Chemistry Books

Book Synopsisaeo a structured introduction to free radical chemistry from an organic chemistry perspective aeo highlights the importance of radical, radical anion and radical cation reactions in synthesis aeo with case studies to illustrate reactions in a landmarka syntheses aeo problems (with outline answers) to test the readera s understanding.Table of ContentsChemical Abbreviations. Preface. 1. Radicals and their Importance. 2. The basics. 3. Radical Initiation. 4. Radical Reactions. 5. Radicals in Synthesis. 6. Foundational Group Transformations. 7. Intramolecular Cyclization Reactions. 8. Intermolecular Reactions. 9. Radical Translocation Reactions. 10. Radical Anions. 11. Radical Cations. Questions. Outline Answers. Further Reading. Index.

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Book SynopsisPeople protest to try to change the world, because they think they can help change the world, and sometimes they do. But not by themselves, and generally not just how and when they want. This incisive book explains how groups of ordinary individuals can affect the world, what makes it possible when it works, and why it sometimes doesn't go to plan. Digging into previous scholarship on social movements, David S. Meyer looks at the origins of social movements, how they contrast with revolutionary campaigns, and assesses the periodic influence of activists on politics, policy, culture, and the way people live their lives. He concludes by stressing the narratives about political change that activists construct and the power that lies in these stories. With sharp insight and a wealth of intriguing cases, this book offers a fuller understanding of the politics and potential payoffs of protest politics.?Trade Review“With characteristic eloquence and humor, realism and optimism, David Meyer has given us a new book about the success (sometimes) of social movements, both in America and abroad. Readers will appreciate Meyer’s talent for synthesis, presenting complex arguments with clarity, and unearthing the deeper meanings behind familiar tropes. In a world that has become ever more protest-prone, Meyer’s book will take its place alongside classics like Tilly’s From Mobilization to Revolution and Gamson’s Strategy of Social Protest.”Sidney Tarrow, author of Power in Movement “David Meyer draws on expertise accumulated through a career studying and analyzing social movements to take the reader through the lifecycle of a social movement to understand how social movements sometimes lead to protest in the streets, revolution, political change, and all sorts of social and cultural outcomes.”Dana R. Fisher, University of MarylandTable of ContentsIntroduction Chapter 1. Why Movements Emerge and How They Work Chapter 2. Protest, Revolution, and Regime Change Chapter 3. Protest and Policy Chapter 4. Protest, Organizations, and Institutionalization Chapter 5. Protest Movements, Culture, and Participants Chapter 6. Claiming Credit References

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Book SynopsisThis is currently the only book available on the development of knowledge-based, and related, expert systems in chemistry and toxicology. Written by a pioneer in the field, it shows how computers can work with qualitative information where precise numerical methods are not satisfactory. An underlying theme is the current concern in society about the conflicts between basing decisions on reasoned judgements and wanting precise decisions and measurable effectiveness. As well as explaining how the computer programs work, the book provides insights into how personal and political factors influence scientific progress. The introduction of regulations such as REACH in Europe and modifications to UN and OECD Guidelines on assessment of chemical hazard mean that the use of toxicity prediction is at a turning point. They put a heavy burden on the chemical industry but, for the first time, allow for the use of computer prediction to support or replace in vivo and in vitro experiments. There is iTable of ContentsIntroduction Knowledge-Based Approach to Synthesis Planning EROS and CAMEO Spin-off from the Harvard project Structure, sub-structure and super-structure searching - technical Structure representations Explicit and implicit hydrogen atoms Aromaticity, tautomerism, stereochemistry Predicting toxicity - DEREK PHARM-MATCH and TOX-MATCH, Oncologic, and HazardExpert TopKat and Multicase The 2D/2.5D/3D debate Using reasoning - Derek for Windows Predicting metabolism - Meteor Relative reasoning Biodegradation Other potential applications Consensus modelling Evaluation and Validation Conclusions/Where now?

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Book SynopsisThe application of chemistry within archaeology is an important and fascinating area. It allows the archaeologist to answer such questions as what is this artefact made of?, where did it come from? and how has it been changed through burial in the ground?, providing pointers to the earliest history of mankind. Archaeological Chemistry begins with a brief description of the goals and history of archaeological science, and the place of chemistry within it. It sets out the most widely used analytical techniques in archaeology and compares them in the light of relevant applications. The book includes an analysis of several specific archaeological investigations in which chemistry has been employed in tracing the origins of or in preserving artefacts. The choice of these investigations conforms to themes based on analytical techniques, and includes chapters on obsidian, ceramics, glass, metals and resins. Finally, it suggests a future role for chemical and biochemical applications in archaeology. Archaeological Chemistry enables scientists to tackle the fundamental issues of chemical change in the archaeological materials, in order to advance the study of the past. It will prove an essential companion to students in archaeological science and chemistry, field and museum archaeologists, and all those involved in conserving human artefacts.Trade Review"...an excellent, up-to-date sourcebook and companion guide...""An authentic snapshot of current chemical applications in archaeology.""... a comprehensive and current textbook badly needed ...""I cannot recommend this book too highly...""Archaeological Chemistry will make a fine collection to your library of reference books on instrumental analytical techniques. Perhaps reading the book will assist in solving an unsolved mystery in archaeology.""...An excellent reference resource... this book presents a comprehensive overview of a number of chemical applications within archaeology.""In any case this book is strongly recommended as an obligatory text for all chemists, who want to understand the role of chemistry, and in particular analytical chemistry, in our past history and present culture."Table of ContentsThe Development of Archaeological Chemistry; Analytical Techniques Applied to Archaeology; Obsidian Characterization in the Eastern Mediterranean; The Geochemistry of Clays and the Provenance of Ceramics; The Chemistry and Corrosion of Archaeological Glass; The Chemical Study of Metals - The European Medieval and Later Brass Industry; The Chemistry and Use of Resinous Substances; Amino Acid Stereochemistry and the First Americans; Lead Isotope Geochemistry and the trade in Metals; Summary - Whither Archaeological Chemistry?; Appendix I: The Structure of the Atom and the Electromagnetic Spectrum; Appendix II: Isotopes; Appendix III: Fundamental Constants; Appendix IV: Atomic Number and the Approximate Weights of the Elements; Appendix V: Periodic Table of the Elements; Subject Index.

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Book SynopsisAs modern day society takes an increasing interest in outdoor activities, its exposure to sunlight has never been greater. As a consequence, countries throughout the world are experiencing a dramatic increase in the incidences of skin carcinomas and melanomas. From DNA photolesions to mutations, skin cancer and cell death provides an authoritative source of information for photobiologists interested in the series of genetic events that occur in the skin, and eventually lead to cancer. With contributions from eminent scientists in the field, this book includes the latest information on DNA photolesions and repair, as well as the key mechanisms of solar UV in skin cancer initiation and development. Significant information relating to UV-induced photolesions and mechanisms of skin tumour occurrence is also included. By providing the basic phenomena underlying the science and an overview of the biological events that take place when cells are exposed to solar UV radiation, From DNA photoleTable of ContentsChapter 1: UVB and UVA Induced Formation of Photoproducts within Cellular DNA; Chapter 2: Chemical Sequencing Profiles of Photosensitized DNA Damage; Chapter 3: DNA damage induced by UVA radiation: role in solar mutagenesis; Chapter 4: Mutations induced by UV and sunlight; Chapter 5: Mechanisms and Mutagenic Consequences of Photoproduct Bypass by Replicative and DNA Damage Bypass Polymerases; Chapter 6: The Ogg1 Protein of Saccharomyces cerevisiae: Properties and Biological Functions; Chapter 7: The role of a yeast homologue of the human phosphatase activator hPTPA in the cellular response to oxidative DNA damage; Chapter 8: DNA repair in RNA polymerase I transcribed genes; Chapter 9: Global Genome Nucleotide Excision Repair: Key Players and Their Functions; Chapter 10: Efficient Repair of UV-Induced DNA Damage in Terminally Differentiated Human Keratinocytes; Chapter 11: Reactivation of UV-damaged viruses and reporter genes in mammalian cells; Chapter 12: Transcription of p53-regulated genes under transcriptional stress: implications for nucleotide excision repair; Chapter 13: What a difference a wavelength makes: The role of p53 in nucleotide excision repair of UV-induced DNA damage; Chapter 14: p53 and p33ING1: Role in Nucleotide Excision Repair of UV-Damaged DNA; Chapter 15: Nuclear and Non-Nuclear Signals Leading to UV-induced Apoptosis; Chapter 16: Opposing roles of UV-induced apoptosis in early skin cancer; Chapter 17: Acquired activation of signalling pathways in skin tumours from DNA repair-deficient xeroderma pigmentosum patients; Chapter 18: Chaos Theory and Self-Organized Criticality Describe the DNA Damage Signal transduction Network;

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Book SynopsisThe latest volume in the successful Special Publication Series captures the most recent research findings in the field of food hydrocolloids. The impressive list of contributions from international experts includes topics such as: * Hydrocolloids as dietary fibre * The role of hydrocolloids in controlling the microstructure of foods * The characterisation of hydrocolloids * Rheological properties * The influence of hydrocolloids on emulsion stability * Low moisture systems * Applications of hydrocolloids in food products Gums and Stabilisers for the Food Industry 12, with its wide breadth of coverage, will be of great value to all who research, produce, process or use hydrocolloids, both in industry and academia.Table of ContentsApplications of hydrocolloids; Rheological properties of hydrocolloids; Mixed hydrocolloid systems; Chemical, biochemical and physicochemical characterisation of hydrocolloids; Role of hydrocolloids on the stability of emulsions; Hydrocolloids in low moisture systems; Hydrocolloids as dietary fibre: from structure to functionality; Subject Index.

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Book SynopsisCannabis sativa is best known as the source of marijuana, the world's most widely consumed illicit recreational drug. However, the plant is also extremely useful as a source of stem fiber, edible seed oil, and medicinal compounds, all of which are undergoing extremely promising research, technological applications, and business investment. Indeed, despite its capacity for harm as a recreational drug, cannabis has phenomenal potential for providing new products to benefit society and for generating extensive employment and huge profits. Misguided policies, until recently, have prevented legitimate research on the beneficial properties of cannabis, but there is now an explosion of societal, scientific, and political support to reappraise and remove some of the barriers to usage. Unfortunately, there is also a corresponding dearth of objective analysis. Towards redressing the limitation of information, Cannabis: A Complete Guide is a comprehensive reference summaTrade ReviewIf one is looking for a recent and comprehensive volume on cannabis, this is it! From general knowledge to the arcane, this near-exhaustive CRC Press volume covers the natural and anthropological history, biochemistry, taxonomy, biology, and uses of cannabis. The chapter entitled "The Commercial Marijuana Revolution" provides a brief and informative history and analysis of legalized/commercial marijuana in the US. This well-annotated, science-based volume considers both hemp and marijuana, as well as their near relatives. The volume is documented and illustrated well; it contains color photos, high quality illustrations, and diagrams. A touch of humor is added to the subject, with references to the "hemp car" and depictions of pot growers from the 1970s through the present era. The chapters "Medical Marijuana: Theory and Practice" and "Medical Marijuana: Production" are useful and informative for those interested in the actual science of this topic, as well as discussions pertaining to the history of cannabis use and the potential for treating multiple medical and psychological conditions.--S. T. Meiers, Western Illinois University Summing Up: Recommended. Lower-division undergraduates and above; faculty and professionals.Source: October 2017 issue of CHOICEIn addition to the potential interest of scientific, scholarly and administrative specialists, the general public ought to find Small’s new book worthy of detailed reference because of the vast and still growing concern today in Cannabis. In sum and without reservation, I would recommend that readers with an inquisitive and intellectual passion for having a vast amount of information about one of the world’s most useful and yet most notorious groups of plants obtain Ernest Small’s latest and by far his most comprehensive Cannabis publication.- Mark Merlin, University of Hawai'i at Manoa, USASource: Economic Botany, Winter 2017If one is looking for a recent and comprehensive volume on cannabis, this is it! From general knowledge to the arcane, this near-exhaustive CRC Press volume covers the natural and anthropological history, biochemistry, taxonomy, biology, and uses of cannabis. The chapter entitled "The Commercial Marijuana Revolution" provides a brief and informative history and analysis of legalized/commercial marijuana in the US. This well-annotated, science-based volume considers both hemp and marijuana, as well as their near relatives. The volume is documented and illustrated well; it contains color photos, high quality illustrations, and diagrams. A touch of humor is added to the subject, with references to the "hemp car" and depictions of pot growers from the 1970s through the present era. The chapters "Medical Marijuana: Theory and Practice" and "Medical Marijuana: Production" are useful and informative for those interested in the actual science of this topic, as well as discussions pertaining to the history of cannabis use and the potential for treating multiple medical and psychological conditions.--S. T. Meiers, Western Illinois University Summing Up: Recommended. Lower-division undergraduates and above; faculty and professionals.Source: October 2017 issue of CHOICEIn addition to the potential interest of scientific, scholarly and administrative specialists, the general public ought to find Small’s new book worthy of detailed reference because of the vast and still growing concern today in Cannabis. In sum and without reservation, I would recommend that readers with an inquisitive and intellectual passion for having a vast amount of information about one of the world’s most useful and yet most notorious groups of plants obtain Ernest Small’s latest and by far his most comprehensive Cannabis publication.- Mark Merlin, University of Hawai'i at Manoa, USASource: Economic Botany, Winter 2017Table of ContentsIntroduction. Prehuman and Early History of Cannabis Sativa. The Ecology of Wild Cannabis Sativa. Sex Expression. Photoperiodism. Shoot and Foliage Architecture. Fiber. Oilseed. Essential Oil. Minor Uses. Cannabis Chemistry: Cannabinoids in Cannabis, Humans, and other Species. Non-Medical Drug Use. Medical Marijuana. Cannabusiness: The Legitimate Marijuana Industry. Sustainability. Germplasm Resources. Botanical Classification and Nomenclatural Issues. Literature Cited. Guide to Cultivars.

