Chemistry Books

Book Synopsis Timely title assembling the combined knowledge of some of the leading authorities in the field of small fish reproduction - an important topic for risk assessment and registration of chemical, agricultural, and pharmaceutical compounds Provides guidance on the microscopic structure of living tissue and evaluation of the reproductive glands of small laboratory fish Includes state-of-the-art science along with sufficient anatomical and physiological background for understanding and interpreting test results Helps standardize the interpretation of results from aquatic bioassays and field observations, which will also clarify inconsistencies in the current scientific literature Note: CD-ROM/DVD and other supplementary materials are not included as part of eBook file.Table of ContentsPreface xi Acknowledgments xiii Contributing Authors xv 1 Introduction 1 References 3 2 Fish Species of Interest 7 2.1 Fathead Minnow (Pimephales promelas) 8 2.2 Medaka (Oryzias latipes) 10 2.3 Zebrafish (Danio rerio) 12 2.4 Other Fish Species 13 References 15 3 Sexual Determination, Differentiation, and Gonadal Development 19 3.1 Primordial Germ Cells in the Primordial (Primary) Gonad 22 3.1.1 Differentiation and Number of PGCs 22 3.1.2 Molecular Markers of PGCs 25 3.2 Reproductive Strategies 26 3.3 Differentiation of the Primordial Gonad into Ovary or Testis 27 3.4 Gonadal Duct Formation 32 3.5 Endocrinology: Influence on Gonadogenesis 40 3.6 Critical Period of Sexual Differentiation in Developing Fish 45 3.7 Bi-Potentiality of Germ Cells in Adult Fish 47 References 51 4 Female Gonad Anatomy and Morphology 66 4.1 Gonadogenesis: Ovary 66 4.1.1 Location and Gross Organization 66 4.1.2 Anatomy of the Ovary 67 4.2 Hypothalamic–Pituitary–Ovarian Axis 69 4.3 Cellular Structure of the Ovary 69 4.3.1 Germ Cells (Oogenesis) 69 4.3.2 Female Somatic Supportive Tissue 78 4.3.2.1 Theca Cells 78 4.3.2.2 Granulosa Cells 81 References 81 5 Male Gonad Anatomy and Morphology 88 5.1 Gonadogenesis: Testes 88 5.1.1 Location and Gross Organization 88 5.1.2 Anatomy of the Testes 89 5.1.3 Germinal Epithelium 93 5.1.4 Male Germ Cells (Spermatogenesis) 95 5.1.5 Male Somatic Supportive Tissue 99 5.1.5.1 Sertoli Cells 99 5.1.5.2 Leydig Cells 103 5.1.5.3 Lobule Boundary Cells 104 5.1.5.4 Sex Steroid Control of Spermatogenesis 104 References 108 6 Endocrine-Disrupting Compounds 115 6.1 Individual Effects 117 6.1.1 Inhibition of Gametogenesis 117 6.1.2 Necrosis and Apoptosis (Gamete and Stromal Cells) 119 6.1.3 Atretic Follicles 121 6.1.4 Sertoli Cell Hypertrophy and Hyperplasia 123 6.1.5 Leydig Cell Hypertrophy and Hyperplasia 129 6.1.6 Fibrosis 129 6.1.7 Gonadal Duct Formation 132 6.2 Effects Associated with Exposure to Specific Compounds or Compound Classes 133 Table 6.1 Overt Testicular Changes in Male Fish, 134 Table 6.2 Testis–Ova in Male Fish, 148 Table 6.3 Testicular Fibrosis in Male Fish, 161 Table 6.4 Germ Cell Effects in Male Fish, 165 Table 6.5 Somatic Cell Effects in Male Fish, 181 Table 6.6 Testicular Inflammation and Macrophage Infiltration in Male Fish, 186 Table 6.7 Overt Ovarian Changes in Female Fish, 187 Table 6.8 Ovo–Testis in Female Fish, 195 Table 6.9 Ovarian Fibrosis in Female Fish, 196 Table 6.10 Germ Cell Effects in Female Fish, 197 Table 6.11 Germ Cell Atresia in Female Fish, 206 Table 6.12 Ovarian Inflammation and Macrophage Infiltration in Female Fish, 214 6.2.1 Effects in Male Fish Associated with Exposure to Specific Compounds or Compound Classes 215 6.2.1.1 Testis Architecture, Integrity, and Gross Appearance 215 6.2.1.2 Testis–Ova 215 6.2.1.3 Fibrosis 216 6.2.1.4 Germ Cell Effects 217 6.2.1.5 Somatic Cell Effects 219 6.2.1.6 Testicular Cell Inflammation and Macrophage Infiltration 219 6.2.2 Effects in Female Fish Associated with Exposure to Specific Compounds or Compound Classes 220 6.2.2.1 Ovary Architecture, Integrity, and Gross Appearance 220 6.2.2.2 Ovo–Testis 221 6.2.2.3 Fibrosis 221 6.2.2.4 Germ Cell Effects 222 6.2.2.5 Germ Cell Atresia 223 6.2.2.6 Germ Cell Inflammation and Macrophage Infiltration 225 6.3 Population Effects 225 6.3.1 Fecundity and Fertility 226 6.3.2 Breeding and Reproductive Behavior of Fishes 230 6.3.3 Transgenerational Effects 230 References 232 7 Determination of Effects of Exogenous Hormones and Endocrine-like Active Compounds 247 7.1 Histological Processing: Microdissection versus Whole-Fish Sectioning 247 7.2 Optimal Tissue Preparation and Histological Techniques 250 7.3 Plane of Gonad Sectioning for Optimal Organ Representation 251 References 252 8 Evaluation of Effects in Fish Gonads 254 8.1 Qualitative (Semiquantitative) versus Quantitative Evaluation 254 8.2 Gonadal Staging in the Testis 255 8.2.1 Qualitative Staging in the Testis 255 8.2.2 Quantitative Staging in the Testis 257 8.3 Gonadal Staging in the Ovary 262 8.3.1 Qualitative Staging in the Ovary 262 8.3.2 Quantitative Staging in the Ovary 264 8.4 Qualitative Assessment of Histopathological Changes 265 References 267 9 Experimental Design and Statistics 270 9.1 Basic Considerations in Experimental Design 270 9.1.1 Defining the Objectives 271 9.1.2 Asking Precise Questions 271 9.1.3 The Principal Question: Is There an Effect or Is There Not? 272 9.1.4 Basic Mechanistic Research, Risk Assessment, and the NOEC, LOEC, and ECx Question 272 9.2 Variables to be Determined and Their Inherent Biological and Mathematical Characteristics 274 9.2.1 Biological Characteristics 274 9.2.2 Mathematical Characteristics 278 9.3 Prerequisite Statistical Concepts 282 9.3.1 Sample Independence: The Experimental Unit 282 9.3.2 One- or Two-Sided Testing 283 9.3.3 Observable Effect Size: Minimum Observable Effect 283 9.3.4 Power (1 b) to Detect an Effect 284 9.3.5 Replication and Pseudoreplication 286 9.3.6 Minimum Significant Difference 287 9.4 Statistical Tests and Testing Situations Encountered Routinely 288 9.4.1 Significance Level of Multiple Comparisons: Variable-wise Significance 288 9.4.2 Significance Level for Many Different Comparisons: Simultaneous Significance 288 9.4.3 Multivariate Tests 289 9.4.4 Parametric Versus Nonparametric Testing 289 References 289 10 Conclusions 295 References 297 Appendix: Fish Preparation and Microdissection of Organs 301 A.1 Fish Preparation 301 A.2 Microdissection of Organs 302 A.3 Tissue Fixation 303 A.3.1 Neutral Buffered Formalin 304 A.3.2 Bouin’s Fixative 304 A.3.3 Lillie’s Fixative 305 A.3.4 Davidson’s Fixative 305 A.3.5 Dietrich’s Fixative 306 A.3.6 Glutaraldehyde 306 A.4 Embedding 307 A.4.1 Paraffin 307 A.4.2 Glycolmethacrylate (GMA) 309 A.5 Tissue Sectioning 310 A.6 Sample Mounting 311 A.7 Tissue Slide Staining 312 A.7.1 Hematoxylin and Eosin 312 A.7.2 Masson’s Trichrome Stain 314 A.8 Final Processing 315 A.9 Examples 316 A.10 Summary 317 References 318 Index 319

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Book SynopsisAs with all biotechnologies in the midst of rapid growth, nutrigenomics faces ethical, legal, and social implications that are likely to affect the public and the medical community. This title identifies and examines the anticipated risks and expected benefits of nutrigenomics from an ethical perspective.Trade Review"…a worthy acquisition for any medical library…along with students and instructors in nutrition and health care." (CHOICE, June 2007) "This concise overview of nutritional genomics covers a variety of topics surrounding this controversial topic." (Doody's Health Services)Table of ContentsPreface. Acknowledgments. 1 NUTRITIONAL GENOMICS: OPPORTUNITIES AND CHALLENGES. 1.1 Introduction. 1.2 What is Nutritional Genomics? 1.3 Methodology and Approach of this Book. 1.4 Opportunities and Challenges for Nutrigenomics. 1.4.1 Improved health. 1.4.2 Personalized dietary advice. 1.4.3 Improved diet. 1.4.4 More development of health-enhancing food products. 1.4.5 Consumer empowerment. 1.4.6 Reducing health disparities. 1.4.7 Health care savings. 1.5 Challenges and a Road Map of This Book. References. 2 THE SCIENCE OF NUTRIGENOMICS AND NUTRIGENETICS. 2.1 Introduction. 2.2 The Scientific Context. 2.2.1 Nutrigenomics. 2.2.2 Nutrigenetics. 2.3 The Case of MTHFR. 2.4 Room for Improvement. 2.4.1 Study design. 2.4.2 Epigenetics. 2.4.3 SNPs and haplotypes. 2.4.4 Dietary intake assessment. 2.4.5 Biomarkers. 2.4.6 Susceptibility and predictions. 2.4.7 Analytical and clinical validity. 2.4.8 Clinical utility. 2.5 Science and Technology Assessment. 2.6 Conclusion. References. 3 THE ETHICS OF NUTRIGENOMIC TESTS AND INFORMATION. 3.1 Introduction. 3.2 Ethical Principles. 3.3 Nutrigenomics Testing in the Clinical Setting. 3.3.1 Informed consent. 3.3.2 Confidentiality. 3.3.3 Secondary information. 3.3.4 Families. 3.3.5 Genetic testing of children and adolescents. 3.4 Use of Nutrigenomics Information for Research. 3.5 Use of Nutrigenomics Information by Private Third Parties. 3.5.1 Insurance. 3.5.2 Employment. 3.5.3 Legal and social responses to fears of discrimination. 3.6 Conclusion. References. 4 ALTERNATIVES FOR NUTRIGENOMIC SERVICE DELIVERY. 4.1 Introduction. 4.2 Considerations for Nutrigenomic Service Delivery. 4.2.1 Strength of the science. 4.2.2 Regulatory environment. 4.2.3 Human resource capacity and professional competence. 4.2.4 Funding policy. 4.2.5 Professional politics and culture. 4.2.6 Consumers and patients. 4.3 Four Alternative Models. 4.3.1 Consumer model. 4.3.2 Health practitioner model. 4.3.3 Blended models. 4.3.4 Public health model. 4.4 Conclusion. References. 5 NUTRIGENOMICS AND THE REGULATION OF HEALTH CLAIMS FOR FOODS AND DRUGS. 5.1 Introduction. 5.1.1 Genetic tests, service delivery, and genetic antidiscrimination. 5.2 Food Categories: Functional Foods, Nutraceuticals, Medicinal Foods, and Dietary Supplements. 5.2.1 Functional foods. 5.2.2 Nutraceuticals. 5.2.3 Medical or medicinal foods. 5.2.4 Dietary supplements. 5.3 Health-Related Claims Associated with Foods Compared to Drugs. 5.3.1 Structure–function claims. 5.3.2 Health claims. 5.3.3 Medical food claims. 5.3.4 Disease risk reduction claims. 5.4 Nutrigenomic Information and the Regulation of Foods Compared to Drugs. 5.4.1 The regulation of foods. 5.4.2 The regulation of drugs. 5.5 Food and Drug Regulations in Japan, the United States, and Canada. 5.5.1 Japan. 5.5.2 United States. 5.5.3 Canada. 5.6 Conclusion. References. 6 NUTRIGENOMICS: JUSTICE, EQUITY, AND ACCESS. 6.1 Introduction. 6.2 Industrialized Country Context. 6.2.1 Individualized nutrigenomic testing. 6.2.2 Population-based nutrigenomics. 6.3 Developing Country Context. 6.3.1 Individualized nutrigenomic testing. 6.4 Nutrigenomics and Intellectual Property. 6.4.1 An issue of access to scientific information. 6.5 Conclusion. References. 7 CONCLUSIONS AND RECOMMENDATIONS. 7.1 Introduction. 7.1.1 Nutrigenomic science. 7.1.2 Nutrigenomics and health information management. 7.1.3 Nutrigenomic service delivery. 7.1.4 Regulation of nutrigenomics. 7.1.5 Access and equity. 7.2 A Final Word. Index.

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Book SynopsisMany researchers believe that GSK-3 and its inhibitors could lead to effective treatments for neurogenerative disorders, type II diabetes, depression and bipolar disorder, and some forms of cancer. This book provides a thorough introduction to GSK-3, presents up-to-date information, and mentions the birth of several chemical families of GSK-3 inhibitors with varying selectivity. It's a great reference for researchers in drug design and development.Table of ContentsForeword: The Origins of GSK-3. Preface. Acknowledgments. Contributors. Abbreviations. PART I: CELLULAR FUNCTIONS OF GSK-3. 1. Glycogen Synthase Kinase-3 - an Introductory Synopsis . 2. Glycogen-Synthase-Kinase-β (GSK-3β) a Key Signaling Enzyme: A Developmental Neurobiological Perspective. 3. Role of GSK3/Shaggy in neuronal cell biology. 4. The Crystal Structures of Glycogen Synthase Kinase 3. 5. Kinase-Kinase and Site-Site Interactions in the Phosphorylation of Tau by GSK-3. PART II: GSK3 AS A THERAPEUTIC TARGET IN HUMAN PATHOLOGY. 6. GSK-3, a Key Player in Alzheimer’s Disease. 7. Glycogen Synthase Kinase-3: A Target for Novel Mood Disorder Treatments. 8. GSK3 and Stem Cells. 9. Glycogen Synthase Kinase-3: role in Neurodegeneration and Neuroprotection. 10. Protein Kinase Inhibitors. Assay Development. 11. Animal Models with Modified Expression of GSK-3 for the Study of Its Physiology and of Its Implications in Human Pathologies. PART III: GSK-3 INHIBITORS: DEVELOPMENT AND THERAPEUTIC POTENTIAL. 12. Lithium, the Seminal GSK3 Inhibitor. 13. Inhibition of GSK3 as Therapeutic Strategy in Disease: Efficacy of AR-A014418. 14. TDZD’s: Selective And ATP Non Competitive Glycogen Synthase Kinase-3 Inhibitors. 15. 3-Amino Pyrazoles as Potent and Selective Glycogen Synthase (GSK-3) Inhibitors. 16. Marine compounds as a new source for Glycogen Synthase Kinase-3 Inhibitors. Index.

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Book SynopsisTopics discussed in this volume include structure, dynamics, electrochemistry, interfacial and thermodynamic properties, spectroscopy, synthesis, and theoretical studies. Experimental and theoretical methods for investigating these data are elaborated, as are techniques for data collection and analysis.Trade Review"The book is sure to appeal to researchers already in the field of ionic liquids/molten salts, and those new to the area will likely find the review articles contained within enlightening and the philosophy behind this work, namely the unifcation of the field, a good position to begin their investigations into these fascinating materials." (Chemistry World, 1 February 2011)Table of ContentsAcknowledgements. Preface. Editorial. Contributors. 1 Ionic Liquids in the Temperature Range 150-1500 K: Patterns and Problems (C.Austin Angell). 2 Conductivities of Ionic Liquid Mixtures with Organic Electrolyte Solutions (D. Bansal, F. Croce, J. Swank and M. Salomon). 3 How Hydrophilic Ionic Liquids Behave in Aqueous Solutions (Marijana Blesic, Kenneth R. Seddon, Natalia V. Plechkova, Nimal Gunaratne, António. Lopes and Luís Paulo N. Rebelo). 4 Mass Spectrometry Studies on Ionic Liquids Aggregates (R. Lopes da Silva, I. M. Marrucho, J. A. P. Coutinho and Ana M. Fernandes). 5 Study of the Sm-Al Alloys Formation in the Molten LiCl-KCl Eutectic (G. De Córdoba and C. Caravaca). 6 Alumina Solubility and Electrical Conductivity in Potassium Cryolites with Low Cryolite Ratio (Alexander Dedyukhin, Alexei Apisarov, Olga Tkatcheva, Yurii Zaikov and Alexander Redkin). 7 Ionic Liquids as Solvents for the Variable Temperature Electrodeposition of Metals and Semiconductors: A Short Introduction (S. Zein El Abedin and F. Endres). 8 Predicting the Thermodynamic Behaviour of Water + Ionic Liquids Systems Using COSMO-RS (M. G. Freire, L. M. N. B. F. Santos, I. M. Marrucho and J. A. P. Coutinho). 9 Metallic Inert Anodes for Aluminium Electrolysis (I. Galasiu, R. Galasiu and C. Nicolescu). 10 The Behaviour of Phosphorus and Sulfur in Cryolite-Alumina Melts: Thermodynamic Considerations (I. Galasiu, R. Galasiu, C. Nicolescu, J. Thonstad and G. M. Haarberg). 11 Ionic Liquid - Ionic Liquid Biphasic Systems (Dirk Gerhard, Friedrich Fick and Peter Wasserscheid). 12. Recent Developments in the Reprocessing of Spent Fuel by Catalyst Enhanced Molten Salt Oxidation (CEMSO) (Trevor R. Griffiths, Vladimir A. Volkovich and W. Robert Carper). 13 Plasma-Induced Molten Salt Electrolysis to Form Functional Fine Particles (Yasuhiko Ito, Tokujiro Nishikiori and Takuya Goto). 14 Liquid Electrolytes: Their Characterisation, Investigation and Divers Applications (Keith E. Johnson). 15 Protection of a Microstructured Molybdenum Reactor from High Temperature Oxidation by Electrochemical Deposition Coatings in Molten Salts (S. A. Kuznetsov, A. R. Dybrovskiy, S. V. Kuznetsova, E. V. Rebrov, M. J. M. Mies, M. H. J. M. de Croon and J. C. Schouten). 16 Molten Salt Synthesis of LaAlO3 Powder at Low Temperatures (Zushu Li, Shaowei Zhang and William Edward Lee). 17 Accurate Measurement of Physicochemical Properties on Ionic Liquids and Molten Salts (V. M. B. Nunes, M. J. V. Lourenço, F. J. V. Santos, M. L. S. M. Lopes and C. A. Nieto de Castro). 18 Molten Salt Physics and Chemistry in the Current Development of Spent Nuclear Fuel Management (Toru Ogawa, Kazuo Minato and Yasuo Arai). 19 An Organic Chemist’s Perspective on High Temperature Molten Salts and Room Temperature Ionic Liquids (Richard M. Pagni). 20 Raman Spectroscopy of High-Temperature Melts (G. N. Papatheodorou, A. G. Kalampounia and S. N. Yannopoulos). 21 Thermodynamic Properties of LnI3-MI binary systems (Ln = La or Nd ; M = K, Rb, or Cs) (Leszek Rycerz, M. F. Butman and Marcelle Gaune-Escard). 22 Materials Informatics for Molten Salts Chemistry (Changwon Suh, Slobodan Gadzuric, Marcelle Gaune-Escard and Krishna Rajan). 23 A Novel Ionic Liquid-Polymer Electrolyte for the Advanced Lithium-Ion Polymer Battery (Daisuke Teramoto, Ryo Yokoyama, Hiroshi Kagawa, Tsutomu Sada and Naoya Ogata). 24 Solubility of Al2O3 in NaCl-KCl Based Molten Salt System (Y. Xiao, C. R. Mambote, G. A. Wierink and A. van Sandwijk). 25 Molten Salt Synthesis of Ceramic Materials (Shaowei Zhang, D. D. Jayaseelan, Zushu Li and William Edward Lee). 26 Fuel Cell and Electrolysis Studies with Dual Phase Proton and Oxide Ion Conduction (Bin Zhu, S. Li, X. L. Sun and J. C. Sun). Index.

