compressed Gas Cylinders 271 Ponds and Lagoons 272 Tanks and Vaults 273 Confined Spaces 274 Trenching and Excavation Safety 279 Summary 285 12 Site Emergencies 287 Planning 288 Personnel 289 Federal Response Organizations 294 Training 295 Emergency Recognition and Prevention 296 Communications 297 Internal Communications 297 External Communications 299 Site Mapping 299 Safe Distances and Refuges 300 Site Security and Control 301 Personal Locator Systems 301 Evacuation Routes and Procedures 302 Decontamination 303 Equipment 304 Medical Treatment and First Aid 305 Emergency Response Procedures 307 Size-Up 308 Rescue/Response Action 308 Follow-Up Procedures 310 Documentation 310 Emergency Response Plan 311 Summary 313 Glossary 315 Index 321

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Book SynopsisState-of-the-art tools and applicationsfor food safety and food science research Atomic spectroscopy and mass spectrometry are important tools for identifying and quantifying trace elements in food products-elements that may be potentially beneficial or potentially toxic. The Determination of Chemical Elements in Food: Applications for Atomic and Mass Spectrometry teaches the reader how to use these advanced technologies for food analysis. With chapters written by internationally renowned scientists, it provides a detailed overview of progress in the field and the latest innovations in instrumentation and techniques, covering: Fundamentals and method development, selected applications, and speciation analysis Applications of atomic absorption spectrometry, inductively coupled plasma atomic emission spectrometry, and inductively coupled plasma mass spectrometry Applications to foods of animal origin and applications to foods of vegetable Table of ContentsPreface. Contributors. SECTION 1: FUNDAMENTALS AND METHOD DEVELOPMENT. 1. Improvement in Pretreatment and Analysis with Spectrometric Methods: A Typical Application to Routine Analysis.(K. Boutakhrit, F. Bolle, J.M. Degroodt, and L. Goeyens) 2. Solubilization: Trends of Development in Analytical Atomic Spectrometry for Elemental Food Analysis. (Henryk Matusiewicz) 3. Chemical Elements in Food and the Role of Atomic and Mass Spectrometry. Advantages and Drawbacks of the Determination of Selected Trace Elements in Foodstuffs by Atomic Absorption Spectrometry. (Lars Jorhem and Joakim Engman) 4. High-Resolution Continuum Source AAs and its Application to Food Analysis. (Bernhard Welz, Daniel L. G. Borges, and Uwe Heitmann) 5. Determining the Geographical Origin of Foods: Considerations when Designing Experimental Protocols and Choosing Analytical Approaches. (John Lewis and Simon Hird) 6. Methods Validation for Food Analysis: Concepts and Use of Statistical Techniques. (Joris Van Loco) 7. Demonstration of Measurement Capabilities by Means of Interlaboratory Comparison Schemes for Trace Element Analysis in Food. (Yetunde Aregbe, Piotr Robouch, and Thomas Prohaska) SECTION 2: SELECTED APPLICATIONS. 8. Applications of Inductively Coupled Plasma Mass Spectrometry to Trace Element research and Control. (Francesco Cubadda) 9. Danish Monitoring System for Foods 1998-2003. Content of As, Cd, Hg, Ni, Pb, and Se and Dietary Inake by Children and Adults. (Erik H. Larsen, Inge Rokkjar, and Tue Christensen) 10. Trace Elements in the Total Diet Typical of Northern Italy. (M. Bettinelli, S. Spezia, A. Gatti, A. Ronchi, C. Minoia, C. Roggi, and G. Turconi) 11. Car Catalytic Converters and the Contamination of Food by Platinum-Group Elements. (Chiara Frazzoli, Roberta Cammarone, and Sergio Caroli) 12. Arsenic and Other Potentially Toxic Trace Elements in Rice. (Chiara Frazzoli, Marilena D'Amato, Sergio Caroli, and Gyula Zaray) 13. Total Analysis and Distribution of Trace Elements in Human, Cow, and Formula Milk. (Rafael R. de la Flor St. Remy, Maria Luisa Fernandez Sanchez, and Alfredo Sanz-Medel) 14. Use of Spectrochemical Methods for the Determination of Metals in Fish and Other Seafood in Louisiana. (Joseph Sneddon) 15. Essential and Potentially Toxic Chemical Elements in Beverages. (Patricia Smichowksi and Daniel A. Batistoni) SECTION 3: SPECIATION ANALYSIS. 16. Species-Specific Determination of Metal(loid)-containing Food Additive sand Contaminants by Chromatography with ICP-MS Detection. (A. Polatajko, B. Bouyssiere, and J.Szpunar) 17. Elemental Speciation in Human Milk and Substitute Food for Newborns. (bernahrd Michalke, Maria Luisa Fernancez Sanchez, and Alfredo Sanz-Medel) 18. Measurement of Total Arsenic and Arsenic Species in Seafood By Q ICP-MS. (William A. Maher, Jason Kiry, and Frank Krikowa) 19. Sample Preparation Prior to As- and Se-Speciation. (Mihaly Dernovics and Peter Fodor) 20. Measurement of Total Se and Se Species in Seafood by Quadrupole Inductively Coupled Plasma Mass Spectrometry, Electrothermal Atomization Atomic Absorption Spectrometry, and High-Performance Liquid Chromatography Inductively Coupled Plasma Mass Spectrometry. (William A. Maher and Frank Kirkowa) 21. Application of ICP-MS for the Evaluation of Se Species in Food Related Products and in Dietary Supplements. (Katarzyna Wrobel, Kaximierz Wrobel, and Joseph A. Caruso) 22. Determination of Hg Species in Seafood. (Petra Krystek and Rob Ritsema) Author Index. Subject Index.

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Book SynopsisAn informative look at the intricacies of today's drug development process Once a discovery organization has identified a potential new drug candidate, it is the daunting task of synthetic organic chemists to identify the chemical process suitable for preparation of this compound in a highly regulated environment.Trade Review"This book will give a lot of pleasure and information to the medicinal chemist, the synthetic organic chemist, and anyone involved in taking a drug candidate to the stage of pharmaceutical formulation." (Journal of Medicinal Chemistry, December 28, 2006) ‘…this is an excellent book…It is highly recommended to all scientists involved in developing new processes for APIs.’ (Organic Process Research and Development Journal, July 2007)Table of ContentsContributors. Preface. 1. Reflections on Process Research II (Edward J. J. Grabowski). 2. Development and Scale-Up of a Heterocyclic Cross-Coupling for the Synthesis of 5-[2-(3-Methyl-3H-imidazol-4-yl)-thieno[3,2-b]pyridine-7-yl] amino-2-methyl-1H-indole (John A. Ragan). 3. Large-Scale Enantioselective Preparation of 2E,7E, 5S,6R,5-Hydroxy-6-methyl-8-phenyl-octa-2,7-dienoic Acid, a Key Fragment for the Formal Total Synthesis of the Anti-tumor Agent Cryptophycin 52 (James Aikins, Tony Y. Zhang, Milton Zmijewski, and Barbara Briggs). 4. Efforts Toward a Commercially Viable Route and Process to the Synthesis of HIV PI GW640385X (John C. Roberts, Roman Davis, Brian D. Doan, Thomas C. Lovelace, Daniel E. Patterson, Frank Roschangar, Barry Sickles, Jennifer F. Toczko, and Ju Yang). 5. Development of an Asymmetric Synthesis of ABT-100 (Albert W. Kruger, Michael J. Rozema, Bridget D. Rohde, Bhadra Shelat, Lakshmi Bhagavatula, James J. Tien, Weijiang Zhang, and Rodger F. Henry) 6. Asymmetric Hydrogenation: A New Route to Pregabalin (Rex Jennings, William S. Kissel, Tung V. Le, Edward Lenoir, Thomas Mulhern, and Robert Wade). 7. Responsibilities of the Process Chemist: Beyond Synthetic Organic Chemistry (Stéphane Caron). 8. Outsourcing—The Challenge of Science, Speed, and Quality (Simone Andler-Burzlaff, Jason Bertola, and Roger E. Marti). 9. Automation and the Changing Face of Process Research in the Pharmaceutical Industry (Edward J. Delaney, Merrill L. Davies, Brent D. Karcher, Victor W. Rosso, A. Erik Rubin, and John J. Venit) 10. Large-Scale Synthesis: An Engineering Perspective (Joseph H. Childers, Jr.) 11. Synthesis and Application of Radioisotopes in Pharmaceutical Research and Development (Larry E. Weaner and David C. Hoerr). 12. Selection of the Drug Form in Exploratory Development (George J. Quallich). 13. Strategies to Achieve Particle Size of Active Pharmaceutical Ingredients (David J. am Ende and Peter R. Rose). 14. Challenges in Early Formulation: Turning Drug Substance into Drug Product (Mark H. Kleinman and Beeah Lee). 15. Intellectual Property and Early Development (Maria I. Shchuka). Index.

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Book SynopsisKetenes, Second Edition is a comprehensive, up-to-date reference on the entire field of ketene chemistry. It is the premier resource on this important class of compounds and will serve as indispensable reference for all those working in synthetic organic chemistry. .Table of ContentsPreface. Introduction. 1. STRUCTURE, BONDING, AND THERMOCHEMISTRY OF KETENES. 1.1 Theoretical Studies of Ketenes. 1.1.1 Molecular and Electronic Structure and Energy. 1.1.2 Theoretical Studies of Ketene Reactions. 1.1.3 Substituent Effects on Ketenes. 1.2 Molecular Structure Determinations. 1.3 Thermochemistry of Ketenes. 2. SPECTROSCOPY AND PHYSICAL PROPERTIES OF KETENES. 2.1 Nuclear Magnetic Resonance Spectroscopy. 2.2 Ultraviolet and Photoelectron Spectroscopy. 2.3 Infrared Spectra. 2.4 Dipole Moments. 2.5 Mass Spectrometry and Gas Phase Ion Chemistry. 3. PREPARATION OF KETENES. Ketenes from Ketene Dimers. 3.1 Ketenes from Carboxylic Acids and Their Derivatives. 3.1.1 Ketenes from Carboxylic Anhydrides. 3.1.2 Ketenes from Acyl Halides and Activated Acids. 3.1.3 Ketenes from Esters. 3.1.3.1 Ketenes from Ester Enolates. 3.1.3.2 Ketenes by Ester Pyrolysis. 3.1.3.3 Other Preparations of Ketenes from Esters. 3.1.4 Ketenes by Dehalogenation of ?-Halo Carboxylic Derivatives. 3.3 Ketenes from Diazo Ketones (Wolff Rearrangements). 3.3.1 Thermal Wolff Rearrangement. 3.3.2 Photochemical Wolff Rearrangement. 3.4 Ketenes by Photochemical and Thermolytic Methods. 3.4.1 Ketenes from Cyclobutanones and Cyclobutenones. 3.4.2 Ketenes from Photolysis of Cycloalkanones and Enones. 3.4.3 Ketenes from Cytclohexadienones and Other Cycloalkenones. 3.4.4 Ketenes from Dioxinones. 3.4.5 Ketenes by Thermolysis of Alkynyl Ethers. 3.4.6 Ketenes from Other Thermolytic and Photochemical Routes. 3.5 Ketenes from Alkenylcarbene Metal Complexes. 3.6 Ketene Formation under Acidic Conditions. 3.7 Ketenes from Oxidation of Alkynes. 3.8 Other Routes to Ketenes. 4. TYPES OF KETENES. 4.1 Carbon-Substituted Ketenes. 4.1.1 Alkylketenes. 4.1.2 Alkenylketenes. 4.1.3 Alkynylketenes and Cyanoketenes. 4.14 Arylketenes. 4.1.5 Cyclopropylketenes. 4.1.6 Acylketenes. 4.1.7 Imidoylketenes. 4.1.8 Cumulene-Substituted Ketenes. 4.1.9 Ketenes with Charged, Radical, or Carbenic Side Chains. 4.1.10 Fulvenones. 4.1.10.1 Triafulvenones. 4.1.10.2 Pentafulvenones. 4.1.10.3 Heptafulvenones. 4.1.10.4 Oxoquinone Methides and Related Species. 4.2 Nitrogen-Substituted Ketenes. 4.3 Oxygen-Substituted Ketenes. 4.4 Halogen-Substituted Ketenes. 4.4.1 Fluoroketenes, Perfluoroalkylketenes and Perfluoroarylketenes. 4.4.2 Chlorine, Bromine, and Iodine-Substituted Ketenes. 4.5 Silyl-, Germyl-, and Stannylketenes. 4.6 Phosphorous- and Arsenic-Substituted Ketenes. 4.7 Sulfur-Substituted Ketenes. 4.8 Metal-Substituted Ketenes. 4.8.1 Lithium Ketenes (Lithium Ynolates) and Ynols. 4.8.2 Boron-Substituted Ketenes. 4.8.3 Other Metal-Substituted Ketenes and Metal Ketenides. 4.8.4 Metal-Complexed Ketenes. 4.9 Bisketenes. 4.10 Ketenyl Radicals, Anions, and Cations. 4.11 Cumulenones. 5. REACTIONS OF KETENES. 5.1 Oxidation and Reduction of Ketenes (Electron Transfer). 5.2 Photochemical Reactions. 5.3 Thermolysis Reactions. 5.4 Cycloaddition Reactions of Ketenes. 5.4.1 Intermolecular [2+2] Cycloaddition. 5.4.1.1 Dimerization of Ketenes. 5.4.1.2 Cycloaddition with Alkenes and Dienes. 5.4.1.3 Mechanism of Ketene [2+2]. Cycloadditions with Alkenes. 5.4.1.4 Cycloaddition of Ketenes with Nucleophilic Alkenes. 5.4.1.5 Cycloaddition of Ketenes with Allenes. 5.4.1.6 Cycloaddition of Ketenes with Alkynes. 5.4.1.7 Cycloaddition of Ketenes with Imines. 5.4.1.8 Cycloadditions of Ketenes with Other Substrates. 5.4.2 [3+2] Cycloaddition Reactions of Ketenes. 5.4.3 [4+2] Cycloadditions of Ketenes. 5.4.4 Intramolecular Cycloadditions of Ketenes. 5.4.5 Intermolecular and Intramolecular Cycloaddition of Ketenes with Carbonyl Groups. 5.5 Nucleophilic Addition to Ketenes. 5.5.1 Mechanisms. 5.5.1.1 Theoretical Studies. 5.5.1.2 Kinetics of Hydration: Neutral and Base Reactions. 5.5.1.3 Acid-Catalyzed Hydration. 5.5.1.4 Alcoholysis and Aminolysis. 5.5.2 Nucleophilic Additions to Ketenes: Preparative Aspects. 5.5.2.1 Hydride Addition. 5.5.2.2 Oxygen Nucleophiles. 5.5.2.3 Nitrogen Nucleophiles. 5.5.2.4 Carbon Nucleophiles. 5.5.2.5 Other Nucleophiles. 5.5.3 Wittig Reactions. 5.6 Electrophilic Addition to Ketenes. 5.6.1 Protonation of Ketenes. 5.6.2 Electrophilic Addition of Hydrogen Halides to Ketenes. 5.6.3 Electrophilic Additions to Other Reagents. 5.6.4 Oxygenation of Ketenes. 5.7 Radical Reactions of Ketenes. 5.8 Polymerization of Ketenes. 5.9 Stereoselectivity in Ketene Reactions. 5.10 Other Additions to Ketenes. 5.10.1 Reaction with Diazomethanes. 5.10.2 Reaction with Sulfur Dioxide. 5.11 Ketene Reactions Using Polymer Supports. References. Index.