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Book SynopsisRomanian ethnomedicinal knowledge extends as far back as the 16th century to the Geto-Dacian priests who used medicinal plants and practiced integrated holistic medicine. The ethnomedicine continued in monasteries by monks who used cultivated medicinal plants and wild harvested plants. There are now over 800 species of medicinal plants in Romania. An earlier work last century entitled âœPharmaceutical Botany: the Culture and Harvest of Pharmaceutical Plantsâ by GrinÅescu refers to approximately 500 Romanian healing plants, although most of them are not recognized in modern medicine. There is clear evidence of ethnomedicine in this important region, particularly those that are endangered.Features: Provides an understanding of indigenous plant-derived natural medicines of Romania Discusses selected plant families that are representative members of the most important medicinal plants in the region Includes discussions and critical views on the potential and challenges for further development of the selected plants in a modern setting Details the important plants and organizes the chapters based on either taxonomy or medical use Covers traditional and folk medicine of Romania

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Book Synopsis3D Printing: Fundamentals to Emerging Applications discusses the fundamentals of 3D-printing technologies and their emerging applications in many important sectors such as energy, biomedicals, and sensors. Top international authors in their fields cover the fundamentals of 3D-printing technologies for batteries, supercapacitors, fuel cells, sensors, and biomedical and other emerging applications. They also address current challenges and possible solutions in 3D-printing technologies for advanced applications.Key features: Addresses the state-of-the-art progress and challenges in 3D-printing technologies Explores the use of various materials in 3D printing for advanced applications Covers fundamentals of the electrochemical behavior of various materials for energy applications Provides new direction and enables understanding of the chemistry, electrochemical properties, and technologies for 3D printing This is a must-haveTable of ContentsINTRODUCTION. 3D-printing: An introduction. Energy materials for 3D-printing. Nanoinks for 3D-printing. Functional nanomaterials for 3D-printing. Additives in 3D-printing. Architectural aspects of 3D-printing for improved properties. Methods of characterizations of 3D-printed objects. 3D PRINTING: MATERIALS AND APPLICATIONS FOR ENERGY CONVERSION. 3D printed carbon-based nanomaterials for solar cells. 3D printed graphene for solar cells. 3D printed metal oxides for solar cells. 3D printed MXenes for solar cells. 3D printed MOFs for solar cells. 3D printed nanocomposites for solar cells. 3D printed carbon-based nanomaterials for fuel cells. 3D printed graphene for fuel cells. 3D printed metal oxides for fuel cells. 3D printed MXenes for fuel cells. 3D printed MOFs for fuel cells. 3D printed nanocomposites for fuel cells. Materials and applications of 3D print for solid oxide fuel cells. 3D PRINTING: MATERIALS AND APPLICATIONS FOR ENERGY STORAGE. 3D printed carbon-based nanomaterials for batteries, 3D printed graphene for batteries. 3D printed metal oxides for batteries. 3D printed MXenes for batteries. 3D printed MOFs for batteries. 3D printed nanocomposites for batteries. Materials and applications of 3D print for solid-state batteries. 3D printed carbon-based nanomaterials for supercapacitors. 3D printed graphene for supercapacitors. 3D printed metal oxides for supercapacitors. 3D printed MXenes for supercapacitors. 3D printed MOFs for supercapacitors. 3D printed nanocomposites for supercapacitors. 3D PRINTING: MATERIALS FOR SENSORS. 3D printed carbon-based nanomaterials for sensors. 3D printed graphene for sensors. 3D printed metal oxides for sensors. 3D printed MXenes for sensors.3D printed MOFs for sensors. 3D printed nanocomposites for sensors. 3D PRINTING: MATERIALS AND APPLICATIONS IN BIOMEDICAL. 3D printed carbon-based nanomaterials for biomedical applications. 3D printed graphene for biomedical applications. 3D printed metal oxides for biomedical applications. 3D printed MXenes for biomedical applications. 3D printed nanocomposites for biomedical applications.OTHER EMERGING APPLICATIONS AND FUTURE CHALLENGES. 3D printed nanoinks for light-emitting diodes. 3D printing for thermoresponsive inks. Materials and design aspects of 3D printing for automobile industries. Materials and challenges of 3D printing for defense applications

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Book SynopsisThe tools you need to ace your Chemisty II course College success for virtually all science, computing, engineering, and premedical majors depends in part on passing chemistry.Table of ContentsIntroduction 1 Part I: A Basic Review of Chemistry I 7 Chapter 1: I Passed Chem I, But What About Chem II? 9 Chapter 2: Math for the (Chemistry) Masses 15 Chapter 3: Atomic Structure, the Periodic Table, and Bonding 27 Chapter 4: Digging up the Mole Concept and Stoichiometry 47 Chapter 5: Grasping Solutions and Intermolecular Forces 61 Chapter 6: Not Full of Hot Air: Gases and Gas Laws 81 Part II: Diving Into Kinetics and Equilibrium 97 Chapter 7: The Lowdown on Kinetics: Tortoise or the Hare? 99 Chapter 8: All Present in the Same State: Homogeneous Equilibrium 125 Chapter 9: Neutralizing Effects: Acid-Base Equilibrium 145 Chapter 10: Taking On Solubility and Complex Ion Equilibrium 179 Part III: A Plethora of Chemistry II Concepts 189 Chapter 11: Getting Hot with Thermodynamics 191 Chapter 12: Causing Electrons to Flow: Electrochemistry 207 Chapter 13: Going the Carbon Route: Organic Chemistry 231 Chapter 14: Pondering Polymers 247 Chapter 15: Bringing Biology into the Lab: Biochemistry 261 Part IV: Describing Descriptive Chemistry 277 Chapter 16: Examining the Ins and Outs of Petroleum 279 Chapter 17: Feeling the Power of Nuclear Chemistry 289 Chapter 18: Chemistry in the Home 309 Part V: The Part of Tens 327 Chapter 19: Ten Terrific Tips for Passing Chem II 329 Chapter 20: Ten Must-Know Formulas for Chem II 333 Chapter 21: Ten Great Chemistry Careers 339 Index 345

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Book SynopsisTable of ContentsPreface to the Second Edition xiii Preface to the First Edition: Why Thermodynamics? xv Acknowledgments xxi Notes for Instructors xxiii List of Variables xxv I Historical Roots: From Heat Engines to Cosmology 1 Basic Concepts and the Laws of Gases 3 Introduction 3 1.1 Thermodynamic Systems 4 1.2 Equilibrium and Nonequilibrium Systems 6 1.3 Biological and Other Open Systems 8 1.4 Temperature, Heat and Quantitative Laws of Gases 9 1.5 States of Matter and the van der Waals Equation 17 1.6 An Introduction to the Kinetic Theory of Gases 24 Appendix 1.1 Partial Derivatives 32 Appendix 1.2 Elementary Concepts in Probability Theory 33 Appendix 1.3 Mathematica Codes 34 References 39 Examples 39 Exercises 41 2 The First Law of Thermodynamics 45 The Idea of Energy Conservation Amidst New Discoveries 45 2.1 The Nature of Heat 46 2.2 The First Law of Thermodynamics: The Conservation of Energy 50 2.3 Elementary Applications of the First Law 57 2.4 Thermochemistry: Conservation of Energy in Chemical Reactions 61 2.5 Extent of Reaction: A State Variable for Chemical Systems 68 2.6 Conservation of Energy in Nuclear Reactions and Some General Remarks 69 2.7 Energy Flows and Organized States 71 Appendix 2.1 Mathematica Codes 79 Appendix 2.2 Energy Flow in the USA for the Year 2013 79 References 82 Examples 82 Exercises 85 3 The Second Law of Thermodynamics and the Arrow of Time 89 3.1 The Birth of the Second Law 89 3.2 The Absolute Scale of Temperature 96 3.3 The Second Law and the Concept of Entropy 99 3.4 Modern Formulation of the Second Law 104 3.5 Examples of Entropy Changes due to Irreversible Processes 112 3.6 Entropy Changes Associated with Phase Transformations 114 3.7 Entropy of an Ideal Gas 115 3.8 Remarks about the Second Law and Irreversible Processes 116 Appendix 3.1 The Hurricane as a Heat Engine 117 Appendix 3.2 Entropy Production in Continuous Systems 120 References 121 Examples 122 Exercises 123 4 Entropy in the Realm of Chemical Reactions 125 4.1 Chemical Potential and Affinity: The Thermodynamic Force for Chemical Reactions 125 4.2 General Properties of Affinity 132 4.3 Entropy Production Due to Diffusion 135 4.4 General Properties of Entropy 136 Appendix 4.1 Thermodynamics Description of Diffusion 138 References 139 Example 139 Exercises 140 II Equilibrium Thermodynamics 5 Extremum Principles and General Thermodynamic Relations 145 Extremum Principles in Nature 145 5.1 Extremum Principles Associated with the Second Law 145 5.2 General Thermodynamic Relations 153 5.3 Gibbs Energy of Formation and Chemical Potential 156 5.4 Maxwell Relations 159 5.5 Extensivity with Respect to N and Partial Molar Quantities 160 5.6 Surface Tension 162 References 165 Examples 165 Exercises 166 6 Basic Thermodynamics of Gases, Liquids and Solids 169 Introduction 169 6.1 Thermodynamics of Ideal Gases 169 6.2 Thermodynamics of Real Gases 172 6.3 Thermodynamics Quantities for Pure Liquids and Solids 180 Reference 183 Examples 183 Exercises 184 7 Thermodynamics of Phase Change 187 Introduction 187 7.1 Phase Equilibrium and Phase Diagrams 187 7.2 The Gibbs Phase Rule and Duhem’s Theorem 192 7.3 Binary and Ternary Systems 194 7.4 Maxwell’s Construction and the Lever Rule 198 7.5 Phase Transitions 201 References 203 Examples 203 Exercises 204 8 Thermodynamics of Solutions 207 8.1 Ideal and Nonideal Solutions 207 8.2 Colligative Properties 211 8.3 Solubility Equilibrium 217 8.4 Thermodynamic Mixing and Excess Functions 222 8.5 Azeotropy 225 References 225 Examples 225 Exercises 227 9 Thermodynamics of Chemical Transformations 231 9.1 Transformations of Matter 231 9.2 Chemical Reaction Rates 232 9.3 Chemical Equilibrium and the Law of Mass Action 239 9.4 The Principle of Detailed Balance 243 9.5 Entropy Production due to Chemical Reactions 245 9.6 Elementary Theory of Chemical Reaction Rates 248 9.7 Coupled Reactions and Flow Reactors 251 Appendix 9.1 Mathematica Codes 256 References 260 Examples 260 Exercises 261 10 Fields and Internal Degrees of Freedom 265 The Many Faces of Chemical Potential 265 10.1 Chemical Potential in a Field 265 10.2 Membranes and Electrochemical Cells 270 10.3 Isothermal Diffusion 277 10.4 Chemical Potential for an Internal Degree of Freedom 281 References 284 Examples 284 Exercises 285 11 Thermodynamics of Radiation 287 Introduction 287 11.1 Energy Density and Intensity of Thermal Radiation 287 11.2 The Equation of State 291 11.3 Entropy and Adiabatic Processes 293 11.4 Wien’s Theorem 295 11.5 Chemical Potential of Thermal Radiation 296 11.6 Matter–Antimatter in Equilibrium with Thermal Radiation: The State of Zero Chemical Potential 297 11.7 Chemical Potential of Radiation not in Thermal Equilibrium with Matter 299 11.8 Entropy of Nonequilibrium Radiation 300 References 302 Example 302 Exercises 302 III Fluctuations and Stability 12 The Gibbs Stability Theory 307 12.1 Classical Stability Theory 307 12.2 Thermal Stability 308 12.3 Mechanical Stability 309 12.4 Stability and Fluctuations in Nk 310 References 313 Exercises 313 13 Critical Phenomena and Configurational Heat Capacity 315 Introduction 315 13.1 Stability and Critical Phenomena 315 13.2 Stability and Critical Phenomena in Binary Solutions 317 13.3 Configurational Heat Capacity 320 Further Reading 321 Exercises 321 14 Entropy Production, Fluctuations and Small Systems 323 14.1 Stability and Entropy Production 323 14.2 Thermodynamic Theory of Fluctuations 326 14.3 Small Systems 331 14.4 Size-Dependent Properties 333 14.5 Nucleation 336 References 339 Example 339 Exercises 340 IV Linear Nonequilibrium Thermodynamics 15 Nonequilibrium Thermodynamics: The Foundations 343 15.1 Local Equilibrium 343 15.2 Local Entropy Production 345 15.3 Balance Equation for Concentration 346 15.4 Energy Conservation in Open Systems 348 15.5 The Entropy Balance Equation 351 Appendix 15.1 Entropy Production 354 References 356 Exercises 356 16 Nonequilibrium Thermodynamics: The Linear Regime 357 16.1 Linear Phenomenological Laws 357 16.2 Onsager Reciprocal Relations and the Symmetry Principle 359 16.3 Thermoelectric Phenomena 363 16.4 Diffusion 366 16.5 Chemical Reactions 371 16.6 Heat Conduction in Anisotropic Solids 375 16.7 Electrokinetic Phenomena and the Saxen Relations 377 16.8 Thermal Diffusion 379 References 382 Further Reading 382 Exercises 383 17 Nonequilibrium Stationary States and Their Stability: Linear Regime 385 17.1 Stationary States under Nonequilibrium Conditions 385 17.2 The Theorem of Minimum Entropy Production 391 17.3 Time Variation of Entropy Production and the Stability of Stationary States 398 References 400 Exercises 400 V Order Through Fluctuations 18 Nonlinear Thermodynamics 405 18.1 Far-from-Equilibrium Systems 405 18.2 General Properties of Entropy Production 405 18.3 Stability of Nonequilibrium Stationary States 407 18.4 Linear Stability Analysis 411 Appendix 18.1 A General Property of dFP/dt 415 Appendix 18.2 General Expression for the Time Derivative of 𝛿 2S 416 References 418 Exercises 418 19 Dissipative Structures 421 19.1 The Constructive Role of Irreversible Processes 421 19.2 Loss of Stability, Bifurcation and Symmetry Breaking 421 19.3 Chiral Symmetry Breaking and Life 424 19.4 Chemical Oscillations 431 19.5 Turing Structures and Propagating Waves 436 19.6 Dissipative Structures and Machines 440 19.7 Structural Instability and Biochemical Evolution 441 Appendix 19.1 Mathematica Codes 442 References 447 Further Reading 448 Exercises 449 20 Elements of Statistical Thermodynamics 451 Introduction 451 20.1 Fundamentals and Overview 452 20.2 Partition Function Factorization 454 20.3 The Boltzmann Probability Distribution and Average Values 456 20.4 Microstates, Entropy and the Canonical Ensemble 457 20.5 Canonical Partition Function and Thermodynamic Quantities 460 20.6 Calculating Partition Functions 461 20.7 Equilibrium Constants 467 20.8 Heat Capacities of Solids 469 20.9 Planck’s Distribution Law for Thermal Radiation 472 Appendix 20.1 Approximations and Integrals 474 Reference 475 Example 475 Exercises 475 21 Self-Organization and Dissipative Structures in Nature 477 21.1 Dissipative Structures in Diverse Disciplines 477 21.2 Towards a Thermodynamic Theory of Organisms 483 References 485 Epilogue 487 Physical Constants and Data 489 Standard Thermodynamic Properties 491 Energy Units and Conversions 501 Answers to Exercises 503 Author Index 511 Subject Index 513