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Book SynopsisDesigned to supplement and complement any standard biochemistry text or lecture notes, this book helps provide a balanced picture of modern biochemistry by use of elementary mathematics in understanding properties and behavior of biological molecules. It provides a balanced picture of modern biochemistry by using elementary mathematics to explore the properties and behavior of biological molecules. The text discusses such topics as:* Aqueous Solutions and Acid-Base Chemistry * Chemistry of Biological Molecules * Bioenergetics * Enzymes * Spectrophotometry and Other Optical Methods * Isotopes in Biochemistry. Sample problems are solved completely in a step-by-step manner, and the answer to all practice problems are given at the end of the book. With Biochemical Calculations, 2nd Edition , students will gain confidence in their ability to handle mathematical problems, discovering that biochemistry is more than memorization of structures andTable of Contents1 Acid-Base Chemistry 1 2 Chemistry of Biological Molecules 94 3 Biochemical Energetics 145 4 Enzymes 208 5 Spectrophotometry and Other Optical Methods 324 6 Isotopes in Biochemistry 354 Appendices 397 Index 435

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Book SynopsisMethods and guidelines for developing and using mathematical models Turn to Effective Groundwater Model Calibration for a set of methods and guidelines that can help produce more accurate and transparent mathematical models. The models can represent groundwater flow and transport and other natural and engineered systems.Trade Review"This is an excellent textbook that addresses a topic, optimization of multiparameter models, which is of broad interest." (Journal of American Water Resources Association, October 2007) "The book represents a very good combination of long-time expert knowledge and being up to date." (Clean, January 2008) "…a welcome addition to my collection of hydrogeologic books…a valuable reference for ground water scientists who use models." (Ground Water, January-February 2008)Table of ContentsPreface. 1 Introduction. 1.1 Book and Associated Contributions: Methods, Guidelines, Exercises, Answers, Software, and PowerPoint Files. 1.2 Model Calibration with Inverse Modeling. 1.2.1 Parameterization. 1.2.2 Objective Function. 1.2.3 Utility of Inverse Modeling and Associated Methods. 1.2.4 Using the Model to Quantitatively Connect Parameters, Observations, and Predictions. 1.3 Relation of this Book to Other Ideas and Previous Works. 1.3.1 Predictive Versus Calibrated Models. 1.3.2 Previous Work. 1.4 A Few Definitions. 1.4.1 Linear and Nonlinear. 1.4.2 Precision, Accuracy, Reliability, and Uncertainty. 1.5 Advantageous Expertise and Suggested Readings. 1.6 Overview of Chapters 2 Through 15. 2 Computer Software and Groundwater Management Problem Used in the Exercises. 2.1 Computer Programs MODFLOW-2000, UCODE_2005, and PEST. 2.2 Groundwater Management Problem Used for the Exercises. 2.2.1 Purpose and Strategy. 2.2.2 Flow System Characteristics. 2.3 Exercises. Exercise 2.1: Simulate Steady-State Heads and Perform Preparatory Steps. 3 Comparing Observed and Simulated Values Using Objective Functions. 3.1 Weighted Least-Squares Objective Function. 3.1.1 With a Diagonal Weight Matrix. 3.1.2 With a Full Weight Matrix. 3.2 Alternative Objective Functions. 3.2.1 Maximum-Likelihood Objective Function. 3.2.2 L1 Norm Objective Function. 3.2.3 Multiobjective Function. 3.3 Requirements for Accurate Simulated Results. 3.3.1 Accurate Model. 3.3.2 Unbiased Observations and Prior Information. 3.3.3 Weighting Reflects Errors. 3.4 Additional Issues. 3.4.1 Prior Information. 3.4.2 Weighting. 3.4.3 Residuals and Weighted Residuals. 3.5 Least-Squares Objective-Function Surfaces. 3.6 Exercises. Exercise 3.1: Steady-State Parameter Definition. Exercise 3.2: Observations for the Steady-State Problem. Exercise 3.3: Evaluate Model Fit Using Starting Parameter Values. 4 Determining the Information that Observations Provide on Parameter Values using Fit-Independent Statistics. 4.1 Using Observations. 4.1.1 Model Construction and Parameter Definition. 4.1.2 Parameter Values. 4.2 When to Determine the Information that Observations Provide About Parameter Values. 4.3 Fit-Independent Statistics for Sensitivity Analysis. 4.3.1 Sensitivities. 4.3.2 Scaling. 4.3.3 Dimensionless Scaled Sensitivities (dss). 4.3.4 Composite Scaled Sensitivities (css). 4.3.5 Parameter Correlation Coefficients (pcc). 4.3.6 Leverage Statistics. 4.3.7 One-Percent Scaled Sensitivities. 4.4 Advantages and Limitations of Fit-Independent Statistics for Sensitivity Analysis. 4.4.1 Scaled Sensitivities. 4.4.2 Parameter Correlation Coefficients. 4.4.3 Leverage Statistics. 4.5 Exercises. Exercise 4.1: Sensitivity Analysis for the Steady-State Model with Starting Parameter Values. 5 Estimating Parameter Values. 5.1 The Modified Gauss–Newton Gradient Method. 5.1.1 Normal Equations. 5.1.2 An Example. 5.1.3 Convergence Criteria. 5.2 Alternative Optimization Methods. 5.3 Multiobjective Optimization. 5.4 Log-Transformed Parameters. 5.5 Use of Limits on Estimated Parameter Values. 5.6 Exercises. Exercise 5.1: Modified Gauss–Newton Method and Application to a Two-Parameter Problem. Exercise 5.2: Estimate the Parameters of the Steady-State Model. 6 Evaluating Model Fit. 6.1 Magnitude of Residuals and Weighted Residuals. 6.2 Identify Systematic Misfit. 6.3 Measures of Overall Model Fit. 6.3.1 Objective-Function Value. 6.3.2 Calculated Error Variance and Standard Error. 6.3.3 AIC, AICc, and BIC Statistics. 6.4 Analyzing Model Fit Graphically and Related Statistics. 6.4.1 Using Graphical Analysis of Weighted Residuals to Detect Model Error. 6.4.2 Weighted Residuals Versus Weighted or Unweighted Simulated Values and Minimum, Maximum, and Average Weighted Residuals. 6.4.3 Weighted or Unweighted Observations Versus Simulated Values and Correlation Coefficient R. 6.4.4 Graphs and Maps Using Independent Variables and the Runs Statistic. 6.4.5 Normal Probability Graphs and Correlation Coefficient RN2. 6.4.6 Acceptable Deviations from Random, Normally Distributed Weighted Residuals. 6.5 Exercises. Exercise 6.1: Statistical Measures of Overall Fit. Exercise 6.2: Evaluate Graph Model fit and Related Statistics. 7 Evaluating Estimated Parameter Values and Parameter Uncertainty. 7.1 Reevaluating Composite Scaled Sensitivities. 7.2 Using Statistics from the Parameter Variance–Covariance Matrix. 7.2.1 Five Versions of the Variance–Covariance Matrix. 7.2.2 Parameter Variances, Covariances, Standard Deviations, Coefficients of Variation, and Correlation Coefficients. 7.2.3 Relation Between Sample and Regression Statistics. 7.2.4 Statistics for Log-Transformed Parameters. 7.2.5 When to Use the Five Versions of the Parameter Variance–Covariance Matrix. 7.2.6 Some Alternate Methods: Eigenvectors, Eigenvalues, and Singular Value Decomposition. 7.3 Identifying Observations Important to Estimated Parameter Values. 7.3.1 Leverage Statistics. 7.3.2 Influence Statistics. 7.4 Uniqueness and Optimality of the Estimated Parameter Values. 7.5 Quantifying Parameter Value Uncertainty. 7.5.1 Inferential Statistics. 7.5.2 Monte Carlo Methods. 7.6 Checking Parameter Estimates Against Reasonable Values. 7.7 Testing Linearity. 7.8 Exercises. Exercise 7.1: Parameter Statistics. Exercise 7.2: Consider All the Different Correlation Coefficients Presented. Exercise 7.3: Test for Linearity. 8 Evaluating Model Predictions, Data Needs, and Prediction Uncertainty. 8.1 Simulating Predictions and Prediction Sensitivities and Standard Deviations. 8.2 Using Predictions to Guide Collection of Data that Directly Characterize System Properties. 8.2.1 Prediction Scaled Sensitivities (pss). 8.2.2 Prediction Scaled Sensitivities Used in Conjunction with Composite Scaled Sensitivities. 8.2.3 Parameter Correlation Coefficients without and with Predictions. 8.2.4 Composite and Prediction Scaled Sensitivities Used with Parameter Correlation Coefficients. 8.2.5 Parameter–Prediction ( ppr) Statistic. 8.3 Using Predictions to Guide Collection of Observation Data. 8.3.1 Use of Prediction, Composite, and Dimensionless Scaled Sensitivities and Parameter Correlation Coefficients. 8.3.2 Observation–Prediction (opr) Statistic. 8.3.3 Insights About the opr Statistic from Other Fit-Independent Statistics. 8.3.4 Implications for Monitoring Network Design. 8.4 Quantifying Prediction Uncertainty Using Inferential Statistics. 8.4.1 Definitions. 8.4.2 Linear Confidence and Prediction Intervals on Predictions. 8.4.3 Nonlinear Confidence and Prediction Intervals. 8.4.4 Using the Theis Example to Understand Linear and Nonlinear Confidence Intervals. 8.4.5 Differences and Their Standard Deviations, Confidence Intervals, and Prediction Intervals. 8.4.6 Using Confidence Intervals to Serve the Purposes of Traditional Sensitivity Analysis. 8.5 Quantifying Prediction Uncertainty Using Monte Carlo Analysis. 8.5.1 Elements of a Monte Carlo Analysis. 8.5.2 Relation Between Monte Carlo Analysis and Linear and Nonlinear Confidence Intervals. 8.5.3 Using the Theis Example to Understand Monte Carlo Methods. 8.6 Quantifying Prediction Uncertainty Using Alternative Models. 8.7 Testing Model Nonlinearity with Respect to the Predictions. 8.8 Exercises. Exercise 8.1: Predict Advective Transport and Perform Sensitivity Analysis. Exercise 8.2: Prediction Uncertainty Measured Using Inferential Statistics. 9 Calibrating Transient and Transport Models and Recalibrating Existing Models. 9.1 Strategies for Calibrating Transient Models. 9.1.1 Initial Conditions. 9.1.2 Transient Observations. 9.1.3 Additional Model Inputs. 9.2 Strategies for Calibrating Transport Models. 9.2.1 Selecting Processes to Include. 9.2.2 Defining Source Geometry and Concentrations. 9.2.3 Scale Issues. 9.2.4 Numerical Issues: Model Accuracy and Execution Time. 9.2.5 Transport Observations. 9.2.6 Additional Model Inputs. 9.2.7 Examples of Obtaining a Tractable, Useful Model. 9.3 Strategies for Recalibrating Existing Models. 9.4 Exercises (optional). Exercises 9.1 and 9.2: Simulate Transient Hydraulic Heads and Perform Preparatory Steps. Exercise 9.3: Transient Parameter Definition. Exercise 9.4: Observations for the Transient Problem. Exercise 9.5: Evaluate Transient Model Fit Using Starting Parameter Values. Exercise 9.6: Sensitivity Analysis for the Initial Model. Exercise 9.7: Estimate Parameters for the Transient System by Nonlinear Regression. Exercise 9.8: Evaluate Measures of Model Fit. Exercise 9.9: Perform Graphical Analyses of Model Fit and Evaluate Related Statistics. Exercise 9.10: Evaluate Estimated Parameters. Exercise 9.11: Test for Linearity. Exercise 9.12: Predictions. 10 Guidelines for Effective Modeling. 10.1 Purpose of the Guidelines. 10.2 Relation to Previous Work. 10.3 Suggestions for Effective Implementation. 11 Guidelines 1 Through 8—Model Development. Guideline 1: Apply the Principle of Parsimony. G1.1 Problem. G1.2 Constructive Approaches. Guideline 2: Use a Broad Range of System Information to Constrain the Problem. G2.1 Data Assimilation. G2.2 Using System Information. G2.3 Data Management. G2.4 Application: Characterizing a Fractured Dolomite Aquifer. Guideline 3: Maintain a Well-Posed, Comprehensive Regression Problem. G3.1 Examples. G3.2 Effects of Nonlinearity on the css and pcc. Guideline 4: Include Many Kinds of Data as Observations in the Regression. G4.1 Interpolated “Observations”. G4.2 Clustered Observations. G4.3 Observations that Are Inconsistent with Model Construction. G4.4 Applications: Using Different Types of Observations to Calibrate Groundwater Flow and Transport Models. Guideline 5: Use Prior Information Carefully. G5.1 Use of Prior Information Compared with Observations. G5.2 Highly Parameterized Models. G5.3 Applications: Geophysical Data. Guideline 6: Assign Weights that Reflect Errors. G6.1 Determine Weights. G6.2 Issues of Weighting in Nonlinear Regression. Guideline 7: Encourage Convergence by Making the Model More Accurate and Evaluating the Observations. Guideline 8: Consider Alternative Models. G8.1 Develop Alternative Models. G8.2 Discriminate Between Models. G8.3 Simulate Predictions with Alternative Models. G8.4 Application. 12 Guidelines 9 and 10—Model Testing. Guideline 9: Evaluate Model Fit. G9.1 Determine Model Fit. G9.2 Examine Fit for Existing Observations Important to the Purpose of the Model. G9.3 Diagnose the Cause of Poor Model Fit. Guideline 10: Evaluate Optimized Parameter Values. G10.1 Quantify Parameter-Value Uncertainty. G10.2 Use Parameter Estimates to Detect Model Error. G10.3 Diagnose the Cause of Unreasonable Optimal Parameter Estimates. G10.4 Identify Observations Important to the Parameter Estimates. G10.5 Reduce or Increase the Number of Parameters. 13 Guidelines 11 and 12—Potential New Data. Guideline 11: Identify New Data to Improve Simulated Processes, Features, and Properties. Guideline 12: Identify New Data to Improve Predictions. G12.1 Potential New Data to Improve Features and Properties Governing System Dynamics. G12.2 Potential New Data to Support Observations. 14 Guidelines 13 and 14—Prediction Uncertainty. Guideline 13: Evaluate Prediction Uncertainty and Accuracy Using Deterministic Methods. G13.1 Use Regression to Determine Whether Predicted Values Are Contradicted by the Calibrated Model. G13.2 Use Omitted Data and Postaudits. Guideline 14: Quantify Prediction Uncertainty Using Statistical Methods. G14.1 Inferential Statistics. G14.2 Monte Carlo Methods. 15 Using and Testing the Methods and Guidelines. 15.1 Execution Time Issues. 15.2 Field Applications and Synthetic Test Cases. 15.2.1 The Death Valley Regional Flow System, California and Nevada, USA. 15.2.2 Grindsted Landfill, Denmark. Appendix A: Objective Function Issues. A.1 Derivation of the Maximum-Likelihood Objective Function. A.2 Relation of the Maximum-Likelihood and Least-Squares Objective Functions. A.3 Assumptions Required for Diagonal Weighting to be Correct. A.4 References. Appendix B: Calculation Details of the Modified Gauss–Newton Method. B.1 Vectors and Matrices for Nonlinear Regression. B.2 Quasi-Newton Updating of the Normal Equations. B.3 Calculating the Damping Parameter. B.4 Solving the Normal Equations. B.5 References. Appendix C: Two Important Properties of Linear Regression and the Effects of Nonlinearity. C.1 Identities Needed for the Proofs. C.1.1 True Linear Model. C.1.2 True Nonlinear Model. C.1.3 Linearized True Nonlinear Model. C.1.4 Approximate Linear Model. C.1.5 Approximate Nonlinear Model. C.1.6 Linearized Approximate Nonlinear Model. C.1.7 The Importance of X and X. C.1.8 Considering Many Observations. C.1.9 Normal Equations. C.1.10 Random Variables. C.1.11 Expected Value. C.1.12 Variance–Covariance Matrix of a Vector. C.2 Proof of Property 1: Parameters Estimated by Linear Regression are Unbiased. C.3 Proof of Property 2: The Weight Matrix Needs to be Defined in a Particular Way for Eq. (7.1) to Apply and for the Parameter Estimates to have the Smallest Variance. C.4 References. Appendix D: Selected Statistical Tables. D.1 References. References. Index.