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Book SynopsisExperimentation is one of the most common activities in which all people engage. In this thoroughly updated Second Edition, Experiments presents the most modern, up-to-date treatment in the design and analysis of experiment topics currently available.Trade Review“On the whole, I think the book is ideal for a year-long course at the graduate level (there is much more material in the book than can be reasonably covered even in a year-long course), but is still advanced for undergraduates.” (Zentralblatt MATH, 2012) Table of ContentsPreface to the Second Edition. Preface to the First Edition. Suggestions of Topics for Instructors. List of Experiments and Data Sets. 1 Basic Concepts for Experimental Design and Introductory Regression Analysis. 1.1 Introduction and Historical Perspective. 1.2 A Systematic Approach to the Planning and Implementation of Experiments. 1.3 Fundamental Principles: Replication, Randomization, and Blocking. 1.4 Simple Linear Regression. 1.5 Testing of Hypothesis and Interval Estimation. 1.6 Multiple Linear Regression. 1.7 Variable Selection in Regression Analysis. 1.8 Analysis of Air Pollution Data. 1.9 Practical Summary. 2 Experiments with a Single Factor. 2.1 One-Way Layout. 2.2 Multiple Comparisons. 2.3 Quantitative Factors and Orthogonal Polynomials. 2.4 Expected Mean Squares and Sample Size Determination. 2.5 One-Way Random Effects Model. 2.6 Residual Analysis: Assessment of Model Assumptions. 2.7 Practical Summary. 3 Experiments with More Than One Factor. 3.1 Paired Comparison Designs. 3.2 Randomized Block Designs. 3.3 Two-Way Layout: Factors With Fixed Levels. 3.4 Two-Way Layout: Factors With Random Levels. 3.5 Multi-Way Layouts. 3.6 Latin Square Designs: Two Blocking Variables. 3.7 Graeco-Latin Square Designs. 3.8 Balanced Incomplete Block Designs. 3.9 Split-Plot Designs. 3.10 Analysis of Covariance: Incorporating Auxiliary Information. 3.11 Transformation of the Response. 3.12 Practical Summary. 4 Full Factorial Experiments at Two Levels. 4.1 An Epitaxial Layer Growth Experiment. 4.2 Full Factorial Designs at Two Levels: A General Discussion. 4.3 Factorial Effects and Plots. 4.4 Using Regression to Compute Factorial Effects. 4.5 ANOVA Treatment of Factorial Effects. 4.6 Fundamental Principles for Factorial Effects: Effect Hierarchy, Effect Sparsity, and Effect Heredity. 4.7 Comparisons with the "One-Factor-at-a-Time" Approach. 4.8 Normal and Half-Normal Plots for Judging Effect Significance. 4.9 Lenth's Method: Testing Effect Significance for Experiments Without Variance Estimates. 4.10 Nominal-the-Best Problem and Quadratic Loss Function. 4.11 Use of Log Sample Variance for Dispersion Analysis. 4.12 Analysis of Location and Dispersion: Revisiting the Epitaxial Layer Growth Experiment. 4.13 Test of Variance Homogeneity and Pooled Estimate of Variance. 4.14 Studentized Maximum Modulus Test: Testing Effect Significance for Experiments with Variance Estimates. 4.15 Blocking and Optimal Arrangement of 2k Factorial Designs in 2q Blocks. 4.16 Practical Summary. 5 Fractional Factorial Experiments at Two Levels. 5.1 A Leaf Spring Experiment. 5.2 Fractional Factorial Designs: Effect Aliasing and the Criteria Of Resolution and Minimum Aberration. 5.3 Analysis of Fractional Factorial Experiments. 5.4 Techniques for Resolving the Ambiguities in Aliased Effects. 5.5 Selection of 2k-p Designs Using Minimum Aberration and Related Criteria. 5.6 Blocking in Fractional Factorial Designs. 5.7 Practical Summary. 6 Full Factorial and Fractional Factorial Experiments at Three Levels. 6.1 A Seat-Belt Experiment. 6.2 Larger-the-Better and Smaller-the-Better Problems. 6.3 3k Full Factorial Designs. 6.4 3k-p Fractional Factorial Designs. 6.5 Simple Analysis Methods: Plots and Analysis of Variance. 6.6 An Alternative Analysis Method. 6.7 Analysis Strategies for Multiple Responses I: Out-of-Spec Probabilities. 6.8 Blocking in 3k and 3k-p Designs. 6.9 Practical Summary. 7 Other Design and Analysis Techniques for Experiments at More Than Two Levels. 7.1 A Router Bit Experiment Based on a Mixed Two-Level and Four-Level Design. 7.2 Method of Replacement and Construction of 2m4n Designs. 7.3 Minimum Aberration 2m4n Designs with n = 1, 2. 7.4 An Analysis Strategy for 2m4n Experiments. 7.5 Analysis of the Router Bit Experiment. 7.6 A Paint Experiment Based on a Mixed Two-Level and Three-Level Design. 7.7 Design and Analysis of 36-Run Experiments at Two And Three Levels. 7.8 rk-p Fractional Factorial Designs for any Prime Number r. 7.9 Related Factors: Method of Sliding Levels, Nested Effects Analysis, and Response Surface Modeling. 7.10 Practical Summary. 8 Nonregular Designs: Construction and Properties. 8.1 Two Experiments: Weld-Repaired Castings and Blood Glucose Testing. 8.2 Some Advantages of Nonregular Designs Over the 2k-p and 3k-p Series of Designs. 8.3 A Lemma on Orthogonal Arrays. 8.4 Plackett-Burman Designs and Hall's Designs. 8.5 A Collection of Useful Mixed-Level Orthogonal Arrays. 8.6 Construction of Mixed-Level Orthogonal Arrays Based on Difference Matrices. 8.7 Construction of Mixed-Level Orthogonal Arrays Through the Method of Replacement. 8.8 Orthogonal Main-Effect Plans Through Collapsing Factors. 8.9 Practical Summary. 9 Experiments with Complex Aliasing. 9.1 Partial Aliasing of Effects and the Alias Matrix. 9.2 Traditional Analysis Strategy: Screening Design and Main Effect Analysis. 9.3 Simplification of Complex Aliasing via Effect Sparsity. 9.4 An Analysis Strategy for Designs with Complex Aliasing. 9.5 A Bayesian Variable Selection Strategy for Designs with Complex Aliasing. 9.6 Supersaturated Designs: Design Construction and Analysis. 9.7 Practical Summary. 10 Response Surface Methodology. 10.1 A Ranitidine Separation Experiment. 10.2 Sequential Nature of Response Surface Methodology. 10.3 From First-Order Experiments to Second-Order Experiments: Steepest Ascent Search and Rectangular Grid Search. 10.4 Analysis of Second-Order Response Surfaces. 10.5 Analysis of the Ranitidine Experiment. 10.6 Analysis Strategies for Multiple Responses II: Contour Plots and the Use of Desirability Functions. 10.7 Central Composite Designs. 10.8 Box-Behnken Designs and Uniform Shell Designs. 10.9 Practical Summary. 11 Introduction to Robust Parameter Design. 11.1 A Robust Parameter Design Perspective of the Layer Growth and Leaf Spring Experiments. 11.2 Strategies for Reducing Variation. 11.3 Noise (Hard-to-Control) Factors. 11.4 Variation Reduction Through Robust Parameter Design. 11.5 Experimentation and Modeling Strategies I: Cross Array. 11.6 Experimentation and Modeling Strategies II: Single Array and Response Modeling. 11.7 Cross Arrays: Estimation Capacity and Optimal Selection. 11.8 Choosing Between Cross Arrays and Single Arrays. 11.9 Signal-to-Noise Ratio and Its Limitations for Parameter Design Optimization. 11.10 Further Topics. 11.11 Practical Summary. 12 Robust Parameter Design for Signal-Response Systems. 12.1 An Injection Molding Experiment. 12.2 Signal-Response Systems and their Classification. 12.3 Performance Measures for Parameter Design Optimization. 12.4 Modeling and Analysis Strategies. 12.5 Analysis of the Injection Molding Experiment. 12.6 Choice of Experimental Plans. 12.7 Practical Summary. 13 Experiments for Improving Reliability. 13.1 Experiments with Failure Time Data. 13.2 Regression Model for Failure Time Data. 13.3 A Likelihood Approach for Handling Failure Time Data with Censoring. 13.4 Design-Dependent Model Selection Strategies. 13.5 A Bayesian Approach to Estimation and Model Selection for Failure Time Data. 13.6 Analysis of Reliability Experiments with Failure Time Data. 13.7 Other Types of Reliability Data. 13.8 Practical Summary. 14 Analysis of Experiments with Nonnormal Data. 14.1 A Wave Soldering Experiment with Count Data. 14.2 Generalized Linear Models. 14.3 Likelihood-Based Analysis of Generalized Linear Models. 14.4 Likelihood-Based Analysis of the Wave Soldering Experiment. 14.5 Bayesian Analysis of Generalized Linear Models. 14.6 Bayesian Analysis of the Wave Soldering Experiment. 14.7 Other Uses and Extensions of Generalized Linear Models and Regression Models for Nonnormal Data. 14.8 Modeling and Analysis for Ordinal Data. 14.9 Analysis of Foam Molding Experiment. 14.10 Scoring: A Simple Method for Analyzing Ordinal Data. 14.11 Practical Summary. Appendix A Upper Tail Probabilities of the Standard Normal Distribution. Appendix B Upper Percentiles of the t Distribution. Appendix C Upper Percentiles of the χ2 Distribution. Appendix D Upper Percentiles of the F Distribution. Appendix E Upper Percentiles of the Studentized Range Distribution. Appendix F Upper Percentiles of the Studentized Maximum Modulus Distribution. Appendix G Coefficients of Orthogonal Contrast Vectors. Appendix H Critical Values for Lenth's Method. Author Index. Subject Index.

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Book SynopsisReap the benefits of sludge The processing of wastewater sludge for use or disposal has been a continuing challenge for municipal agencies. Yet, whensludge is properly processed, the resulting nutrient-rich product--biosolids--can be a valuable resource for agriculture and other uses.Trade Review"...the best-written, most comprehensive and well-illustrated text I have recently reviewed." (Journal of Hazardous Materials, January 2007) "An important addition to the literature in this specialized field." (CHOICE, December 2006) "…brings together a wide body of knowledge…useful as both a reference for practicing environmental engineers and a textbook for graduate students…" (Journal of the American Water Resources Association, August 2006)Table of ContentsPreface xi About the Authors xii 1 Introduction 1 1.1 Introduction, 2 1.2 40 CFR Part 503 Regulation, 2 1.2.1 General Provisions, 3 1.2.2 Land Application, 5 1.2.3 Surface Disposal, 11 1.2.4 Pathogen and Vector Attraction Reduction, 18 1.2.5 Incineration, 27 2 Sludge Quantities and Characteristics 30 2.1 Types of Sludge, 31 2.1.1 Primary Sludge, 32 2.1.2 Secondary Sludge, 32 2.1.3 Chemical Sludge, 32 2.1.4 Other Wastewater Residuals, 33 2.2 Sludge Quantity, 34 2.2.1 Primary Sludge, 34 2.2.2 Secondary Sludge, 36 2.2.3 Activated Sludge, 36 2.2.4 Attached Growth System Sludge, 42 2.2.5 Chemical Sludge, 43 2.3 Sludge Characteristics, 44 2.3.1 Primary Sludge, 44 2.3.2 Activated Sludge, 46 2.3.3 Physical and Biological Properties, 47 2.4 Mass Balance, 49 3 Thickening and Dewatering 60 3.1 Introduction, 61 3.2 Conditioning, 62 3.2.1 Factors Affecting Conditioning, 62 3.2.2 Chemical Conditioning, 64 3.2.3 Other Conditioning Methods, 77 3.3 Thickening, 81 3.3.1 Gravity Thickening, 81 3.3.2 Dissolved Air Flotation Thickening, 88 3.3.3 Centrifugal Thickening, 94 3.3.4 Gravity Belt Thickening, 99 3.3.5 Rotary Drum Thickening, 102 3.3.6 Miscellaneous Thickening Methods, 102 3.4 Dewatering, 106 3.4.1 Centrifugal Dewatering, 106 3.4.2 Belt Filter Press, 110 3.4.3 Pressure Filter Press, 116 3.4.4 Drying Beds, 121 3.4.5 Other Dewatering Methods, 127 4 Aerobic Digestion 136 4.1 Introduction, 137 4.1.1 Process Theory, 138 4.2 Conventional Aerobic Digestion, 141 4.2.1 Process Design Considerations, 144 4.2.2 System Design Considerations, 147 4.2.3 Operational Considerations, 155 4.3 Process Variations, 156 4.3.1 High-Purity Oxygen Digestion, 157 4.3.2 Low-Temperature Aerobic Digestion, 157 4.3.3 Dual Digestion, 157 4.3.4 Mesophilic Aerobic Digestion, 158 4.3.5 Autothermal Thermophilic Aerobic Digestion, 158 4.3.6 Technological Improvements, 164 5 Anaerobic Digestion 173 5.1 Introduction, 174 5.1.1 Advantages and Disadvantages, 174 5.1.2 Theory of Anaerobic Digestion, 175 5.2 Environmental Factors, 176 5.2.1 Solids and Hydraulic Retention Times, 177 5.2.2 Temperature, 177 5.2.3 pH and Alkalinity, 179 5.2.4 Toxic Materials, 180 5.3 Process Variations, 182 5.3.1 Low-Rate Digestion, 182 5.3.2 High-Rate Digestion, 183 5.3.3 Thermophilic Digestion, 185 5.3.4 Two-Stage Digestion, 185 5.3.5 Two-Phase Digestion, 186 5.4 Process Design, 188 5.4.1 Per Capita Basis, 188 5.4.2 Solids Loading, 189 5.4.3 Solids Retention Time, 189 5.4.4 Volatile Solids Reduction, 190 5.4.5 Gas Production, 190 5.5 System Component Design, 191 5.5.1 Tank Design, 191 5.5.2 Digester Covers, 193 5.5.3 Mixing, 193 5.5.4 Heating, 197 5.5.5 Gas Usage, 200 5.6 Operational Considerations, 205 5.6.1 Reactor Performance, 205 5.6.2 Odor Control, 207 5.6.3 Supernatant, 207 5.6.4 Struvite, 209 5.6.5 Digester Cleaning, 210 6 Alkaline Stabilization 213 6.1 Introduction, 213 6.1.1 Advantages and Disadvantages, 214 6.1.2 Process Theory, 215 6.2 Process Application, 217 6.2.1 Liquid Lime Stabilization, 217 6.2.2 Dry Lime Stabilization, 218 6.2.3 Advanced Alkaline Stabilization Technologies, 220 6.3 Process Design, 221 6.3.1 Sludge Characteristics, 221 6.3.2 Contact Time and pH, 222 6.3.3 Lime Dosage, 222 6.3.4 Alkaline Material Storage, 223 6.3.5 Lime Feeding, 224 6.3.6 Liquid Lime Mixing, 226 6.3.7 Dry Lime Mixing, 227 6.4 Process Performance, 231 6.4.1 Odor Reduction, 231 6.4.2 Pathogen reduction, 232 6.4.3 Dewatering Characteristics, 233 7 Composting 235 7.1 Introduction, 236 7.1.1 Composting Process, 236 7.1.2 Composting Methods, 237 7.1.3 Advantages and Disadvantages of Composting, 239 7.1.4 Zoological Characteristics of Compost, 239 7.2 Process Description, 240 7.2.1 Factors Infl uencing Composting, 240 7.2.2 Windrow Process, 243 7.2.3 Aerated Static Pile Process, 244 7.2.4 In-Vessel Process, 246 7.2.5 Design Considerations, 249 7.3 Theoretical Aspects of Composting, 252 7.4 New Technology in Composting, 259 7.4.1 Organic Content, 259 7.4.2 Odor, 261 7.4.3 Temperature and Moisture, 261 7.4.4 Composting Mixture, 262 7.4.5 Composting Process Control, 263 7.4.6 pH, 266 7.5 Examples of Composting in Europe, 267 7.6 Examples of Composting in the United States, 272 8 Thermal Drying and Incineration 277 8.1 Introduction, 278 8.2 Thermal Drying, 278 8.2.1 Methods of Thermal Drying, 278 8.2.2 Design Considerations, 287 8.3 Incineration, 290 8.3.1 Methods of Incineration, 291 8.3.2 Design Considerations, 298 9 Comparison of Energy Consumption 304 9.1 Introduction, 304 9.2 Anaerobic Digestion, 304 9.3 Incineration, 306 9.4 Composting, 309 9.5 Comparison of Thermal Drying and Composting, 310 9.6 Conclusion, 313 10 Beneficial Use of Biosolids 314 10.1 Introduction, 315 10.2 Requirements for Beneficial Use, 317 10.2.1 Pollutant Limits, 317 10.2.2 Pathogen Reduction, 318 10.2.3 Vector Attraction Reduction, 318 10.2.4 Management Practices, 320 10.2.5 Surface Disposal, 320 10.3 Land Application, 321 10.3.1 Site Evaluation and Selection, 322 10.3.2 Design Application Rates, 322 10.3.3 Application Methods, 328 10.3.4 Application to Dedicated Lands, 329 10.3.5 Conveyance and Storage of Biosolids, 330 10.4 Beneficial Use of Biosolids in Russia, 333 10.4.1 Pathogens, 333 10.4.2 Heavy Metals, 336 Appendix Units of Measure 343 A.1 Abbreviations for SI Units, 343 A.2 Abbreviations for U.S. Customary Units, 344 A.3 Conversion from SI Units to U.S. Customary Units, 344 A.4 Conversion from U.S. Customary Units to SI Units, 346 Index 349