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Book SynopsisEvery year throughout the world, individuals'' health is damaged by their exposure to toxic chemicals at work. In most cases these problems will resolve, but many will sustain permanent damage. Whilst any justified claim for compensation requires medical and legal evidence a crucial and often controversial component of this process is the establishment of a causal link between the individual''s condition and exposure to a specific chemical or substance. Causation, in terms of how a substance or substances led the claimant to his or her current plight, can be difficult to establish and the main purpose of this book, is to provide the aspiring expert report writer with a concise, practical guide that uses case histories to illuminate the process of establishing causation in occupational toxicity proceedings. In summary: A practical, accessible guide to the preparation of balanced, scientifically sound expert reports in the context of occupational toxicology. <Table of ContentsPreface xi 1 A brief history of occupational toxicology 1 1.1 Occupational toxin exposure in antiquity 1 1.2 The Middle Ages and the Renaissance: The beginnings of modern occupational toxicology 2 1.3 The Industrial Revolution 5 1.4 Petrochemicals: The beginnings 6 1.5 Petrochemicals and mass production 7 1.6 Aromatic amines: Tyres, dyes, explosives and cigarettes 9 1.7 Contemporaneous knowledge 11 1.8 The pursuit of truth 12 1.9 The ‘Mad Hatter’ 13 1.10 The ‘Radium Girls’ 15 1.11 Asbestos 16 1.12 Occupational toxicity: Medicine and science 18 1.13 Health and safety today 20 References 20 2 The expert report process in legal context 23 2.1 The would-be claimant’s initial position 23 2.2 Industrial injuries disablement benefit 24 2.3 The legal process: First steps 25 2.4 Legal advice: Who pays? 26 2.5 Claim progression and possible outcomes 27 2.6 Pre-action protocols 28 2.7 Case initiation: Legal steps 29 2.8 Expert reports: Medical 30 2.9 Causality: The scientific report 31 2.10 Recruiting the scientific expert 32 2.11 Expectations of the expert: The court 33 2.12 Expectations of the expert: The solicitor/expert relationship 34 2.13 The expert report: The contract 36 2.14 Compiling the report 37 2.15 The toxin or toxins 38 2.16 Toxin entry 39 2.17 Toxin chemical nature 41 2.18 Exacerbating factors in toxin absorption 42 2.19 Causation: Mechanisms 42 2.20 Contemporaneous knowledge 44 2.21 The initial draft 46 2.22 Silence in court 46 2.23 Report writing in the real world 48 References 50 3 Acute toxicity: Case histories of solvent exposure 53 3.1 Introduction 53 3.2 Solvents in adhesives 54 3.3 Solvent toxicity 55 3.4 The real-world confusion of symptoms 57 3.5 Case histories: General format 58 3.6 Case history 1: Mr A and volatile petroleum mixture exposure 58 3.7 Case history 2: Mr B and dichloromethane exposure 66 3.8 Mr B and dichloromethane: Further developments 72 3.9 Case history 3: Mr C and chronic solvent exposure and behaviour 74 3.10 Summary of chronic solvent toxicity and behaviour 79 References 80 4 Chronic and permanent injury: Bladder cancer and occupation 83 4.1 Bladder cancer 83 4.2 The patient’s perspective 84 4.3 Bladder cancer: Causes and risks 85 4.4 Bladder cancer and occupation: Industrial injury benefit claims 87 4.5 Case history 1: Mr D 87 4.6 Case history 2: Mr E 90 4.7 Case history 3: Mr F 91 4.8 Case history 4: Mrs G 92 4.9 Bladder cancer and occupation: Legal claims for compensation 93 4.10 Mr H: bladder cancer and the car industry 93 4.11 Mr J: Bladder cancer; crankcase oils and diesel 109 4.12 Summary 119 References 119 5 Chronic and acute toxicity of herbicides and pesticides 123 5.1 Introduction 123 5.2 Herbicide/pesticide toxicity evaluation 124 5.3 Herbicides: Toxicity 124 5.4 Case history 1: Mr K and Roundup© 126 5.5 Pesticide action: The nervous system 135 5.6 Animal and insects nervous system commonality 138 5.7 Major insecticide groups – ion pump disruptors 139 5.8 AChE inhibitors 139 5.9 Other major pesticides 140 5.10 Case histories 141 5.11 Case history 2: Mrs L and fipronil toxicity 141 5.12 Case histories: OPs 148 5.13 Case history 3: Mr M 149 5.14 Case history 4: Mr N 160 References 172 6 Toxicity of imported goods 179 6.1 Overseas manufactured imported goods: Context 179 6.2 Reports for trading standards 180 6.3 Plastic tank: Naphthalene 180 6.4 Soft toys: Phthalates 181 6.5 Wooden toy story one: Barium and lead 182 6.6 Wooden toy story two: Chromium and lead 185 6.7 Adhesives: Chloroform 187 6.8 Summary 192 References 192 Epilogue: Occupational health – future perspectives 195 E.1 The developed world 195 E.2 The developing world 196 References 198 Index 201

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Book SynopsisSociety is increasingly affected by climate impacts, from prolonged water shortages to damaging coastal floods and wildfires. Scientists studying climate variations are eager to have their knowledge used in adaptive decision making. To achieve this, science and society must engage productively around complex management and policy challenges.Table of ContentsList of contributors vii Foreword xiii Preface xix Acknowledgments xxiii Background on RISA xxv Section I: Understanding context and risk 1 Assessing needs and decision contexts: RISA approaches to engagement research 3 Caitlin F. Simpson, Lisa Dilling, Kirstin Dow, Kirsten J. Lackstrom, Maria Carmen Lemos and Rachel E. Riley 2 Understanding the user context: decision calendars as frameworks for linking climate to policy, planning, and decision-making 27 Andrea J. Ray and Robert S. Webb 3 Climate science for decision-making in the New York metropolitan region 51 Radley Horton, Cynthia Rosenzweig, William Solecki, Daniel Bader and Linda Sohl Section II: Managing knowledge-to-action networks 4 Connecting climate information with practical uses: Extension and the NOAA RISA program 75 John Stevenson, Michael Crimmins, Jessica Whitehead, Julie Brugger and Clyde Fraisse 5 Participatory, dynamic models: a tool for dialogue 99 Laura Schmitt Olabisi, Stuart Blythe, Ralph Levine, Lorraine Cameron and Michael Beaulac 6 Not another webinar! Regional webinars as a platform for climate knowledge-to-action networking in Alaska 117 Sarah F. Trainor, Nathan P. Kettle and J. Brook Gamble Section III: Innovating services 7 The making of national seasonal wildfire outlooks 143 Gregg Garfin, Timothy J. Brown, Tom Wordell and Ed Delgado 8 Challenges, pitfalls, and lessons learned in developing a drought decision-support tool 173 Greg Carbone, Jinyoung Rhee, Kirstin Dow, Jay Fowler, Gregg Garfin, Holly Hartmann, Ellen Lay and Art DeGaetano 9 Managing the 2011 drought: a climate services partnership 191 Mark Shafer, David Brown and Chad McNutt Section IV: Advancing science policy 10 Evaluation to advance science policy: lessons from Pacific RISA and CLIMAS 215 Daniel B. Ferguson, Melissa L. Finucane, Victoria W. Keener and Gigi Owen 11 Navigating scales of knowledge and decision-making in the Intermountain West: implications for science policy 235 Eric S. Gordon, Lisa Dilling, Elizabeth McNie and Andrea J. Ray 12 Evolving the practice of Regional Integrated Sciences and Assessments 255 Adam Parris, Sarah L. Close, Ryan Meyer, Kirstin Dow and Gregg Garfin Acronyms 263 Index 267