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Book SynopsisINTRODUCING A POWERFUL APPROACH TO DEVELOPING RELIABLE QUANTUM MECHANICAL TREATMENTS OF A LARGE VARIETY OF PROCESSES IN MOLECULAR SYSTEMS. The Born-Oppenheimer approximation has been fundamental to calculation in molecular spectroscopy and molecular dynamics since the early days of quantum mechanics.Trade Review"…a good introductory guide to the world of nonadiabatic chemistry and can therefore be recommended to the scientists and students…" (Zentralblatt MATH, 2007)Table of ContentsPreface. Abbreviations. 1. Mathematical Introduction. I.A. The Hilbert Space. I.A.1. The Eigenfunction and the Electronic non-Adiabatic Coupling Term. I.A.2. The Abelian and the non-Abelian Curl Equation. I.A.3. The Abelian and the non-Abelian Div-Equation. I.B. The Hilbert Subspace. I.C. The Vectorial First Order Differential Equation and the Line Integral. I.C.1. The Vectorial First Order Differential Equation. I.C.1.1. The Study of the Abelian Case. I.C.1.2. The Study of the non-Abelian Case. I.C.1.3. The Orthogonality. I.C.2. The Integral Equation. I.C.2.1. The Integral Equation along an Open Contour. I.C.2.2. The Integral Equation along an Closed Contour. I.C.3. Solution of the Differential Vector Equation. I.D. Summary and Conclusions. I.E. Exercises. I.F. References. 2. Born-Oppenheimer Approach: Diabatization and Topological Matrix. II.A. The Time Independent Treatment for Real Eigenfunctions. II.A.1. The Adiabatic Representation. II.A.2. The Diabatic Representation. II.A.3. The Adiabatic-to-Diabatic Transformation. II.A.3.1. The Transformation for the Electronic Basis Set. II.A.3.2. The Transformation for the Nuclear Wave-Functions. II.A.3.3. Implications due to the Adiabatic-to-Diabatic Transformation. II.A.3.4. Final Comments. II.B. Application of Complex Eigenfunctions. II.B.1. Introducing Time-Independent Phase Factors. II.B.1.1. The Adiabatic Schrödinger Equation. II.B.1.2. The Adiabatic-to-Diabatic Transformation. II.B.2. Introducing Time-Dependent Phase Factors. II.C. The Time Dependent Treatment. II.C.1. The Time-Dependent Perturbative Approach. II.C.2. The Time-Dependent non-Perturbative Approach. II.C.2.1. The Adiabatic Time Dependent Electronic Basis set. II.C.2.2. The Adiabatic Time-Dependent Nuclear Schrödinger Equation. II.C.2.3. The Time Dependent Adiabatic-to-Diabatic Transformation. II.C.3. Summary. II.D. Appendices. II.D.1. The Dressed Non-Adiabatic Coupling Matrix. II.D.2. Analyticity of the Adiabatic-to-Diabatic Transformation matrix, Ã, in Space-Time Configuration. II.E. References. 3. Model Studies. III.A. Treatment of Analytical Models. III.A.1 Two-State Systems. III.A.1.1. The Adiabatic-to-Diabatic Transformation Matrix. III.A.1.2. The Topological Matrix. III.A.1.3. The Diabatic Potential Matrix. III. A.2. Three-State Systems. III.A.2.1. The Adiabatic-to-Diabatic Transformation Matrix. III.A.2 2. The Topological Matrix. III. A.3. Four-State Systems. III.A.3.1. The Adiabatic-to-Diabatic Transformation Matrix. III.A.3 2. The Topological Matrix. III.A.4 Comments Related to the General Case. III.B. The Study of the 2x2 Diabatic Potential Matrix and Related Topics. III.B.1. Treatment of the General Case. III.B.2. The Jahn-Teller Model. III.B.3. The Elliptic Jahn-Teller Model. III.B.4. On the Distribution of Conical Intersections and the Diabatic Potential Matrix. III.C. The Adiabatic-to-Diabatic Transformation Matrix and the Wigner Rotation Matrix. III.C.1. The Wigner Rotation Matrices. III.C.2. The Adiabatic-to-Diabatic Transformation Matrix and the Wigner dj-Matrix. III. D. Exercise. 4. Studies of Molecular Systems. IV.A. Introductory Comments. IV.B. Theoretical Background. IV. C. Quantization of the Non-adiabatic Coupling Matrix: Studies of ab-initio Molecular Systems. IV.C.1. Two-State Quasi-Quantization. IV.C.1.1. The {H2,H} system. IV.C.1.2. The {H2,O} system. IV.C.1.3. The {C2H2) Molecule. IV.C.2. Multi-State Quasi-Quantization. IV.C.2.1. The {H2,H} system. IV.C.2.2. The {C2,H} system. IV.D. References. 5. Degeneracy Points and Born—Oppenheimer Coupling Terms as Poles. V.A. On the Relation between the Electronic Non-Adiabatic Coupling Terms and the Degeneracy Points. V.B. The Construction of Hilbert Subspaces. V.C. The Sign Flips of the Electronic Eigenfunctions. V.C.1. Sign-Flips in Case of a Two-State Hilbert Subspace. V.C.2. Sign-Flips in Case of a Three-State Hilbert Subspace. V.C.3. Sign-Flips in Case of a General Hilbert Subspace. V.C.4 Sign-Flips for a case of a Multi-Degeneracy Point. V.C.4.1 The General Approach. V.C.4.2 Model Studies. V.D. The Topological Spin. V.E. The Extended Euler Matrix as a Model for the Adiabatic-to-Diabatic Transformation Matrix. V.E.1. Introductory Comments. V.E.2.The Two-State Case. V.E.3 The Three-State Case. V.E.4 The Multi-State Case. V.F. Quantization of the τ-Matrix and its Relation to the Size of Configuration Space: the Mathieu Equation as a Case of Study. IV.F.1. Derivation of the Eigenfunctions. IV.F.2. The non-Adiabatic Coupling Matrix and the Topological matrix. V.G Exercises. V.H. References. 6. The Molecular Field. VI.A. Solenoid as a Model for the Seam. VI.B. Two-State (Abelian) System. VI.B.1. The Non-Adiabatic Coupling Term as a Vector Potential. VI.B.2. Two-State Curl Equation. VI.B.3. The (Extended) Stokes Theorem. VI.B.4. Application of Stokes Theorem for several Conical Intersections. VI.B.5. Application of Vector-Algebra to Calculate the Field of a Two-State Hilbert Space. VI.B.6. A Numerical Example: The Study of the {Na,H2} System. VI. B.7. A Short Summary. VI.C. The Multi-State Hilbert Subspace. VI.C.1. The non-Abelian Stokes Theorem. VI.C.2. The Curl-Div Equations. VI.C.2.1. The Three-State Hilbert Subspace. VI.C.2.2. Derivation of the Poisson Equations. VI.C.2.3. The Strange Matrix Element and the Gauge Transformation. VI.D. A Numerical Study of the {H, H2} System. VI.D.1. Introductory Comments. VI.D.2. Introducing the Fourier Expansion. VI.D.3. Imposing Boundary Conditions. VI.D.4. Numerical Results. VI.E. The Multi-State Hilbert Subspace: On the Breakup of the Non-Adiabatic Coupling Matrix. VI.F. The Pseudo-Magnetic Field. VI.F.1. Quantization of the pseudo magnetic along the seam:. VI.F.2. The Non-Abelian Magnetic Fields. VI.G. Exercises: VI.H. References. 7. Open Phase and the Berry Phase for Molecular Systems. VII.A. Studies of Ab-initio Systems. VII.A.1. Introductory Comments. VII.A.2. The Open Phase and the Berry Phase for Single-valued Eigenfunctions ( Berry's Approach. VII.A.3. The Open Phase and the Berry Phase for Multi-valued Eigenfunctions ( the Present Approach. VII.A.3.1. Derivation of the Time-Dependent Equation. VII.A.3.2. The Treatment of the Adiabatic Case. VII.A.3.3. The Treatment of the non-Adiabatic (General) Case. VII.A.3.4. The {H2,H} System as a Case Study. VII.B. Phase-Modulus Relations for an External Cyclic Time-Dependent Field. VII.B.1. The Derivation of the Reciprocal Relations. VII.B.2. The Mathieu equation. VII.B.2.1. The Time-Dependent Schrödinger Equations. VII.B.2.2. Numerical Study of the Topological Phase. VII.B.3. Short Summary. VII.C. Exercises. VII.D. References. 8. Extended Born-Oppenheimer Approximations. VIII.A. Introductory Comments. VIII.B. The Born-Oppenheimer Approximation as Applied to a Multi-State Model-System. VIII.B.1. The Extended Approximate Born-Oppenheimer Equation. VIII.B.2. Gauge Invariance Condition for the Approximate Born-Oppenheimer Equation. VIII.C. Multi-State Born-Oppenheimer Approximation: Energy Considerations to Reduce the Dimension of the Diabatic Potential Matrix. VIII.C.1. Introductory Comments. VIII.C.2. Derivation of the Reduced Diabatic Potential Matrix. VIII.C.3. Application of the Extended Euler Matrix: Introducing the N-State Adiabatic-to-Diabatic Transformation Angle. VIII.C.3.1. Introductory Comments. VIII.C.3.2. Derivation of the Adiabatic-to-Diabatic Transformation Angle. VIII.C.4. Two-State Diabatic Potential Energy Matrix. VIII.C.4.1 Derivation of the Diabatic Potential Matrix. VIII.C.4.2 A Numerical Study of the (W-Matrix Elements. VIII.C.4.3 A Different Approach: The Helmholtz Decomposition. VIII.D. A Numerical Study of a Reactive Scattering Two-Coordinate Model. VIII.D.1. The Basic Equations. VIII.D.2. A Two-Coordinate Reactive (Exchange) Model. VIII.D.3. Numerical Results and Discussion. VIII.E. Exercises. VIII.F. References. 9. Summary. Index.

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Book SynopsisFROM REVIEWS OF THE SERIES Reviews in Computational Chemistry remains the most valuable reference to methods and techniques in computational chemistry. -JOURNAL OF MOLECULAR GRAPHICS AND MODELLING One cannot generally do better than to try to find an appropriate article in the highly successful Reviews in Computational Chemistry. The basic philosophy of the editors seems to be to help the authors produce chapters that are complete, accurate, clear, and accessible to experimentalists (in particular) and other nonspecialists (in general). -JOURNAL OF THE AMERICAN CHEMICAL SOCIETYTrade Review"…a readable introduction to a wide range of topics regarding protein structure and folding and also to chemical applications of wavelets." (Journal of the American Chemical Society, May 24, 2006)Table of Contents1. Protein Structure Classification (Patrice Koehl). Introduction. Classification and Biology. The Biomolecular Revolution. Basic Principles of Protein Structure. Visualization. Protein Building Blocks. Protein Structure Hierarchy. Three Types of Proteins. Geometry of Globular Proteins. Protein Domains. Resources on Protein Structures. Protein Structure Comparison. Automatic Identification of Protein Structural Domains. The Rigid-Body Transformation Problem. Protein Structure Superposition. cRMS: An Ambiguous Measure of Similarity. Differential Geometry and Protein Structure Comparison. Upcoming Challenges for Protein Structure Comparison. Protein Structure Classification. The Structure Classification of Proteins (SCOP). The CATH Classification. The DALI Domain Dictionary (DDD). Comparing SCOP, CATH, and DDD. Conclusions. Acknowledgments. Appendix. References. 2. Comparative Protein Modeling (Emilio Xavier Esposito, Dror Tobi, and Jeffry D. Madura). Introduction. Anatomy of a Comparative Model. Step 1: Searching for Related Sequences and Structures. Expert Protein Analysis System (ExPASy). BLAST and PSI-BLAST. Protein Data Bank (PDB). Sequence Alignment and Modeling System with Hidden Markov Models. Threading. Threader. Example: Finding Related Sequences and 3-D Structures. Step 2: Sequence Alignment. Preparing the Sequences. Alignment Basics. Similarity Matrices. Clustal. Tree-Based Consistency Objective Function for Alignment Evaluation (T-Coffee). Divide-and-Conquer Alignment (DCA). Example: Aligning Sequences. Step 3: Selecting Templates and Improving Alignments. Selecting Templates. Improving Sequence Alignments With Primary and Secondary Structure Analysis. Example: Aligning the Target to the Selected Template. Step 4: Constructing Protein Models. Satisfaction of Spatial Restraints. Segment Match Modeling. Multiple Template Method. 3D-JIGSAW. Overall Protein Model Construction Methods. Example: Constructing a Protein Model. Step 5: Refinement of Protein Models. Side-Chains with Rotamer Library (SCWRL). Energy Minimization. Molecular Dynamics. Molecular Dynamics with Simulated Annealing. Step 6: Evaluating Protein Models. PROCHECK. Verify3D. ERRAT. Protein Structure Analysis (ProSa). Protein Volume Evaluation (PROVE). Model Clustering Analysis. Example: Evaluation of Protein Models. Conclusions. References. 3. Simulations of Protein Folding (Joan-Emma Shea, Miriam R. Friedel, and Andrij Baumketner). Introduction. Theoretical Framework. Energy Landscape Theory. Thermodynamics and Kinetics of Folding: Two-State and Multistate Folders. Protein Models. Introduction and General Simulation Techniques. Coarse-Grained Protein Models. Fully Atomic Simulations. Advanced Topics: The Transition State Ensemble for Folding. Transition State and Two-State Kinetics. Methods for Identifying the TSE. Conclusions and Future Directions. Acknowledgments. References. 4. The Simulation of Ionic Charge Transport in Biological Ion Channels: An Introduction to Numerical Methods (Marco Saraniti, Shela Aboud, and Robert Eisenberg). Introduction. System Components. Time and Space Scale. Experiments. Electrostatics. Long-Range Interaction. Short-Range Interaction. Boundary Conditions. Particle-Based Simulation. Implicit Solvent: Brownian Dynamics. Explicit Solvent: Molecular Dynamics. Flux-Based Simulation. Nernst–Planck Equation. The Poisson–Nernst–Planck (NP) Method. Hierarchical Simulation Schemes. Future Directions and Concluding Remarks. References. 5. Wavelets in Chemistry and Chemoinformatics (C. Matthew Sundling, Nagamani Sukumar, Hongmei Zhang, Mark J. Embrechts, and Curt M. Breneman). Preface. Introduction to Wavelets. Fourier Transform. Continuous Fourier Transform. Short-Time Fourier Transformation. Wavelet Transform. Continuous Wavelet Transform. Discrete Wavelet Transform. Wavelet Packet Transform. Wavelets vs. Fourier Transforms: A Summary. Application of Wavelets in Chemistry. Smoothing and Denoising. Signal Feature Isolation. Signal Compression. Quantum Chemistry. Classification, Regression, and QSAR/QSPR. Summary. References. Author Index. Subject Index.

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Book Synopsis* Comprehensive reference covering the properties, synthesis and applications of hyperbranched polymers. * Helps the reader gain a better understanding of irregular branching aiding in the design of highly functional materials.Trade Review"This volume should definitely be on the desk of anyone who has been, is currently, or is contemplating working in the field of branched polymers." (Journal of the American Chemical Society, 25 August 2011) Table of ContentsPreface xiii Contributors xv 1. Promising Dendritic Materials: An Introduction to Hyperbranched Polymers 1 1.1 Importance of Branching 1 1.2 Polymer Architecture 1 1.3 Dendritic Polymers 3 1.4 Hyperbranched Polymers 5 1.5 Conclusions 21 1.6 References 22 2. Polycondensation of ABx Monomers 27 2.1 Introduction 27 2.2 Statistical Consideration 27 2.3 Polymerization of ABx -Type Monomers 30 2.4 References 74 3. Synthesis of Hyperbranched Polymers via Polymerization of Functionally Symmetric Monomer Pairs 79 3.1 Introduction 79 3.2 Theoretical Treatment of A2 + B3 Polymerization 81 3.3 Polymerization of Symmetrical Monomer Pairs 84 3.4 Conclusions 104 3.5 References 105 4. Synthesis of Hyperbranched Polymers via Polymerization of Asymmetric Monomer Pairs 107 4.1 Introduction 107 4.2 General Description of Polymerization of Asymmetric Monomer Pairs 108 4.3 Hyperbranched Polymers Prepared by Polymerization of Asymmetric Monomer Pairs 110 4.4 Conclusions 133 4.5 References 136 5. Self-Condensing Vinyl Polymerization 139 5.1 Introduction 139 5.2 Self-Condensing Vinyl Polymerization 140 5.3 Self-Condensing Vinyl Copolymerization (SCVCP) 150 5.4 Self-Condensing Processes in Presence of Initiators 162 5.5 SCVP of Macroinimers 167 5.6 Surface-Grafted Hyperbranched Polymers 169 5.7 References 172 6. Ring-Opening Multibranching Polymerization 175 6.1 Introduction 175 6.2 Classification of Ring-Opening Multibranching Polymerizations 178 6.3 Core-Containing Hyperbranched Polymers By Ring-Opening Multibranching Polymerization 195 6.4 Conclusion and Perspectives 198 6.5 References 200 7. Hyperbranched Copolymers Synthesized by Cocondensation and Radical Copolymerization 203 7.1 Introduction 203 7.2 Cocondensation of ABn and a Comonomer 204 7.3 Cocondensation of A2 + B2 + BB2 (or B B2) 214 7.4 SCVCP Via Charge-Transfer Complex Inimer 215 7.5 Free Radical Copolymerization of Multifunctional Vinyl Monomers 218 7.6 Conclusion 221 7.7 References 223 8. Convergent Synthesis of Hyperbranched Polymers and Related Approaches 227 8.1 Introduction 227 8.2 Convergent Control in Hyperbranched Synthesis 228 8.3 Results 231 8.4 Conclusions 247 8.5 References 247 9. Hyperbranched and Dendritic Polyolefins Prepared by Transition Metal Catalyzed Polymerization 251 9.1 Introduction 251 9.2 Results and Discussion 253 9.3 Summary and Perspective 266 9.4 References 269 10. Hyperbranched π-Conjugated Polymers 273 10.1 Introduction 273 10.2 Scope 274 10.3 Hyperbranched Poly(Arylene)s 274 10.4 Hyperbranched Poly(Arylenevinylenes) 282 10.5 Hyperbranched Poly(Aryleneethynylenes) 289 10.6 Conclusion 295 10.7 References 297 11. Degree of Branching (DB) 301 11.1 Definition of the Degree of Branching (DB) 301 11.2 Determination of DB 305 11.3 The Value Range of DB 308 A11.4 Appendix 311 11.5 References 314 12. Influence of Branching Architecture on Polymer Properties 317 12.1 Introduction 317 12.2 Influence of Branching Architecture on Polymer Properties 318 12.3 Conclusions 329 12.4 References 329 13. Kinetic Theory of Hyperbranched Polymerization 333 13.1 Introduction 333 13.2 AB2-Type Polycondensation 335 13.3 Copolycondensation of AB2- and AB-Type Monomers 351 13.4 Self-Condensing Vinyl Polymerization 354 13.5 References 366 14. Grafting and Surface Properties of Hyperbranched Polymers 369 14.1 Introduction 369 14.2 Surface Grafting 370 14.3 Surface Properties of Hyperbranched Polymers 380 14.4 Conclusions 382 14.5 References 383 15. Biological and Medical Applications of Hyperbranched Polymers 387 15.1 Introduction 387 15.2 Gene Delivery 388 15.3 Drug Delivery 397 15.4 Biomaterials 401 15.5 Biointeraction 407 15.6 Conclusions 410 15.7 References 411 16. Applications of Hyperbranched Polymers in Coatings, as Additives, and in Nanotechnology 415 16.1 Introduction 415 16.2 Hyperbranched Polymers in Coating and Resin Applications 416 16.3 Hyperbranched Polymers as Additives 423 16.4 Applications of Hyperbranched Polymers in Nanotechnology 426 16.5 Applications in Thin Films and Sensorics 431 16.6 References 434 17. Conclusions and Perspective: Toward Hyperbranched/Dendritic States 441 17.1 Achievements and Problems 441 17.2 Role of Hyperbranched Polymers in the Twenty-First Century 449 17.3 Hyperbranched/Dendritic State 451 17.4 References 452 Index 453

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Book SynopsisThis 39-year compilation of two leading process safety conferences presents in one convenient and easy-to-search resource over 2,000 of the best papers on the subject.