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Book SynopsisFundamentals of Electrochemistry provides the basic outline of most topics of theoretical and applied electrochemistry for students not yet familiar with this field, as well as an outline of recent and advanced developments in electrochemistry for people who are already dealing with electrochemical problems.Table of ContentsContributors. Preface to the Second Edition. Preface to the First Edition. List of Photographs. Abbreviations. Symbols. PART I: BASIC CONCEPTS. 1. Electric Currents in Ionic Conductors. 1.1 Various Types of Conductors. 1.2 Ions in Electrolyte Solutions. 1.3 Conductivity of Electrolyte Solutions. 1.4 Circuits Involving Ionic Conductors. Electrodes. 1.5 Passage of Current Through Electrodes. Electrode Reactions. 1.6 Classification of Electrodes and Electrode Reactions. 1.7 Faraday’s Laws. 1.8 Equations for Mass Balance. 1.9 Sign Convention for Currents and Fluxes. 2. Electrode Potentials. 2.1 Interfacial Potential Differences (Galvani Potentials). 2.2 Exchange Currents. 2.3 Open-Circuit Voltages. 2.4 Electrode Potentials. 2.5 Cell Voltage at Nonzero Current. 3. Thermodynamics of Electrochemical Systems. 3.1 Conventional and Undefined Parameters. 3.2 Thermodynamic Functions in Electrochemistry. 3.3 Thermodynamic Activity. 3.4 Equations for the EMF of Galvanic Cells. 3.5 Concentration Dependence of Electrode Potentials. 3.6 Special Thermodynamic Features of Electrode Potentials. 4. Mass Transfer in Electrolytes. 4.1 Basic Laws of Ionic Diffusion in Solutions. 4.2 Limiting Diffusion Currents in Electrolytes. 4.3 Ionic Transport by Migration and Diffusion. 4.4 Convective Transport. 5. Phase Boundaries (Interfaces) Between Miscible Electrolytes. 5.1 Types of Interfaces Between Electrolytes. 5.2 Potentials Between Similar Electrolytes (Diffusion Potentials). 5.3 Distribution of the Ions Between Dissimilar but Miscible Electrolytes. 5.4 Distribution of Ions in Cells with Membrane. 5.5 Galvanic Cells with Transference. 6. Polarization of Electrodes. 6.1 Basic Concepts. 6.2 Laws of Activation Polarization. 6.3 Diffusional Concentration Polarization. 6.4 Superposition of Concentration and Activation Polarization. 7. Aqueous Electrolyte Solutions. 7.1 Electrolytic Dissociation. 7.2 Ionic Solvation (Hydration) in Solutions. 7.3 Activity of Real Electrolyte Solutions. 7.4 Physical Theories of Ion–Ion Interactions. 8. Nonaqueous Electrolytes. 8.1 Different Types of Electrolytes and Their Practicalb Utilization. 8.2 Nonaqueous Electrolyte Solutions. 8.3 Ionically Conducting Melts. 8.4 Inorganic Solid Electrolytes. 9. Electron Work Functions and Volta Potentials. 10. Structure and Properties of Surface Layers. 9.1 Surface Potential of a Phase. 9.2 Work Functions. 9.3 Volta Potentials. 9.4 Two Problems in Electrochemistry. 10. Structure and Properties of Surface Layers. 10.1 Electrical Structure of Interphases. 10.2 Adsorption Phenomena. 10.3 Thermodynamics of Surface Phenomena. 10.4 Mercury Electrode Surface. 10.5 Platinum Electrode Surface. 10.6 Surfaces of Other Electrodes. 11. Transient Processes. 11.1 Evidence for Transient Conditions. 11.2 Transient Diffusion to Electrodes of Large Size. 11.3 Transient Diffusion to Electrodes of Finite Size. 12. Electrochemical research Techniques. 12.1 Reference Electrodes. 12.2 Voltage and Electrode Potential Measurements (Potentiometry). 12.3 Steady-State Polarization Measurements. 12.4 Transient (Pulse) Measurements. 12.5 Impedance Measurements. PART II:KINETICS OF ELECTROCHEMICAL REACTIONS. 13. Multistep Electrode Reactions. 13.1 Intermediate Reaction Steps. 13.2 Rate-Determining Step. 13.3 Two-Step Electrochemical Reactions. 13.4 Complex Electrochemical Reactions.. 13.5 Reactions with Homogeneous Chemical Steps. 13.6 Reactions with Mediators. 13.7 Parallel Electrode Reactions. 14. Some Aspects of Electrochemical Kinetics. 14.1 Energy of Activation. 14.2 Kinetic Influence of the Electric Double Layer. 14.3 Kinetic Influence of Adsorption. 14.4 Special Features of Reactions at Semiconductor Electrodes. 14.5 Reactions Producing a New Phase. 15. Reactions at Nonconsumable Electrodes. 15.1 Simple Electrochemical Reactions. 15.2 Hydrogen Evolution and Ionization. 15.3 Reactions Involving Oxygen. 15.4 Reactions Involving Chlorine and Other Halogens. 15.5 Reactions Involving Organic Substances. 15.6 Reactions at High Anodic Potentials. 15.7 Reaction of Carbon Dioxide Reduction. 15.8 Reaction of Nitrogen Reduction. 16. Reactions Involving Metals. 16.1 Reacting Metal Electrodes. 16.2 Anodic Metal Dissolution. 16.3 Surface-Layer Formation. 16.4 Passivation of Electrodes. 16.5 Cathodic Metal Deposition. 16.6 Electrochemical Metal Treatments. PART III: APPLIED ASPECTS OF ELECTROCHEMISTRY. 17. Industrial Electrolytic Processes. 17.1 Chlor-Alkali Electrolysis. 17.2 Water Electrolysis. 17.3 Electrometallurgy. 17.4 Electroplating. 18. Electrochemical Reactors. 18.1 Design Principles. 18.2 Separators. 18.3 Macrokinetics of Electrochemical Processes (Systems with Distributed Parameters). 18.4 Porous Electrodes. 18.5 Three-Dimensional Electrodes. 19. Batteries (Electrochemical Power Sources. 19.1 Chemical Current-Producing Reactions in Batteries. 19.2 Performance of Batteries. 19.3 Electrochemical Systems. 19.4 Primary Batteries. 19.5 Storage Batteries. 19.6 Lithium Batteries. 20. Fuel Cells. 20.1 Introduction. 20.2 Design Principles of Fuel Cells. 20.3 Proton-Exchange Membrane Fuel Cells. 20.4 Direct Methanol Fuel Cells. 21. Some Electrochemical Methods of Analysis. 21.1 Electrochemical Capacitors and Supercapacitors. 21.2 Electrochemical Transducers. 22. Corrosion of Metals. 22.1 Various Types of Corrosion. 22.2 Mechanisms of Corrosion Processes. 22.3 Corrosion Protection. 23. Electrochemical Methods of Analysis. 23.1 Conductometry. 23.2 Coulometry. 23.3 Amperometry. 23.4 Polarography. 23.5 Transient Voltammetric Techniques. 23.6 Potentiometry. 24. Electrochemistry and the Environment (Alexander Skundin (Sections 24.1 to 24.4) and Alvin J. Salkind (Section 24.5)). 24.1 Chemical and Electrochemical Processes. 24.2 Monitoring the Environment. 24.3 Purification Procedures (Elimination of Pollutants). 24.4 Medical Applications of Electrochemistry. 24.5 Electrochemical Aspects of Bone Remodeling and Fracture Repair. PART IV: SELECTED TOPICS IN ELECTROCHEMISTRY. 25. Solid-State Electrochemistry (Ulrich Stimming and Hengyong Tu (Part A)). Part A. Solid Electrolytes. 25.1 Defects in Solids. 25.2 Solid Ion Conductors. 25.3 Solid Mixed Ionic–Electronic Conductors. 25.4 Electrochemical Reactions at Interfaces with Solid Electrolytes. Part B. Solid-State Reactions. 25.5 Heterogeneous Solid-State Reactions. 25.6 Electrochemical Intercalation. 26. Conductive Polymers (Klaus Müller). 26.1 Active Polymers. 26.2 Polymers with Ionic Functions. 26.3 Polymers with Electronic Functions. 27. Physical Methods for Investigation of Electrode Surfaces (James McBreen ). 27.1 Topics of Investigation. 27.2 X-Ray Methods. 27.3 Scanning Probe Methods. 27.4 Electrochemical Quartz Crystal Microbalance. 27.5 Optical Spectroscopy. 27.6 Infrared Spectroscopy. 27.7 Electrochemical NMR. 27.8 Ex Situ Methods. 27.9 The Future of Physical Methods in Electrochemistry. 28. Electrocatalysis. 28.1 Introduction. 28.2 Electrocatalysis and Adsorption Effects. 28.3 Metal Electrodes: Influence of the Nature of the Metal. 28.4 Metal Electrodes: Influence of Surface State and Structure. 28.5 Highly Disperse Metal Catalysts. 28.6 Binary and Multicomponent Metal Catalysts. 28.7 Nonmetallic Catalysts. 28.8 Stability of Electrocatalysts. 28.9 Other Aspects of Electrocatalysis. 28.10 Discussion. 29. Photoelectrochemistry. 29.1 Energy Levels of Electrons. 29.2 Electron Photoemission into Solutions. 29.3 Photoexcitation of Semiconductor Electrodes. 29.4 Photoexcitation of Reacting Species. 30. Bioelectrochemistry. 30.1 Transmission of the Nervous Impulse. 30.2 Bioenergetics. 30.3 Electrochemical Methods in Biology and Medicine. 31. Electrokinetic Processes. 31.1 Electrokinetic Potential. 31.2 Basic Equations of Electrokinetic Processes. 31.3 Practical Use of Electrokinetic Processes. 32. Interfaces Between Two Immiscible Electrolyte Solutions (Zdeněk Samec). 32.1 Equilibrium Galvani Potential Difference. 32.2 Ideally Polarizable ITIES. 32.3 Polarization Measurements. 32.4 Structure of ITIES. 32.5 Charge-Transfer Rate. 32.6 Applications. 33. Various Electrochemical Phenomena (Yurij Tolmachev (Section 33.1) and Leonid Kanevsky (Section 33.2)). 33.1 Electrochromism. 33.2 Electrochemical Noise. 33.3 Electrochemical Properties of High-Temperature Superconductors. 33.4 Electrochemical “Cold Fusion”. 34. Main Concepts of Elementary Reaction Act Theory (Alexander Kuznetsov). 34.1 Outer-Sphere Electron Transfer Reactions in the Bulk Solution. 34.2 Adiabatic and Nonadiabatic Reactions. 34.3 Electrochemical Electron Transfer. 34.4 Electrochemical Adiabaticity Parameter. Medium Dynamics vs. Static Distribution. 34.5 Adiabatic Electrochemical Electron Transfer Reactions. 34.6 Electric Double-Layer Effects on the Elementary Act of Electron Transfer. 34.7 Bond-Breaking Electron Transfer. 34.8 Reorganization Energy of the Medium and the Frequency Factor. 34.9 Electrochemical Proton Transfer. 35. Computer Simulation in Electrochemistry (Ezequiel Leiva ). 35.1 Introduction. 35.2 Molecular(Atom) Dynamics. 35.3 Monte Carlo Methods. 36. Nanoelectrochemistry (Ezequiel Leiva). 36.1 Introduction. 36.2 Probe-Induced Electrochemical Nanostructuring of Metallic Surfaces. 36.3 Defect Nanostructuring. 36.4 Tip-Induced Local Metal Deposition. 36.5 Localized Electrochemical Nucleation and Growth. 36.6 Electronic Contact Nanostructuring. 36.7 Nanostructuring by Scanning Electrochemical Microscopy. 37. Development of Electrochemistry. 37.1 First Electrochemical Power Sources. 37.2 Development of a Large-Scale Electrochemical Industry. 37.3 Fuel Cells and Lithium Batteries. Appendix A: Derivation of the Main Equation of Debye-Huckel Theory. Appendix B: Derivation of the main Equation of Gouy-Chapman Theory. General Bibliography. Author Index. Subject Index.