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Book SynopsisStressing strategic and technological solutions to medicinal chemistry challenges, this book presents methods and practices for optimizing the chemical aspects of drug discovery. It provides an overview of the field, with a focus on recent trends, up-to-date technologies, and the identification and development of small molecule drugs.Trade Review"This book describes a large variety of methodologies that are employed in drug discovery and early development. The subjects covered range from the design and administration of chemical libraries, access to new chemical scaffolds and chemical diversity, to characterization of target binding and ADME profiling methods. While the book focuses on traditional small-molecule medicinal chemistry, an outlook to non-traditional targets such as protein–protein interactions and imaging applications is also provided. Most of the authors have a background in the pharmaceutical industry. The book therefore allows an insight into laboratories that are less prone to publish their experiences than their academic counterparts, and the trends and observations which accumulate over the years. In addition, particularly the academic reader is presented with sometimes refreshingly independent views on certain popular topics in medicinal chemistry and chemical biology that have reached “nuisance” status in recent years. For example, the discussion on “hit triage” contains a wide range of literature reference points beyond the currently over-debated assay-interference compounds that will allow the interested reader to obtain a well-balanced view. For an academic who is heavily involved in teaching duties, the book offers numerous highly useful overviews, such as the development chart of combinatorial chemistry methods. Although the heydays of combi-chem have long passed, the concept has remained an important addition to the toolbox of medicinal chemistry, also in academic laboratories. Fittingly, one of the following chapters provides a review of multicomponent reactions. This chapter is filled with numerous highly appreciated figures that collect and demonstrate the broad chemical diversity which is accessible via traditional and recently developed multicomponent reactions, a real treasure chest that will certainly be useful in teaching and research. There are some weaker parts in the book. This is, for example, the natural products chapter, which starts with a reference to a “famous”, highly biased publication that “proves” the importance of natural products by classifying, for example, purely synthetic ATP-competitive kinase inhibitors as somehow natural-product- derived. This is followed by a long table that is mostly, and not surprisingly, composed of antibiotics and steroids of semisynthetic origin. Next, however, appear some interesting examples of such semi-synthetic strategies, which will be highly instructive for students and practitioners of medicinal chemistry. And these latter examples clearly demonstrate that it is actually not necessary to make natural products appear more important by creating just the right definition for terms such as “natural-product-derived”. Somewhat annoying is the use of an insert for color figures, requiring frequent “lookups”, particularly since the captions are not provided along with the color figures. However, this technical aspect is really minor, and may have been necessary to keep the price of the book at a reasonable level—about £130, which could also be in the range of interested students. For the reviewer, selected fragments of the book will certainly be integrated into the teaching curriculum, and the book will be recommended for students at all levels. "(Prof. Christian Klein Heidelberg University - ChemMedChem, July 2017)Table of ContentsList of Contributors xiii Introduction 1Werngard Czechtizky and Peter Hamley Part I Exploring Biological Space: Access to New Collections 11 1 Elements for the Development of Strategies for Compound Library Enhancement 13Edgar Jacoby 1.1 Introduction 13 1.2 Chemical Space for Drug Discovery 14 1.3 Molecular Properties for Drug Discovery 17 1.4 Major Compound Classes 21 1.5 Chemical Design Approaches to Expand Bioactive Chemical Space 25 1.6 Conclusion 28 Acknowledgments 29 References 29 2 The European Lead Factory 37Christopher Kallus, Jörg Hüser, Philip S. Jones, and Adam Nelson 2.1 Introduction 37 2.1.1 Background 37 2.1.2 The European Lead Factory 38 2.2 Building the Joint European Compound Library 43 2.2.1 Definition of Criteria and an Approach for the Review and Selection of Library Proposals 46 2.2.2 Collation, Review, and Selection of an Initial Wave of Library Proposals 47 2.2.3 A Web]Based Tool to Support the Collation, Review, and Selection of Proposals 49 2.2.4 Synthetic Validation of Library Proposals and Library Production 49 2.3 Qualified Hit Generation 54 2.3.1 Capabilities of the ESC 54 2.3.2 Target Selection and Generation of Qualified Hits 56 2.3.3 Exploitation of Qualified Hit List 58 2.4 Future Perspectives 58 Acknowledgments 59 References 59 3 Access to Compound Collections: New Business Models for Compound Acquisition and Sharing 61Peter ten Holte 3.1 Introduction 61 3.1.1 Vertical Disintegration and the Quest for Innovation 61 3.1.2 Innovative Chemistry 63 3.1.3 Access to Supplementary Compound Collections 63 3.2 Risk]Sharing Approaches 64 3.2.1 Overview 64 3.2.2 Blinded Screening 65 3.2.3 Follow]Up of Blinded Screening: Various Models 65 3.3 Library Exchange 69 3.3.1 Partners with Different Scientific Interests 70 3.3.2 Partners with Similar Scientific Interests 70 3.3.3 Compound Selection: Use and Potential Risks 71 3.4 Sharing Collections for External Screening 72 3.4.1 Rationale 72 3.4.2 Academic Drug Discovery Consortium (Addc) 72 3.4.3 Eu]Openscreen 73 3.4.4 N IH Roadmap 73 3.5 Conclusion 74 Acknowledgments 74 References 75 Part II Exploring Biological Space: Access to New Chemistries 77 4 New Advances in Diversity]Oriented Synthesis 79Warren R. J. D. Galloway, Jamie E. Stokes, and David R. Spring 4.1 Introduction: Small Molecules and Biology 79 4.2 The Need for Structural Diversity in Synthetic Small Molecule Screening Collections 80 4.3 Diversity]Oriented Synthesis of New Structurally Diverse Compound Collections 82 4.3.1 General Principles of Diversity]Oriented Synthesis 82 4.3.2 Achieving Structural Diversity: The Importance of Scaffold Diversity 83 4.3.3 Synthetic Principles in DOS 83 4.3.4 Scaffold Diversity and Molecular Type 86 4.3.5 Examples of DOS Campaigns 86 4.4 Concluding Remarks 97 References 98 5 Solid]Phase Combinatorial Chemistry 103Marcel Patek, Martin Smrcina, Eric Wegrzyniak, Victor Nikolaev, and Andres Mariscal 5.1 Introduction 103 5.2 Chapter Outline 104 5.3 Combinatorial Chemistry in Retrospect 104 5.4 Foundations of Solid]Phase Synthesis of Combinatorial Chemistry 107 5.4.1 Ingredients of Solid]Phase Chemistry 109 5.4.2 Library Development and Production 117 5.4.3 Analytical Chemistry and Solid]Phase Synthesis of Libraries 129 5.5 The Outcome of Tucson Combinatorial Chemistry at Sanofi 132 5.5.1 Overall Strategy 132 5.5.2 Drug Discovery Outcomes 134 5.5.3 Key Parameters of Combichem Productivity 134 5.6 Conclusions and Outlook 135 References 136 6 Recent Advances in Multicomponent Reaction Chemistry: Applications in Small Molecule Drug Discovery 145Christopher Hulme, Muhammad Ayaz, Guillermo Martinez]Ariza, Federico Medda, and Arthur Shaw 6.1 Introduction 145 6.2 Classical Multi-Component Reactions (MCRs) 147 6.3 The Passerini Reaction (Mario Passerini 1921) 147 6.4 Ugi Reaction 147 6.4.1 The Ugi-deprotect-cyclize (UDC) strategy 152 6.4.2 Bi-functional approach (BIFA) 153 6.4.3 Miscellaneous Post]Ugi Condensations 154 6.5 Van Leusen Reaction 154 6.6 Petasis Reaction 155 6.7 Groebke–Blackburn–Bienaymé (GBB) Reaction 155 6.8 Recently Discovered Novel MCRs 155 6.8.1 Cyclic Anhydride]Based MCRs 155 6.8.2 1]Azadiene]Based MCRs 156 6.8.3 Recent IMCRs and Secondary Reactions 157 6.8.4 Miscellaneous MCRs 159 6.9 Asymmetric MCRs 159 6.10 Applications of MCRs in Medicinal Chemistry 160 6.10.1 Kinase Inhibitors 161 6.10.2 Protease Inhibitors 163 6.10.3 Ion Channel Inhibitors 165 6.10.4 Protein–Protein Interaction Inhibitors 165 6.10.5 Tubulin Polymerization Inhibitors 166 6.10.6 G]Protein]Coupled Receptors 168 6.11 Summary 171 References 171 Part III Screening Strategies 189 7 Computational Techniques to Support Hit Triage 191Douglas B. Kitchen and Hélène Y. Decornez 7.1 Lead Finding Process: Overview and Challenges 191 7.1.1 The Need for Triage 191 7.1.2 The Lead Generation Process 191 7.1.3 Hit Triage: From Actives to Hits to Hit Series 193 7.1.4 Challenges to Successful Lead Finding 194 7.1.5 Frequent Hitters 195 7.1.6 Implications of Human Decision]Making 195 7.2 Chemical Structure Analysis of Hit Lists 196 7.2.1 Similarity]Based Clustering 197 7.2.2 Scaffold]Based Clustering 198 7.2.3 Application of Clustering Classification Methods 201 7.3 Rules and Filters 201 7.3.1 Computational Descriptors for Property Assessment 202 7.3.2 Lipophilicity and Other Physicochemical Descriptors 205 7.3.3 Structural and Shape Descriptors 205 7.3.4 Multiparameter Calculations: MPO and QED 206 7.3.5 Frequent]Hitter Analysis 207 7.3.6 Reactive Group Analysis 209 7.4 Triage Systems 210 7.5 Ligand Efficiency Indices 210 7.6 Hit Series Analysis 211 7.6.1 Latent Hit Series and Singletons 211 7.6.2 Rapid Hit Exploration and Compound Set Enrichment 211 7.6.3 SAR Analysis 212 7.6.4 Data Volume, Integration, Retrieval, and Visualization 213 7.7 Summary 214 References 214 8 Fragment]Based Drug Discovery 221Jean]Paul Renaud, Thomas Neumann, and Luc Van Hijfte 8.1 Introduction 221 8.2 Fragment Libraries 223 8.3 Biophysical Screening Technologies 223 8.3.1 Surface Plasmon Resonance (SPR) 224 8.3.2 Nuclear Magnetic Resonance (NMR) 231 8.3.3 X]Ray Crystallography 234 8.3.4 Noncovalent Mass Spectrometry 235 8.3.5 Differential Scanning Fluorimetry (DSF) 237 8.3.6 Biophysical Techniques for Fragment Screening against Membrane Proteins 238 8.3.7 Biophysical Techniques for Fragment Screening against PPIs 238 8.4 Fragment Evolution Strategies 239 8.5 Fbdd Case Studies 240 8.5.1 Aurora Kinase Inhibitors 240 8.5.2 Tackling PPIs: Fragment]Based Discovery of Bromodomain Inhibitor Leads 241 8.6 The Future 243 References 244 9 Virtual Screening 251Karl]Heinz Baringhaus and Gerhard Hessler 9.1 Introduction 251 9.1.1 Goals of Virtual Screening 252 9.2 Databases and Database Preparation 254 9.3 Validation of the Virtual Screening Strategy 256 9.4 Ligand]Based Virtual Screening 258 9.4.1 2D Approaches 259 9.4.2 3D Ligand]Based Approaches 261 9.5 Structure]Based Virtual Screening 263 9.6 Other Virtual Screening Applications 266 9.7 Conclusion 268 References 269 10 Phenotypic Screening 281Michelle Palmer 10.1 Introduction 281 10.2 History and Past Successes 282 10.3 Impact of Phenotypic Screening 282 10.4 Model Systems for Phenotypic Assays 285 10.4.1 Cell Lines 285 10.4.2 Primary and Stem Cells 285 10.4.3 Cocultures 286 10.4.4 3D Cell Models 287 10.5 Assays 287 10.5.1 Assay Technologies 287 10.5.2 Assay Development Considerations 290 10.5.3 Example 1: Selective Killing of Breast Cancer Stem Cells 291 10.5.4 Example 2: CFTR Potentiator Drug 291 10.6 Deorphaning 292 10.6.1 Affinity]Based Proteomics 292 10.6.2 Genetic Profiling 295 10.6.3 Target Profiling 296 10.6.4 Comodifier Profiling 296 10.6.5 Target Engagement 297 10.6.6 Example 3: Elucidating MOA for a Regulator of Polyploidization 297 10.7 Summary 298 References 299 Part IV Technologies for Medicinal Chemistry Optimization 305 11 Advances in the Understanding of Drug Properties in Medicinal Chemistry 307Peter Hamley and Patrick Jimonet 11.1 Introduction 307 11.2 Properties and Origins of Marketed Drugs 308 11.2.1 The Consistent Properties of Oral Drugs 308 11.2.2 The Changing Origins of Oral Drugs 308 11.3 Drug Properties and Attrition in Clinical Development 310 11.4 The Rule of Five 312 11.4.1 The Concept 312 11.4.2 Druggability 313 11.5 The Concept of Lead]Likeness 313 11.5.1 The Consequences on Screening and Collections 314 11.6 Influence of Drug Properties on Absorption, Distribution, Metabolism, Excretion, and Toxicity 314 11.7 Building on the Ro5: New Guidelines for Compound Design 316 11.7.1 Ligand Efficiency 316 11.7.2 Ligand Lipophilicity Efficiency and Other Indices 317 11.7.3 Chemical Beauty 318 11.8 Alternatives, Criticisms, and Exceptions 318 11.9 Conclusions 320 References 320 12 Recent Developments in Automated Solution Phase Library Production 323Thomas C. Maier and Werngard Czechtizky 12.1 Introduction 323 12.1.1 Introduction and Definitions 323 12.1.2 Library Types 324 12.1.3 Chemotypes 326 12.2 Library Production 327 12.2.1 The Library Production Process 327 12.2.2 Process Optimization 330 12.3 New Technologies in Automated Liquid]Phase Library Synthesis 334 12.3.1 Provision of Starting Materials: Automated Reagent Dispensaries 334 12.3.2 Microwave 335 12.3.3 Library Purification: Automated RP]HPLC and SFC as Orthogonal Methods 336 12.4 Flow Chemistry and Gas]Phase Reactions 342 12.4.1 Reactive Gases in Flow 344 12.5 Conclusion 345 References 345 13 A DME Profiling: An Introduction for the Medicinal Chemist 353Katharina Mertsch, Martin Will, Werngard Czechtizky, Niels Griesang, Alexander Marker, and Jacob Olsen 13.1 Introduction 353 13.2 Compound Profiling in H2L Optimization 354 13.2.1 Intestinal Absorption 354 13.2.2 Drug Metabolism and Inhibition of CYP450 Enzymes 355 13.2.3 Protein Binding 356 13.2.4 En Route to a Lead Series: In Vivo PK Studies 358 13.3 Compound Profiling in Lead Optimization 359 13.3.1 Extended CYP Inhibition Studies 359 13.3.2 Mechanism]Based CYP Inhibition 359 13.3.3 Inhibition of Transport Proteins 360 13.3.4 Biopharmaceutical Classification of a Clinical Candidate (Classification of Potential Drugs into Biopharmaceutical Classification System or Biopharmaceutical Drug Disposition and Classification System) 360 13.4 Integration of Medicinal Chemistry, Biology, Physicochemical, and ADME Profiling: Strategies Toward Cycle Time Reductions 362 13.4.1 Planning Phase 363 13.4.2 Sample Preparation and Distribution 364 13.4.3 Compound QC 365 13.4.4 Determination of Physicochemical Properties 367 13.4.5 ADME Profiling: General Remarks 369 13.4.6 Metabolic Lability Profiling 369 13.4.7 Permeability Testing 370 13.4.8 CYP Inhibition Profiling 372 13.5 Summary 372 References 373 Part V Medicinal Chemistry beyond Small Molecules 379 14 The Role of Natural Products in Drug Discovery: Examples of Marketed Drugs 381Lars Ole Haustedt and Karsten Siems 14.1 Natural Products and Natural Product Derivatives in Commercial Drugs 381 14.2 Hit to Lead Optimization of Natural Product Hits 397 14.3 Case Study 1: Taxol 397 14.4 Case Study 2: Epothilone 406 14.5 Case Study 3: Eribulin 407 14.6 Case Study 4: Geldanamycin 413 14.7 Case Study 5: Ingenol Mebutate (Picato) 417 14.8 Summary 422 References 423 15 Peptidomimetics of α]Helical and β]Strand Protein Binding Epitopes 431Nina Bionda and Rudi Fasan 15.1 Protein–Protein Interactions as Therapeutic Targets 431 15.2 Peptidomimetics of α]Helical Protein Binding Epitopes 433 15.2.1 α]Helix]Mediated PPIs 433 15.2.2 Side]Chain Cross]Linked α]Helices 435 15.2.3 Hydrogen]Bond Surrogate]Stabilized α]Helices 442 15.2.4 Other Type I α]Helix Peptidomimetics 443 15.2.5 Type III α]Helix Peptidomimetics 445 15.3 Peptidomimetics of β]Strand Protein Binding Epitopes 446 15.3.1 β]Strand]Mediated PPIs 446 15.3.2 Type I β]Strand Peptidomimetics 447 15.3.3 Type III β]Strand Peptidomimetics 449 15.4 Conclusion 452 References 453 16 In Vivo Imaging of Drug Action 465Oliver Plettenburg and Matthias Löhn 16.1 Introduction 465 16.2 Overview of Imaging Methods 466 16.2.1 Fluorescence]Based Methods 466 16.2.2 MRI 470 16.2.3 CT 470 16.2.4 PET/SPECT 471 16.3 Imaging of Therapeutic Effects 476 16.3.1 Cancer 476 16.3.2 Diabetes 483 16.3.3 CNS Disorders 486 16.4 Conclusion and Outlook 490 References 491 Index 503