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Book SynopsisWritten by an individual with experience as both a chemist and a patent attorney, The Chemist's Companion Guide to Patent Law covers everything the student or working chemist needs to know about patentability, explaining important concepts of patent law (such as novelty, non-obviousness, and freedom-to-operate) in easy-to-understand terms.Trade Review"For anyone involved in patents or the patenting process, this book will help clarify what must go on in every step, from musing over a problem in an office, through the laboratory work, the many steps involving patent agents and attorneys, through gaining and maintaining a viable patent." (Anal Bioanal Chem, 2011) "The book is suitably encyclopaedic and covers a substantial fraction of the patent process. A compromise is struck between suitable content and use as a student referral aid and the book seems to get this exactly right." (Reviews, December 2010)“Authors Chris Miller and Mark Evans are practicing chemists as well as patent law enthusiasts, and their appreciation of both ends of the inventor–attorney axis makes them ideally placed to advise researchers.” (Nature Chemistry, January 2011) "This well-priced, up-to-date publication is attractively printed and produced by the publisher. . . this book is especially recommended for chemists and other members of drug discovery teams, for graduate students, postdocs, for faculty members who have interests in drug discovery, for others who would like a one-volume review of U.S. patent law, and for the libraries that serve these groups". (TMCnet.com, November 2010) "This well-priced, up-to-date publication is attractively printed and produced by the publisher. . . .this book is especially recommended for chemists and other members of drug discovery teams, for graduate students, postdocs, for faculty members who have interests in drug discovery, for others who would like a one-volume review of U.S. patent law, and for the libraries that serve these groups". (TMCnet.com, 23 November 2010) "This well-priced, up-to-date publication is attractively printed and produced by the publisher. . . .This book is especially recommended for chemists and other members of drug discovery teams, for graduate students, postdocs, for faculty members who have interests in drug discovery, for others who would like a one-volume review of U.S. patent law, and for the libraries that serve these groups." (Journal of Medicinal Chemistry, 2010)" The title is accurate; it's a top-to-bottom look at the major features of patent law as it applies to the business of chemistry....... There's a lot of good stuff in this book. It's not always light reading, but it's the most readable treatment of some very complex patent issues that I've seen." (In the Pipeline, September 13, 2010) Table of ContentsDisclaimer Preface. 1 Patent Basics. 1.1 Introduction. 1.2 Patents as Property. 1.3 Patent Rights Are Rights to Exclude. 1.4 Patents Do Not Convey Freedom to Operate the Invention. 1.5 Contrasting Freedom to Operate with Patentability. 1.6 Assignment and Recording of Patents. 1.7 Why Have Patents? 2 The Patent Process. 2.1 An Overview of the Patent Process in the United States. 2.2 Post Grant Procedures at the USPTO. 2.2.a Patent Maintenance Fees. 2.2.b Reissue Applications and Patents. 2.2.c Ex Parte Procedures. 2.2.d Inter Partes Procedures. 2.3 Inequitable Conduct in Patent Prosecution. 3 Prior Art and the Chemical Invention. 3.1 What is Prior Art? 3.2 Prior Art That Can Be Antedated. 3.3 Prior Art That Is an Absolute Bar. 3.4 Section 102 References in Support of Obviousness Rejections. 3.5 Double Patenting. 3.6 Obviousness-Type Double Patenting. 3.7 Prior Art Hypothetical Example 1. 3.8 Hypothetical Example 2. 4 Inventorship. 4.1 Inventorship and Ownership of U.S Patents. 4.2 Patent Validity and Correct Listing of Inventorship. 4.3 Determining Inventorship. 5 Patent Claims. 5.1 Introduction to Claim Language and Structure. 5.2 Independent and Dependent Claim Types. 5.3 Claim Structure. 5.4 Transition Phrases. 5.5 Markush Claiming in Chemical Patents. 5.6 Claim Construction. 6 Basic Requirements of Patentability: Utility. 6.1 The Six Requirements of Patentability. 6.2 Statutory Subject Matter of the Utility Requirement. 6.3 What Makes a Chemical Invention Useful? 7 Basic Requirements of Patentability: Novelty. 7.1 Requirements of the Prior Art to Defeat Novelty. 7.2 Anticipation in Chemical Patents. 7.3 Anticipation of a Claimed Genus by a Species Falling Within that Genus. 7.4 Anticipation of a Species Claim by a Prior Art Genus. 7.5 Anticipation of a Range by a Prior Art Species Falling Within that Range. 7.6 Inherent Anticipation. 8 Basic Requirements of Patentability: Nonobviousness. 8.1 The Basis for the Nonobviousness Requirement. 8.2 Understanding §103(a). 8.3 Graham Factors Analysis of Obviousness. 8.4 Focusing the Obviousness Inquiry: Prima Facie Obviousness and the Chemical Invention. 8.5 Application of the TSM Test to the Chemical Arts. 8.6 Prior Art as a Whole Must Be Considered for TSM Tests. 8.7 Obviousness and Unpredictability in the Art. 8.8 Unexpected Results as Secondary Indices of Nonobviousness. 8.8.a Unexpected Results Must Be Taught by, or Flow from the Patent Application. 8.8.b Unexpected or Superior Results Can Be Demonstrated Through a Single Property. 8.8.c Unexpected Results: Different in Degree or Different in Kind? 8.8.d The Claimed Invention Must Be Tested Against the Closest Prior Art. 8.9 Prima Facie Obviousness Based Primarily on Similarity of Chemical Structure. 8.9.a Isomers and Homologues. 8.9.b Enantiomers. 8.10 Obviousness of a Species or Genus in Light of a Prior Art Genus. 8.11 Obviousness of Ranges. 8.12 Changing the Sequence of Ingredient Addition. 8.13 Obviousness of Combining Equivalents Together for Same Known Purpose. 8.14 Substituting Equivalents Known for the Same Purpose. 8.15 Purified Forms of Compounds or Materials. 9 Basic Requirements of Patentability: Written Description, Enablement, and Best Mode. 9.1 The Written Description Requirement. 9.2 Enablement. 9.3 Best Mode. Afterword and Sources. Acknowledgments. Cases Cited. Index.

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Book SynopsisRedox Biochemistry provides an excellent text and useful resource for students and practicing researches on redox biochemistry in medical biochemistry, enzyme structure and catalysis, environmental biochemistry, and nutrition.Table of ContentsContributors. List of Abbreviations. Preface. 1. Redox Metabolism and Life (Ruma Banerjee) 2. Antioxidant Molecules and Redox Cofactors (Donald Becker) 3. Antioxidant Enzymes (Vadim Gladyshev) 4. Redox Regulation of Physiological Processes (Martin Dickman) 5. Pathological Processes Related to Redox (Ruma Banerjee) 6. Specialized Methods (Stephen Ragsdale) 7. Index.

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Book SynopsisAn authoritative book that provides a comprehensive description of the fundamental principles of electrokinetic transport, and linked these fundamentals to modern applications in colloid science. * Presents subject matter essential for a basic understanding of electrokinetics.Trade Review"The book is highly recommended for advanced graduate students who need solid understanding of this research area." (CHOICE, January 2007)Table of ContentsPREFACE. COPYRIGHT ACKNOWLEDGMENTS. CHAPTER 1 MATHEMATICAL PRELIMINARIES. 1.1 Units. 1.2 Physical Constants and Conversion Factors. 1.3 Frequently used Functions. 1.4 Vector Operations. 1.5 Tensor Operations. 1.6 Vector and Tensor Integral Theorems. 1.7 References. CHAPTER 2 COLLOIDAL SYSTEMS. 2.1 The Colloidal State. 2.2 Colloidal Phenomena. 2.3 Stabilization of Colloids. 2.4 Preparation of Colloidal Systems. 2.5 Purification of Sols. 2.6 A Historical Summary. 2.7 Electrokinetic Phenomena in Modern Colloid Science. 2.8 Nomenclature. 2.9 References. CHAPTER 3 ELECTROSTATICS. 3.1 Basic Electrostatics in Free Space. 3.2 Summary of Electrostatic Equations in Free Space. 3.3 Electrostatic Classification of Materials. 3.4 Basic Electrostatics in Dielectrics. 3.5 Boundary Conditions for Electrostatic Equations. 3.6 Maxwell Stress for a Linear Dielectric. 3.7 Maxwell’s Equations of Electromagnetism. 3.8 Nomenclature. 3.9 References. CHAPTER 4 APPLICATION OF ELECTROSTATICS. 4.1 Two-Dimensional Dielectric Slab in an External Electric Field. 4.2 A Dielectric Sphere in an External Electric Field. 4.3 A Conducting Sphere in an External Electric Field. 4.4 Charged Disc and Two Parallel Discs in a Dielectric Medium. 4.5 Point Charges in a Dielectric Medium. 4.6 Nomenclature. 4.7 Problems. 4.8 References. CHAPTER 5 ELECTRIC DOUBLE LAYER. 5.1 Electric Double Layers at Charged Interfaces. 5.2 Potential for Planar Electric Double Layer. 5.3 Potential for Curved Electric Double Layer. 5.4 Electrostatic Interaction between Two Planar Surfaces. 5.5 Electrostatic Potential Energy. 5.6 Electrostatic Interactions between Curved Geometries. 5.6.1 The Derjaguin Approximation. 5.7 Models of Surface Potentials. 5.8 Zeta Potential. 5.9 Summary of Gouy–Chapman Model. 5.10 Nomenclature. 5.11 Problems. 5.12 References. CHAPTER 6 FUNDAMENTAL TRANSPORT EQUATIONS. 6.1 Single-Component System. 6.2 Multicomponent Systems. 6.3 Hydrodynamics of Colloidal Systems. 6.4 Summary of Governing Equations. 6.5 Nomenclature. 6.6 Problems. 6.7 References. CHAPTER 7 ELECTROKINETIC PHENOMENA. 7.1 Electroosmosis. 7.2 Streaming Potential. 7.3 Electrophoresis. 7.4 Sedimentation Potential. 7.5 Non-Equilibrium Processes and Onsager Relationships. 7.6 Nomenclature. 7.7 References. CHAPTER 8 FLOW IN MICROCHANNELS. 8.1 Liquid Flow in Channels. 8.2 Electroosmotic Flow in a Slit Charged Microchannel. 8.3 Electroosmotic Flow in a Closed Slit Microchannel. 8.4 Effectiveness of Electroosmotic Flow. 8.5 Electric Current in Electroosmotic Flow in Slit Channels. 8.6 Streaming Potential in Slit Channels. 8.7 Electroviscous Flow in Slit Microchannels. 8.8 Electroosmotic flow in a Circular Charged Capillary. 8.9 High Surface Potential. 8.10 Surface Conductance. 8.11 Solute Dispersion in Microchannels. 8.12 Nomenclature. 8.13 Problems. 8.14 References. CHAPTER 9 ELECTROPHORESIS. 9.1 Introduction. 9.2 Electrophoresis of a Single Charged Sphere. 9.3 Improved Solutions: Arbitrary Debye Length. 9.4 Electrophoretic Mobility in Concentrated Suspensions. 9.5 Circular Cylinders Normal to the Electric Field. 9.6 Nomenclature. 9.7 Problems. 9.8 References. CHAPTER 10 SEDIMENTATION POTENTIAL. 10.1 Sedimentation of Uncharged Spherical Particles. 10.2 Concept of Sedimentation Potential and Velocity. 10.3 Dilute Suspensions: Ohshima’s Model. 10.4 Sedimentation Potential of Concentrated Suspensions. 10.5 Nomenclature. 10.6 Problems. 10.7 References. CHAPTER 11 LONDON–VAN DERWAALS FORCES ANDTHE DLVOTHEORY. 11.1 Dispersion Forces Between Bodies in Vacuum. 11.2 Hamaker’s Approach. 11.3 Effects of Intervening Medium. 11.4 DLVO Theory of Colloidal Interactions. 11.5 Schulze–Hardy Rule. 11.6 Verification of the DLVO Theory. 11.7 Limitations of DLVO Theory. 11.8 Nomenclature. 11.9 Problems. 11.10 References. CHAPTER 12 COAGULATION OF PARTICLES. 12.1 Introduction. 12.2 Dynamics of Coagulation. 12.3 Brownian Motion. 12.4 Collision Frequency. 12.5 Brownian Coagulation. 12.6 Coagulation due to Shear. 12.7 Nomenclature. 12.8 Problems. 12.9 References. CHAPTER 13 DEPOSITION OF COLLOIDAL PARTICLES. 13.1 Introduction. 13.2 Classical Deposition Mechanisms. 13.3 Eulerian Approach. 13.4 Lagrangian Approach. 13.5 Deposition Efficiency and Sherwood Number. 13.6 Experimental Verifications. 13.7 Application of Deposition Theory. 13.8 Summary of Dimensionless Groups. 13.9 Nomenclature. 13.10 Problems. 13.11 References. CHAPTER 14 NUMERICAL SIMULATION OF ELECTROKINETIC PHENOMENA. 14.1 Tools and Methods for Computer Based Simulations. 14.2 Numerical Solution of the Poisson–Boltzmann Equation. .2.6 Validation of Numerical Results. 14.3 Flow of Electrolyte in a Charged Cylindrical Capillary. in a Capillary Microchannel. 14.4 Analysis of Electrophoretic Mobility. 14.5 Concluding Remarks. 14.6 Nomenclature. 14.7 Problems. 14.8 References. CHAPTER 15 ELECTROKINETIC APPLICATIONS. 15.1 Introduction. 15.2 Electrokinetic Salt Rejection in Porous Media and Membranes. 15.3 Electroosmotic Control of HazardousWastes. 15.4 Iontophoretic Delivery of Drugs. 15.5 Flotation of Oil Droplets and Fine Particles. 15.6 Rheology of Colloidal Suspensions. 15.7 Bitumen Extraction From Oil Sands. 15.8 Microfluidic and Nanofluidic Applications. 15.9 Nomenclature. 15.10 References. INDEX.

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Book SynopsisAn up-to-date account of this cutting-edge research in a consistent and understandable framework, of special interest to experts in other areas of electronic structure and/or quantum many-body theory. It will serve equally well as a self-contained guide to learning about reduced density matrices either through self-study or in a classroom as well as an invaluable resource for understanding the critical advancements in the field.Table of ContentsPart I 1 Chapter 1 N-representability 3 By A. John Coleman Chapter 2 historical Introduction 11 By Mitja Rosina Part II 19 Chapter 3 variational Two-electron Reduced-density-matrix Theory 21 By David A. Mazziotti Chapter 4 the Lower Bound Method for Density Matrices And Semidefinite Programming 61 By Robert M. Erdahl Chapter 5 the T1 and T2 Representability Conditions 93 By Bastiaan J. Braams, Jerome K. Percus, and Zhengji Zhao Chapter 6 semidefinite Programming: Formulations and Primal–dual Interior-point Methods 103 By Mituhiro Fukuda, Maho Nakata, and Makoto Yamashita Part III 119 Chapter 7 theory and Methodology of the Contracted Schrödinger Equation 121 By C. Valdemoro Chapter 8 contracted Schrödinger Equation 165 By David A. Mazziotti Chapter 9 purification of Correlated Reduced Density Matrices: Review and Applications 205 By D. R. Alcoba Chapter 10 Cumulants, Extensivity, and the Connected Formulation of the Contracted Schrödinger Equation 261 By John M. Herbert and John E. Harriman Chapter 11 Generalized Normal Ordering, Irreducible Brillouin Conditions, and Contracted Schrödinger Equations 293 By Werner Kutzelnigg and Debashis Mukherjee Chapter 12 Anti-hermitian Formulation of the Contracted Schrödinger Theory 331 By David A. Mazziotti Chapter 13 Canonical Transformation Theory for Dynamic Correlations in Multireference Problems 343 By Garnet Kin-Lic Chan and Takeshi Yanai Part IV 385 Chapter 14 Natural Orbital Functional Theory 387 By Mario Piris Chapter 15 Geminal Functional Theory 429 By B. C. Rinderspacher Chapter 16 Linear Inequalities for Diagonal Elements Of Density Matrices 443 By Paul W. Ayers and Ernest R. Davidson Part V 485 Chapter 17 Parameterization of the 2-rdm 487 By A. John Coleman Chapter 18 Entanglement, Electron Correlation, And Density Matrices 493 By Sabre Kais Author Index 537 Subject Index 551