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Book SynopsisWith its coverage of 701 organic name reactions and reagents, this three-volume set is the largest, most up-to-date major reference work of its kind. It offers students and professional chemists a valuable resource for conducting experiments and performing a broad range of applications, from pharmaceuticals to plastics to pesticides.Trade Review"This three-volume compendium of organic name reactions and reagents is one of the most comprehensive and complete works to concisely, yet fully, cover the topic. This book set will be valuable to any laboratory pursuing synthetic organic chemistry and as a comprehensive resource to chemists involved in the synthesis of organic compounds." (Journal of Medicinal Chemistry, March 2010) "The addition of Comprehensive Organic Name Reactions and Reagents to any literature collection will likely lead to frequent use." (The Journal of the American Chemical Society, 2010)Table of ContentsPreface. Acknowledgments. Autobiography. Chemical Abbreviations. PART ONE. 1. Abnormal Claisen Rearrangement. 2. Acetoacetic Ester Condensation. 3. Acetoacetic Ester Synthesis. 4. Acyloin Condensation. 5. Acyloin Rearrangement. 6. Adkins Catalyst. 7. Ainley and King Synthesis. 8. Akabori Amino Acid Reaction. 9. Albright-Goldman Oxidation. 10. Alder Ene Reaction. 11. Alder-Rickert Reaction. 12. Aldol Reaction and Aldol Condensation. 13. Algar-Flynn-Oyamada (AFO) Reaction. 14. Alkene Metathesis. 15. Allan-Robinson Condensation. 16. Allylic Rearrangement. 17. Amadori Rearrangement. 18. Andrussow Process. 19. Angeli-Remini Reaction. 20. ANRORC Rearrangement. 21. Anschutz Anthracene Synthesis. 22. Appel Reaction. 23. Arens-Van Dorp Reaction. 24. Arndt-Eistert Synthesis. 25. Asinger Reaction. 26. Aston-Greenburg Rearrangement. 27. Atherton-Todd Reaction. 28. Auwers-Skita Rule. 29. Aza-Claisen Rearrangement. 30. Baddeley Isomerization. 31. Baeyer Diarylmethane Synthesis. 32. Baeyer-Drewson Reaction. 33. Baeyer Indole Synthesis. 34. Baeyer Oxindole Synthesis. 35. Baeyer Pyridine Synthesis. 36. Baeyer-Villiger Oxidation. 37. Bailey Peptide Synthesis. 38. Bakelite Process. 39. Baker-Ollis Sydnones Synthesis. 40. Baker-Venkataraman Rearrangement. 41. Ball-Goodwin-Morton Oxidation. 42. Bally-Scholl Reaction. 43. Balsohn Alkylation. 44. Balz-Schiemann Reaction. 45. Bamberger Rearrangement. 46. Bamford-Stevens Reaction. 47. Barbier Reaction. 48. Barbier-Wieland Degradation. 49. Bardhan Sengupta Synthesis. 50. Bargellini Condensation. 51. Bart Reaction. 52. Bartoli Indole Synthesis. 53. Barton Decarboxylation. 54. Barton Deoxygenation. 55. Barton Reaction. 56. Barton-Kellogg Olefination. 57. Barton-Zard Pyrrole Synthesis. 58. Batcho-Leimgruber Indole Synthesis. 59. Baudisch Reaction. 60. Baumann-Fromm Thiophene Synthesis. 61. Baumgarten α-Amino Ketone Synthesis. 62. Baylis-Hillman Reaction. 63. B´echamp Reduction. 64. Beckmann Rearrangement and Beckmann Fragmentation. 65. Bedoukian Halogenation. 66. B´ehal-Sommelet Rearrangement. 67. Beirut Reaction. 68. Bellus-Claisen Rearrangement. 69. B´enary Reaction. 70. Benkeser Reduction. 71. Benzidine Rearrangement. 72. Benzilic Acid Rearrangement. 73. Benzoin Condensation. 74. Bergius Process. 75. Bergman Cyclization. 76. Bergmann Degradation. 77. Bergmann-Stern Azlactone Synthesis. 78. Bergmann-Zervas Peptide Synthesis. 79. Bernthsen Reaction. 80. Berti Olefination. 81. Bertram-Walbaum Reaction. 82. Betti Reaction. 83. Biginelli Reaction. 84. Birch Reduction. 85. Birckenbach-Goubeau Halogenation. 86. Birnbaum-Simonini Reaction. 87. Bischler Reaction. 88. Bischler-Napieralski Isoquinoline Synthesis. 89. Black Rearrangement. 90. Blaise Ketone Synthesis. 91. Blaise Reaction. 92. Blanc Chloromethylation. 93. Blanc Rule. 94. Blomquist Cyclic Ketone Synthesis. 95. Bobbitt Reaction. 96. Bodroux Amide Synthesis. 97. Bodroux-Chichibabin Reaction. 98. B¨oeseken Oxidation. 99. Bogert-Cook Synthesis. 100. Bohn-Schmidt Reaction. 101. Boord Olefin Synthesis. 102. Borsche-Berkhout Reaction. 103. Borsche-Drechsel Reaction. 104. Borsche-Koelsch Cinnoline Synthesis. 105. Bougault Reaction. 106. Boulton-Katritzky Rearrangement. 107. Bourgel Alkyne Synthesis. 108. Bouveault Aldehyde Synthesis. 109. Bouveault-Blanc Reduction. 110. Boyland-Sims Oxidation. 111. Bradsher Cyclization. 112. Bradsher Cycloaddition. 113. Bradsher Pyridinium Salt Synthesis. 114. Brandi-Guarna Reaction. 115. Breckpot β-Lactam Synthesis. 116. Bredt’s Rule. 117. Brook Rearrangement. 118. Brown Hydroboration. 119. Bruckner Isoquinoline Synthesis. 120. Bucherer Carbazole Synthesis. 121. Bucherer Reaction. 122. Bucherer-Bergs Hydantoin Synthesis. 123. B¨uchner Ring Expansion. 124. B¨uchner-Curtius-Schlotterbeck Reaction. 125. Buchwald Indoline Synthesis. 126. Buchwald-Hartwig Amination. 127. Burton Trifluoromethylation. 128. Cadogan-Sundberg Indole Synthesis. 129. Caglioti Reaction. 130. Cahours-Hofmann Reaction. 131. Camps Reaction. 132. Cannizzaro Reaction. 133. Carboni-Lindsey Reaction. 134. Carroll Rearrangement. 135. Castro Indole Synthesis. 136. Castro-Stephens Coupling. 137. Chan Rearrangement. 138. Chapman Rearrangement. 139. Chichibabin Amination. 140. Chichibabin Pyridine Synthesis. 141. Chretien-Longi Reaction. 142. Chugaev Reaction. 143. Ciamician-Dennstedt Reaction. 144. Claisen Rearrangement. 145. Claisen-Schmidt Condensation. 146. Clauson-Kaas Reaction. 147. Clay-Kinnear-Perren Condensation. 148. Clayton-Jensen Chlorophosphonation. 149. Clemmensen Reduction. 150. Cohen Reductive Lithiation. 151. Combes Quinoline Synthesis. 152. Conrad-Limpach Quinoline Synthesis. 153. Cope Elimination. 154. Cope Rearrangement. 155. Corey-Bakshi-Shibata Reduction. 156. Corey-Chaykovsky Epoxidation. 157. Corey-Fuchs Reaction. 158. Corey-Gilman-Ganem Oxidation. 159. Corey-Kim Oxidation. 160. Corey-Kwiatkowski Reaction. 161. Corey-Link Reaction. 162. Corey-Schmidt Oxidation. 163. Corey-Suggs Oxidation. 164. Corey-Winter Olefination. 165. Cornforth Rearrangement. 166. Craig 2-Bromo-Pyridine Synthesis. 167. Cram’s Rule. 168. Criegee Glycol Oxidation. 169. Criegee Ozonolysis. 170. Criegee Rearrangement. 171. Crum-Brown-Gibson Substitution Rule. 172. Curtius Rearrangement. 173. [m+n(+. . . )] Cycloaddition. 174. [2+2] Cycloaddition. 175. Dakin Reaction. 176. Dakin-West Reaction. 177. Danheiser Annulation. 178. Darzens Condensation. 179. Darzens Halogenation. 180. Darzens Olefin Acylation. 181. Darzens-Nenitzescu Reaction. 182. Davidson Oxazole Cyclization. 183. de Mayo Reaction. 184. Decker-Becker Secondary Amine Synthesis. 185. Del´epine Reaction. 186. Demjanov Rearrangement. 187. Dess-Martin Periodinane Oxidation. 188. D-Homo Rearrangement. 189. Dieckmann Condensation. 190. Diels-Alder Reaction. 191. Diels-Reese Reaction. 192. Dienol-Benzene Rearrangement. 193. Dienone-Phenol Rearrangement. 194. Dimroth Rearrangement. 195. Di-Π-Methane Rearrangement. 196. 1,3-Dipolar Cycloaddition. 197. Doebner Reaction. 198. Doebner-Miller Reaction. 199. Doering-Moore-Skattebøl Reaction. 200. Dotz Benzannulation. 201. Dowd-Beckwith Ring Expansion. 202. Duff Reaction. 203. Dutt-Wormall Reaction. 204. Eastwood Olefination. 205. Eder Reaction. 206. Edman Degradation. 207. Eglinton Coupling. 208. Ehrlich-Sachs Reaction. 209. Einhorn Acylation. 210. Einhorn-Brunner Reaction. 211. Eisleb Alkylation. 212. Elbs Persulfate Oxidation. 213. Elbs Reaction. 214. Eltekoff Hydrolysis. 215. Emde Degradation. 216. Emmert Reaction. 217. Erlenmeyer-plochl Azlactone Synthesis. 218. Eschenmoser Coupling. 219. Eschenmoser Fragmentation. 220. Eschweiler-Clarke Methylation. 221. Ester Pyrolysis. 222. E´ tard Reaction. 223. Evans Aldol Reaction. 224. Favorskii Rearrangement. 225. Favorskii-Babayan Reaction. 226. Feist-Benary Reaction. 227. Fenton Reaction. 228. Ferrier Reaction. 229. Ferrier-II Rearrangement. 230. F´etizon Oxidation. 231. Finkelstein Reaction. 232. Fischer Carbene Complexes. 233. Fischer Indole Synthesis. 234. Fischer Oxazole Synthesis. 235. Fischer Phenylhydrazine Synthesis. 236. Fischer Phenylhydrazone and Osazone Synthesis. 237. Fischer-Helferich Glycosylation. 238. Fischer-Hepp Rearrangement. 239. Fischer-Speier Esterification. 240. Fischer-Tropsch Synthesis. 241. Fleming-Tamao Oxidation. 242. Flood Reaction. 243. Forster Reaction. 244. Franchimont Condensation. 245. Frankland Reaction. 246. Fr´ater-Seebach Alkylation. 247. Freund Reaction. 248. Friedel-Crafts Acylation. 249. Friedel-Crafts Alkylation. 250. Friedl¨ander Condensation. 251. Fries Rearrangement. 252. Fritsch-Buttenberg-Wiechell Rearrangement. 253. Fujimoto-Belleau Reaction. 254. Fukuyama Amine Synthesis. 255. Fukuyama Indole Synthesis. 256. F¨urstner Indole Synthesis. 257. Gabriel Primary Amine Synthesis. 258. Gabriel Reaction. 259. Gabriel-Colman Rearrangement. 260. Garner Aldehyde. 261. Gassman Indole Synthesis. 262. Gassman Oxindole Synthesis. 263. Gassman Reaction. 264. Gattermann Aldehyde Synthesis. 265. Gattermann Reaction. 266. Gattermann-Koch Formylation. 267. Gewald Reaction. 268. Ghosez Cyclization. 269. Ghosez Keteniminium-Olefin Cyclization. 270. Gibbs-Wohl Naphthalene Oxidation. 271. Gilman-Cason Ketone Synthesis. 272. Gilman-Speeter Reaction. 273. Gomberg Free Radical Reaction. 274. Gomberg-Bachmann Pinacol Synthesis. 275. Gomberg-Bachmann Reaction. 276. Gould-Jacobs Reaction. 277. Graebe-Ullmann Synthesis. 278. Gr¨anacher Synthesis. 279. Gribble Reductive Amination. 280. Griess Diazotization. 281. Grignard Degradation. 282. Grignard Reaction. 283. Grob Fragmentation. 284. Grosheintz-Fischer-Reissert Aldehyde Synthesis. 285. Grundmann Aldehyde Synthesis. 286. Gryszkiewicz-Trochimowski and Mccombie Fluorination. 287. Guareschi Reaction. 288. Guerbet Condensation. 289. Gutknecht Condensation. PART TWO. 290. Hajos-Parrish-Eder-Sauer-Wiechert Reaction. 291. Haller-Bauer Cleavage. 292. Hammick Reaction. 293. Hansley-Prelog Acyloin Condensation. 294. Hantzsch Dihydropyridine Synthesis. 295. Hantzsch Pyrrole Synthesis. 296. Hantzsch Thiazole Synthesis. 297. Hass-Bender Oxidation. 298. Haworth Methylation. 299. Haworth Synthesis. 300. Hayashi Rearrangement. 301. Heck Reaction. 302. Hegedus Indole Synthesis. 303. Helferich Condensation. 304. Helferich Glycosylation. 305. Hell-Volhard-Zelinsky Reaction. 306. Hemetsberger Indole Synthesis. 307. Henkel Reaction. 308. Henry Reaction. 309. Herbst-Engel Transamination. 310. Heron Rearrangement. 311. Herz Reaction. 312. Heumann Indigo Process. 313. Heyns Rearrangement. 314. Hilbert-Johnson Reaction. 315. Hinsberg Oxindole Synthesis. 316. Hinsberg Reaction. 317. Hinsberg Sulfone Synthesis. 318. Hinsberg Thiophene Synthesis. 319. Hiyama Coupling. 320. Hoch-Campbell Reaction. 321. Hock Rearrangement. 322. Hofer-Moest Reaction. 323. Hofmann Degradation. 324. Hofmann Elimination. 325. Hofmann Isonitrile Synthesis. 326. Hofmann Rule. 327. Hofmann-Loffler-Freytag Reaction. 328. Hofmann-Martius Rearrangement. 329. Hofmann-Sand Reaction. 330. Hooker Oxidation. 331. Horenstein-P¨ahlicke Reaction. 332. Horner-Wadsworth-Emmons Olefination. 333. Hosomi-Sakurai Allylation. 334. Houben-Hoesch Reaction. 335. Houdry Cracking Process. 336. Huisgen Pyrrole Synthesis. 337. Hunsdiecker Condensation. 338. Hunsdiecker Reaction. 339. Hydroformylation. 340. Iodolactonization. 341. Irvine-Purdie Methylation. 342. Jacobsen Rearrangement. 343. Jacobsen-Katsuki Epoxidation. 344. Janovsky Reaction. 345. Japp-Klingemann Fischer Indole Synthesis. 346. Japp-Klingemann Reaction. 347. Japp-Maitland Condensation. 348. Johnson Orthoester Claisen Rearrangement. 349. Jones Oxidation. 350. Jourdan-Ullmann Reaction. 351. Julia Olefination. 352. Juli´a-Colonna Asymmetric Epoxidation. 353. Kabachnik-Fields Reaction. 354. Kahne Glycosylation. 355. Keck Allylation. 356. Keck Macrolactonization. 357. Kemp Elimination. 358. Kennedy Oxidative Cyclization. 359. Kiliani-Fischer Cyanohydrin Synthesis. 360. Kishner Decomposition. 361. Knoevenagel Condensation. 362. Knoevenagel Diazotization Method. 363. Knorr Pyrazole Synthesis. 364. Knorr Pyrrole Synthesis. 365. Knorr Quinoline Synthesis. 366. Koch-Haaf Carboxylation. 367. Kochi Reaction. 368. Koenigs-Knorr Reaction. 369. Kolbe Electrolysis. 370. Kolbe Nitrile Synthesis. 371. Kolbe-Schmidt Reaction. 372. Kondrat’eva Pyridine Synthesis. 373. Kornblum Oxidation. 374. Kornblum-Delamare Rearrangement. 375. Kostanecki-Robinson Reaction. 376. Kowalski Ester Homologation. 377. Krapcho Decarboxylation. 378. Kriewitz Condensation. 379. Kr¨ohnke Pyridine Synthesis. 380. Kuhn-Roth Oxidation. 381. Kuhn-Winterstein Reduction. 382. Kulinkovich Cyclopropanation. 383. Kutscheroff Acetylene Hydration. 384. Lander Rearrangement. 385. Larock Indole Synthesis. 386. Lawesson’s Reagent. 387. Lebedev Process. 388. Lehmstedt-Tanasescu Reaction. 389. Lemieux-Johnson Oxidation. 390. Leuckart Reaction. 391. Leuckart Thiophenol Synthesis. 392. Levinstein Process. 393. Lieben Iodoform Reaction. 394. Liebeskind-Srogl Cross-Coupling. 395. Lindlar Hydrogenation. 396. Lobry de Bruyn-Alberda van Ekenstein Transformation. 397. Lombardo Methylenation. 398. Lossen Rearrangement. 399. Luche Reaction. 400. Luche Reduction. 401. MacDonald-Fischer Degradation. 402. Madelung Indole Synthesis. 403. Maillard Reaction. 404. Maitland-Japp Reaction. 405. Majetich Annulation. 406. Malaprade Reaction. 407. Malonic Ester Synthesis. 408. Mandelic Acid Synthesis. 409. Mannich Reaction. 410. Marckwald Asymmetric Synthesis. 411. Markownikoff Rule and Anti-Markownikoff Rule. 412. Martinet Reaction. 413. Martin’s Sulfurane. 414. Mattox-Kendall Reaction. 415. McCormack Cycloaddition. 416. McFadyen-Stevens Reaction. 417. McLafferty Rearrangement. 418. McMurry Coupling. 419. Meerwein Arylation. 420. Meerwein-Ponndorf-Verley Reduction. 421. Meerwein’s Salt. 422. Meinwald Rearrangement. 423. Meisenheimer Complexes. 424. Meisenheimer Rearrangement. 425. Menke Nitration. 426. Menschutkin Reaction. 427. Mentzer Pyrone Synthesis. 428. Merrifield Solid-Phase Peptide Synthesis. 429. Meyer-Hartmann Reaction. 430. Meyers Aldehyde Synthesis. 431. Meyer-Schuster Rearrangement. 432. Michael Addition. 433. Michaelis-Arbuzov Rearrangement. 434. Michael-Stetter Reaction. 435. Miescher Degradation. 436. Mignonac Reaction. 437. Milas Hydroxylation. 438. Mislow-Evans Rearrangement. 439. Mitsunobu Reaction. 440. Moffatt-Swern Oxidation. 441. Moore Cyclization. 442. Morgan-Walls Cyclization. 443. Mori-Ban Indole Synthesis. 444. Morin Rearrangement. 445. Mosher’s Acid. 446. Moureau-Mignonac Ketimine Synthesis. 447. Mukaiyama Aldol Reaction. 448. Mukaiyama-Michael Reaction. 449. M¨ uller-Cunradi-Pieroh Process. 450. Myers-Saito Cyclization. 451. Nagata Reaction. 452. Nazarov Cyclization. 453. Neber Rearrangement. 454. Neber-Bossel Synthesis. 455. Nef Reaction. 456. Negishi Cross-Coupling. 457. Nencki Reaction. 458. Nenitzescu Synthesis. 459. Nenitzescu Indole Synthesis. 460. Newman-Kwart Rearrangement. 461. Nicholas Reaction. 462. Niementowski Reaction. 463. Nierenstein Reaction. 464. Norrish Type I Reaction. 465. Norrish Type II Reaction. 466. Noyori Hydrogenation. 467. Nozaki-Hiyama-Kishi Reaction. 468. Nysted Reagent. 469. Ohle Quinoxaline Synthesis. 470. Oppenauer Oxidation. 471. Orton Rearrangement. 472. Ostromislensky Process. 473. Overman Rearrangement. 474. Paal-Knorr Furan Synthesis. 475. Paal-Knorr Pyrrole Synthesis. 476. Paneth Technique. 477. Parham Cyclization. 478. Parikh-Doering Oxidation. 479. Passerini Reaction. 480. Paterno-Buchi Reaction. 481. Pauson-Khand Reaction. 482. Payne Rearrangement. 483. Pearlman’s Catalyst. 484. Pechmann Pyrazole Synthesis. 485. Pechmann Reaction. 486. Pellizzari Reaction. 487. Perkin Reaction. 488. Perkin Synthesis. 489. Perkow Reaction. 490. Petasis-Ferrier Rearrangement. 491. Peterson Olefination. 492. Petrenko-Kritschenko Piperidone Synthesis. 493. Pfau-Plattner Azulene Synthesis. 494. Pfitzinger Reaction. 495. Pfitzner-Moffatt Oxidation. 496. Phillips-Ladenburg Benzimidazole Synthesis. 497. Photo-Fries Rearrangement. 498. Pictet-Gams Synthesis. 499. Pictet-Spengler Reaction. 500. Piloty-Robinson Pyrrole Synthesis. 501. Pinacol Coupling Reaction. 502. Pinacol Rearrangement. 503. Pinner Condensation. 504. Pinner Reaction. 505. Pinner S-Triazine Synthesis. 506. Piria Reaction. 507. Plancher Rearrangement. 508. Polonovski Reaction. 509. Pomeranz-Fritsch Reaction. 510. Ponzio Reaction. 511. Pr´evost Reaction. 512. Prey Ether Cleavage. 513. Prilezhaev Reaction. 514. Prins Reaction. 515. Pudovik Reaction. 516. Pummerer Rearrangement. 517. Quelet Reaction. PART THREE. 518. Radziszewski Reaction. 519. Ramberg-B¨acklund Reaction. 520. Raney Nickel. 521. Rauhut-Currier Reaction. 522. Reed Reaction. 523. Reformatsky Reaction. 524. Regitz Diazo Transfer. 525. Reilly-Rickinbottom Rearrangement. 526. Reimer-Tiemann Reaction. 527. Reissert Compound. 528. Reissert Indole Synthesis. 529. Reppe Alkyne Cyclotrimerization. 530. Reppe Carbonylation. 531. Reppe Cyclization. 532. Reppe Vinylation. 533. Retro-Diels-Alder Reaction. 534. Retro-Ene Reaction. 535. Retropinacol Rearrangement. 536. Reverdin Rearrangement. 537. Riehm Quinoline Synthesis. 538. Rieke Metal. 539. Riemenschneider Reaction. 540. Riley Oxidation. 541. Ritter Reaction. 542. Robinson Annulation. 543. Robinson-Gabriel Oxazole Synthesis. 544. Robinson-Schopf Condensation. 545. Rosenmund Reaction. 546. Rosenmund Reduction. 547. Rosenmund-von Braun Reaction. 548. Rothemund Reaction. 549. Roush Crotylboration. 550. Rowe Rearrangement. 551. Rubottom Oxidation. 552. Ruff Degradation. 553. Rupe Rearrangement. 554. Sabatier-Senderens Reduction. 555. Saegusa Cyclization. 556. Saegusa Oxidation. 557. Sandmeyer Isatin Synthesis. 558. Sandmeyer Reaction. 559. Sarett Oxidation. 560. Saytzeff Rule. 561. Schiff Base. 562. Schlack-Kumpf Reaction. 563. Schlotterbeck Reaction. 564. Schmidlin Ketene Synthesis. 565. Schmidt Glycosylation. 566. Schmidt Reaction. 567. Schmidt-Rutz Reaction. 568. Schmittel Cyclization. 569. Scholl Reaction. 570. Sch¨ollkopf Bis-Lactim Ether Method. 571. Sch¨ollkopf Oxazole Synthesis. 572. Sch¨onberg Rearrangement. 573. Schotten-Baumann Reaction. 574. Schwartz Reagent. 575. Screttas Lithiation. 576. Selenoxide Elimination. 577. Semmler-Wolff Aromatization. 578. Serini Reaction. 579. Seyferth-Gilbert Homologation. 580. Shapiro Reaction. 581. Sharpless Aminohydroxylation. 582. Sharpless Dihydroxylation. 583. Sharpless Epoxidation. 584. Shechter-Kaplan Oxidative Nitration. 585. Shi Epoxidation. 586. Simmons-Smith Reaction. 587. Simonini Reaction. 588. Skraup Reaction. 589. Smiles Rearrangement. 590. Sommelet Reaction. 591. Sommelet-Hauser Rearrangement. 592. Sonn-Muller Reaction. 593. Sonogashira Coupling. 594. Staudinger [2+2] Cycloaddition. 595. Staudinger Reaction. 596. Stec Reaction. 597. Steglich Catalyst. 598. Steglich Rearrangement. 599. Stephen Reaction. 600. Stetter Reaction. 601. Stevens Rearrangement. 602. Stieglitz Rearrangement. 603. Stille Coupling. 604. Stobbe Condensation. 605. Stolle-Becker Synthesis. 606. Stork Reaction. 607. Strecker Degradation. 608. Strecker Reaction. 609. Strecker Synthesis. 610. Su´arez Cleavage. 611. Sugasawa Indole Synthesis. 612. Sugasawa Reaction. 613. Sundberg Indole Synthesis. 614. Suzuki Coupling. 615. Swarts Reaction. 616. Takai Olefination. 617. Tebbe Olefination. 618. ter Meer Reaction. 619. Thiele-Winter Acetoxylation. 620. Thorpe-Ziegler Cyclization. 621. Tiemann Cyanohydrin Amination. 622. Tiemann Rearrangement. 623. Tiffeneau-Demjanov Ring Expansion. 624. Tishchenko Reaction. 625. Traube Purine Synthesis. 626. Trofimov Reaction. 627. Trost Desymmetrization. 628. Truce-Smiles Rearrangement. 629. Tscherniac-Einhorn Reaction. 630. Tsuji-Trost Reaction. 631. Twitchell Process. 632. Tyrer Process. 633. Ueno-Stork Cyclization. 634. Ugi Reaction. 635. Ullmann Acridine Synthesis. 636. Ullmann Coupling. 637. Ullmann Diaryl Ether Synthesis. 638. Urech Cyanohydrin Method.Synthesis. 640. van Slyke Method. 641. Varrentrapp Reaction. 642. Victor Meyer Reaction. 643. Vilsmeier Formylation. 644. Vinylcyclopropane Rearrangement. 645. Voigt Reaction. 646. von Auwers Rearrangement. 647. von Braun Cyanogen Bromide Reaction. 648. von Braun Degradation. 649. von Braun-Rudolf Synthesis. 650. von Richter Cinnoline Synthesis. 651. von Richter Reaction. 652. Vorbr¨uggen Glycosylation. 653. Wacker Oxidation. 654. Wagner-Jauregg Reaction. 655. Wagner-Meerwein Rearrangement. 656. Walden Inversion. 657. Wallach Rearrangement. 658. Weerman Reaction. 659. Weidenhagen Synthesis. 660. Weinreb Amide Formation. 661. Weinreb Ketone Synthesis. 662. Weiss-Cook Condensation. 663. Weitz-Scheffer Epoxidation. 664. Wender Indole Synthesis. 665. Wessely-Moser Rearrangement. 666. Westphalen Rearrangement. 667. Wharton Rearrangement. 668. Wibaut-Arens Alkylation. 669. Wichterle Reaction. 670. Widman-Stoermer Synthesis. 671. Wilkinson’s Catalyst. 672. Willgerodt-Kindler Reaction. 673. Williamson Ether Synthesis. 674. Wittig Reaction. 675. [1,2]-Wittig Rearrangement. 676. [2,3]-Wittig Rearrangement. 677. Wohl Degradation. 678. Wohl-Aue Reaction. 679. W¨ohler Synthesis. 680. Wohl-Ziegler Bromination. 681. Wolff Rearrangement. 682. Wolffenstein-B¨oters Reaction. 683. Wolff-Kishner Reduction. 684. Woodward Cis-Hydroxylation. 685. Wurtz Synthesis. 686. Wurtz-Fittig Reaction. 687. Yamada Coupling. 688. Yamaguchi Esterification. 689. Zeisel Determination. 690. Zelinsky-Stadnikoff Reaction. 691. Zempl´en Deacetylation. 692. Zerewitinoff Determination. 693. Ziegler Alcohol Synthesis. 694. Ziegler-Hafner Azulene Synthesis. 695. Ziegler-Natta Polymerization. 696. Zimmermann Reaction. 697. Zincke Disulfide Cleavage. 698. Zincke Nitration. 699. Zincke Reaction. 700. Zincke-Suhl Reaction. 701. Zinke Synthesis. APPENDIXES. 1. Schematic Reaction Index. 2. Reaction Type Summary. 3. Summary of Initial Publications on Named Reactions. 4. Journal Abbreviation. 5. The Statistics of Reaction Published Years. Subject Index.