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Book SynopsisChemesthesis are the chemically initiated sensations that occur via the touch system. Examples in the mouth include the burn of capsaicinoids in chilies, the cooling of menthol in peppermint, and the tingle of carbonation. It is physiologically distinct from taste and smell, but is increasingly understood to be just as important as these senses for their contribution to flavor, especially with the sustained growth in interest in spicy foods from around the world. Chemesthesis: Chemical Touch in Food and Eating surveys the modern body of work on chemesthesis, with a variety of contributors who are well known for their expertise on the topic. After a forward by John Prescott and an introduction by Barry Green (who originally coined the term chemesthesis 25 years ago), the book moves on to survey chemesthetic spices and address the psychology and physiology of chemesthesis; practical sensory and instrumental analysis; the interaction of chemesthesis with other chemical sTable of ContentsList of contributors xi Foreword xiii Preface xvii 1 Introduction: what is chemesthesis? 1 Barry G. Green 1.1 A brief history 1 1.2 What is its relevance today? 3 References 5 2 Psychology of chemesthesis – why would anyone want to be in pain? 8 Pamela Dalton and Nadia Byrnes 2.1 Introduction and background 8 2.1.1 Individual variation in hedonic response 10 2.2 Physiological differences: maybe they can’t feel the burn? 11 2.2.1 Genetics: variability in sensation and diet 11 2.2.2 Anatomy: oral phenotypes and sensation 12 2.3 Effects of exposure on chemesthetic response (social) 13 2.3.1 Desensitization 13 2.3.2 Affective shift: “learning to like” 15 2.4 Cognitive factors underlying chemesthetic response: state versus trait 17 2.4.1 Personality traits 18 2.4.2 New forms of sensation seeking scales 18 2.4.3 Personality and food choice 22 2.4.4 Cognitive factors underlying chemesthetic response: states 24 2.5 Benefits of liking 25 2.6 Summary 25 References 25 3 Spice and herb extracts with chemesthetic effects 32 Howard Haley and Shane T. McDonald 3.1 Why plants have chemesthetic properties 32 3.2 Hot pungent spices: capsicum species 33 3.3 Other hot pungent spices 34 3.3.1 Cinnamon and cassia 34 3.3.2 Black and white pepper 35 3.3.3 Ginger 35 3.4 Nasal heat spices 36 3.4.1 Mustard 36 3.4.2 Horseradish 36 3.4.3 Wasabi 37 3.5 Cooling spices 37 3.5.1 Mint 37 3.5.2 Eucalyptus 38 3.6 Numbing spices 38 3.6.1 Cloves 38 3.6.2 Wintergreen 39 3.7 Tingling spices 39 3.7.1 Jambu 39 3.7.2 Szechuan pepper 39 3.8 Spice and herb extracts 40 3.8.1 Extracts 40 3.9 Regulatory control of spices and herb extracts with chemesthetic properties 43 3.10 Advantages of spices, essential oils, and oleoresins 44 References 45 4 Molecular mechanisms underlying the role of TRP channels in chemesthesis 48 Yeranddy A. Alpizar, Thomas Voets, and Karel Talavera 4.1 Introduction 48 4.2 TRPM8 49 4.2.1 Mathematical models of TRPM8 function: heated debate over a cool channel 50 4.2.2 Structural determinants of activation of TRPM8 by menthol 57 4.3 TRPV1 61 4.3.1 Cross‐sensitization between TRPV1 agonists 64 4.4 TRPA1 65 4.5 Concluding remarks 70 Acknowledgments 71 References 71 5 Anatomy and physiology of chemesthesis 77 Cecil J. Saunders and Wayne L. Silver 5.1 Introduction 77 5.2 Anatomy 77 5.2.1 Oral cavity 78 5.2.2 Nasal cavity 79 5.2.3 Solitary chemosensory cells 80 5.2.4 Other chemosensory epithelial cells 82 5.3 Physiology 83 5.3.1 Reflexes 83 5.3.2 Neurophysiology of chemesthesis 83 5.4 Summary 87 References 87 6 Types of chemesthesis I. Pungency and burn: historical perspectives, word usage, and temporal characteristics 92 John E. Hayes 6.1 Introduction 92 6.1.1 Müller, Myers, and the doctrine of specific nerve energies 92 6.1.2 Columbian Exchange and the quest for spices 93 6.2 Language usage 94 6.3 Differentiation from classical tastes 96 6.4 Sensitization 97 6.5 Acute psychophysical desensitization 98 6.6 Chronic psychophysical desensitization 101 6.7 Summary 102 References 103 7 Types of chemesthesis II: Cooling 106 Steven Pringle 7.1 Consumers and oral perception: where chemesthesis contributes to flavor 106 7.1.1 Taste perception 106 7.2 Molecular structure and physiological cooling 109 7.2.1 Menthol derivatives 110 7.2.2 Non‐menthol derived coolants 120 7.3 Physiological cooling outside of the oral cavity 123 7.4 Usage and consumer perception 126 7.4.1 Physiological coolants in applications beyond cooling 127 7.4.2 Physiological cooling and flavor enhancement 128 7.5 Cooling compounds – the next steps 130 References 131 8 Types of chemesthesis III. Tingling and numbing 134 Christopher T. Simons 8.1 Introduction 134 8.1.1 Historical use of tingling and numbing compounds 134 8.2 Tingle mechanisms 136 8.2.1 Two‐pore K+ channels 136 8.2.2 Carbonic anhydrase/TRPA1 136 8.3 Numbing (anaesthetic) mechanisms 138 8.3.1 Alkylamides and two‐pore K+ channels 138 8.3.2 Alkylamides and voltage‐gated Na+ channels 138 8.3.3 Eugenol and voltage‐gated sodium (Na+) channels 139 8.3.4 Eugenol and voltage‐gated calcium (Ca2+) channels 139 8.4 Tingle/numbing neural processing 140 8.4.1 Activation of peripheral and central mechanosensory fibers by alkylamides 141 8.4.2 Activation of peripheral and central nociceptive fibers by carbonation 143 8.4.3 Inhibition of peripheral fibers by alkylamides and eugenol 143 8.5 Psychophysical evaluations of tingle 144 8.5.1 Alkylamide tingle: temporal phenomena 144 8.5.2 Alkylamide tingle: mechanosensory sensitivity 145 8.5.3 Alkylamide tingle: effect of temperature 145 8.5.4 CO2 tingle: concentration and tastant effects 146 8.5.5 CO2 tingle: impact of carbonic anhydrase blockers 146 8.5.6 CO2 tingle: impact of bubbles 147 8.5.7 CO2 tingle: self‐desensitization and cross‐desensitization by capsaicin 147 8.5.8 CO2 tingle: effect of temperature 148 8.6 Psychophysical evaluations of numbing 148 8.6.1 Alkylamide numbing 148 8.6.2 Eugenol numbing 149 8.7 Summary 149 References 150 9 Interactions in chemesthesis: everything affects everything else 154 Brian Byrne 9.1 Introduction 154 9.2 Coolants 154 9.3 Sweet 157 9.4 Salt 159 9.5 Mouthfeel 160 9.6 Astringency and bitterness 161 9.7 Aroma (retronasal and orthonasal) 162 9.8 Conclusion 163 References 164 10 Some like it hot! Sensory analysis of products containing chemesthetic compounds 166 Cindy Ward 10.1 Introduction 166 10.2 Overview of test approaches for sensory evaluation of chemesthetic compounds in consumer products 169 10.3 The phenomena of sensitization and desensitization 169 10.4 Testing products containing chemesthetic compounds 170 10.5 Discrimination testing with trigeminal compounds 172 10.6 Rating of chemesthetic agent intensity 172 10.7 Dose response 172 10.8 Descriptive analysis of chemesthetic agents containing samples 174 10.9 Alcohol burn case study 176 10.10 Time intensity 178 10.11 Consumer testing with chemesthetic agents 182 10.12 Conclusions 183 Acknowledgments 183 References 183 11 Analytical chemistry of chemesthetic compounds 185 David A. Bolliet 11.1 Introduction 185 11.2 Allyl isothiocyanate 185 11.3 Capsaicinoids 186 11.4 Carbonic acid 190 11.5 Cinnamaldehyde 191 11.6 Eugenol 193 11.7 Gingerols and shogaols 195 11.8 Menthol 197 11.9 Piperine 198 11.10 Sanshools 202 11.11 Spilanthol 204 11.12 Conclusions 205 Abbreviations 206 References 207 12 Chemesthesis and health 227 Richard D. Mattes and Mary‐Jon Ludy 12.1 Introduction 227 12.2 Cultural patterns of intake 228 12.3 Appetite 230 12.3.1 Suppression of appetitive sensations 230 12.3.2 Enhancement of appetitive sensations 234 12.3.3 Decreased energy intake 234 12.3.4 Increased energy intake 235 12.4 Thermogenesis 236 12.4.1 Hot red peppers (capsaicin) 237 12.4.2 Black pepper (piperine) 238 12.4.3 Ginger (gingerols, shogaols, and zingerone) 239 12.4.4 Mustard (allyl isothiocyanate) 240 12.5 Body weight 240 12.6 Individual variability 241 12.7 Conclusion 242 References 243 13 On food and chemesthesis – food science and culinary perspectives 250 Christopher R. Loss and Ali Bouzari 13.1 Introduction: putting chemesthesis in the context of flavor 250 13.2 Historical and cultural context for the use of chemesthetic ingredients in foods 251 13.2.1 Cultural connections to chemesthetic agents 251 13.2.2 History of use of chemesthetic agents in prepared foods and food service 252 13.2.3 Chemesthetics and health 252 13.3 Sources of chemesthetic agents in the kitchen and at the product development lab bench 253 13.3.1 Herbs 254 13.3.2 Spices 254 13.3.3 Fruits 255 13.3.4 Vegetables 256 13.3.5 Fermented foods 256 13.3.6 Extracts and dry blends 257 13.3.7 Plant breeding 257 13.4 Culinary techniques and chemesthetic agents 258 13.4.1 Incorporation 258 13.4.2 Impact of culinary technique on intensity 260 13.5 Applications of chemesthetic agents in the food industry 260 13.5.1 Chemesthetic agents in global cuisines 260 13.5.2 Creating “craveable” culinary experiences with chemesthetic agents 262 13.5.3 Food safety and preservation 263 13.5.4 Modern applications of chemesthetic agents in fine dining 263 References 265 14 Overview of chemesthesis with a look to the future 268 E. Carstens 14.1 Introduction 268 14.2 Peripheral innervation of oral, ocular, and nasal mucosa and skin 269 14.3 TRPV1 270 14.4 TRPA1 273 14.5 TRPV3, TRPV4, and warming 274 14.6 TRPM8 and cold 275 14.7 Tingle 276 14.8 NaCl 277 14.9 Itch 277 14.10 Interactions between chemesthesis and taste 278 14.11 Summary and conclusions 279 References 279 Index 286