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Book SynopsisThis book describes design strategies that address flammability, explosive, and toxic hazards specific to process vent headers used for normal, emergency, and combined service.Trade ReviewThis book is recommended for special libraries, vocational school libraries, or as a handbook for specialists in the petroleum or chemical industries. (E-Streams, June 2008)Table of ContentsPreface. Acknowledgment. 1. Introduction. 1.1 Objective. 1.2 Relationship to Other CCPS Publications. 1.3 Industries and Operations Covered. 1.4 Intended Audience. 1.5 How to Use this Book. 1.6 References. 2. Management Overview. 2.1 Impact on Vent Header Systems. 3. Normal Process and Emergency Systems. 3.1 Types of Vent Header Systems. 3.1.1 Normal Process Vent Header Systems. 3.1.2 Emergency Vent Header Systems. 3.1.3 Combined Vent Header Systems. 3.1.4 Considerations. 3.2 Design Philosophy. 3.2.1 Design Sequence. 3.2.2 Hazards Associated with Combining Vent Streams. 3.2.3 Inherent Safety. 3.2.4 Flammability and Combustibility. 3.2.5 Toxicity. 3.2.6 Reactivity. 3.2.7 Regulatory Issues. 3.3 Reference. 4. Combustion and Flammability. 4.1 Flammable Limits. 4.1.1 Mixture Stoichiometry. 4.1.2 Factors Influencing Flammable Limits. 4.1.3 Flammable Limit Variability. 4.1.4 Effects of Temperature on Flammable Limits. 4.1.5 Effects of Pressure on Flammable Limits. 4.1.6 Flammable Limits of Combined Gas Streams. 4.1.7 Cool Flame. 4.1.8 Hybrid Mixtures. 4.2 Limiting Oxidant Concentration. 4.3 Deflagrations. 4.4 Pressure Piling. 4.5 Detonation Phenomena. 4.5.1 Deflagration to Detonation Transition (DDT) and Run-Up Distance. 4.5.2 Overdriven and Stable Detonations. 4.5.3 Detonation Cell Size. 4.6 References. 5. Understanding Requirements. 5.1 Understanding the Sources. 5.1.1 Identify Vent Sources. 5.1.2 Identify Normal Process Vent Streams. 5.1.3 Normal Process Vent System, Design Case Scenario. 5.1.4 Define Interface Requirements. 5.1.5 Identify Hazard Scenarios That Could Result in Emergency Venting. 5.1.6 Vent Gas Characteristics for Emergency Venting. 5.1.7 Emergency Venting Design Case Scenario. 5.1.8 Liquid Entrainment or Condensation in Normal Process Vent Headers. 5.1.9 Two-Phase Venting. 5.1.10 Flammable Gases and Vapors. 5.1.11 Toxic and Noxious Materials. 5.1.12 Reactive Systems. 5.2 Regulatory Issues. 5.2.1 Historical Background. 5.2.2 Brief Review of Laws and Regulations. 5.2.3 Improved Air Quality. 5.3 At-Source Treatment Options. 5.4 Combining Vent Streams. 5.5 End-of-Line Treatment Systems. 5.6 Specify Design Requirements. 5.7 References. 6. Design Approach. 6.1 Design Basis. 6.2 Merging Vent Streams. 6.2.1 Features Favorable for Merging Steams. 6.2.2 Features that do not Favor Merging Streams. 6.3 Vent Header Systems Handling Flammable Materials. 6.3.1 Explosion Prevention. 6.3.2 Operating Fuel Lean. 6.3.3 Operating Inerted. 6.3.4 Operating Fuel Rich. 6.3.5 Oxidizers Other Than Oxygen. 6.3.6 Explosion Protection. 6.3.7 Ignition Sources. 6.4 Vent Header Systems Handling Toxic Gases. 6.4.1 Operating Principles for Header Systems Handling Toxic Gases. 6.4.2 Piping Design. 6.4.3 Combined Relief Valve and Rupture Disk Devices. 6.5 Reactive Systems. 6.5.1 Reactive Systems Design Considerations. 6.6 Mechanical Design Considerations. 6.6.1 Vent Header Pipe Specifications. 6.6.2 Vent Header Supports. 6.6.3 Stresses on Vent Header Piping. 6.6.4 Shock Waves Downstream of Rupture Disks. 6.6.5 Corrosion. 6.6.6 Header Operating Pressure and Pressure Drop. 6.6.7 Thermal Stresses and Low Temperature Embrittlement. 6.6.8 Liquid Knock-Out and Drainage. 6.6.9 Expansion Joints and Flexible Connections. 6.6.10 Valves in the Vent Header System. 6.7 References. 7. Treatment and Disposal Systems. 7.1 Selection of Treatment and Disposal Methods. 7.2 Collection. 7.2.1 Containment. 7.2.2 Collection with Venting. 7.2.3 Dump and Catch Tanks. 7.2.4 Blowdown Drums and Tanks. 7.2.5 Quench Drums. 7.2.6 Quench Pools. 7.2.7 Advantages and Disadvantages ? Collection Systems. 7.3 Physical Separation. 7.3.1 Vapor-Liquid Gravity Separators. 7.3.2 Knock-Out Tanks and Drums. 7.3.3 Mist Eliminators. 7.3.4 Cyclones. 7.3.5 Advantages and Disadvantages ? Physical Separators. 7.4 Absorption. 7.4.1 Spray Towers. 7.4.2 Tray Towers. 7.4.3 Packed-Bed Scrubber. 7.4.4 Venturi Scrubbers. 7.4.5 Advantages and Disadvantages -- Absorption Systems. 7.5 Adsorption 156. 7.5.1 Advantages and Disadvantages -- Carbon Adsorption. 7.6 Recovery. 7.6.1 Condensing Systems. 7.6.2 Gas Recovery Systems. 7.6.3 Advantages and Disadvantages -- Recovery Systems. 7.7 Thermal Destruction. 7.7.1 Flares. 7.7.2 Thermal and Catalytic Oxidizers. 7.7.3 Process Heaters Used for Thermal Destruction. 7.7.4 Advantages and Disadvantages -- Thermal Destruction Systems. 7.8 Dispersion of Vent Gas. 7.8.1 Design and Safety Considerations. 7.8.2 Atmospheric Dispersion Design. 7.8.3 Advantages and Disadvantages -- Dispersion to Atmosphere. 7.9 References. 8. Hazard Analysis and Consequence Assessment. 8.1 Hazard Analysis Methods. 8.2 Hazard Analysis Process. 8.2.1 Identification of Causes. 8.2.2 Development of Consequences. 8.2.3 Estimation of Hazard Scenario Risk. 8.3 Consequence Assessment Techniques. 8.4 References. 9. Operations and Maintenance. 9.1 Daily Inspections. 9.2 Scheduled Inspections and Maintenance. 9.2.1 Materials Build-Up. 9.2.2 Pressure Relief Valves and Rupture Disks. 9.2.3 Conservation Vents. 9.2.4 Explosion Prevention Systems. 9.2.5 Fast Acting Valves and Chemical Isolation Systems. 9.2.6 Explosion Relief Panels. 9.2.7 Inerting Systems. 9.2.8 Instrument and Controls. 9.2.9 Low Point Drains. 9.2.10 Corrosion and Erosion. 9.2.11 Structural Supports for Vent Headers. 9.2.12 Insulation and Heat Tracing. 9.3 Management of Change. 9.4 References. A. Acronyms and Abbreviations. B. Glossary. C. Selected US Environmental Air Pollution Control Regulations. D. Vent Header Design Checklist. E. Normal Vent Header Source Control and Configuration Examples. F. PHA HAZOP Deviation Table. G. Worked Examples. G1. Inerted Flammable Liguid Storage. G2. Flamable Liquid Process Operating Fuel Lean. G3. Flamable Liquid Process Operating Fuel Rich. G4. Flamable Liquid Process Operating Fuel Rich. G5. Refinery Example: Crude and Vacuum Units. G6. Refinery Example: Coker Unit and Gas Processing Plant. G7. Reactive System. H. Past Incidents. H1. Combustion Incidents. H2. Reactive Chemical Incidnets. H3. Vacuum Failures. H4. References. I. Historical Perspective on Air Pollution Control. I1. Historical Background on Air Pollution. I2. Brief Review of Laws and Regulations. I3. Improved Air Quality. I4. References.

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Book Synopsis Pertaining to homeland security, this title is a comprehensive guide to radiation protection caused by accidents or terrorism Provides essential strategies and guidance for protecting ports and examines the latest nuclear detection devices that can be deployed Explains the procedures in FEMA''s National Incident Management System Gives specific details for first responders and emergency workers on how to prepare for and handle radiological incidents Table of ContentsPreface xv Foreword xvii Acknowledgments xix 1 Nuclear Fear—The Godzilla of All Fears 1 1.1 The Bombing of Hiroshima and Nagasaki 2 1.2 Nuclear Fallout in America 2 1.3 WMDs: Witnesses of Mass Destruction 3 1.4 Fear and the Film Industry 4 1.5 Celluloid Spies 5 1.6 Atomic Nature Run Amok 6 1.7 Post-War Nuclear Reactions 7 1.8 The Specter of Cold War 8 1.9 The Fearful Fifties 9 1.10 Dr. Strangelove and Learning to Love the Bomb 10 1.11 Nuclear Terror Revisited 12 1.12 Chernobyl’s Impact on Contemporary Views of Nuclear Energy 13 1.13 The Myth of the Lone Madman 15 1.14 Fear of an Unknown Atom 15 2 Terrorism and Nuclear Fire 17 2.1 A Prophetic Warning 17 2.2 History of Terrorism 18 2.3 Terrorism (Un)Defined 20 2.4 Legal Taxonomy of Terrorism 23 2.5 The Defining Principles of Terrorism 27 2.6 Nation States: Fuel for Nuclear Fire 28 2.7 Global Mass Media: The Oxygen of Terrorism 30 2.8 Extremists Groups: The Spark that Ignites Terrorism 31 2.9 Nuclear Terrorism: The Ultimate Nightmare 35 3 Radiation and Radioactivity Concepts 37 3.1 What, Exactly, Is Radiation? 38 3.2 Units of Radioactivity 40 3.3 The Different Types of Radioactive Decay 40 3.4 Measuring Radioactivity 41 3.5 Environmental Radiation 43 3.6 Radiation from Nuclear Power Plants 44 3.7 The Benefits of Radiation on Health and Medicine 45 3.8 The Benefits of Radiation on Agriculture 47 3.9 The Benefits of Radiation on Industry 48 3.10 The Benefits of Radiation on National Security 49 3.11 The Benefits of Radiological and Nuclear Material on International Security 50 4 Nuclear Countermeasures and Nuclear Security 53 4.1 Security of Radiation Sources 54 4.2 Atomic Authorization 55 4.3 Safety of Radiation Sources 56 4.4 Enforcing International Standards of Safety 57 4.5 Meeting Global Needs for Energy 58 4.6 Difficulties of Radioactive Disposal 59 4.7 A Radiation Role Model 61 4.8 Nuclear Applications to Increase Public Safety and National Security 62 4.9 Current Nuclear and Radiation Countermeasures 64 5 Nuclear Events and Incidents 65 5.1 The Search for Nuclear Substances 66 5.2 Diplomatic Reasoning 67 5.3 Inferring Nuclear Intent 69 5.4 Nuclear Arms in the Wrong Hands 70 5.5 A More Active Defense 72 5.6 Should Diplomacy Fail 73 5.7 A Closer Look at Nuclear Weapons 73 5.8 Nuclear Blast Force 75 5.9 Nuclear Thermal Force 75 5.10 Radioactive Force 75 5.11 Radiological Dispersion Devices 77 6 Radiological Incidents Management and Planning 79 6.1 Threat Assessment 80 6.2 Medical Stockpiling 81 6.3 Medical Development 83 6.4 Readying the Response Infrastructure 85 6.5 Evaluating the Medical Countermeasure Enterprise 86 6.6 The Good News: Areas of Improvement 88 6.7 Protective Action Guidelines 90 6.8 The Role of the Military in a Radiological Emergency 91 7 Role of the First Responder 97 7.1 Structure of the First Response Team’s Patterns of Action 98 7.2 Role of the First Response Team 98 7.3 Protection of Responders and the Public 99 7.3.1 Basic Precautions 99 7.3.2 Registration of Emergency Response Personnel 100 7.4 Lessons Learned from First Response to Past Emergencies 100 7.5 Manage the Medical Response 102 7.6 Manage Criminal and Terrorist Threats After a Radiological Event 103 7.7 Launching the First Response 104 7.8 Incident Command 104 7.9 Members of the First Response Team 105 7.10 Preliminary Assessment and Response 107 7.11 Emergency Response Team 108 7.12 Incident Commander Action Guide 109 7.12.1 Observe and Assess 110 7.12.2 Save Lives and Prevent Escalation 110 7.12.3 Extend the Response 110 7.13 Resource Coordinator Action Guide 111 7.14 Fire Departments Action Guide 111 7.15 Emergency Medical Service Action Guide 112 7.16 Law Enforcement/Security Team Action Guide 113 7.17 Forensic Evidence Management Team Action Guide 113 7.18 Public Information Officer Action Guide 114 7.19 Crisis Communication Tips 115 7.20 Local Hospital Action Guide 115 7.21 National EOC Action Guide 116 7.22 First Responder Monitor Action Guide 117 8 Action Plans 119 8.1 Assess Hazard and Establish Security Area 119 8.2 Personnel Protection Guidelines 120 8.3 Public Protection Guidelines 121 8.4 Public Registration 122 8.5 Monitor the Public and Responders 123 8.6 Public Decontamination 124 8.7 Response Contamination Control 125 8.8 Monitoring and Decontamination of Vehicles and Equipment 126 8.9 Field Triage for Mass Casualties 127 9 Medicaltreatment of Radiological Injuries 129 9.1 The Radiological Effects of RDDs 129 9.2 Radioactivity and Its Impact on the Body 130 9.3 Symptoms and Syndromes 132 9.4 Emergency Assessment 133 9.5 Signs of Dangerous Radiation Dosages 134 9.6 Treatments for Radiation Exposure 136 9.7 Post-Radiation Procedures 137 9.8 Psychological Side Effects 138 9.9 Psychological First Aid 139 9.10 Treating Terror 140 10 Cleanup and Decontamination After a Radiological Incident 141 10.1 Differences between Chemical, Biological, and Radiological 141 10.2 Decontamination Differences for Fallout and a RDD 142 10.3 Who will be in Charge of Cleanup and Decontamination? 143 10.4 Radiological Cleanup Overview and Objectives 144 10.5 Radiological Cleanup Decision Making 145 10.6 Initial Cleanup Scoping 146 10.7 Stakeholder Outreach and Stakeholder Working Group 147 10.8 Evaluation of Cleanup Options 147 10.9 Specific Guidelines for Cleanup and Decontamination 148 10.10 The “Do Nothing” Strategy 148 10.11 Physical Removal Strategy 149 10.12 Physical Entrapment Strategy 149 10.13 Chemical Decontamination Strategy 150 10.14 Use of Isotope Dilution for Decontamination 151 10.15 Priorities for Decontamination 152 11 Conclusions 155 11.1 Nuclear Terror: Are We Prepared Internationally? 155 11.2 Who is Internationally Responsible for Nuclear Countermeasures? 156 11.3 Nuclear Terror: Are We Prepared Nationally? 158 11.4 What We Know About the Inevitable 159 Appendix A Radioactive Contamination Monitoring 161 A.1 Introduction 162 A.2 Types of Nuclear Detection Equipment 163 A.3 Dose Rate Meters 164 A.4 Dosimeters 164 A.5 Surface Contamination Meters 166 A.6 Airborne Contamination Meters and Gas Monitors 166 A.7 Basic Radiation Instrument Components 168 A.8 Ionization Chambers as Gas-Filled Detectors 168 A.9 Proportional Counters and Gas Amplification 169 A.10 Geiger-Müller Counters and Detector Output 170 A.11 Practical Ionization Chamber Instruments 171 A.12 Practical Proportional Counters 172 A.13 Practical Geiger-Müller Counters 173 A.14 Scintillation Counters 173 A.15 Practical Bulk Scintillation Counters 174 A.16 Practical Scintillation Counter Contamination Monitors 175 A.17 Solid State Detectors 175 A.18 Practical Solid State Detectors 176 A.19 Testing Dose Rate Meters 177 A.20 Procedures for Using a Dose Rate Meter 178 A.21 Testing and Calibration of Surface Contamination Meters 179 A.22 Use of a Surface Contamination Meter 179 A.23 Procedures for Using a Surface Contamination Meter 180 A.24 Special Surface Contamination Monitoring Techniques 181 A.25 The Measurement of Airborne Contamination 182 A.26 Criteria for the Selection of Monitoring Instruments 182 Appendix B List of Acronyms and Abbreviations 185 Appendix C Radiologicalterms 195 Appendix D Radiological Attack—Radiological Dispersal Devices—Incident Planning Guide 217 Appendix E Federal Agencies Governing the Immediate Response to a Radiological Event 231 E.1 Introduction 231 E.1.1 Purpose 231 E.1.2 Scope 232 E.1.3 Policies 233 E.1.4 Headquarters Planning and Preparedness 236 E.2 Situation 237 E.3 Planning Assumptions 238 E.4 Responsibilities 239 E.4.1 General 239 E.4.2 Coordinating Agencies 242 E.5 Key Federal Radiological Resources/Assets 248 E.6 Concept of Operations 252 E.6.1 General 252 E.6.2 Notification 252 E.6.3 Activation 253 E.6.4 ICS Implementation 255 E.7 Response Activities 255 E.8 Recovery 261 E.9 Federal Capabilities and Assets 273 Appendix F Potential Isotopes Likely to Be Used in a Radiological Dispersion Device 275 Bibliography 281 Index 285

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Book SynopsisStrategies for Protecting National Critical Infrastructure Assets eases the research burden, develops investigative protocols, and pulls together data into a comprehensive and practical guide, to help the serious reader understand advanced concepts and techniques of risk assessment with an emphasis on meeting the security needs of the critical national infrastructure. The text is divided into five major sections, which are further broken down by individual chapters, each addressing one element of risk assessment as well as focusing attention on applying the risk assessment methodology to a particular industry. This book establishes a new and acceptable approach for conducting risk assessments in a high-risk world. Helps the reader to understand advanced concepts and techniques of risk assessment Provides a quick, reliable, and practical briefcase reference to use in the office as well as on the road Introduces the elements of the risk assessment proceTable of ContentsPart 1 Understanding the Environment 1 Part 2 Understanding Security Assessments 45 Part 3 Tailoring the S3E Security Methodology to Specific Critical Infrastructure Sectors 219 General Glossary 525 Index 589

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Book SynopsisThe importance of understanding the metabolism of agrochemicals in plants has never been greater. In a world where food safety and environmental concerns are increasing, knowledge of the metabolic processes within plants and the terminal residues of agrochemicals in food crops is invaluable.Trade Review"...an essential text..." -- Biological Agriculture Horticulture, Vol 18, 2000 "The book can be recommended to research and advanced university students." --Journal of Agronomy & Crop Science, March 2001Table of ContentsIntroduction -- Regulatory Considerations (T. Roberts). Experimental Approaches for Plant Metabolism Studies (R. Baloch). Primary Metabolism of Agrochemicals in Plants (T. Katagi & N. Mikami). Secondary Metabolism of Agrochemicals in Plants (D. Cole & R. Edwards). Bound Residues Arising from the Use of Agrochemicals on Plants (M. Skidmore). The Comparative Metabolism of Agrochemicals in Plants and Mammals (S. Bounds & D. Hutson). Herbicide Metabolism as a Basis for Selectivity (W. Owen). Herbicide Safeners and Synergists (K. Hatzios). Index.

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Book SynopsisThe volumes of Organic Reactions are collections of chapters each devoted to a single reaction, or a definite phase of a reaction, of wide applicability. The material is treated from a preparative viewpoint, with emphasis on limitations, interfering influences, effects of structure and the selection of experimental techniques. Numerous detailed procedures illustrate the significant modifications of each method. Includes tables that contain all possible examples of the reaction under consideration.Table of ContentsFormation of Carbon-Carbon and Carbon-Heteroatom Bonds viaOrganoboranes and Organoborates (E. Negishi and M.Idacavage). The Vinylcyclopropane-Cyclopentene Rearrangement (T. Hudlicky etal.). Author Index. Chapter and Topic Index. Subject Index.

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Book SynopsisA complete handbook for analytical chemists which has been designed to stimulate fundamental research. The contributors cover aspects of both classical and modern analytical chemistry, as well as the scientific and instrumental fundamentals of analytical methods.Table of ContentsApplication of Thermal Analysis to Kinetic Evaluation of ThermalDecomposition (D. Dollimore & M. Reading). Thermometric Titrations and Enthalpimetric Analysis (J. Jordan& J. Stahl). Thermogravimetry (J. Dunn & J. Sharp). The Application of Thermodilatometry to the Study of Ceramics (M.Ish-Shalom). Pyrolysis Techniques (W. Irwin). Application of Thermal Analysis to Problems in Cement Chemistry (J.Bhatty). Subject Index for Volume 13.

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Book SynopsisSince the introduction of the concept of synthons in 1967, it has become common among practitioners of organic synthesis to treat numerous synthetic reactions as simple combinations of the appropriate synthons instead of writing out the actual reagents in full. This book provides chemists who plan their synthetic routes manually with information on some of the new umpoled synthons and the use of synthons in planning organic syntheses. The major part of the text is devoted to acyl anions, hydroxycarbonyl and related anions, carbonyl (ALPHA)-cations, and carbonyl (BETA)-anions. Another group discussed comprises carbanionic synthons in which the carbon atom carries a singly bonded heteratom. Emphasis is on the aspects relating to synthetic use. This work includes a tabular presentation of known applications, along with relevant data on the sources, auxiliary reagents, yields, and restrictions. More than 2,000 references cited.Table of ContentsIntroduction: Classical and Umpoled Synthons (T. A, Hase). Formyl and Acyl Anions (D. J. Ager). Hydroxycarbonyl Anion and Related Synthons (M. Kolb). Heteroatom-Substituted sp? Carbanionic Synthons (J. E.Saavedra). Carbonyl a-Cations (T. A. Hase & J. K. Koskimies). Homoenolate Anions (N. Werstiuk).

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Book SynopsisThis book addresses the formulation of theoretical molecular orbital models starting from quantum mechanics, and compares them to experimental results. It draws on a series of models that have already received widespread application and are available for new applications.Table of ContentsTheoretical Background. The Computational Problem. Selection of A Model. Practical Considerations: Input and Output. The Performance of the Model. Index.