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Book SynopsisReflecting the increased pace of research and the many recent advances in organic chemistry, this series serves as a single-source compendium of the most up-to-date and significant procedures currently in use.Table of ContentsChapter 1 Algebra of Vectors and Matrices Vector Spaces Chapter 2 Probability Theory, Tools and Techniques Chapter 3 Continuous Probability Models Chapter 4 The Theory of least Squares and Analysis of Variance Chapter 5 Criteria and Methods of Estimation Chapter 6 Large Sample Theory and Methods Chapter 7 Theory of Statistical Inference Chapter 8 Multivariate Analysis Publications of the Author Author Index Subject Index

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Book SynopsisNavigate your way through 40 CFR with this time-saving resource The fourth edition of this popular reference provides definitions for more than 5,000 terms of the Environmental Protection Agency''s Code of Federal Regulations Title 40 (40 CFR) to help readers better understand and follow these complex compliance regulations. Presented in alphabetical order for easy access, each term is defined using the exact wording found in 40 CFR, and every definition for a given term is included to ensure thoroughness.Trade Review"…of special interest to attorneys, consultants, compliance officers, and any person who must tackle the details of environmental regulations in American." (American Reference Books Annual, 2006) "…the newest update of this useful reference work." (E-STREAMS, May 2005) "...fills the need for a non-computer, reasonably prices, quick reference guide to the terminology and definitions of U.S. environmental regulations." (Quality Progress, June 2005)Table of ContentsPreface. Acknowledgements. Guide to Usage. Definitions from the Code of Federal Regulations, Title 40, Protection of Environment (40 CFR). Appendix: Outline of 40 CFR. About the Author.