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Book SynopsisHandbook for Process Safety in Laboratories and Pilot Plants Effectively manage physical and chemical risks in your laboratory or pilot plant In Handbook for Process Safety in Laboratories and Pilot Plants: A Risk-based Approach, the Center for Chemical Process Safety delivers a comprehensive and authoritative presentation of process safety procedures and methods for use in laboratories and pilot plants (LAPPs). Of the four broad hazard categories chemical, physical, biological, and ionizing radiation this book focuses on the two most common: chemical and physical hazards. It addresses the storage and handling of the hazardous materials associated with activities commonly performed in LAPPs and presents many of the physical and chemical analytical techniques used to verify and validate the efficacy of safety management systems. This book will present tools and techniques for effectively managing the risks in any laboratory or pilot plant using engineeredTable of ContentsList of Figures x List of Tables xi Abbreviations and Acronyms xii Glossary xv Acknowledgments xxii Dedication xxiv Online Materials Accompanying this Handbook xxv Preface xxvii Part 1 – Introduction and Overview 1 1 Purpose and Scope 3 1.1 Purpose 3 1.2 Scope of Book and Target Audience 4 1.3 Terms for Laboratories and Pilot Plants 5 1.4 Distinctions between Laboratories and Pilot Plants 7 1.5 Organization of This Handbook 8 2 Managing Risk to Prevent Incidents 13 2.1 Some LAPP Characteristics 13 2.2 Safety in Laboratories and Pilot Plants 24 2.3 Where to Start with a Risk-based Approach in the LAPP 25 2.4 Gain Leadership Support to Implement Risk Based Process Safety 29 2.5 Laboratory Safety Management System Considerations 29 2.6 Resources for Risk Based Process Safety Management System 31 3 Leaks and Spills in the LAPP 35 3.1 Leaks of Hazardous Materials 35 3.2 Spills of Hazardous Materials 38 Part 2 – Committing to Process Safety 39 4 LAPP Risk Management Concepts 41 4.1 Occupational Safety and Process Safety 41 4.2 Hierarchy of Controls 41 4.3 Inherently Safer Design (ISD) 42 4.4 Basic Risk Concepts 44 4.5 A Risk Management Program 47 4.6 Anatomy of an Incident 48 4.7 Preventive and Mitigative Safeguards 49 4.8 Applying a Risk-Based Approach in a LAPP 51 5 Process Safety Culture in the LAPP 55 5.1 RBPS Element 1: Process Safety Culture 55 5.2 Leaders’ Responsibilities for Positive Safety Culture 58 5.3 Resources and Examples for Process Safety Culture 59 6 Standards for the LAPP 63 6.1 RBPS Element 2: Compliance with Standards 63 6.2 Risk Management Focus 65 6.3 Different Codes and Standards When Scaling Up from Laboratory to Pilot Plant 65 6.4 Jurisdictional Requirements 67 6.5 Resources for Compliance with Standards 67 7 Process Safety Competency and Training in the LAPP 69 7.1 RBPS Element 3: Process Safety Competency 69 7.2 RBPS Element 12: Training and Performance Assurance 72 8 Workforce Involvement and Stakeholder Outreach in the LAPP 79 8.1 RBPS Element 4: Workforce Involvement 79 8.2 RBPS Element 5: Stakeholder Outreach 82 Part 3 – Understanding Hazards and Risks 83 9 Process Safety Knowledge Management in the LAPP 85 9.1 RBPS Element 6: Process Knowledge Management 85 9.2 Overview of Information and Data Needs 86 9.3 Sources of Information and Data 89 9.4 Process Safety Information during Scale-up 92 10 Types of Hazards 95 10.1 Reactive Chemistry Hazards 95 10.2 Toxicity Hazards 115 10.3 Flammability and Combustibility Hazards 121 10.4 Temperature Hazards 137 10.5 Overpressure Hazards 140 10.6 Other Common LAPP Hazards 142 Table of Contents vii ix 11 Hazard Identification and Risk Analysis (HIRA) in the LAPP 153 11.1 RBPS Element 7: Hazard Identification and Risk Analysis 153 11.2 HIRA Team Members 156 11.3 HIRA Approaches Used in LAPPs 156 11.4 Qualitative versus Quantitative Analysis of Risks in LAPPs 165 11.5 ACS Hazard Analysis Tools 168 11.6 Evaluating the Effort Level for HIRAs 168 11.7 Determining the Extent of the HIRAs 169 Part 4 – Managing Risk: Engineered Controls 171 12 Spill and Leak Protection 173 12.1 Containment 173 12.2 Flexible hose and tubing 173 13 Fire and Over-Temperature Protection 175 13.1 Fire Prevention 175 13.2 Fire Mitigation 183 13.3 Over-Temperature Protection 185 14 Overpressure Prevention and Protection 191 14.1 Pressure Protection for Equipment 191 14.2 Pressure and Vacuum Relief for Atmospheric Pressure Vessels 196 14.3 Process Conditions/Situations to Consider in Pressure Relief Device Design 197 14.4 Blast Containment Cells and Pressure Relief for Building Areas 198 14.5 Venting Location and Downstream Treatment of Material Vented 201 15 Ventilation Controls 203 15.1 Ventilation Systems 203 15.2 Laboratory Chemical Fume Hoods 205 15.3 Pilot Plant Ventilation 207 15.4 Permanent Total Enclosures for Containment in the LAPP 207 16 Automated Shut-down Systems 209 16.1 Selection and Design Based on Hazard Identification and Risk Analysis 209 16.2 Basic Control Systems and Safety Shut-down Systems 209 16.3 Independent Automated Safety Shut-down Systems 210 16.4 Fail-Safe Design Considerations 212 16.5 Important Design Features for Control Systems 212 16.6 Control of Changes and Maintenance for Engineered Safeguards 214 16.7 Additional References 215 17 Engineered Controls for Common Hazards 217 17.1 Cryogenic Fluids and Compressed Gases 217 17.2 Cryogenic Fluids and Compressed Gas Cylinders 218 17.3 Glass Equipment 228 17.4 Gloveboxes 228 Part 5 – Managing Risk: Administrative Controls 235 18 Administrative Fire and Explosion Safeguards 237 18.1 Standards and Guidance for Fire Prevention 237 18.2 Ignition Source Control: Procedures 237 18.3 Manual Fire Suppression 238 19 Administrative Safeguards for Hazards in LAPPs 239 19.1 Good Practices for Compressed Gas and Cryogenic Cylinders 239 19.2 Regulations and Standards for Compressed Gases and Cryogenic Fluids 239 19.3 Procedures and Best Practices for Compressed Gases 241 19.4 Good Practices for Storage, Movement, and Use of Cryogenic Fluids 248 19.5 Good Practices For Handling Glass 251 19.6 Administrative Controls for Reactive Hazards 251 Part 6 – Managing Risk: RBPS Management Systems 253 20 Operating Procedures and Conduct of Operations in the LAPP 255 20.1 RBPS Element 8: LAPP Operating Procedures 255 20.2 RBPS Element 15: Conduct of Operations 260 21 Safe Work Practices and Contractor Management in the LAPP 263 21.1 RBPS Element 9: Safe Work Practices 263 21.2 RBPS Element 11: Contractor Management 266 22 Asset Integrity and Reliability in the LAPP 269 22.1 RBPS Element 10: Asset Integrity and Reliability 269 22.2 A Management Approach for Assuring Asset Integrity and Reliability 270 22.3 Examples of Asset Integrity and Reliability Management System Failures 271 22.4 Glass Equipment—Asset Integrity and Reliability Challenge for LAPPs 274 23 Management of Change (MOC) and Operational Readiness in the LAPP 277 23.1 RBPS Element 13: Management of Change 277 23.2 RBPS Element 14: Operational Readiness 281 Table of Contents ix xi 24 Emergency Management in the LAPP 283 24.1 RBPS Element 16: Emergency Management 283 24.2 Emergency Planning 283 24.3 Implementing an Emergency Management Plan 284 24.4 Emergency Equipment 285 24.5 Training and Drills 285 24.6 Deficiencies in Emergency Planning and Response in LAPP Cases 286 24.7 Controlling Unattended Experimental Work and Working Alone in LAPPs 288 Part 7 – Learning from Experience 291 25 Investigating Incidents 293 25.1 Incident Terminology 293 25.2 RBPS Element 17: Incident Investigation 294 25.3 Steps of an Incident Investigation 295 25.4 Ensure Lessons Are Learned and Remembered 298 25.5 Learn from Experience of Others 298 26 Metrics, Auditing, and Management Review in the LAPP 299 26.1 RBPS Element 18: Measurement and Metrics 299 26.2 RBPS Element 19: Auditing 300 26.3 RBPS Element 20: Management Review and Continuous Improvement 302 Part 8 – Conclusion 305 References 307 Appendix A Cases 323 Appendix B Examples 453 Appendix C Control Banding Strategies 501 Appendix D Glass Equipment Design 517 Index 525