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Book SynopsisThis Second edition of the flow injection analysis (FIA) text which has become a standard in the field in four languages, is written by two pioneers in the field, who have themselves discovered many of the techniques and designed much of the equipment employed in FIA. Newly revised to account for the many recent developments in FIA, this book presents the state-of-the-art in FIA theory, techniques, and future trends. Specific topics covered include continous-flow analyzers, chemical kinetics in an FIA system, theory of dispersion related to FIA, single-line FIA manifolds, FIA determinations based on separation processes, commercially available flow-injection analyzers, the FIA laboratory--a microconduit-based pedagogical system, review of the flow-injection literature, and flow injection analysis now and in the future.Table of ContentsIntroduction. Principles. Theoretical Aspects of FIA Techniques. Components of An FIA Apparatus. Experimental Techniques and FIA Exercises. Review of the Flow-Injection Literature. Flow Injection Analysis Now and in the Future. List of FIA References. Appendix. Index.

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Book SynopsisThis is a low-level, distance-learning book on polymer analysis. It provides clear summaries of each analytical technique and extensive use of self-assessment questions and problems, and offers comprehensive coverage of a range of techniques used to study polymeric materials.Trade Review"The author has achieved the aim of offering the newcomers in polymer science a concise but complete and clear introductory instrument." (Polymer News) "an excellent introduction" (Chemistry & Industry, 20 May 2002)Table of ContentsSeries Preface. Preface. Acronyms, Abbreviations and Symbols. About the Author. Introduction. Identification. Polymerization. Molecular Weight. Structure. Surface Properties. Degradation. Mechanical Properties. Responses to Self-Assessment Questions. Bibliography. Glossary of Terms. Units of Measurement and Physical Constants. Periodic Table. Index.

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Book SynopsisPresents a unified treatment of multichannel detection systems in the uv/visible range of the spectrum as they relate to multielement spectrochemical analysis. Bridges the gap between the physics and engineering aspects of multichannel detection and analytical chemistry.Table of ContentsPrinciples of Optics and Radiometry. Principles of Diffraction. Spectrographs and Spectrometers. Dispersive Spectrometers That Use Masks. Principles of Interference. Introduction to Fourier Transform Spectroscopy. Principles of Photographic Detection. Introduction to Photoelectronic Detection. Introduction to Image Detectors. Solid-State Image Detectors. Systems Approach to the Design of Instruments for MultielementAnalysis. Introduction to Analytical Atomic Spectroscopy. Survey of Transform Spectrometric Systems. Nontransform Detection Systems. References. Index.

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Book SynopsisAcquaints students with all basic laboratory procedures, coordinating enough theory and technique to enable readers to fully comprehend the reactions being studied and the procedures involved. Material is organized in four sections: techniques, experiments, organic qualitative analysis, and appendixes.Table of ContentsPartial table of contents: Laboratory Safety. Basic Laboratory Equipment and Techniques. The Laboratory Notebook. Drying Solids, Liquids, and Gases. Thermometers, Melting Points, and Boiling Points. Filtration. Recrystallization. Extraction. Distillation. Simple Distillation. Refractometry. Ultraviolet-visible Spectroscopy. Infrared Spectroscopy. Nuclear Magnetic Resonance. Mass Spectrometry. The Chemical Literature. Report Writing. Process Economics. Experiments. Isolations, Nonbonded Interactions. Haloalkanes. Alkenes. Alcohols. Aldehydes. Aromatics. Famous Name Reactions. Organic Redox. Kinetics and Equilibria. Acidity, Neutralization, and Saponification. Appendixes. Index.

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Book SynopsisDrawn from over 14 years of engineering and scientific experience, this is a comprehensive review of important approaches to hazardous waste management. The book deals with all major technical areas in this field and takes a historical view of the evaluation of US regulations and policy.Table of ContentsIntroduction. The Regulation of Hazardous Waste Management. Defining Hazardous Wastes. Quantifying Hazardous Wastes. Facility Siting. The Hazardous Waste Management Industry. Abandoned Disposal Sites. Hazardous Waste Transportation. Treatment Processes. Incineration. Landfill Disposal. Ocean Dumping and Underground Injection. Appendixes. Index.

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Book SynopsisA question/answer supplement to accompany a 1-year general chemistry course. This text is a multiple choice format and can be used with any standard general chemistry text.Table of Contents1. Introductory Concepts Units, Conversions between Units, and Significant Figures Compendium Examples Exercises Drill Answers Matter, Symbols, Formulas, Equations, and the Laws of Chemical Combination Compendium Examples Exercises Drill Answers Mixtures Compendium Examples Exercises Drill Answers Energy and Temperature Changes Compendium Examples Exercises Answers General Exercises Exercises Answers 2. The Mole Concept and Its Use Number-Mass-Mole Relationships Compendium Examples Exercises Answers The Mole Concept-Applications to Pure Substances Compendium Examples Exercises Drill Answers The Mole Concept-Reaction Stoichiometry Compendium Examples Exercises Drill Answers The Use of the Mole Concept in Analysis Problems Compendium Examples Exercises Answers The Mole Concept-Molar Concentration Compendium Examples Exercises Drill Answers General Exercises—Series 1 Exercises Answers General Exercises—Series 2 Exercises Answers 3. Atomic Structure and the Periodic Table Fundamental Particles and the Atomic Nucleus Compendium Examples Exercises Drill Answers An Introduction to the Periodic Table Compendium Exercises Drill Answers 4. Electronic Structure and the Periodic Table Electrons in Atoms Compendium Example Exercises Drill Answers Periodic Table and Periodicity Compendium Exercises Drill Answers General Exercises Exercises Answers 5. General Concepts of Bonding and Chemical Nomenclature Simple Ions and Ionic Bonds Compendium Example Exercises Drill Answers Covalent Bonds Compendium Example Exercises Drill Answers Oxidation Numbers Compendium Example Exercises Answers Formulas and Chemical Nomenclature Compendium Exercises Drill Answers General Exercises Exercises Answers 6. Bonding and Shapes of Covalent Species Compendium Example Exercises Drill Answers 7. Solution Reactions—1 The Electrolytic Nature of Compounds Compendium Drill Acids, Bases and Acid-Base Reactions Compendium Example Exercises Answers Lewis Acids and Bases Compendium Exercises Oxidation-Reduction Reactions Compendium Example Exercises Drill Answers Redox Chemistry of Metals and Nonmetals Compendium Exercises Answers 8. Solution Reactions—2 Solubility Rules and Precipitation Reactions Compendium Exercises Drill Answers Titrations, Analysis, and Solution Stoichiometry Compendium Example Exercises Drill Answers 9. Gases Compendium Type 1 Gas Law Problems Examples Exercises Answers Type 2 Gas Law Problems Example Exercises Drill Answers Type 3 Gas Law Problems Example Exercises Drill Answers Gas Laws and Reaction Stoichiometry Examples Exercises Drill Answers General Exercises Exercises Answers 10. Liquids, Solids, and Changes of State Liquids and Intermolecular Forces Compendium Exercises Answers Solids Compendium Examples Exercises Drill Answers Energetics and Changes of State Compendium Example Exercises Answers General Exercises Exercises Answers 11. Solutions Compendium Concentration Units Compendium Examples Exercises Drill Answers Colligative Properties Compendium Examples Exercises Drill Answers General Exercises Exercises Answers 12. Chemical Thermodynamics Energy, Enthalpy, and Calorimetry Compendium Examples Exercises Answers Thermochemistry and Hess’s Law Compendium Examples Exercises Drill Answers Entropy, Free Energy, and Reaction Spontaneity Compendium Examples Exercises Answers General Exercises Exercises Answers 13. Reaction Rates Concepts and Rate Laws Compendium Examples Exercises Drill Answers Temperature Dependence and Theory of Reaction Rates Compendium Examples Exercises Answers General Exercises Exercises Answers 14. Chemical Equilibrium The Equilibrium Constant Compendium Examples Exercises Answers Free Energy and the Equilibrium Constant Compendium Examples Exercises Drill Answers General Exercises Exercises Answers Drill 15. Acid-Base Reactions and Equilibria Brønsted-Lowry Acids and Bases Compendium Aqueous Solutions of Strong Acids and Bases—The pH Scale Compendium Examples Exercises Answers Weak Monoprotic Acids and Bases Compendium Examples Exercises Drill Answers Reactions of Weak Acids or Bases—Buffers Compendium Examples Exercises Drill Answers Polyprotic Acids Compendium Examples Exercises Answers General Exercises Exercises Answers 16. Solubility and Complex Ion Equilibria Solubility and Precipitation Equilibria Compendium Examples Exercises Drill Answers Simultaneous Equilibria Compendium Examples Exercises Answers General Exercises Exercises Answers 17. Electrochemistry Compendium Examples Drill Table of Reduction Potentials Exercises Answers General Exercises Exercises Answers 18. Organic Chemistry Compendium Exercises Answers Appendix Tables Selected Values of Standard Thermodynamic Properties at 298.15 K Table Thermodynamic Data for Species in Aqueous Solution Table Standard Enthalpies of Combustion at 298.15 K Table Three-Place Logarithms Table Compendium Reporting Numerical Results Compendium

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Book SynopsisIntended for industrial chemists and chemical engineers, this book offers a concise review of the concepts and techniques applicable to emulsions and dispersions. Its topics are arranged under the headings of particulates, interfaces, stability of dispersions and dispersed-phase systems.Table of ContentsPARTICULATES. Optical Properties--Light Scattering. Kinetic Properties--Rheology. Statistical Properties. Size and Surface Area. Processing Methods for Making Emulsions and Suspensions. INTERFACES. Capillarity of Pure Liquids. The Relation of Capillarity to Phase Diagrams. Surface-active Solutes. Physical Properties of Insoluble Monolayers. Aqueous Solutions of Surface-active Solutes. Surface Activity in Nonaqueous Media. Thermodynamics of Adsorption from Solution. STABILITY OF DISPERSIONS. Forces of Attraction. Forces of Repulsion. Stability of Systems. Kinetics of Coagulation. DISPERSED-PHASED SYSTEMS. Emulsions. Foams. Suspensions. References. Bibliography. Appendix A: Physical Constants. Appendix B: Units. Appendix C: Mathematical Formulas. Appendix D: Electrostatic and Induction Contributions to Intermolecular Potential Energy. Appendix E: Electric Properties of Representative Molecules. Appendix F: Lifetimes of Contributing to Colloid and Interface Science. Appendix G: Kendall Awardees. Appendix H: Electrostatic Units. Appendix J: Manufacturers of Instruments. Appendix K: Manufacturers of Processing Equipment. Index.

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Book SynopsisThis second edition of a unique text/reference identifies the appearance attributes of objects and the methods available for measuring them, bringing together much material not previously organized for ready reference.Table of ContentsAPPEARANCE ATTRIBUTES AND THEIR BASES IN PHYSICS, PSYCHOLOGY, ANDPHYSIOLOGY. Attributes of the Appearance of Objects. Light Sources and Illumination. Interaction of Objects with Light. The Human Observer and Visual Evaluation of ObjectAppearance. Psychophysical Scales for Appearance Measurement. THE DEVELOPMENT OF NUMERICAL SPECIFICATIONS FOR APPEARANCEATTRIBUTES. Scales for Gloss and Other Geometric Attributes. The CIE Standard Observers. Uniform Color Scales. Scales for the Measurement of Color Difference. Special Scales for White Colors. Other Scales for Color Identification. INSTRUMENTS FOR THE MEASUREMENT OF APPEARANCE. Instrument Classification and Components. Instrument for the Geometric Attributes of Object Appearance. Instruments for the Chromatic Attributes of ObjectAppearance. Standards, Standardization and Measurement Techniques. Specimen Selection, Preparation, and Presentation. Applications of Appearance Measurements. Appendix. Glossary. Index.

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Book SynopsisUses mathematical and statistical techniques to extract trends from chemical analysis. Introduces scientists to powerful new tools that will allow them to obtain massive amounts of data from computer-controlled instrumentation and then extract the information they need.Table of ContentsSampling Theory. Fundamentals of Experimental Design and Optimization. Signal Detection and Manipulation. Calibration and Chemical Analysis. Resolution of Analytical Signals. Exploratory Data Analysis. An Introduction to Control and Optimization. Index.

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Book SynopsisEach subject of organic chemistry reviewed in this series is presented from a preparative viewpoint. Emphasis is placed on limitations, interfering influences, effects of structure and the selection of experimental techniques.Table of ContentsThe Beckmann Reactions: Rearrangements, Elimination-Additions, Fragmentations, and Rearrangement-Cyclizations Robert E. Gawley 2. The Persulfate Oxidation of Phenols and Arylamines (The Elbs and the Boyland-Sims Oxidations) E. J. Behrman 3. Fluorination with Diethylaminosulfur Trifluoride and Related Aminofluorosulfuranes Milos Hudlicky Author Index, Volumes 1-35 Chapter and Topic Index, Volumes 1-35

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Book SynopsisReagents for Organic Synthesis This widely respected reference has been brought up to date with the publication of Volume 12. Thousands of entries abstract the most important information on commonly used reagents from 1966 through 1984. Every reagent discussed includes the preparation, uses, sources of supply, critical comments, references, and more. Volume 1 / 1967 / 1,475 pp. Volume 2 / 1969 / 538 pp. Volume 3 / 1972 / 401 pp. Volume 4 / 1974 / 660 pp. Volume 5 / 1975 / 864 pp. Volume 6 / 1977 / 765 pp. Volume 7 / 1979 / 487 pp. Volume 8 / 1980 / 602 pp. Volume 9 / 1981 / 596 pp. Volume 10 / 1982 / 528 pp. Volume 11 / 1984 / 669 pp.Table of ContentsIntroduction. Reagents (A to Z). Suppliers. Index of Apparatus. Index of Reagents According to Types. Author Index. Subject Index.

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Book SynopsisA study has shown that finite topological spaces have a rich combinatorial structure, and much of this book is devoted to developing the mathematical machinery to analyze this structure. The text introduces the mathematics involved and describes applications and the results of recent research.Table of ContentsPartial table of contents: FINITE TOPOLOGY. Topological Spaces. Finite Topologies and Lattices. Finite Topologies and Graph Theory. Connectivity. Classification of Topological Spaces: Separation Axioms. Combinatorics. Functions and Continuity. FINITE TOPOLOGY AND CHEMISTRY. Topological Description of Molecular Structure. Bond Topology. Graph Topology. Duplex Spaces. Topology of Chemical Reactions. Appendixes. Bibliography. Index.

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Book SynopsisIn response to the expansion of knowledge in biochemistry and molecular biology, the Second Edition of this reference has been completely revised and updated, with approximately 16,000 new entries. Names of specific compounds and other substances have been substantially enlarged, and definitions have been expanded for clarity and precision. Information is drawn from over 500 books and 1,000 articles, including recommendations of the Commission on Biochemical Nomenclature, the International Union of Pure and Applied Chemistry, and the International Union of Biochemistry. Terms used by biochemists from a broad range of sciences, such as chemistry, immunology, genetics, virology, biophysics, and microbiology, are included. Abbreviations, both standard and nonstandard, are also provided, as well as cross-referenced synonymous expressions.

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Book SynopsisPattya s Industrial Hygiene and Toxicology Volume 3A, 2nd Edition: Theory and Rationale of Industrial Hygiene Practice: The Work Environment Edited by Lewis J. Cralley & Lester V. Cralley This addition to Pattya s classic reference series discusses the maintenance of standards to assure a safe and healthful working environment.Table of ContentsEthics (G. Kortsha). General Management Principles (M. Lichtenstein). Management Style/System (J. Stelluto). Line Organization (J. Sugg). Organization of Industrial Hygiene (J. Henshaw). Corporate Management of Industrial Hygiene Programs at ForeignLocations (N. Stout). Right-to-know: Communicating Information about Chemical Hazards (J.Silk). Managing Process Safety to Prevent Catastrophes (A. Burk). Regulatory Compliance (E. Baier & J. Pendergrass). Liability (R. Allan). Industrial Hygiene Laboratory (A. Farrar & H. Hurley). Data Management (D. Schoch et al.). Program Evaluation and Audit (J. Lynch & J. Sanderson). Professional Development (G. Devitt). Administrative Education and Training (J. Stewart). Consultants and Their Use (D. McFee & G. Crawford). Professional Working Relationship with Non-occupational-healthProfessionals (M. Robbins). Recruiting (H. Cohen). Salaries and Grades (G. Anderson). Budgeting (J. Holtshouser). Index.