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Book SynopsisThis updated version of the classic, bestselling introductory textbook to physical polymer science emphasizes interrelationships between molecular structure and the morphology and mechanical behavior of polymers. It is an invaluable resource for professionals in polymer science, materials science, chemical engineering , and students of all levels.Trade Review"Anyone in need of a basic text on polymer science would find this to be a very good choice, and it is highly recommended." (IEEE Electrical Insulation Magazine, January/February 2007)Table of ContentsPreface to the Fourth Edition. Preface to the First Edition. Symbols and Definitions. 1. Introduction to Polymer Science. 1.1. From Little Molecules to Big Molecules. 1.2. Molecular Weight and Molecular Weight Distributions. 1.3. Major Polymer Transitions. 1.4. Polymer Synthesis and Structure. 1.5. Cross-Linking, Plasticizers, and Fillers. 1.6. The Macromolecular Hypothesis. 1.7. Historical Development of Industrial Polymers. 1.8. Molecular Engineering. References. General Reading. Handbooks, Encyclopedias, and Dictionaries. Web Sites. Study Problems. Appendix 1.1. Names for Polymers. 2. Chain Structure and Configuration. 2.1. Examples of Configurations and Conformations. 2.2. Theory and Instruments. 2.3. Stereochemistry of Repeating Units. 2.4. Repeating Unit Isomerism. 2.5. Common Types of Copolymers. 2.6. NMR in Modern Research. 2.7. Multicomponent Polymers. 2.8. Conformational States in Polymers. 2.9. Analysis of Polymers during Mechanical Strain. 2.10. Photophysics of Polymers. 2.11. Configuration and Conformation. References. General Reading. Study Problems. Appendix 2.1. Assorted Isomeric and Copolymer Macromolecules. 3. Dilute Solution Thermodynamics, Molecular Weights, and Sizes. 3.1. Introduction. 3.2. The Solubility Parameter. 3.3. Thermodynamics of Mixing. 3.4. Molecular Weight Averages. 3.5. Determination of the Number-Average Molecular Weight. 3.6. Weight-Average Molecular Weights and Radii of Gyration. 3.7. Molecular Weights of Polymers. 3.8. Intrinsic Viscosity. 3.9. Gel Permeation Chromatography. 3.10. Mass Spectrometry. 3.11. Instrumentation for Molecular Weight Determination. 3.12. Solution Thermodynamics and Molecular Weights. References. General Reading. Study Problems. Appendix 3.1. Calibration and Application of Light-Scattering. Instrumentation for the Case Where P(q) = 1 / 142. 4. Concentrated Solutions, Phase Separation Behavior, and Diffusion. 4.1. Phase Separation and Fractionation. 4.2. Regions of the Polymer-Solvent Phase Diagram. 4.3. Polymer-Polymer Phase Separation. 4.4. Diffusion and Permeability in Polymers. 4.5. Latexes and Suspensions. 4.6. Multicomponent and Multiphase Materials. References. General Reading. Study Problems. Appendix 4.1. Scaling Law Theories and Applications. 5. The Amorphous State. 5.1. The Amorphous Polymer State. 5.2. Experimental Evidence Regarding Amorphous Polymers. 5.3. Conformation of the Polymer Chain. 5.4. Macromolecular Dynamics. 5.5. Concluding Remarks. References. General Reading. Study Problems. Appendix 5.1. History of the Random Coil Model for Polymer Chains. Appendix 5.2. Calculations Using the Diffusion Coefficient. Appendix 5.3. Nobel Prize Winners in Polymer Science and Engineering. 6. The Crystalline State. 6.1. General Considerations. 6.2. Methods of Determining Crystal Structure. 6.3. The Unit Cell of Crystalline Polymers. 6.4. Structure of Crystalline Polymers. 6.5. Crystallization from the Melt. 6.6. Kinetics of Crystallization. 6.7. The Reentry Problem in Lamellae. 6.8. Thermodynamics of Fusion. 6.9. Effect of Chemical Structure on the Melting Temperature. 6.10. Fiber Formation and Structure. 6.11. The Hierarchical Structure of Polymeric Materials. 6.12. How Do You Know It's a Polymer?. References. General Reading. Study Problems. 7. Polymers in the Liquid Crystalline State. 7.1. Definition of a Liquid Crystal. 7.2. Rod-Shaped Chemical Structures. 7.3. Liquid Crystalline Mesophases. 7.4. Liquid Crystal Classification. 7.5. Thermodynamics and Phase Diagrams. 7.6. Mesophase Identification in Thermotropic Polymers. 7.7. Fiber Formation. 7.8. Comparison of Major Polymer Types. 7.9. Basic Requirements for Liquid Crystal Formation. References. General Reading. Study Problems. 8. Glass-Rubber Transition Behavior. 8.1. Simple Mechanical Relationships. 8.2. Five Regions of Viscoelastic Behavior. 8.3. Methods of Measuring Transitions in Polymers. 8.4. Other Transitions and Relaxations. 8.5. Time and Frequency Effects on Relaxation Processes. 8.6. Theories of the Glass Transition. 8.7. Effect of Molecular Weight on TG. 8.8. Effect of Copolymerization on TG. 8.9. Effect of Crystallinity on TG. 8.10. Dependence of TG on Chemical Structure. 8.11. Effect of Pressure on TG. 8.12. Damping and Dynamic Mechanical Behavior. 8.13. Definitions of Elastomers, Plastics, Adhesives, and Fibers. References. General Reading. Study Problems. Appendix 8.1. Molecular Motion near the Glass Transition. 9. Cross-linked Polymers and Rubber Elasticity. 9.1. Cross-links and Networks. 9.2. Historical Development of Rubber. 9.3. Rubber Network Structure. 9.4. Rubber Elasticity Concepts. 9.5. Thermodynamic Equation of State. 9.6. Equation of State for Gases. 9.7. Statistical Thermodynamics of Rubber Elasticity. 9.8. The "Carnot Cycle" for Elastomers. 9.9. Continuum Theories of Rubber Elasticity. 9.10. Some Refinements to Rubber Elasticity. 9.11. Internal Energy Effects. 9.12. The Flory-Rehner Equation. 9.13. Gelation Phenomena in Polymers. 9.14. Gels and Gelation. 9.15. Effects of Strain on the Melting Temperature. 9.16. Elastomers in Current Use. 9.17. Summary of Rubber Elasticity Behavior. References. General Reading. Study Problems. Appendix 9.1. Gelatin as a Physically Cross-linked Elastomer. Appendix 9.2. Elastic Behavior of a Rubber Band. Appendix 9.3. Determination of the Cross-link Density of Rubber by Swelling to Equilibrium. 10. Polymer Viscoelasticity and Rheology. 10.1. Stress Relaxation and Creep. 10.2. Relaxation and Retardation Times. 10.3. The Time-Temperature Superposition Principle. 10.4. Polymer Melt Viscosity. 10.5. Polymer Rheology. 10.6. Overview of Viscoelasticity and Rheology. References. General Reading. Study Problems. Appendix 10.1. Energy of Activation from Chemical Stress Relaxation Times. Appendix 10.2. Viscoelasticity of Cheese. 11. Mechanical Behavior of Polymers. 11.1. An Energy Balance for Deformation and Fracture. 11.2. Deformation and Fracture in Polymers. 11.3. Crack Growth. 11.4. Cyclic Deformations. 11.5. Molecular Aspects of Fracture and Healing in Polymers. 11.6. Friction and Wear in Polymers. 11.7. Mechanical Behavior of Biomedical Polymers. 11.8. Summary. References. General Reading. Study Problems. 12. Polymer Surfaces and Interfaces. 12.1. Polymer Surfaces. 12.2. Thermodynamics of Surfaces and Interfaces. 12.3. Instrumental Methods of Characterization. 12.4. Conformation of Polymer Chains in a Polymer Blend Interphase. 12.5. The Dilute Solution-Solid Interface. 12.6. Instrumental Methods for Analyzing Polymer Solution Interfaces. 12.7. Theoretical aspects of the Organization of Chains at Walls. 12.8. Adhesion at Interfaces. 12.9. Interfaces of Polymeric Biomaterials with Living Organisms. 12.10. Overview of Polymer Surface and Interface Science. References. General Reading. Study Problems. Appendix 12.1. Estimation of Fractal Dimensions. 13. Multicomponent Polymeric Materials. 13.1. Classification Schemes for Multicomponent Polymeric Materials. 13.2. Miscible and Immiscible Polymer Pairs. 13.3. The Glass Transition Behavior of Multicomponent Polymer Materials. 13.4. The Modulus of Multicomponent Polymeric Materials. 13.5. The Morphology of Multiphase Polymeric Materials. 13.6. Phase Diagrams in Polymer Blends (Broad Definition). 13.7. Morphology of Composite Materials. 13.8. Nanotechnology-Based Materials. 13.9. Montmorillonite Clays. 13.10. Fracture Behavior of Multiphase Polymeric Materials. 13.11. Processing and Applications of Polymer Blends and Composites. References. General Reading. Study Problems. 14. Modern Polymer Topics. 14.1. Polyolefins. 14.2. Thermoset Polymer Materials. 14.3. Polymer and Polymer Blend Aspects of Bread Doughs. 14.4. Natural Product Polymers. 14.5. Dendritic Polymers and Other Novel Polymeric Structures. 14.6. Polymers in Supercritical Fluids. 14.7. Electrical Behavior of Polymers. 14.8. Polymers for Nonlinear Optics. 14.9. Light-Emitting Polymers and Electroactive Materials. 14.10. Optical Tweezers in Biopolymer Research. 14.11. The 3-D Structure and Function of Biopolymers. 14.12. Fire Retardancy in Polymers. 14.13. Polymer Solution-Induced Drag Reduction. 14.14. Modern engineering Plastics. 14.15. Major Advances in Polymer Science and Engineering. References. General Reading. Study Problems. Index.