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Book SynopsisThis book commemorates the 25th anniversary of the International Izatt-Christensen Award in Macrocyclic and Supramolecular Chemistry. The award, one of the most prestigious of small awards in chemistry, recognizes excellence in the developing field of macrocyclic and supramolecular chemistry Macrocyclic and Supramolecular Chemistry: How Izatt-Christensen Award Winners Shaped the Field features chapters written by the award recipients who provide unique perspectives on the spectacular growth in these expanding and vibrant fields of chemistry over the past half century, and on the role of these awardees in shaping this growth. During this time there has been an upsurge of interest in the design, synthesis and characterization of increasingly more complex macrocyclic ligands and in the application of this knowledge to understanding molecular recognition processes in host-guest chemistry in ways that were scarcely envisioned decades earlier.In October 2016, Table of ContentsList of Contributors xv Preface xviii Acknowledgements xx 1 The Izatt–Christensen Award in Macrocyclic and Supramolecular Chemistry: A 25-Year History (1991–2016) 1Reed M. Izatt, Jerald S. Bradshaw, Steven R. Izatt, and Roger G. Harrison 1.1 Introduction 1 1.2 International Izatt–Christensen Award in Macrocyclic and Supramolecular Chemistry 2 1.3 International Symposium on Macrocyclic and Supramolecular Chemistry 4 1.4 Izatt–Christensen award sponsor: IBC Advanced Technologies, Inc. 6 1.5 Summary 7 References 8 2 Supramolecular Chemistry with DNA 10Pongphak Chidchob and Hanadi Sleiman 2.1 Introduction 10 2.2 Motifs in structural DNA nanotechnology 10 2.3 Dynamic assembly and molecular recognition with DNA 13 2.4 Supramolecular assembly with hybrid DNA materials: increasing the letters of the alphabet 14 2.5 Conclusion 33 References 34 3 Anion, Cation and Ion-Pair Recognition by Macrocyclic and Interlocked Host Systems 38Paul D. Beer and Matthew J. Langton 3.1 Introduction 38 3.2 Electrochemical molecular recognition 38 3.3 Anion recognition and sensing by macrocyclic and interlocked hosts 44 3.4 Halogen-bonding anion recognition 55 3.5 Ion-pair recognition 59 3.6 Metal-directed self-assembly 62 3.7 Conclusions 67 3.8 Acknowledgements 67 References 67 4 Perspectives in Molecular Tectonics 73Mir Wais Hosseini 4.1 Preamble: dreams and pathway 73 4.2 Introduction 75 4.3 From tectons to networks 75 4.4 Summary and outlook 87 4.5 Acknowledgements 88 References 88 5 Three Tales of Supramolecular Analytical Chemistry 92Margaret K. Meadows and Eric V. Anslyn 5.1 Introduction 92 5.2 Citrate sensing 93 5.3 Rapid analysis of enantiomeric excess 101 5.4 Differential sensing 109 5.5 Conclusion 123 References 123 6 Robust Host–Guest Chemistry of Cucurbit[n-uril: Fundamentals and Applications of the Synthetic Receptor Family 127Kimoon Kim, Dinesh Shetty, and Kyeng Min Park 6.1 Personal pathway to the discovery of cucurbit[n-uril and early day developments 127 6.2 Structures and physical properties of CB[n- 129 6.3 General host–guest chemistry of CB[n- 129 6.4 High-affinity host–guest pairs 130 6.5 Functionalized CBs 133 6.6 Applications of high-affinity CB[6- complexes 134 6.7 Applications of high-affinity CB[7- complexes 137 6.8 Conclusions 140 6.9 Acknowledgements 141 References 141 7 Molecular Recognition in Biomimetic Receptors 146Peter C. Knipe, Sam Thompson, and Andrew D. Hamilton 7.1 Molecular recognition in biological systems 146 7.2 Model systems to investigate fundamental forces 146 7.3 Recognition of more complex systems – into the realm of peptides 149 7.4 A general approach to peptide mimicry – targeting secondary structure 152 7.5 Super-secondary structures and beyond 156 7.6 Outlook 159 References 160 8 A Lifetime Walk in the Realm of Cyclam 165Luigi Fabbrizzi 8.1 Synthesis and development of cyclam and related macrocycles 165 8.2 Macrocyclic effects and the importance of being 14-membered 170 8.3 Cyclam promotes the redox activity of the encircled metal ion 176 8.4 Scorpionands: cyclam derivatives with an aggressive tail, biting a chelated metal from the top 180 8.5 Azacyclams: cyclam-like macrocycles with built-in functionalization 187 8.6 Conclusion 193 8.7 Acknowledgements 195 References 196 9 Porosity in Metal–Organic Compounds 200Alexander Schoedel and Omar M. Yaghi 9.1 Introduction 200 9.2 Werner complexes 201 9.3 Hofmann clathrates 201 9.4 Coordination polymers 204 9.5 Porosity in metal–organic frameworks 209 9.6 The discovery of MOF-5: the golden age of metal–organic frameworks 211 9.7 The Cambridge Structural Database – an essential tool for MOF chemists 214 9.8 Concluding remarks 215 9.9 Acknowledgement 215 References 215 10 Cyclodextrin-based Supramolecular Systems 220Akira Harada 10.1 Introduction 220 10.2 Cyclodextrin-containing polymers 220 10.3 CD-organometallic complexes 222 10.4 Complex formation of cyclodextrin with polymers 223 10.5 Polymerization by CDs 225 10.6 Supramolecular polymers 228 10.7 Side-chain recognition by CDs 230 10.8 CD-based molecular machines 230 10.9 Macroscopic self-assembly through molecular recognition 233 10.10 Self-healing by molecular recognition 235 10.11 Stimuli-responsive polymers 236 10.12 Conclusion 238 References 238 11 Making the Tiniest Machines 241David A. Leigh 11.1 Introduction 241 11.2 Property effects using molecular shuttles 245 11.3 Molecular motors and ratchet mechanisms 248 11.4 Small molecules that can “walk” along molecular tracks 254 11.5 Making molecules that make molecules 257 11.6 Outlook 257 11.7 Acknowledgements 259 References 259 12 Clipping an Angel’s Wings 261Roeland J.M. Nolte, Alan E. Rowan, and Johannes A.A.W. Elemans 12.1 Introduction 261 12.2 Molecular clips 263 12.3 Molecular capsules 278 12.4 Outlook 282 12.5 Acknowledgements 282 References 283 13 From Lanthanide Shift Reagents to Molecular Knots: The Importance of Molecular and Mental Flexibility 288Jeremy K.M. Sanders 13.1 Introduction: 1969–76 288 13.2 Metalloporphyrins 289 13.3 Macrocycles based on cholic acid 296 13.4 Designed donor–acceptor catenanes 297 13.5 Dynamic combinatorial chemistry 298 13.6 Conclusions 304 References 305 14 Texaphyrins: Life, Death, and Attempts at Resurrection 309Jonathan L. Sessler 14.1 Introduction 309 14.2 Early days 309 14.3 Starting Pharmacyclics, Inc. 311 14.4 Early biological studies of texaphyrins 314 14.5 Clinical studies of texaphyrins at Pharmacyclics, Inc. 316 14.6 Changes in direction at Pharmacyclics, Inc. 316 14.7 Current research efforts involving texaphyrin 317 14.8 Texaphyrin-platinum conjugates 318 14.9 Acknowledgements 321 References 321 15 Macrocyclic Coordination Chemistry of Resorcin[4-arenes and Pyrogallol[4-arenes 325Harshita Kumari, Carol A. Deakyne, and Jerry L. Atwood 15.1 Introduction 325 15.2 History of hydrogen-bonded pyrogallol[4-arene- and resorcin[4-arene-based nanocapsules 326 15.3 Metal-seamed pyrogallol[4-arene- and resorcin[4-arene-based complexes 327 15.4 Concluding remarks 342 References 342 16 Dynamic Control of Recognition Processes in Host–Guest Systems and Polymer–Polymer Interactions 346Seiji Shinkai 16.1 Introduction 346 16.2 Dynamic control of crown ether functions by chemical and physical signals 347 16.3 Stereochemical studies of calix[n-arene derivatives 351 16.4 Ion and molecule recognition by functionalized calix[n-arenes and their application to super Na+-sensors and novel [60-fullerene isolation methods 351 16.5 Molecular design of novel sugar-sensing systems using boronic acid–diol macrocyclization 352 16.6 From molecular machines to allosteric effects 353 16.7 From allosteric effects to aggregation-induced emission (AIE) 354 16.8 Extension of cooperative actions to polymeric and biological systems 356 16.9 Summary 357 16.10 Acknowledgements 357 References 357 17 Cation Binders, Amphiphiles, and Membrane Active Transporters 360George W. Gokel, Saeedeh Negin, Joseph W. Meisel, Mohit B. Patel, Michael R. Gokel, and Ryan Cantwell 17.1 Introduction 360 17.2 Conceptual development of lariat ethers for transport 361 17.3 Recognition of the ability of lariat ethers to form membranes 363 17.4 Use of lariat ethers to demonstrate cation–π interactions 365 17.5 Development of synthetic cation channels based on crown ethers 367 17.6 Development of synthetic anion channels based on amphiphilic peptides 370 17.7 Membrane active amphiphiles as biologically active and applicable compounds 371 17.8 Conclusion 373 References 373 18 Supramolecular Technology 377David N. Reinhoudt 18.1 Introduction 377 18.2 Chemical sensing 378 18.3 Membrane transport 379 18.4 Nonlinear optical materials 380 18.5 Supramolecular technology for nanofabrication 380 References 382 19 Synthesis of Macrocyclic Complexes Using Metal Ion Templates 383Daryle H. Busch 19.1 Introduction 383 19.2 Macrocycle synthesis 384 References 386 20 Serendipity 388Paul R. McGonigal and J. Fraser Stoddart 20.1 Serendipity in scientific discovery 388 20.2 Donor–acceptor charge transfer interactions 390 20.3 Cyclodextrins (CDs) 400 20.4 Conclusions and outlook 410 References 411 21 Evolution of ZnII–Macrocyclic Polyamines to Biological Probes and Supramolecular Assembly 415Eiichi Kimura, Tohru Koike, and Shin Aoki 21.1 Introduction 415 21.2 Zinc enzyme models from ZnII macrocyclic polyamine complexes 415 21.3 ZnII–cyclens for selective recognition of nucleobases (thymine and uracil) and manipulation of genes 427 21.4 New supramolecular assemblies with ZnII–cyclen 434 21.5 Acknowledgements 438 References 438 22 Contractile and Extensile Molecular Systems: Towards Molecular Muscles 444Jean-Pierre Sauvage, Vincent Duplan, and Frédéric Niess 22.1 Preamble: the Izatt–Christensen award and Jean-Pierre Sauvage 444 22.2 Introduction 446 22.3 Interlocking ring compounds 447 22.4 Non-interlocking compounds 456 22.5 Conclusion 458 22.6 Acknowledgements 461 References 461 Index 465