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Book SynopsisContains the procedures previously published in annual volumes 50-59, revised and updated where necessary. Efforts have been made to standardize the style of experimental procedures and the presentation of spectroscopic data. Increasing emphasis on the toxicology of organic compounds has led to the inclusion of additional hazard warnings, particularly for benzene, hexamethylphosphoric triamide (HMPA), and methyl iodide at the many places where they appear. Some experimental procedures have been improved, references have been added, and the index has been greatly expanded and simultaneously consolidated for efficient and easy use.Table of Contents[The numbers in parentheses refer to the annual volume (in boldface type) and page number where each procedure first appeared] Acylamidoalkyl Acetophenones from Substituted Phenethylamines: 2-(2-Acetamidoethyl)-4,5-dimethoxyacetophenone … (56, 3) Thiol Protection with the Acetamidomethyl Group: S-Acetamidomethyl-l-cysteine Hydrochloride … (59, 190) Acetic Formic Anhydride … (50, 1) Acetone Hydrazone … (50, 3) Preparation of Hydrazones: Acetophenone Hydrazone … (50, 102) 3β-Acetoxy-5α-cyanocholestan-7-one … (52, 100) p-Acetyl-α-bromohydrocinnamic Acid … (51, 1) α,β-Dehydrogenation of β-Dicarbonyl Compounds by Selenoxide Elimination: 2-Acetyl-2-cyclohexen-1-one … (59, 58) 2-Acetyl-1,3-cyclopentanedione … (52, 1) 3-Acetyl-2,4-dimethylfuran … (53, 1) 2-Acetyl-6-methoxynaphthalene … (53, 5) Copper Catalyzed Arylation of β-Dicarbonyl Compounds: 2-(1-Acetyl-2-oxopropyl)benzoic Acid … (58, 52) 5-Acetyl- 1,2,3,4,5-pentamethylcyclopentadiene … (56, 1) 2-Adamantanecarbonitrile … (57, 8) Tertiary Alcohols from Hydrocarbons by Ozonation on Silica Gel: 1-Adamantanol … (59, 176) Adamantanone … (53, 8) Enone Reduction-Enolate Alkylation Sequence: 2-Allyl-3-methylcyclohexanone … (56, 52) Preparation of N-Aminoaziridines: trans-1-Amino-2,3-diphenylaziridine, 1-Amino-2-phenylaziridine, and 1-Amino-2-phenylaziridinium Acetate … (55, 114) Reduction of Ketones by Use of the Tosylhydrazone Derivatives: Androstan-17β-Ol … (52, 122) Aldehydes from 4,4-Dimethyl-2-oxazoline and Grignard Reagents: o-Anisaldehyde … (54, 42) [18]Annulene … (54, 1) Azetidine … (53, 13) Azoethane … (52, 11) Diels-Alder Addition of Perchlorobenzyne: Benzobarrelene … (59, 71) Benzocyclopropene … (55, 12) α-Chlorination of Carboxylic Acids Mediated by Chlorosulfonic Acid: &phis;-Benzoylamino-α-chlorocaproic Acid … (59, 20) 1-N-Acylamino-1,3-dienes from 2,4-pentadienoic Acids by the Curtius Rearrangement: Benzyl trans-1,3-Butadiene-1-carbamate … (59, 1) Benzyl Chloromethyl Ether … (52, 16) 1-Benzylindole … (54, 58) N-Alkylindoles from the Alkylation of Sodium Indolide in Hexamethylphosphoric Triamide: 1-Benzylindole … (54, 60) 3-Alkylated and 3-Acylated Indoles from a Common Precursor: 3-Benzylindole and 3-Benzoylindole … (56, 8) Alkylation of Isoquinolines via 2-Benzoyl-1,2-dihydroisoquinaldonitriles: 1-Benzylisoquinoline … (56, 19) The Formation and Alkylation of Specific Enolate Anions from an Unsymmetrical Ketone: 2-Benzyl-2-methylcyclohexanone and 2-Benzyl-6-methylcyclohexanone … (52, 39) Sulfide Synthesis: Benzyl Sulfide … (58, 138) Bicyclo[1.1.0]butane … (51, 55) Boranes in Functionalization of Dienes to Cyclic Ketones: Bicyclo[3.3.1]nonan-9-one … (58, 24) Bicyclo[3.2.1]octan-3-one … (51, 60) Bicyclo[2.1.0]pent-2-ene … (55, 15) Dehydroxylation of Phenols; Hydrogenolysis of Phenolic Ethers: Biphenyl … (51, 82) Controlled-Potential Electrolytic Reduction: 1,1-Bis(bromomethyl)cyclopropane … (52, 22) Bis(trifluoromethyl)diazomethane … (50, 6) Bis[2,2,2-trifluoro-1-phenyl-1-(trifluoromethyl)ethoxy] Diphenyl Sulfurane … (57, 22) Acyloin Condensation in which Chlorotrimethylsilane is Used as a Trapping Agent: 1,2-Bis(trimethylsilyloxy)cyclobutene and 2-Hydroxycyclobutanone … (57, 1) 2-Bornene … (51, 66) Selective α-Bromination of an Aralkyl Ketone with Phenyltrimethylammonium Tribromide: 2-Bromoacetyl-6-methoxynaphthalene and 2,2-Dibromoacetyl-6-methoxynaphthalene … (53, 111) Mercury(II) Oxide-Modified Hunsdiecker Reaction: 1-Bromo-3-chlorocyclobutane … (51, 106) para-Bromination of Aromatic Amines: 4-Bromo-N,N-dimethyl-3-(trifluoromethyl)aniline … (55, 20) Bromohydrins from Alkenes and N-Bromosuccinimide in Dimethyl Sulfoxide; erythro-2-Bromo-1,2-diphenylethanol … (59, 16) Chain Elongation of Alkenes via gem-Dihalocyclopropanes: 2-Bromo-3,3-diphenyl-2-propen-1-yl acetate … (56, 32) 2-Bromohexanoyl Chloride … (55, 27) 1-Bromo-3-methyl-2-butanone … (55, 24) trans, trans-1,3-Butadiene-1,4-diyl Diacetate … (50, 24) A New Reagent for tert-Butoxycarbonylation: 2-tert-Butoxycarbonyloxyimino-2-phenylacetonitrile … (59, 95) tert-Butoxycarbonyl-l-proline … (53, 25) tert-Butyl Azidoformate … (50, 9; 57, 122) tert-Butylcyanoketene … (55, 32) cis-4-tert-Butylcyclohexanol … (50, 13) Polymeric Carbodiimide. Moffat Oxidation: 4-tert-Butylcyclohexanone … (56, 99) Oxidation of Alcohols by Methyl Sulfide- N-Chlorosuccinimide- Triethylamine: 4-tert-Butylcyclohexanone … (58, 122) 2-tert-Butyl-1,3-diaminopropane … (53, 21) Photochemical Ring-Contraction of 2-Ethoxypyrrolin-5-ones to Cyclopropanone Derivatives: tert-Butyl N-(1-Ethoxycyclopropyl)carbamate … (59, 132) Phase-Transfer Hofmann Carbylamine Reaction: tert-Butyl Isocyanide … (55, 96) Sulfide Synthesis in Preparation of Unsymmetrical Dlalkyl Disulfides: sec-Butyl Isopropyl Disulfide … (58, 147) 3-Butyl-2-Methylhept-1-en-3-ol … (52, 19) Monoalkylation of α,β-Unsaturated Ketones via Metalloenamines: 1-Butyl-10-methyl-Δ1(9)-2-octalone (57, 69) β-Diketones from Methyl Alkyl Ketones: 3-n-Butyl-2,4-pentanedione … (51, 90) Secondary and Tertiary Alkyl Ketones from Carboxylic Acid Chlorides and Lithium Phenylthio(alkyl)cuprate Reagents: tert-Butyl Phenyl Ketone … (55, 122) Removal of Nα-Benzyloxycarbonyl Groups from Sulfur-Containing Peptides by Catalytic Hydrogenation in Liquid ammonia: O-tert-Butyl-L-seryl-S-tert-butyl-l-cysteine tert-Butyl Ester … (59, 159) Esterification of Hindered Alcohols: tert-Butyl p-Toluate … (51, 96) Peptide Syntheses Using N-Ethyl-5-phenylisoxazolium-3’-sulfonate: Carbobenzoxy-L-asparaginyl-L-leucine Methyl Ester and N-Carbobenzoxy-3-hydroxy-L-prolylglycylglycine Ethyl Ester … (56, 88) Carbonyl Cyanide … (51, 70) 3-Chlorocyclobutanecarboxylic Acid … (51, 73) (z)-4-Chloro-4-hexenyl Trifluoroacetate … (57, 26) m-Chloroperbenzoic Acid … (50, 15) 3-(4-Chlorophenyl)-5-(4-Methoxyphenyl)Isoxazole … (55, 39) α-Chloro Enamines, Reactive Intermediates for Synthesis: 1-Chloro-N,N,2-trimethylpropenylamine … (59, 26) Modified Clemmensen Reduction: Cholestane … (53, 86) Conjugate Reduction of α,β-Unsaturated p-Toluenesulfonylhydrazones to Alkenes with Catecholborane: 5β-Cholest-3-ene … (59, 42) 5β-Cholest-3-Ene-5-Acetaldehyde … (54, 71) 18-Crown-6 … (57, 30) Cinnamonitrile … (50, 18) Preparation of Cyano Compounds Using Alkylaluminum Intermediates: 1-Cyano-6-methoxy-3,4-Dihydronaphthalene … (52, 96) Cyclobutadieneiron Tricarbonyl … (50, 21) Aldehydes from acid Chlorides by Reduction of Ester-mesylates with Sodium Borohydride: Cyclobutanecarboxaldehyde … (51, 11) Cyclic Ketones from 1,3-Dithiane: Cyclobutanone … (51, 76) Cyclobutanone from Methylenecyclopropane via Oxaspiropentane … (57, 36) Cyclobutanone Via Solvolytic Cyclization … (54, 84) One-carbon Ring Expansion of Cycloalkanones to Conjugated Cycloalkenones: 2-Cyclohepten-1-one … (59, 113) Nitriles from Ketones: Cyclohexanecarbonitrile … (58, 101) Aldehydes from Olefins: Cyclohexanecarboxaldehyde … (57, 11) Catalytic Osmium Tetroxide Oxidation of Olefins: cis-1,2-Cyclohexanediol … (58, 43) Stereoselective Hydroxylation with Thallium(i) Acetate and Iodine: trans- and cis-1,2-Cyclohexanediols … (59, 169) Cleavage of Methyl Ethers with Iodotrimethylsilane: Cyclohexanol from Cyclohexyl Methyl Ether … (59, 35) Preparation of α,β-Unsaturated Aldehydes via the Wittig Reaction: Cyclohexylideneacetaldehyde … (53, 104) Cyclopropenone … (57, 41) Cyclopropyldiphenylsulfonium Tetrafluoroborate … (54, 27) Ring Contraction via a Favorskii-Type Rearrangement: Cycloundecanone … (56, 107) Hydrogenation of Aromatic Nuclei: 1-Decalol … (51, 103) Oxidation with the Chromium Trioxide-Pyridine Complex Prepared in situ: 1-Decanal … (55, 84) Reduction of Alkyl Halides and Tosylates with Sodium Cyanoborohydride in Hexamethylphosphoric Triamide (HMPA): A. 1-Iododecane to n-Decane B. 1-Dodecyl Tosylate to n-Dodecane … (53, 107) Diamantane: Pentacyclo[7.3.1.14,12.02,7.06,11]tetradecane … (53, 30) Macrocyclic Diimines: 1,10-dlazacyclöCtadecane … (54, 88) Dlazoacetophenone … (53, 35) 2-diazocycloalkanones: 2-diazocyclohexanone … (51, 86) 2-diazopropane … (50, 27) Macrocyclic Polyethers: Dibenzo-18-crown-6 Polyether and Dicyclohexyl-18-crown-6 Polyether … (52, 66) 1,2-Diaroylcyclopropanes: trans-1,2-Dibenzoylcyclopropane … (52, 33) α,???-Dibromodibenzyl Sulfone … (50, 31) Phosphine-Nickel Complex Catalyzed Cross-Coupling of Grignard Reagents with Aryl and Alkenyl Halides: 1,2-Dibutylbenzene … (58, 127) Oxidation with Bis(Salicylidene)ethylenediiminocobalt(II) (Salcomine); 2,6-Di-tert-butyl-p-benzoquinone … (57, 78) Diazo Transfer by Means of Phase-transfer Catalysis: Di-tert-Butyl Diazomalonate … (59, 66) Di-tert-butyl Dicarbonate … (57, 45) cis-3,4-Dichlorocyclobutene … (50, 36) cis-Dichloroalkanes from Epoxides: cis-1,2-Dichlorocyclohexane … (58, 64) 2,3-Dicyanobutadiene as a Reactive Intermediate by in situ Generation from 1,2-Dicyanocyclobutene: 2,3-Dicyano-1,4,4a,9a-tetrahydrofluorene … (58, 67) Dideuteriodiazomethane … (53, 38) Diethylaluminum cyanide … (52, 90) Diethylaminosulfur trifluoride … (57, 50) Diethyl tert-Butylmalonate … (50, 38) 2-Trimethylsilyloxy-1,3-butadiene as a Reactive Diene: Diethyl trans-4-Trimethylsilyloxy-4-cyclohexene-1,2-dicarboxylate … (58, 163) Diethyl 2-(Cyclohexylamino)vinylphosphonate … (53, 44) Radical Anion Arylation: Diethyl Phenylphosphonate … (58, 134) Diethyl trans-δ4-Tetrahydrophthalate … (50, 43) Homogeneous Catalytic Hydrogenation: Dihydrocarvone … (53, 63) trans-1,2-Dihydrophthalic Acid … (50, 50) 5,6-Dihydro-2H-pyran-2-one and 2H-Pyran-2-One … (56, 49) 2,4-Dimethoxybenzonitrile … (50, 52) Biaryls from Simple Arenes via Organotellurium Intermediates; 4,4’-Dimethoxy-1,1’-Biphenyl … (57, 18) 6,7-Dimethoxy-3-Isochromanone … (55, 45) Regioselective Mannich Condensation with Dimethyl(methylene)ammonium Trifluoroacetate: 1-Dimethylamino-4-methyl-3-pentanone … (59, 153) Directed Lithiation of Aromatic Compounds: (2-Dimethylamino-5-methylphenyl)diphenylcarbinol … (53, 56) Use of Dipotassium Nitrosodisulfonate (fremy’s Salt): 4,5-Dimethyl-o-Benzoquinone … (52, 88) 1,2-Dimethylcyclobutenes by Reductive Ring-Contraction of Sulfolanes: cis-7,8-Dimethylbicyclo[4.2.0]oct-7-Ene … (57, 53) 4,4’-Dimethyl-1,1’-biphenyl … (55, 48) N,N-Dimethyl-5β-cholest-3-Ene-5-acetamide … (54, 77) Conversion of Esters to Amides with Dimethylaluminum Amides: N,N-Dimethylcyclohexanecarboxamide … (59, 49) 4,4-Dimethyl-2-Cyclohexen-1-one … (53, 48) Reductive Amination with Sodium Cyanoborohydride: N,N- Dimethylcyclohexylamine … (52, 124) N,N-Dimethyldodecylamine Oxide … (50, 56) Dimethyl Nitrosuccinate … (57, 60) Dimethyl 2,3-Pentadienedioate … (57, 62) Allylically Transposed Amines from Allylic Alcohols; 3,7-Dimethyl-1,6-octadien-3-amine … (58, 4) Bicyclic Ketones for The Synthesis of Tropinoids: 2α,4α-Dimethyl-8-oxabicyclo[3.2.1]oct-6-en-3-one … (58, 17) 2,2-Dimethyl-4-Phenylbutyric Acid … (50, 58) Cyclopentenones from α,α’-Dibromoketones and Enamines: 2,5-Dimethyl-3-phenyl-2-cyclopenten-1-one … (58, 56) Alkylations of Aldehydes via Reaction of the Magnesioenamine Salt of an Aldehyde: 2,2-Dimethyl-3-phenylpropionaldehyde … (54, 46) 3,5-Dinitrobenzaldehyde … (53, 52) 2,3-Diphenyl-1,3-butadiene … (50, 62) Reagents for Synthesis of Organoselenium Compounds: Diphenyl Diselenide and Benzeneselenenyl Chloride … (59, 141) Aromatic Hydrocarbons from Aromatic Ketones and Aldehydes: 1,1-Diphenylethane … (55, 7) Nucleophilic α-sec-Aminoalkylation: 2-(Diphenylhydroxymethyl)pyrrolidine … (58, 113) Diphenylketene … (52, 36) Alkenes via Hofmann Elimination: Use of Ion-Exchange Resin for Preparation of Quaternary Ammonium Hydroxides: Diphenylmethyl Vinyl Ether … (55, 3) 2,3-Diphenylvinylene Sulfone … (50, 65) 1,3-Dithiane … (50, 72) 2,2’-Dithienyl Sulfide … (50, 75) Selective Epoxidation of Terminal Double Bonds: 10, 11-Epoxyfarnesyl Acetate … (56, 112) 1-Ethoxy-1-butyne … (57, 65) Demethylation of Methyl Aryl Ethers: 4-Ethoxy-3-hydroxybenzaldehyde … (56, 44) Carbine Generation by α-Elimination with Lithium 2,2,6,6-Tetramethylpiperidide: 1-Ethoxy-2-p-tolylcyclopropane … (58, 37) Esterification of Carboxylic Acids with Trialkyloxonium Salts; Ethyl and Methyl 4-Acetoxybenzoates … (56, 59) ortho-Alkylation of Anilines: Ethyl 4-Amino-3-Methylbenzoate … (56, 15) Ethyl 5β-Cholest-3-ene-5-acetate … (54, 74) Free-Radical Cyclization: Ethyl 1-Cyano-2-Methylcyclohexanecarboxylate … (55, 57) 2,2-(Ethylenedithio)cyclohexanone … (54, 37) A General Synthesis of 4-Isoxazolecarboxylic Esters: Ethyl 3-Ethyl-5-methyl-4-isoxazolecarboxylate … (53, 59) 3-Alkyl-1-alkynes Synthesis: 3-Ethyl-1-hexyne … (58, 1) β-Hydroxy Esters from Ethyl Acetate and Aldehydes or Ketones: Ethyl 1-Hydroxycyclohexylacetate … (53, 66) Indoles from Anilines: Ethyl 2-Methylindole-5-carboxylate … (56, 72) Stereoselective Synthesis of Trisubstituted Olefins: Ethyl 4-Methyl-(E)-4,8-nonadienoate … (53, 116) Metalation of 2-Methylpyridine Derivatives: Ethyl 6-Methylpyridine-2-acetate … (52, 75) Ethyl 1-Naphthylacetate … (50, 77) Ethyl … (E)-3-Nitroacrylate [Replaced by Methyl … (E)-3-Nitroacrylate] … (56, 65; replaced) γ-Ketoesters from Aldehydes via Diethyl Acylsuccinates: Ethyl 4-oxohexanoate … (58, 79) Ethyl Pyrrole-2-Carboxylate … (51, 100) Thiazoles from Ethyl Isocyanoacetate and Thiono Esters: Ethyl Thiazole-4-carboxylate … (59, 183) Carboxylation of Aromatic Compounds: Ferrocenecarboxylic Acid … (56, 28) Fluorinations with Pyridinium Polyhydrogen Fluoride Reagent: 1-Fluoroadamantane … (58, 75) Aldehydes from Aromatic Nitriles: 4-Formylbenzenesulfonamide … (51, 20) Geranyl Chloride … (54, 63) Allylic Chlorides from Allylic Alcohols: Geranyl Chloride … (54, 68) Glutaconaldehyde Sodium Salt From Hydrolysis of Pyridinium-1-sulfonate … (59, 79) Aldehydes from Primary Alcohols by Oxidation with Chromium Trioxide: Heptanal … (52, 5) Conversion of Nitro to Carbonyl by Ozonolysis of Nitronates: 2,5-Heptanedione … (56, 36) Macrocyclic Polyamines: 1,4,7,10,13,16-Hexaäzacycloöctadecane … (58, 86) Cuprous Ion-Catalyzed Oxidative Cleavage of Aromatic o-Diamines by Oxygen:(Z,Z)-2,4-Hexadienedinitrile … (57, 33) Hexafluoroacetone Imine … (50, 81) 3-Trimethylsilyl-3-buten-2-one as Michael Acceptor for Conjugate Addition-Annelation: cis-4,4a,5,6,7,8-Hexahydro-4a,5-dimethyl-2(3H)-naphthalenone … (58, 158) Nitrones for Intramolecular 1,3-Dipolar Cycloadditions: Hexahydro-1,3,3,6-tetramethyl-2,1-benzisoxazoline … (58, 106) (E)-4-Hexen-1-ol … (55, 62) Fragmentation of α,β-Epoxyketones to Acetylenic Aldehydes and Ketones: Preparation of 2,3-Epoxycyclohexanone and its Fragmentation to 5-Hexynal … (55, 52) γ-Hydroxy-α,β-Unsaturated Aldehydes via 1,3-Bis(methylthio)allyllithium: trans-4-Hydroxy-2-hexenal … (54, 19) 17β-Hydroxy-5-oxo-3,5-seco-4-norandrostane-3-carboxylic Acid … (55, 67) Directed Aldol Condensations: threo-4-Hydroxy-3-phenyl-2-heptanone … (54, 49) Macrolides from Cyclization of ω-Bromocarboxylic Acids: 11-Hydroxyundecanoic Lactone … (58, 98) Direct Iodination of Polyalkylbenzenes: Iododurene … (51, 94) trans-Iodopropenylation of Alkyl Halides: (E)-1-Iodo-4-phenyl-2-butene … (56, 77) 2-Iodo-p-xylene … (55, 70) cis-α,β-Unsaturated Acids: Isocrotonic Acid … (53, 123) Trichloromethyl Chloroformate as a Phosgene Equivalent: 3-Isocyanatopropanoyl Chloride … (59, 195) Hydroboration of Olefins: (+)-Isopinocampheol [Replaced by (—)-Isopinocampheol] … (52, 59) (—)-Isopinocampheol (New) Reaction of Aryl Halides with π-Allylnickel Halides: Methallylbenzene … (52, 115) Sulfonyl Cyanides: Methanesulfonyl Cyanide … (57, 88) 1,6-Methano[10]annulene … (54, 11) Vinyl Sulfides from Thioacetals with Copper(I) Trifluoromethanesulfonate: (Z)-2-Methoxy-1-phenylthio-1,3-butadiene … (59, 202) 6-Methoxy-β-tetralone … (51, 109) Methyl Groups by Reduction of Aromatic Carboxylic Acids with Trichlorosilane-tri-n-propylamine: 2-Methylbiphenyl … (56, 83) 1-d-Aldehydes from Organometallic Reagents: 2-Methylbutanal-1-d … (51, 31) Preparation of Vinyl Trifluoromethanesulfonates: 3-methyl-2-buten-2-yl Triflate … (54, 79) Preparation and Reductive Cleavage of Enol Phosphates: 5-Methylcoprost-3-Ene … (52, 109) Oxymercuration-Reduction: Alcohols from Olefins: 1-Methylcyclohexanol … (53, 94) Reductive Cleavage of Allylic Alcohols, Ethers, or Acetates to Olefins: 3-Methylcyclohexene … (56, 101) γ-Ketoesters to Prepare Cyclic Diketones: 2-Methyl-1,3-cyclopentanedione … (58, 83) Sulfide Contraction via Alkylative Coupling: 3-Methyl-2,4-Heptanedione … (55, 127) Isoxazole Annelation Reaction: 1-Methyl-4,4a,5,6,7,8-Hexahydronaphthalen-2(3H)-one … (53, 70) Addition of Organolithium Reagents to Allyl Alcohol: 2-Methyl-1-Hexanol … (55, 1) Conversion of Primary Alcohols to Urethanes via the Inner Salt of Methyl (carboxysulfamoyl)Triethylammonium Hydroxide: Methyl n-Hexylcarbamate … (56, 40) Methyl 2-Alkynoates from 3-Alkyl-2-pyrazolin-5-ones: Methyl 2-Hexynoate … (55, 73) Methyl (trans-2-Iodo-1-Tetralin)carbamate … (51, 112) Methyl Nitroacetate … (55, 77) Methyl (E)-3-Nitroacrylate (New) 2-Methyl-2-nitrosopropane and Its Dimer … (52, 77) Nucleophilic Acylation with Disodium Tetracarbonylferrate: Methyl 7-Oxoheptanoate and Methyl 7-Oxoöctanoate … (59, 102) Aldehydes from Allylic Alcohols and Phenylpalladium Acetate: 2-Methyl-3-phenylpropionalde … (51, 17) Endocyclic Enamine Synthesis: N-Methyl-2-phenyl-Δ2-tetrahydropyridine … (54, 93) Hydrogenolysis of Carbon-Halogen Bonds with Chromium(II)-en Perchlorate: Naphthalene from 1-Bromonaphthalene … (52, 62) Thiophenols from Phenols: 2-Naphthalenethiol … (51, 139) S(-)-α-(1-Naphthyl)ethylamine … (55, 80) Alkyl Iodides: Neopentyl Iodide and Iodocyclohexane … (51, 44) Sulfide Synthesis in Preparation of Dialkyl and Alkyl Aryl Sulfides: Neopentyl Phenyl Sulfide (58, 143) 4-Nitrobenzyl Fluoride … (57, 72) 1-Nitrocycloöctene … (50, 84) Formation and Photochemical Wolff Rearrangement of Cyclic α-Diazo Ketones: D-Norandrost-5-en-3β-ol-16-carboxylic Acids … (52, 53) Highly Reactive Magnesium for the Preparation of Griignard Reagents: 1-Norbornanecarboxylic Acid … (59, 85) Δ9,10-Octalin … (50, 88) 2,2,7,7,12,12,17,17-Octamethyl-21,22,23,24-tetraoxaperhydroquaterene … (57, 74) Orcinol Monomethyl Ether … (53, 90) 1,6-Oxido[10]annulene … (55, 86) Cyanide-Catalyzed Conjugate Addition of Aryl Aldehydes: 4-Oxo-4-(3-pyridyl)butyronitrile … (59, 53) Aldehydes from sym-Trithlane: n-Pentadecanal … (51, 39) (Pentafluorophenyl)acetonitrile … (57, 80) Pentafluorophenylcopper Tetramer, a Reagent for Synthesis of Fluorinated Aromatic Compounds … (59, 122) trans-3-Penten-2-one … (51, 115) Arene Oxide Synthesis: Phenanthrene-9,10-oxide … (58, 12) Free-Radical Alkylation of Quinones: 2-Phenoxymethyl-1,4-Benzoquinone … (56, 68) 3-Phenyl-2H-azirine-2-carboxaldehyde … (57, 83) Phase-Transfer Alkylation of Nitriles: 2-Phenylbutyronitrile … (55, 91) Directed Aldol Condensations: β- Phenylcinnamaldehyde … (50, 66) Aldehydes from 2-Benzyl-4,4,6-Trimethyl-5,6-dihydro-1,3(4H)-oxazine: 1-Phenylcyclopentanecarboxaldehyde … (51, 24) Amines from Mixed Carboxylic-Carbonic Anhydrides: 1-Phenylcyclopentylamine … (51, 48) cis-2-Phenylcyclofropanecarboxylic Acid … (50, 94) Substitution of Aryl Halides with Copper(i) Acetylides: 2-Phenylfuro[3,2-b]pyridine … (52, 128) Ketones and Alcohols from Organoboranes: Phenyl Heptyl Ketone, 1-Hexanol, and 1-Octanol … (53, 77) 1-Phenyl-1,4-pentadiyne and 1-Phenyl-1,3-pentadiyne … (50, 97) Phenylation with Diphenyliodonium Chloride; 1-Phenyl-2,4-pentanedione … (51, 128) 1-Phenyl-4-phosphorinanone … (53, 98) 4-Phenyl-1,2,4-triazoline-3,5-dione … (51, 121) 2-Phenyl-2-vinylbutyronitrile … (55, 99) Boranes in Functionalization of Olefins to Amines: 3-Pinanamine … (58, 32) Allylic Oxidation with Hydrogen Peroxide-Selenium Dioxide: trans-Pinocarveol … (56, 25) Base-Induced Rearrangement of Epoxides to Allylic Alcohols: trans-Pinocarveol … (53, 17) Polymeric Carbodiimide. Preparation … (56, 95) Alkynes via Phase Transfer—Catalyzed Dehydrohalogenation: Propiolaldehyde Diethyl Acetal … (59, 10) Rearrangement of Bridgehead Alcohols to Polycyclic Ketones by Fragmentation-Cyclization: 4-Protoadamantanone (Tricyclo[4.3.1.03.8]Decan-4-One) … (59, 147) Quadricyclane … (51, 133) 1,2,3,4-Tetrahydro-β-Carboline … (51, 136) Aziridines from β-Iodocarbamates: 1,2,3,4-Tetrahydronaphthalene(1,2)Imine (51, 53) 2,3,4,5-Tetrahydropyridine Trimer … (56, 118) 3,3,6,6-Tetramethoxy-1,4-Cyclohexadiene … (57, 92) 2,2,3,3-Tetramethyliodocyclopropane … (52, 132) 4H-1,4-Thiazine l,1-Dioxide … (52, 135) 2-Thiophenethiol … (50, 104) p-Tolylsulfonyldiazomethane … (57, 95) p-Tolylsulfonylmethyl Isocyanide … (57, 102) Tri-tert-Butylcyclopropenyl Tetrafluoroborate … (54, 97) Tricarbonyl[2,3,4,5-η)-2,4,-Cyclohexadien-1-One]Iron and Tricarbonyl[(1,2,3,4,5-η)-2-Methyoxy-2,4-Cyclohexadien-1-Yl]Iron(1+) Hexafluorophosphate(1—) from Anisole … (57, 107) Alkylation of Dimedone with a Tricarbonyl(diene)Iron Complex: Tricarbonyl[2-[2,3,4,5-η)-4-Methoxy-2,4-Cyclohexadien-1-yl]-5,5-Dimethyl-1,3-Cyclohexanedione]iron … (57, 16) Cyclobutadiene in Synthesis: endo-Tricyclo[4.4.0.02,5]Deca-3,8-Diene-7,10-Dione … (55, 43) Trifluoroacetylation of Amines and Amino Acids Under Neutral, Mild Conditions: N-Trifluoroacetanilide and N-Trifluoroacetyl-L-Tyrosine … (56, 122) Aldehydes from Acid Chlorides by Modified Rosenmund Reduction: 3,4,5-Trimethoxybenzaldehyde … (51, 8) Oxidation with the Nitrosodisulfonate Radical. I. Preparation and Use of Disodium Nitrosodisulfonate: Trimethyl-p-Benzoquinone … (52, 83) 2,2-(Trimethylenedithio)Cyclohexanone … (54, 39) Trimethylene Dithiotosylate and Ethylene Dithiotosylate … (54, 33) Trimethyloxonium Tetrafluoroborate … (51, 142) 3,5,5-Trimethyl-2-(2-Oxopropyl)-2-Cyclohexen-1-One … (57, 113) Aldehydes by Oxidation of Terminal Olefins with Chromyl Chloride: 2,4,4-Trimethylpentanal … (51, 4) Trimethylsilyl Azide … (50, 107) 3-Trimethylsilyl-3-Buten-2-One: a Michael Acceptor … (58, 152) Tropolone … (57, 117) Preparation of Alkenes by Reaction of Lithium Dipropenylcuprates with Alkyl Halides: (E)-2-Undecene … (55, 103; deleted) General Index Frmula Index Hazard Index Author Index Concordance Index