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Book SynopsisWritten by the preeminent authorities in liquid chromatography, High Performance Gradient Elution Liquid Chromatography: The Linear-Solvent-Strength Model takes the mystery out of the practice of gradient elution and helps remove barriers to practical application of this important separation technique.Trade Review"This book is clear, well written, and easy to understand despite the complexity of the subject." (Journal of the American Chemical Society, July 2007)Table of ContentsPreface xv Glossary of Symbols and Terms xxi 1 Introduction 1 1.1 The “General Elution Problem” and the Need for Gradient Elution 1 1.2 Other Reasons for the Use of Gradient Elution 4 1.3 Gradient Shape 7 1.4 Similarity of Isocratic and Gradient Elution 10 1.4.1 Gradient and Isocratic Elution Compared 10 1.4.2 The Linear-Solvent-Strength Model 13 1.5 Computer Simulation 18 1.6 Sample Classification 19 1.6.1 Sample Compounds of Related Structure (“Regular Samples”) 19 1.6.2 Sample Compounds of Unrelated Structure (“Irregular” Samples) 19 2 Gradient Elution Fundamentals 23 2.1 Isocratic Separation 23 2.1.1 Retention 23 2.1.2 Peak Width and Plate Number 24 2.1.3 Resolution 25 2.1.4 Role of Separation Conditions 27 2.1.4.1 Optimizing Retention [Term a of Equation (2.7)] 27 2.1.4.2 Optimizing Selectivity a [Term b of Equation (2.7)] 28 2.1.4.3 Optimizing the Column Plate Number N [Term c of Equation (2.7)] 28 2.2 Gradient Separation 31 2.2.1 Retention 32 2.2.1.1 Gradient and Isocratic Separation Compared for “Corresponding” Conditions 34 2.2.2 Peak Width 38 2.2.3 Resolution 39 2.2.3.1 Resolution as a Function of Values of S for Two Adjacent Peaks (“Irregular” Samples) 42 2.2.3.2 Using Gradient Elution to Predict Isocratic Separation 45 2.2.4 Sample Complexity and Peak Capacity 47 2.3 Effect of Gradient Conditions on Separation 49 2.3.1 Gradient Steepness b: Change in Gradient Time 50 2.3.2 Gradient Steepness b: Change in Column Length or Diameter 51 2.3.3 Gradient Steepness b: Change in Flow Rate 55 2.3.4 Gradient Range ∆Φ: Change in Initial Percentage B (Φ0) 58 2.3.5 Gradient Range ∆Φ: Change in Final Percentage B (Φf) 60 2.3.6 Effect of a Gradient Delay 63 2.3.6.1 Equipment Dwell Volume 66 2.3.7 Effect of Gradient Shape (Nonlinear Gradients) 67 2.3.8 Overview of the Effect of Gradient Conditions on the Chromatogram 71 2.4 Related Topics 72 2.4.1 Nonideal Retention in Gradient Elution 72 2.4.2 Gradient Elution Misconceptions 72 3 Method Development 74 3.1 A Systematic Approach to Method Development 74 3.1.1 Separation Goals (Step 1 of Fig. 3.1) 75 3.1.2 Nature of the Sample (Step 2 of Fig. 3.1) 78 3.1.3 Initial Experimental Conditions 79 3.1.4 Repeatable Results 79 3.1.5 Computer Simulation: Yes or No? 80 3.1.6 Sample Preparation (Pretreatment) 81 3.2 Initial Experiments 81 3.2.1 Interpreting the Initial Chromatogram (Step 3 of Fig. 3.1) 85 3.2.1.1 “Trimming” a Gradient Chromatogram 87 3.2.1.2 Possible Problems 88 3.3 Developing a Gradient Separation: Resolution versus Conditions 90 3.3.1 Optimizing Gradient Retention k* (Step 4 of Fig. 3.1) 92 3.3.2 Optimizing Gradient Selectivity a* (Step 5 of Fig. 3.1) 92 3.3.3 Optimizing the Gradient Range (Step 6 of Fig. 3.1) 95 3.3.3.1 Changes in Selectivity as a Result of Change in k* 96 3.3.4 Segmented (Nonlinear) Gradients (Step 6 of Fig. 3.1 Continued) 100 3.3.5 Optimizing the Column Plate Number N* (Step 7 of Fig. 3.1) 102 3.3.6 Column Equilibration Between Successive Sample Injections 106 3.3.7 Fast Separations 106 3.4 Computer Simulation 108 3.4.1 Quantitative Predictions and Resolution Maps 109 3.4.2 Gradient Optimization 111 3.4.3 Changes in Column Conditions 112 3.4.4 Separation of “Regular” Samples 114 3.4.5 Other Features 115 3.4.5.1 Isocratic Prediction (5 in Table 3.5) 115 3.4.5.2 Designated Peak Selection (6 in Table 3.5) 117 3.4.5.3 Change in Other Conditions (7 in Table 3.5) 117 3.4.5.4 Computer-Selection of the Best Multisegment Gradient (8 in Table 3.5) 117 3.4.5.5 “Two-Run” Procedures for the Improvement of Sample Resolution 119 3.4.6 Accuracy of Computer Simulation 119 3.4.7 Peak Tracking 119 3.5 Method Reproducibility and Related Topics 120 3.5.1 Method Development 121 3.5.2 Routine Analysis 122 3.5.3 Change in Column Volume 123 3.6 Additional Means for an Increase in Separation Selectivity 124 3.7 Orthogonal Separations 127 3.7.1 Two-Dimensional Separations 128 4 Gradient Equipment 133 4.1 Gradient System Design 133 4.1.1 High-Pressure vs Low-Pressure Mixing 133 4.1.2 Tradeoffs 135 4.1.2.1 Dwell Volume 135 4.1.2.2 Degassing 136 4.1.2.3 Accuracy 137 4.1.2.4 Solvent Volume Changes and Compressibility 137 4.1.2.5 Flexibility 139 4.1.2.6 Independent Module Use 140 4.1.3 Other System Components 140 4.1.3.1 Autosampler 140 4.1.3.2 Column 140 4.1.3.3 Detector 141 4.1.3.4 Data System 141 4.1.3.5 Extra-Column Volume 142 4.2 General Considerations in System Selection 142 4.2.1 Which Vendor? 143 4.2.2 High-Pressure or Low-Pressure Mixing? 144 4.2.3 Who Will Fix It? 144 4.2.4 Special Applications 144 4.3 Measuring Gradient System Performance 145 4.3.1 Gradient Performance Test 146 4.3.1.1 Gradient Linearity 146 4.3.1.2 Dwell Volume Determination 147 4.3.1.3 Gradient Step-Test 147 4.3.1.4 Gradient Proportioning Valve Test 148 4.3.2 Additional System Checks 149 4.3.2.1 Flow Rate Check 149 4.3.2.2 Pressure Bleed-Down 150 4.3.2.3 Retention Reproducibility 150 4.3.2.4 Peak Area Reproducibility 151 4.4 Dwell Volume Considerations 151 5 Separation Artifacts and Troubleshooting 153 5.1 Avoiding Problems 154 5.1.1 Equipment Checkout 157 5.1.1.1 Installation Qualification, Operational Qualification, and Performance Qualification 157 5.1.2 Dwell Volume 158 5.1.3 Blank Gradient 158 5.1.4 Suggestions for Routine Applications 158 5.1.4.1 Reagent Quality 159 5.1.4.2 System Cleanliness 159 5.1.4.3 Degassing 159 5.1.4.4 Dedicated Columns 159 5.1.4.5 Equilibration 159 5.1.4.6 Priming Injections 159 5.1.4.7 Ignore the First Injection 160 5.1.4.8 System Suitability 160 5.1.4.9 Standards and Calibrators 160 5.1.5 Method Development 160 5.1.5.1 Use a Clean and Stable Column 160 5.1.5.2 Use Reasonable Mobile Phase Conditions 161 5.1.5.3 Clean Samples 162 5.1.5.4 Reproducible Runs 162 5.1.5.5 Sufficient Equilibration 162 5.1.5.6 Reference Conditions 162 5.1.5.7 Additional Tests 162 5.2 Method Transfer 163 5.2.1 Compensating for Dwell Volume Differences 163 5.2.1.1 Injection Delay 163 5.2.1.2 Adjustment of the Initial Isocratic Hold 164 5.2.1.3 Use of Maximum-Dwell-Volume Methods 165 5.2.1.4 Adjustment of Initial Percentage B 165 5.2.2 Other Sources of Method Transfer Problems 168 5.2.2.1 Gradient Shape 169 5.2.2.2 Gradient Rounding 169 5.2.2.3 Inter-Run Equilibration 169 5.2.2.4 Column Size 169 5.2.2.5 Column Temperature 169 5.2.2.6 Interpretation of Method Instructions 170 5.3 Column Equilibration 170 5.3.1 Primary Effects 171 5.3.2 Slow Equilibration of Column and Mobile Phase 173 5.3.3 Practical Considerations and Recommendations 174 5.4 Separation Artifacts 175 5.4.1 Baseline Drift 176 5.4.2 Baseline Noise 179 5.4.2.1 Baseline Noise: A Case Study 180 5.4.3 Peaks in a Blank Gradient 182 5.4.3.1 Mobile Phase Water or Organic Solvent Impurities 182 5.4.3.2 Other Sources of Background Peaks 185 5.4.4 Extra Peaks for Injected Samples 185 5.4.4.1 t0 Peaks 185 5.4.4.2 Air Peaks 186 5.4.4.3 Late Peaks 187 5.4.5 Peak Shape Problems 188 5.4.5.1 Tailing and Fronting 188 5.4.5.2 Excess Peak Broadening 188 5.4.5.3 Split Peaks 190 5.4.5.4 Injection Conditions 191 5.4.5.5 Sample Decomposition 193 5.5 Troubleshooting 195 5.5.1 Problem Isolation 196 5.5.2 Troubleshooting and Maintenance Suggestions 197 5.5.2.1 Removing Air from the Pump 197 5.5.2.2 Solvent Siphon Test 197 5.5.2.3 Premixing to Improve Retention Reproducibility in Shallow Gradients 198 5.5.2.4 Cleaning and Handling Check-Valves 199 5.5.2.5 Replacing Pump Seals and Pistons 200 5.5.2.6 Leak Detection 200 5.5.2.7 Repairing Fitting Leaks 200 5.5.2.8 Cleaning Glassware 201 5.5.2.9 For Best Results with TFA 201 5.5.2.10 Improved Water Purity 201 5.5.2.11 Isolating Carryover Problems 203 5.5.2.12 Troubleshooting Rules of Thumb 204 5.5.3 Gradient Performance Test Failures 206 5.5.3.1 Linearity (4.3.1.1) 206 5.5.3.2 Step Test (4.3.1.3) 206 5.5.3.3 Gradient-Proportioning-Valve Test (4.3.1.4) 209 5.5.3.4 Flow Rate (4.3.2.1) 211 5.5.3.5 Pressure Bleed-Down (4.3.2.2) 212 5.5.3.6 Retention Reproducibility (4.3.2.3) 212 5.5.3.7 Peak Area Reproducibility (4.3.2.4) 213 5.5.4 Troubleshooting Case Studies 213 5.5.4.1 Retention Variation – Case Study 1 213 5.5.4.2 Retention Variation – Case Study 2 218 5.5.4.3 Contaminated Reagents – Case Study 3 220 5.5.4.4 Baseline and Retention Problems – Case Study 4 224 6 Separation of Large Molecules 228 6.1 General Considerations 228 6.1.1 Values of S for Large Molecules 229 6.1.2 Values of N* for Large Molecules 235 6.1.3 Conformational State 236 6.1.4 Homo-Oligomeric Samples 238 6.1.4.1 Separation of Large Homopolymers 241 6.1.5 Proposed Models for the Gradient Separation of Large Molecules 242 6.1.5.2 “Critical Elution Behavior”: Biopolymers 246 6.1.5.3 Measurement of LSS Parameters for Large Molecules 247 6.2 Biomolecules 248 6.2.1 Peptides and Proteins 248 6.2.1.1 Sample Characteristics 249 6.2.1.2 Conditions for an Initial Gradient Run 249 6.2.1.3 Method Development 253 6.2.1.4 Segmented Gradients 259 6.2.2 Other Separation Modes and Samples 261 6.2.2.1 Hydrophobic Interaction Chromatography 262 6.2.2.2 Ion Exchange Chromatography 264 6.2.2.3 Hydrophilic Interaction Chromatography 266 6.2.2.4 Separation of Viruses 267 6.2.3 Separation Problems 271 6.2.4 Fast Separations of Peptides and Proteins 274 6.2.5 Two-Dimensional Separations of Peptides and Proteins 274 6.3 Synthetic Polymers 275 6.3.1 Determination of Molecular Weight Distribution 277 6.3.2 Determination of Chemical Composition 278 7 Preparative Separations 283 7.1 Introduction 283 7.1.1 Equipment for Preparative Separation 285 7.2 Isocratic Separation 286 7.2.1 Touching-Peak Separation 287 7.2.1.1 Theory 287 7.2.1.2 Column Saturation Capacity 289 7.2.1.3 Sample-Volume Overload 292 7.2.2 Method Development for Isocratic Touching-Peak Separation 292 7.2.2.1 Optimizing Separation Conditions 295 7.2.2.2 Selecting a Sample Weight for Touching-Peak Separation 297 7.2.2.3 Scale-Up 298 7.2.2.4 Sample Solubility 300 7.2.3 Beyond Touching-Peak Separation 301 7.3 Gradient Separation 302 7.3.1 Touching-Peak Separation 306 7.3.2 Method Development for Gradient Touching-Peak Separation 306 7.3.2.1 Step Gradients 311 7.3.3 Sample-Volume Overload 312 7.3.4 Possible Complications of Simple Touching-Peak Theory and Their Practical Impact 312 7.3.4.1 Crossing Isotherms 313 7.3.4.2 Unequal Values of S 314 7.4 Severely Overloaded Separation 315 7.4.1 Is Gradient Elution Necessary? 316 7.4.2 Displacement Effects 317 7.4.3 Method Development 317 7.4.4 Separations of Peptides and Small Proteins 318 7.4.5 Column Efficiency 320 7.4.6 Production-Scale Separation 320 8 other Applications of Gradient Elution 323 8.1 Gradient Elution for LC-MS 324 8.1.1 Application Areas 325 8.1.2 Requirements for LC-MS 325 8.1.3 Basic LC-MS Concepts 326 8.1.3.1 The Interface 326 8.1.3.2 Column Configurations 328 8.1.3.3 Quadrupoles and Ion Traps 328 8.1.4 LC-UV vs LC-MS Gradient Conditions 330 8.1.5 Method Development for LC-MS 332 8.1.5.1 Define Separation Goals (Step 1, Table 8.2) 332 8.1.5.2 Collect Information on Sample (Step 2, Table 8.2) 334 8.1.5.3 Carry Out Initial Separation (Run 1, Step 3, Table 8.2) 339 8.1.5.4 Optimize Gradient Retention k* (Step 4, Table 8.2) 339 8.1.5.5 Optimize Selectivity a* (Step 5, Table 8.2) 339 8.1.5.6 Adjust Gradient Range and Shape (Step 6, Table 8.2) 340 8.1.5.7 Vary Column Conditions (Step 7, Table 8.2) 341 8.1.5.8 Determine Inter-Run Column Equilibration (Step 8, Table 8.2) 341 8.1.6 Special Challenges for LC-MS 341 8.1.6.1 Dwell Volume 342 8.1.6.2 Gradient Distortion 342 8.1.6.3 Ion Suppression 343 8.1.6.4 Co-Eluting Compounds 345 8.1.6.5 Resolution Requirements 346 8.1.6.6 Use of Computer Simulation Software 347 8.1.6.7 Isocratic Methods 347 8.1.6.8 Throughput Enhancement 347 8.2 Ion-Exchange Chromatography 349 8.2.1 Theory 349 8.2.2 Dependence of Separation on Gradient Conditions 356 8.2.3 Method Development for Gradient IEC 356 8.2.3.1 Choice of Initial Conditions 356 8.2.3.2 Improving the Separation 357 8.3 Normal-Phase Chromatography 359 8.3.1 Theory 359 8.3.2 Method Development for Gradient NPC 360 8.3.3 Hydrophilic Interaction Chromatography 361 8.3.3.1 Method Development for Gradient HILIC 361 8.4 Ternary- or Quaternary-Solvent Gradients 365 9 Theory and Derivations 370 9.1 The Linear Solvent Strength Model 370 9.1.1 Retention 372 9.1.1.1 Gradient and Isocratic Retention Compared 374 9.1.1.2 Small Values of k 0 376 9.1.2 Peak Width 378 9.1.2.1 Gradient Compression 380 9.1.3 Selectivity and Resolution 383 9.1.4 Advantages of LSS Behavior 385 9.2 Second-Order Effects 386 9.2.1 Assumptions About Φ and k 386 9.2.1.1 Incomplete Column Equilibration 386 9.2.1.2 Solvent Demixing 391 9.2.1.3 Nonlinear Plots of log k vs Φ 393 9.2.1.4 Dependence of V m on Φ 393 9.2.2 Nonideal Equipment 393 9.3. Accuracy of Gradient Elution Predictions 397 9.3.1 Gradient Retention Time 397 9.3.1.1 Confirmation of Equation (9.2) 397 9.3.1.2 Computer Simulation 399 9.3.2 Peak Width Predictions 399 9.3.3 Measurement of Values of S and log k 0 400 9.4 Values of S 401 9.4.1 Estimating Values of S from Solute Properties and Experimental Conditions 402 9.5 Values of N in Gradient Elution 404 Appendix I The Constant-S Approximation In Gradient Elution 414 Appendix II Estimation of Conditions for Isocratic Elution, Based on An Initial Gradient Run 416 Appendix III Characterization of Reversed-phase Columns for Selectivity and Peak Tailing 418 Appendix IV Solvent Properties Relevant to the Use of Gradient Elution 434 Appendix V Theory Of Preparative Separation 436 Appendix Vi Further Information On Virus Chromatography 445 Index 450

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Book SynopsisHere is your starting point and complete guide to polyvinyl chloride (PVC) formulation. It covers the basics of vinyl formulation, starting formulations for compounds, and the latest compounding ingredients. Since publication of the acclaimed first edition, a standard reference used by vinyl technologists around the world, there have been many new developments in vinyl formulation as well as new discoveries and insights into the underlying mechanisms. It''s all covered here in the second edition, in one highly readable, expertly organized volume.Table of ContentsPreface to the Second Edition. Preface to the First Edition. Contributors. 1. Formulation Development (Edward J. Wickson and Richard F. Grossman). 2. Resin Selection for PVC Applications (Paul Kroushl). 3. PVC Special Products (J. R. Goots, Michael P. Moore, Kenneth B. Szoc, Richard J. Burns, and James H. Bly). 4. Antidegradants (George W. Thacker, Richard F. Grossman, and John T. Lutz, Jr). 5. Colorants for Vinyl (William R. Mathew and Richard F. Grossman). 6. Fillers and Reinforcements for PVC (Sara Robinson, Thomas H. Ferrigno, and Richard F. Grossman). 7. Monomeric Plasticizers (Allen D. Godwin and Leonard G. Krauskopf). 8. Specialty Plasticizers (William D. Arendt and Makarand Joshi). 9. Formulating Vinyl for Flame Resistance (Paul Y. Moy). 10. Impact Modification (Mark T. Berard and C. Michael Vanek). 11. Processing Aids for PVC (C. Michael Vanek and Mark T. Berard). 12. Lubricants and Related Additives (Richard F. Grossman). 13. Plastisol Technology (Ashok Shah, B. Mikofalvy, L. Horvath, and Richard F. Grossman). 14. Formulating Expanded Products (Jeremy H. Exelby, R. R. Puri, David M. Henshaw, and Richard F. Grossman). 15. Alloys and Blends (Michael K. Stockdale, Robert S. Brookman, and Richard F. Grossman). 16. Flame Retardants and Smoke Suppressants (John C. Morley and Richard F. Grossman). 17. Vinyl Wood Fiber Composites (Laurent M. Matuana and Richard F. Grossman). 18. Laboratory Methods (M. Fred Marx, Marvin Whitley, Pierre Verrier, and Richard F. Grossman). 19. Regulatory and Legislative Matters Affecting the Plastics Industry: Health, Safety, and the Environment (Lewis B. Weisfeld). 20. Formulating Flexible PVC for Molding and Coating (Richard F. Grossman). 21. Formulating Rigid PVC for Extrusion (George A. Thacker). 22. Design of Experiments (R. J. Del Vecchio). Index.