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Book SynopsisIn the 1960s, the development of inductively coupled plasmas (ICP) as excitation sources for atomic emission spectroscopy (AES) permitted, for the first time, the convenient, simultaneous determination of a number of chemical elements in solutions. In two self-contained volumes, this is the first definitive text/reference on ICP-AES since the introduction of this important analytical technique. Part 1 of Inductively Coupled Plasma Emission Spectroscopy covers the basis of ICP-AES as an analytical method and discusses fundamental analytical concepts, performance, and figures of merit; principles of the instrumentation; the relation between ICP and other modern plasma sources; and the connection between ICP-AES, on one hand, and ICP atomic fluorescence spectroscopy and ICP mass spectroscopy, on the other. Part 2 examines applications and fundamentals of the technique. The overall treatment of the subject is tutorial, systematic, and consistent. The approach is scientific and riTable of ContentsApplications: Metals and Industrial Materials (K. Ohls and D.Sommer). Applications: Geological (J. Burman). Applications: Environmental (J. McLaren). Applications: Agriculture and Food (B. Sharp). Applications: Biological Clinical (F. Maessen). Applications: Organics (A. Boorn and R. Browner). Direct Elemental Analysis of Solids by Inductively Coupled PlasmaEmission Spectrometry (J. Van Loon et al.). Fundamental Aspects of Aerosol Generation and Transport (R.Browner). Plasma Modeling and Computer Simulation (M. Bouros & R.Barnes). Spectroscopic Diagnostics: Basic Concepts (J. Mermet). Excitation Mechanisms and Discharge Characteristics: RecentDevelopments (M. Blades). Status and Trends of Development of Atomic Spectrometric Methodsfor Elemental Trace Determinations (J. Broekaert & G.Tolg). Index.

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Book SynopsisStudies based on the building block approach technique are used by the author to investigate fundamental questions relevant to the development and commercial production of industrial chemicals.Table of ContentsBACKROUND MATERIAL. Sources, Production Pathways, and Pricing of Industrial OrganicChemicals. ALIPHATIC BUILDING BLOCKS. C1 Building Blocks. C2 Building Blocks. C3 Building Blocks. C4 Building Blocks, Including Isoprene and Cyclopentadiene. C5 and Higher Acyclic Building Blocks. CYCLIC BUILDING BLOCKS. Nonaromatic Carbocyclic Compounds. Aromatic Carbocyclic Compounds. Heterocyclic Building Blocks. Index.

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Book SynopsisUpdated every five years, the series represents the optimal compromise between currency and a sufficient body of material for cohesive and comprehensive treatment in a monograph. Provides a quick yet thorough overview of the synthetic routines that have been used to access specific classes of therapeutic agents. Materials are organized by chemical class, and syntheses are taken back to available starting materials. Discusses disease state, rational for method of drug therapy, biological activities of each compound and preparation. Coverage also includes those generic pharmaceutical compounds not accorded clinical status. A glossary defines biological terms.Table of ContentsAliphatic and Alicyclic Compounds. Monocyclic Aromatic Compounds. Polycyclic Aromatic Compounds and Their Reduction Products. Steroids. Five-Membered Ring Heterocycles. Six-Membered Ring Heterocycles. Five-Membered Ring Benzofused Heterocycles. Six-Membered Ring Benzofused Heterocycles. Bicyclic Fused Heterocycles. beta-Lactam Antibiotics. Miscellaneous Heterocycles. Indexes.

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Book SynopsisCovers the intermolecular Diels-Alder reaction, focusing on one of the reactants--the diene. The first chapter deals with the fundamental principles of the reaction; the other five chapters describe the salient features of the different classes of dienes and present a wealth of tabulated data. In the tables the dienes and the dienophiles are arranged so that the reader can easily find the dienophile and the cycloaddition reactions of interest to him. Included are references to a very large part of the literature from 1978 to 1987.Table of ContentsDiels-Alder Reaction. Open-Chain Dienes. Outer-Ring Dienes. Inner-Outer-Ring Dienes. Across-Rings Dienes. Inner-Ring Dienes. Index.

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Book SynopsisAn overview of the petrochemical industry from the perspective of the author's experience with Standard Oil, Scientific Design Co and Chemical Systems, Inc, which considers its unusually rapid growth from its birth in the 1920s to maturity in the late 1970s.Table of ContentsPartial table of contents: The German Chemical Industry: Chemicals From Coal. Early Petrochemical Production in the United States. Cat Crackers: Wartime Fuels - and Petrochemical RawMaterials. Aromatic Feedstocks From Petroleum: Universal Oil Products Company(UOP). The Old Order: Cooperation and Cartels. Plastics: The Engine for Growth. From Cellulosic to Synthetic Fibers. The Rush into Petrochemicals. International Development and Growth. Winners and Losers: The Case of Vinyl Chloride. Large Plants: The New Economics. The 1970s: Discontinuities and Uncertainties. The Once and Future Industry. Appendix: Description of Technical Terms. Subject Index. Chemical Index.

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Book SynopsisIntroduction to Radiation Chemistry Third Edition J. W. T. Spinks and R. J. Woods The only single source guide to radiation chemistry has now been expanded to include new material on applied radiation chemistry and experimental methods, as well as gaseous and solid systems. Other enhancements include broadened coverage of chemical reactions initiated by high-energy and their commercial applications, as well as new topics related to kinetics and experimental procedures. The Third Edition features numerical data in Sl units, simplifying most radiation-chemical calculations, an expanded problem section, and key references updated to reflect recent research. 1990 (0 471-61403-3) 574 pp. The Elements Beyond Uranium Glenn T. Seaborg and Walter D. Loveland Written by the team of Nobel Laureate Glenn Seaborg--an active participant in the discovery of transuranium elements--and leading chemist, Walter Loveland, here is a unique inside account of the discovery of these elements as well as the fiTable of ContentsAtomic Nuclei. Radioactive Decay Processes. Nuclear Reactions. Equations of Decay and Growth. Interactions of Radiation with Matter. Radiation Detection and Measurement. Techniques in Nuclear Chemistry. Statistical Considerations in Radioactivity Measurements. Nuclear Models. Radiochemical Applications. Nuclear Processes as Chemical Probes. Nuclear Processes in Geology and Astrophysics. Nuclear Energy. Sources of Nuclear Bombarding Particles. Appendices. Index.

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Book SynopsisThe first up--to--date summary and review for the fundamental principles and industrial practice of adsorption separation processes in more than 30 years. Emphasizes the understanding of adsorption column dynamics and the modeling of adsorption systems, as well as fundamental aspects of kinetics and equilibria.Table of ContentsList of Symbols. Microporous Adsorbents. Physical Adsorption and the Characterization of PorousAdsorbents. Thermodynamics of Adsorption. Correlation, Analysis, and Prediction of AdsorptionEquilibria. Diffusion in Porous Media. Kinetics of Sorption in Batch Systems. Flow Through Packed Beds. Dynamics of Adsorption Columns: Single-Transition Systems. Dynamics of Adsorption Columns: Multiple Transition Systems. Chromatographic Separation Processes. Adsorption Separation Processes: I. Cyclic Batch Systems. Adsorption Separation Processes: II. Continous Counter Current Systems. Appendixes. Index.

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Book SynopsisThe Fieser and Fieser series has provided several generations of professional chemists and students with an up-to-date survey of the reagent literature, with information in alphabetical order by common name.Table of ContentsIntroduction. Reagents (A to Z). Suppliers. Index of Apparatus. Index of Reagents According to Types. Author Index. Subject Index.

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Book SynopsisFurther Mathematics for the Physical Sciences Further Mathematics for the Physical Sciences aims to build upon the readera s knowledge of basic mathematical methods, through a gradual progression to more advanced methods and techniques.Table of ContentsCOMPLEX NUMBERS. Introducing Complex Numbers. Polar Representation of Complex Numbers. Demoivre's Theorem and Complex Algebra. VECTOR ALGEBRA. Scalar Products of Vectors. Vector Products of Vectors. DETERMINANTS AND MATRICES. Determinants. Matrices. DIFFERENTIATION, EXPANSION AND APPROXIMATION. Expansions and Approximations. Taylor Expansions and Polynomial Approximations. Hyperbolic Functions and Differentiation. INTEGRATION, SUMMATION AND AVERAGING. Areas, Volumes and Averages. Special Integration Techniques. DIFFERENTIAL EQUATIONS. Formulating and Classifying Differential Equations. Solving First-Order Differential Equations. Solving Second-Order Differential Equations. Waves and Partial Differential Equations. VECTOR CALCULUS. Differentiating Vectors. Integrating Vectors. Appendix. Answers and Comments. Index.

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Book SynopsisRevised to reflect the continuing and growing importance of research and development within this field, The Manipulation of Air--Sensitive Compounds, 2nd Edition offers state--of--the--art methods used in handling air--sensitive compounds, including gases. Part One covers inert atmosphere techniques, while Part Two treats vacuum line techniques.Table of ContentsINERT ATMOSPHERE TECHINQUES. Bench-Top Inert-Atmosphere Techniques. Inert-Atmosphere Glove Boxes. Inert Gases and Their Purification. Purification of Solvents and Reagents. Vacuum Line Design and Operation. Pumps for Rough and High Vacuum. Pressure and Flow Measurement and Leak Detection. Joints, Stopcocks, and Valves. Specialized Vacuum-Line Equipment and Operations. Metal Systems. Metal Systems. Appendixes. Index.

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