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Book SynopsisExcellent teaching and resource material... it is concise, coherently structured, and easy to read... highly recommended for students, engineers, and researchers in all related fields.Trade Review"…an excellent book for explaining electrochemical deposition to students, practicing engineers, or scientists…" (Journal of Metals Online, July 25, 2007) "…a great book for anyone who wants to learn about the fundamentals of electrochemical deposition." (IEEE Electrical Insulation Magazine, July/August 2007) "The book is a definitive treatment of the subject by two experts in the field…" (CHOICE, February 2007)Table of ContentsPreface to the Second Edition. Preface to the First Edition. 1. Overview. 2. Water and Ionic Solutions. 3. Metals and Metal Sufaces. 4. Metal-Solution Interphase. 5. Equilibrium Electrode Potential. 6. Kinetics and Mechanism of Electrodeposition. 7. Nucleation and Growth Models. 8. Electroless Deposition. 9. Displacement Deposition. 10. Effect of Additives. 11. Electrodeposition of Alloys. 12. Metal Deposit and Current Distribution. 13. Characterization of metallic Surfaces and Thin Films. 14. In Situ Characterization of Deposition. 15. Mathematical Modeling in Electrochemistry. 16. Structure anad Properties of Deposits. 17. Electrodeposited Multilayers. 18. Interdiffusion in Thin Films. 19. Applications in Semiconductors Technology. 20. Applications in the Fields of Magnetism and Microelectronics. 21. Frontiers in Applications: Applications in the Field of Medicine. Index.

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Book SynopsisA practical guide for ensuring a defect-free coating and drying process For professionals in the coating and drying industry, the world is a demanding place. New, technically complex products such as fuel cell membranes, thin film batteries, solar cells, and RFID chips require coatings of extreme precision.Trade Review"…this text belong center stage in all college-level libraries--a one-of-a-kind resource that speaks to its subject in eloquent and comprehensive terms." (Electric Review, February/March 2007)Table of ContentsPreface xv Preface to the First Edition xvii About the Authors xxi 1 Introduction 1 2 Troubleshooting or Problem-Solving Procedure 5 Basic Troubleshooting Principles 6 Detect the Defect 8 Define the Defect or Problem 9 Name the Defect 11 Problem Statement 15 Collect and Analyze Additional Data 16 Process Information 16 General Process Information 17 Analytical Data 19 Standard Operating Procedures 19 Analyze the Data and Identify Potential Causes of Problem 19 Eliminate the Problem 25 Document the Results 25 Use Results to Prevent Reoccurrence 27 References 27 3 Coater and Defect Analytical Tools 29 Overview of Analytical Tools 30 Analytical Methods to Characterize Defects 30 Defect Test Procedures 31 Video Enhanced Microscopy 31 Surface Characterization Techniques 33 Coater Characterization Instruments 38 Data Loggers 42 Rheological Measurements 44 Surface Properties 49 On-Line Characterization Systems 50 On-Line Inspection Systems 50 On-Line Coating Weight Measurement 52 On-Line Viscosity 54 Data Analysis Techniques 55 Keeping Current 56 References 61 4 Problems Associated with Feed Preparation 63 Dirt and Other Particulates 63 Filtration 64 Agglomerates 66 Bubbles 68 Poor Cross-Web Uniformity 69 In-Line Mixers 70 Temperature Control 70 Flow Control for Down-Web Uniformity 70 Feeding the Coating Liquid 70 Flow Control 72 Magnetic Flow Meters 72 Ultrasonic Meters 73 Coriolis Meters 73 References 74 5 Problems Associated with Roll Coating and Related Processes 75 Coating Methods 75 Control of Coating Weight 82 Ribbing 86 Ribbing in Forward Roll Coating 87 Ribbing and Cascade (or Herringbone or Seashore) in Reverse Roll Coating 89 Gravure Coating 92 Streaks and Bands in Roll Coating 92 Chatter in Roll Coating 94 Sagging 94 References 95 6 Problems in Slot Extrusion Slide and Curtain Coating 97 Description of Coating Methods 97 Limits of Coatability 107 The Window of Coatability 107 Slide Coating 109 Vortices and Eddies 110 Slot Coating 117 Extrusion Coating 124 Curtain Coating 126 Effect of Surface Roughness on the Limits of Coatability 128 Instabilities in Premetered Coating 131 Chatter 131 Ribbing 131 Neck-in 133 Scalloped Edges 133 Edge Beads and Heavy Edges 133 Waves in Slide and in Curtain Coating 135 Streaks and Bands in Premetered Coating 137 References 141 7 Coating Problems Associated with Coating Die Design 143 Cross-Web Uniformity 143 Temperature Control 148 Corrections to the Coating Die Internals 149 Die Internal Pressures and Spreading 150 Extrusion Dies 151 Wall Shear Stress Control and Residence Time Control 153 References 155 8 Surface Tension Driven Defects 157 Surfactants 158 Surface Tension Effects in Coating 159 Surface Tension Driven Defects 162 Convection or Bénard Cells 162 Craters 163 Fat Edges or Picture Framing 164 Nonuniform Edges in Multilayer Coatings 165 Dewetting and Crawling 166 Adhesive Failure and Delamination 167 Nonuniform Base Surface Energies 168 References 168 9 Problems Associated with Static Electricity 169 Formation of Charges 171 Electrostatic Fields 173 Surface Resistivity 174 Measurement of Static Charges 177 Removal of Charges 180 Free Charges 180 Bound Charges 182 References 183 10 Problems Associated with Drying 185 Dryer Control and Solvent Removal 189 Drying Condition Case History 195 Drying Defects 198 Air Bar Rubs 199 Blushing 199 Bubbles and Blisters 200 Cockle or Wrinkling 201 Curl 201 Mud Cracking 204 Delamination 204 Dryer Bands 205 Dryer Remelt 206 Dryer Contamination Spots 207 Dryer Condensation Spots 208 Haze 208 Mottle 208 Orange Peel and Crinkling 209 Overspray 209 Reticulation 209 Surface Blow-Around 211 Microscopic Defects 211 Starry Night 211 Pinholes 212 The Role of Dryer Simulation in Troubleshooting 212 The Role of Radiative Heating in Defect Reduction 214 References 215 11 Problems Associated with Web Handling 217 by Gerald I. Kheboian Web 218 Web Characteristics and Problems Associated with the Web 219 Base Web Defects that Cause Wrinkling 219 Causes of Web Defects 221 Web Attributes 221 Web Camber 221 Web Cross-Machine Thickness Profile Variation 223 Basis Weight Profile Variation 225 Surface of the Web 225 Plastic Web 227 Web Transport Systems 228 Tension 230 Reasons Why Operators Must Change Tensions in Order to Successfully Transport Web 231 Unwind Stand 231 When to Use Drive Motors on an Unwind Stand 233 Web Control 234 Core Selection and Build-Down Ratio 235 Draw Rolls Pull Rolls Capstans 235 Web Slippage and What Slip Affects 235 Nip Rolls 236 Unnipped Rolls (Elastomer Rolls) 237 Suction Rolls 241 Suction Aprons or Tables 242 Increasing the Reliability of Draw Roll Sections 243 Tension Isolation 243 Differential Tension 244 Driving Web-Carrying Rolls Within a Dryer 245 The Rewinder 246 Use of Accumulators at the Rewind and Unwind 246 Surface/Center Rewinds 247 Center-Driven Winders 248 Drives for Laminators 248 When to Drive Both Laminator Rolls 249 Coating Roll Drives 249 Coating Defects—Sources and Some Solutions 249 Backlash Exists in Timing Belts Gearboxes and Geared Couplings 250 Chatter Caused by the Roll 251 Roll Unbalance 251 Nonconcentric Rolls 252 Coating Roll Drive Systems 252 Feedback Devices 254 Coating Supply System 254 Transmission of Vibration Through Structural Members to the Coating Stand 254 Effect of Dryer Design on Coating Quality 255 Troubleshooting ‘‘Sudden’’ Coating Problems 255 Monitoring Speeds and Tensions of Web 257 A Speed Monitoring System 257 Monitoring the Speed of Idler Rolls 257 Monitoring for Slip Conditions on High-Speed Coaters 258 Tension Monitoring Systems 258 Specifying the Tension Range 259 Why Is Tension Control Needed? 259 Effects of Wiring Practices on Tension Control 260 When Do You Use a Pure Speed Control? 261 Equipment Lists Avoid Problems and Help Plant Personnel 264 Frequency and Direction of a Speed Perturbation 265 Problems that Occur After the Machine Is in Production 266 Types of Tension Control Systems 266 Motor Current Regulation 268 Dancer Roll Control 268 Example of the Use of a Dancer in Close Proximity to an Air Roll 270 Using Air Roll Air Gap Control as a Dancer in the Dryer 270 Force Transducer Control 272 Sizing Strain Gauge Load Cells 274 Section Characteristics that Ensure Good Web Transport Control 274 Master or Lead Section 274 Using Load Cell Control in Close Proximity to an Air Roll 275 Defects that Occur When the Master Section Slips 275 Sections with Limited Ability to Control Web Transport or Tension 275 Dealing with Sections that Have Limited Ability to Control Tension 276 Sections that Always Slip or Almost Always Slip 277 Drive Features that Give the Operator Additional Tools 278 Tools that Are Used for Troubleshooting Drive Problems 278 Optical Alignment Tooling and Laser Technology 278 Machine Alignment: Avoiding Many Web Handling Problems 278 Experience: Dryers Installed with the Dryer Centerline Skewed from the Machine Centerline 279 Alignment Problems Due to Building Location in a Swamp or Tidal River 279 The Alignment Process 280 The Baseline 281 Checking the Alignment of a Size Press (Roll Coater) on a Paper Web 282 Knowing How Your Machine Operates Can Avoid Problems in the Future 283 Summary 284 References and Bibliography 284 12 The Role of Process Support Equipment 287 Introduction 287 Definitions 288 Defect Support Equipment Interactions 291 Support Equipment Effect on Defects 291 Mechanical Chatter 291 Serpentine Chatter 292 Poor Physical Uniformity 294 Ribbing 294 Bubbles 294 Contamination Spots 294 Low Overall Productivity 295 Defects Due to Static Electricity 295 Scratches 295 Streaks 296 Mottle 296 Coating Weight Nonuniformity in Premetered Applicators 297 Coating Weight Nonuniformity in Self-Metered and Doctor Coaters 297 Air Bar Rubs in a Floater Dryer 297 Dry Point Variability 298 Selection of Equipment 298 13 Coating Defects Database 299 Need for Coating Defects Database 299 Defects Database: Examples 302 Base Flake 303 Roll Repeats 303 Bubbles 303 Bacteria Bubbles 306 Aimcal Defects Lexicon: Guide to Web Coating Technology 306 Description of Lexicon 306 Need for Lexicon 306 Lexicon Overview 308 Lexicon Sections 308 Glossary 308 Troubleshooting Guide 309 Defect Image Section 310 Search Capability 310 Availability 312 References 314 14 Defect Prevention 315 Introduction 315 Define Product and Process Requirements 316 Ensure Availability of Valid Analytical Techniques 319 Ensure Web Coating Process Meets Specifications 319 Use Appropriate Coating Method 320 Develop and Implement Operational Procedures 321 Quantify and Understand Defect Losses 321 Use Structured Troubleshooting Protocol 325 Use Computer Database to Store and Share Information 325 Implement Improved Process Technology 327 Use Statistical Process Control 327 Develop Fundamental Process Understanding 328 Index 331

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Book SynopsisCorrelating chemical structure with toxicity to humans and the environment, and the chemical structure of compounds to their hazardous properties, A Comprehensive Guide to the Hazardous Properties of Chemical Substances, 3rd Edition allows users to assess the toxicity of a substance even when no experimental data exists.Trade Review"…recommended for bookshelves in facility's health and safety office as well as in the laboratory." (Journal of Chemical Health and Safety) "This is a very comprehensive book containing much useful information (data and tables) which will enable those with a chemistry background to perform assessments of the hazards of chemical substances without prior data." (Journal of Loss Prevention in the Process Industries, January 2008) "…a valuable resource to scientists as well as to laymen interested in chemicals, their properties and their hazards." (Journal of Hazardous Materials, October 22, 2007)Table of ContentsPreface xix Preface to the First Edition xxi Acknowledgments xxiii PART A 1 I. Introduction 3 II. Glossary 6 III. Physical Properties of Compounds and Hazardous Characteristics 9 IV. Toxic Properties of Chemical Substances 17 V. Target Organs and Toxicology 26 VI. Cancer-Causing Chemicals 40 VII. Teratogenic Substances 45 VIII. Habit-Forming Addictive Substances 49 IX. Flammable and Combustible Properties of Chemical Substances 65 X. Explosive Characteristics of Chemical Substances 71 XI. Peroxide-Forming Substances 76 XII. Chemical Warfare Agents 79 XIII. Biological Warfare Agents and Bioterrorism 90 PART B 103 Chapter 1 Acids, Carboxylic 105 Chapter 2 Acids, Mineral 115 Chapter 3 Acids, Peroxy 127 Chapter 4 Alcohols 134 Chapter 5 Aldehydes 160 Chapter 6 Alkalies 193 Chapter 7 Alkaloids 200 Chapter 8 Amines, Aliphatic 235 Chapter 9 Amines, Aromatic 251 Chapter 10 Asbestos 269 Chapter 11 Azo Dyes 277 Chapter 12 Chlorohydrins 286 Chapter 13 Cyanides, Organic (Nitriles) 294 Chapter 14 Cyanides, Inorganic 317 Chapter 15 Dioxin and Related Compounds 336 Chapter 16 Epoxy Compounds 348 Chapter 17 Esters 370 Chapter 18 Ethers 390 Chapter 19 Gases, Common Toxic, and Flammable 402 Chapter 20 Glycol Ethers 410 Chapter 21 Haloethers 425 Chapter 22 Halogenated Hydrocarbons 438 Chapter 23 Halogens, Halogen Oxides, and Interhalogen Compounds 470 Chapter 24 Heterocyclic Compounds 484 Chapter 25 Hydrocarbons, Aliphatic and Alicyclic 496 Chapter 26 Hydrocarbons, Aromatic 516 Chapter 27 Industrial Solvents 537 Chapter 28 Isocyanates, Organic 551 Chapter 29 Ketones 568 Chapter 30 Metal Acetylides and Fulminates 592 Chapter 31 Metal Alkoxides 598 Chapter 32 Metal Alkyls 602 Chapter 33 Metal Azides 613 Chapter 34 Metal Carbonyls 622 Chapter 35 Metal Hydrides 630 Chapter 36 Metals, Reactive 643 Chapter 37 Metals, Toxic 650 Chapter 38 Mustard Gas and Sulfur Mustards 669 Chapter 39 Nerve Gases 674 Chapter 40 Nitro Explosives 691 Chapter 41 Oxidizers 704 Chapter 42 Particulates 715 Chapter 43 Peroxides, Organic 719 Chapter 44 Pesticides and Herbicides: Classification, Structure, and Analysis 741 Chapter 45 Pesticides, Carbamate 746 Chapter 46 Pesticides, Organochlorine 762 Chapter 47 Pesticides, Organophosphorus 782 Chapter 48 Herbicides, Chlorophenoxy Acid 804 Chapter 49 Herbicides, Triazine 811 Chapter 50 Herbicides, Urea 817 Chapter 51 Phenols 821 Chapter 52 Phosphorus and Its Compounds 834 Chapter 53 Polychlorinated Biphenyls 854 Chapter 54 Radon and Radioactive Substances 863 Chapter 55 Sulfate Esters 867 Chapter 56 Sulfur-Containing Organics (Miscellaneous) 872 Chapter 57 Miscellaneous Substances 882 Appendix A Federal Regulations 899 Appendix B IARC List of Carcinogenic Agents (Update 2006) 916 Appendix C NTP List of Carcinogens (2004) 11th Annual Report 937 Chemical Substances–CAS Registry Number Index 945 CAS Registry Number–Chemical Substances Index 1015 Subject Index 1045

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