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Book SynopsisTeaches the application of Reactive Transport Modeling (RTM) for subsurface systems in order to expedite the understanding of the behavior of complex geological systems This book lays out the basic principles and approaches of Reactive Transport Modeling (RTM) for surface and subsurface environments, presenting specific workflows and applications. The techniques discussed are being increasingly commonly used in a wide range of research fields, and the information provided covers fundamental theory, practical issues in running reactive transport models, and how to apply techniques in specific areas. The need for RTM in engineered facilities, such as nuclear waste repositories or CO2 storage sites, is ever increasing, because the prediction of the future evolution of these systems has become a legal obligation. With increasing recognition of the power of these approaches, and their widening adoption, comes responsibility to ensure appropriate application of avTable of ContentsList of Contributors xv Preface xix Acknowledgements xxiii 1 Application of Reactive Transport Modeling to CO2 Geological Sequestration and Chemical Stimulation of an Enhanced Geothermal Reservoir 1Tianfu Xu, Hailong Tian and Jin Na 1.1 Introduction 1 1.2 Fundamental Theories 2 1.2.1 Governing Equations for Flow and Transport 2 1.2.2 Equations for Chemical Reactions 3 1.2.3 Solution Method for Transport Equations 6 1.2.4 Solution Method for Mixed Equilibrium‐Kinetics Chemical System 7 1.3 Application to CO2 Geological Storage (CGS) 8 1.3.1 Overview of Applications in CGS 8 1.3.2 Long‐Term Fate of Injected CO2 in Deep Saline Aquifers 10 1.3.2.1 Brief Description of CO2 Storage Site in the Songliao Basin 10 1.3.2.2 Conceptual Model 11 1.3.2.3 Results and Discussion 14 1.3.2.4 Summary and Conclusions 21 1.3.3 Evolution of Caprock Sealing Efficiency after the Intrusion of CO2 26 1.3.3.1 Introduction 26 1.3.3.2 Geological Setting 27 1.3.3.3 Conceptual Model 27 1.3.3.4 Results and Discussion 32 1.3.3.5 Concluding Remarks 44 1.4 Reactive Transport Modeling for Chemical Stimulation of an Enhanced Geothermal Reservoir 45 1.4.1 General Description 45 1.4.2 Brief Description of the EGS Site in Songliao Basin 47 1.4.3 Conceptual Model 47 1.4.3.1 Geometry and Boundary Conditions 47 1.4.3.2 Physical Parameters 48 1.4.3.3 Initial Mineral Composition 48 1.4.3.4 Water Chemistry 49 1.4.3.5 Thermodynamic and Kinetic Parameters 49 1.4.4 Results and Discussion 50 1.4.4.1 HCl Preflush 50 1.4.4.2 Mud Acid Main Flush 50 1.4.5 Concluding Remarks 52 1.5 Conclusions and Outlook 54 Appendix A 55 Acknowledgements 56 References 56 2 Modeling Reactive Transport in CO2 Geological Storage: Applications at the Site Scale and Near‐Well Effects 61P. Audigane, Irina Gaus and Fabrizio Gherardi 2.1 Introduction 61 2.2 Short‐ and Long‐term Predictive Simulations of Trapping Mechanisms 65 2.2.1 Sandy Aquifer: Predictions of Long‐term Effects of Storage in Sleipner, North Sea, Norway 69 2.2.2 Near‐well Effects in Saline Aquifers in Carbonate Formations: Carbonate Dissolution, Drying, and Salt Crystallization in the Dogger, Paris Basin 72 2.2.3 Depleted Offshore Gas Field: Mixing with Methane K12B Field 77 2.3 Studying CO2 Leakage and Well Integrity by Reactive Transport Modeling 80 2.3.1 Near‐well Problem in the Paris Basin 81 2.3.1.1 Weathering of Drilling Cement Prior to Injection 81 2.3.1.2 Cement–Reservoir–Caprock Interface 84 2.3.2 The Impact of CO2 Leakage on Groundwater 90 2.4 Discussion and Conclusion 92 References 98 3 Process‐based Modelling of Syn‐depositional Diagenesis 107Fiona Whitaker and Miles Frazer 3.1 Introduction 107 3.2 Fundamentals of Syn‐depositional Carbonate Diagenesis 108 3.3 Understanding Syn‐depositional Diagenesis through RTM 111 3.3.1 Marine Diagenesis 111 3.3.2 Vadose Zone Diagenesis 113 3.3.3 Freshwater Lens Diagenesis 116 3.3.4 Mixing Zone Diagenesis 118 3.4 Challenges in Reactive Transport Modelling of Syn‐depositional Diagenesis 120 3.5 Coupled Forward Stratigraphic‐Diagenetic Models 124 3.5.1 Stratigraphic Forward Models (SFMs) 124 3.5.2 Carbonate Diagenesis and Sequence Stratigraphy 124 3.5.3 Integrating Diagenesis into SFMs – 1D and 2D Modelling 126 3.5.4 3D Forward Stratigraphic‐Diagenetic Models (FSDMs) 128 3.5.5 Application of CARB3D+ to Understanding Carbonate Sedimentation and Syn‐sedimentary Diagenesis 130 3.5.5.1 Prediction of Sediment Distribution and Platform Architecture using CARB3D+ 131 3.5.5.2 FSDM – Simulation of Diagenetic Hydrozones 137 3.5.5.3 FSDM – Simulation of Diagenetic Processes 140 3.6 Discussion and Conclusion 145 Acknowledgements 148 References 148 4 Reactive Transport Modeling and Reservoir Quality Prediction 157Yitian Xiao and Gareth D. Jones 4.1 Fundamental Challenges in Reservoir Quality Prediction 157 4.2 Reactive Transport Modeling Approach 164 4.3 Modeling Dolomitization in Different Hydrogeological Systems 165 4.3.1 Dolomitization and Impact on Carbonate Reservoir Quality: From Reservoir to Outcrop Observations 165 4.3.2 Conceptual Hydrological Models of Dolomitization 168 4.3.3 Geothermal Convection Models 171 4.3.4 Mixing Zone Models 173 4.3.4.1 Traditional Mixing Zone Model 173 4.3.4.2 Ascending Freshwater–Mesohaline Brine Mixing Model: La Molata Miocene Outcrop Case Study 175 4.3.5 Reflux Dolomitization Models 177 4.3.5.1 2D Simulations of Brine Reflux Dolomitization 177 4.3.5.2 3D Simulations of Brine Reflux Dolomitization 181 4.3.5.3 Brine Reflux Dolomitization Case Studies 189 4.3.6 Fault‐Controlled Hydrothermal Models 195 4.3.6.1 2D and 3D Conceptual HTD Models 196 4.3.6.2 Fault‐controlled Dolomitization at the Benicassim Outcrop in Maestrat Basin, Spain 196 4.3.7 Summary of Dolomite RTM Results 200 4.4 Early Diagenesis in Isolated Carbonate Platforms 200 4.5 Geothermal Convection and Burial Diagenesis 201 4.5.1 Geothermal Convection and Reservoir Quality in Tengiz Field, Kazakhstan 202 4.5.2 Geothermal Convection in South Atlantic Pre‐Salt Rift Carbonates 203 4.6 Burial Diagenesis: Fault‐Controlled Illitization 208 4.6.1 Illitization and Permeability Reduction in Rotliegendes Play, Germany 208 4.6.2 1D and 2D Reactive Transport Models 208 4.7 Diagenesis and Reservoir Alteration Associated with Oil and Gas Operations 211 4.7.1 CO2 and Acid Gas Injection (AGI) in Siliciclastic and Carbonate Reservoirs 211 4.7.2 Reactive Transport Model Setup 212 4.7.3 Simulation Results: Injection in Siliciclastic Reservoirs 212 4.7.3.1 Feldspar‐Rich Sandstone Reservoir 212 4.7.3.2 Quartz‐Dominated Sandstone Reservoir 212 4.7.4 Simulation Results: Injection in Carbonate Reservoirs 213 4.7.4.1 Limestone Reservoir 213 4.7.4.2 Dolomite Reservoir 215 4.7.5 Summary of CO2 and Acid Gas Injection and Reservoir Alteration 216 4.7.6 Reservoir Alteration from Steam and Acid Injection 218 4.7.6.1 Case Study: RTM of Steam Flood in Eocene Carbonate Reservoir, Wafra Field 220 4.8 The Present and Future Role of Reactive Transport Models for Reservoir Quality Prediction 221 Acknowledgements 226 References 227 5 Modeling High‐Temperature, High‐Pressure, High‐Salinity and Highly Reducing Geochemical Systems in Oil and Gas Production 237Guoxiang Zhang, Jeroen Snippe, Esra Inan‐Villegas and Paul Taylor 5.1 Introduction 237 5.2 Drivers of the Geochemical Reactions in 4‐High Reservoirs During Oil and Gas Production 238 5.2.1 High Temperature 238 5.2.2 High Pressure 239 5.2.3 Salinity, pH and Alkalinity 240 5.2.4 Contrast in Redox Potential 240 5.3 Typical Geochemical Processes in the 4‐High Reservoir During HC Production and the Impacts on Production 242 5.3.1 Scaling of Wells and Near Wellbore Formation Rocks by Carbonate Precipitation 242 5.3.2 Well Scaling by Precipitation of Sulfate Minerals 243 5.3.3 Scaling Due to Precipitation of Other Minerals 243 5.3.4 Scaling Due to Combined Precipitation of Multiple Minerals, Solid Solution and/or Fines Migration 244 5.3.5 Souring by Thermochemical Sulfate Reduction (TSR) during HC Production 245 5.3.6 Souring by Bacterial Sulfate Reduction (BSR) During HC Production 247 5.3.7 Scavenging – An Overview of the Sulfur Mass Balance in the HC Reservoir During TSR or BSR 248 5.3.8 Clay Swelling Due to Cation Exchange During Injection of Water 251 5.3.9 Wellbore Cement Corrosion by Acid Attack from Formation Water/Brine 252 5.4 Modeling Approaches and Numerical Simulators 255 5.4.1 Gaps of the Simulators in the Oil and Gas Production Technology Community 255 5.4.1.1 Scale Simulators 255 5.4.1.2 Souring Simulators 255 5.4.2 Clay Swelling Evaluation Approaches 256 5.4.3 Reactive Transport Modeling Simulators Applicable to Petroleum Geochemical Systems 257 5.4.4 Handling High Temperature 259 5.4.5 Handling High Pressure 261 5.4.6 Handling High Salinity 261 5.4.7 Handling Highly Reducing Conditions 263 5.4.8 Numerical Simulators Available for Modeling 4‐High Reservoirs 264 5.4.8.1 TOUGHREACT and TOUGHREACT‐PITZER 264 5.4.8.2 PHREEQC‐based Simulators 265 5.5 Applications of RTM in Evaluating Risks Related to Geochemical Processes in 4‐High Reservoirs 266 5.5.1 RTM Evaluation of Well and Reservoir Scaling and Clay Swelling During Waterflood 266 5.5.1.1 Geological, Hydrogeological and Geochemical Setting 266 5.5.1.2 RTM Setup using TOUGHREACT‐PITZER and Model Calibration 269 5.5.1.3 Model‐Predicted Scaling Risk 272 5.5.1.4 Model‐Predicted Clay Swelling Risk 272 5.5.1.5 Summary and Limitations 276 5.5.2 Modeling Reservoir Scaling and Souring by TSR During Waterflood 285 5.5.2.1 Geochemical Setting 286 5.5.2.2 Formation Brine Composition 286 5.5.2.3 Geochemical Reactions Induced by Waterflood 288 5.5.2.4 Temperature‐Dependent and Pressure‐Dependent Thermodynamic Data 289 5.5.2.5 Handling Solid Reduced Sulfur (Pyrite or Pyrrhotite) Under Reduced Conditions 289 5.5.2.6 TOUGHREACT RTM Phase 1: Screening Phase (Risk Screening) 291 5.5.2.7 TOUGHREACT Validation Model, Phase 2: Anhydrite Leachability Experiment to Validate the Kinetic Parameters of Anhydrite Dissolution 293 5.5.2.8 TOUGHREACT Validation Model, Phase 2: Evaluation Uncertainties in the TSR Rate Constant, Anhydrite Leachability, and Iron‐Chlorite Leachability 295 5.5.2.9 TOUGHREACT RTM Phase 3: Prediction 298 5.5.3 RTM Evaluation of Wellbore Cement Corrosion of a Legacy Well in CO2 and CO2/Acid Gas Storage 299 5.5.3.1 Mineralogical Composition and Water Composition of the Wellbore Intervals 300 5.5.3.2 Model Setup 300 5.5.3.3 Modeled Wellbore Cement Corrosion Processes 302 5.5.3.4 Sensitivity Studies 309 5.6 Summary 311 Acknowledgements 311 References 312 6 Multiphase Fluid Flow and Reaction in Heterogeneous Porous Media for Enhanced Heavy Oil Production 319Xinfeng Jia, Xiaohu Dong, Jinze Xu and Zhangxin Chen 6.1 Introduction 319 6.1.1 Heavy Oil Reserve Distribution 319 6.1.2 Current Exploitation Methods 319 6.1.3 Potential in the Post‐Steam Injection Era 321 6.1.3.1 Hybrid Steam–Solvent Processes 321 6.1.3.2 Steam − Solvent − Gas Co‐injection Processes 322 6.1.4 Transport Equations 323 6.2 Thermal Recovery Processes 324 6.2.1 Modeling Assumptions 324 6.2.2 Heat Transfer in SAGD 325 6.2.2.1 Gravity Drainage in a Transition Zone 327 6.2.2.2 Boundary Movement 327 6.2.2.3 Boundary Position 327 6.2.3 Heat Transfer in CSS 331 6.2.4 Conductive and Convective Heat Transfer 334 6.2.5 Multiple Phase Flow 334 6.3 Hybrid Thermal‐Solvent Process 336 6.3.1 Mass Transfer 336 6.3.2 Coupled Heat and Mass Transfer 337 6.3.3 SAGD vs. ES‐SAGD 338 6.4 Thermal–Solvent–Gas Co‐injection Process 338 6.4.1 PVT Behaviour 338 6.4.2 MTFs Stimulation Process 341 6.4.3 MTFs‐Assisted Gravity Drainage Process 342 6.4.4 Recovery Mechanisms 344 6.5 Uncertainty Analysis for Reservoir Heterogeneity 344 6.5.1 Bottom Water 344 6.5.2 Shale Barrier 346 6.5.3 Lean Zones 346 6.6 Conclusions 348 6.7 Recommendations 349 6.7.1 Effects of Non‐Condensable Gases on Heat and Mass Transfer 349 6.7.2 Effects of Reservoir Heterogeneity on Heat and Mass Transfer 349 Acknowledgements 349 References 349 7 Modeling the Potential Impacts of CO2 Sequestration on Shallow Groundwater: The Fate of Trace Metals and Organics and the Effect of Co‐injected H2S 353Liange Zheng and Nicolas Spycher 7.1 Introduction 353 7.2 The Fate of Trace Metals and Organics in a Shallow Aquifer in Response to a Hypothetical CO2 and Brine Leakage Scenario 355 7.2.1 Simulator 356 7.2.2 Model Setup 356 7.2.3 Geochemical Model 359 7.2.4 Metal Release from CO2 and/or Brine Leakage 361 7.3 Impact of Co‐injected H2S on the Quality of a Freshwater Aquifer 373 7.3.1 The Simulator 377 7.3.2 Model Setup 378 7.3.3 Metal Mobilization under CO2+H2S Leakage 378 7.4 Summary and Conclusion 381 Appendix A 384 Appendix B 387 Acknowledgements 388 References 388 8 Modeling the Long‐term Stability of Multi‐barrier Systems for Nuclear Waste Disposal in Geological Clay Formations 395Francis Claret, Nicolas Marty and Christophe Tournassat 8.1 Introduction 395 8.1.1 Geological Final Disposal of Radioactive Waste 395 8.1.2 The ‘Clay Concept’ 396 8.1.3 How a Repository System Evolves in Time and Space 396 8.1.4 Modeling How a Repository System Evolves 397 8.2 Modeling Physical and Chemical Processes on Repository Scales 410 8.2.1 Reactive Transport Modeling Principles 410 8.2.1.1 Reactive Transport Constitutive Equations 410 8.2.1.2 Geometry and Space Discretization 410 8.2.1.3 Where Everything Takes Place: the Pore Space 411 8.2.1.4 Kinetic and Thermodynamic Databases 411 8.2.1.5 Initial Conditions 413 8.2.2 Repository Material Properties 414 8.2.2.1 Generalities 414 8.2.2.2 Clay Materials 414 8.2.2.3 Cement Materials 420 8.2.2.4 Iron (Metals) 422 8.2.2.5 Glass 423 8.3 Literature Review 423 8.3.1 Clay/Concrete Interactions 424 8.3.2 Iron/Clay Interactions 426 8.3.3 Clay/Iron/Atmosphere (O2) Interactions 427 8.3.4 Glass Corrosion and its Interaction with Clay 428 8.4 Recent Improvements and Future Challenges in the RTM Approach to Repository Systems 429 8.4.1 Necessary Simplifications in the RTM Approach 429 8.4.2 Modeling Diffusion in Porous Systems with Consideration of Electrostatic Effects 429 8.4.3 Diffusion in Non‐saturated Conditions 430 8.4.4 Two‐Phase Flow Models 431 8.4.5 Water Consumption and Non‐saturated Conditions 432 8.4.6 Reducing Porosity and Coupling with Transport Parameters 432 8.4.7 Accounting for Material Heterogeneities 433 8.4.8 Kinetics versus Local Equilibrium Calculations 433 8.4.9 Modeling Glass Alteration in Clay‐rock Environments 434 8.4.10 Coupling Mechanics and Chemistry 435 Acknowledgements 436 References 436 9 Modeling Variably Saturated Water Flow and Multicomponent Reactive Transport in Constructed Wetlands 453Gunter Langergraber and Jirka Šimůnek 9.1 Introduction 453 9.2 The HYDRUS Wetland Module 455 9.3 The CW2D and CWM1 Biokinetic Models 456 9.3.1 CW2D Biokinetic Model 459 9.3.1.1 Stoichiometric Matrix and Reaction Rates 459 9.3.1.2 Model Parameters 459 9.3.2 CWM1 Biokinetic Model 463 9.3.2.1 Stoichiometric Matrix and Reaction Rates 463 9.3.2.2 Model Parameters 466 9.4 Simulation Results for Vertical Flow Constructed Wetlands Treating Domestic Wastewater 466 9.5 Experiences and Challenges using Wetland Models 474 9.5.1 Description of Water Flow 474 9.5.2 Values of the Biokinetic Model Parameters and Influent Fractionation 475 9.5.3 Clogging Model 477 9.5.4 Models as CW Design Tools 479 9.6 Summary and Conclusions 480 References 481 10 Reactive Transport Modeling and Biogeochemical Cycling 485Christof Meile and Timothy D. Scheibe 10.1 Introduction 485 10.2 Reactive Transport Model Formulations 486 10.3 The Representation of Microbes 488 10.3.1 Implicit Presence of Microbes 488 10.3.2 Explicit Representations 489 10.3.2.1 Functional Populations 490 10.3.2.2 Trait‐based Models 492 10.3.2.3 Bottom‐up Approaches 492 10.3.2.4 Metabolic Activity as Ecosystem Response 493 10.3.2.5 Emerging Patterns 494 10.4 Data Integration 495 10.5 Linking Models Across Scales 497 10.6 Summary and Outlook 501 Acknowledgements 502 References 502 11 Effective Stochastic Model For Reactive Transport 511Alexandre M. Tartakovsky 11.1 Introduction 511 11.2 Pore and Darcy Models for Transport with Bimolecular Reactions 515 11.3 Langevin Advection‐Diffusion‐Reaction Model 520 11.4 Parameterization of the Stochastic Model 521 11.5 The Langevin Model for Multicomponent Reactive Transport 523 11.6 Rayleigh‐Taylor Instability 528 11.7 Summary and Conclusions 529 Acknowledgement 530 References 530 Index 533

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Book SynopsisMicroscale Organic Chemistry: With Multistep and Multiscale Syntheses offers a modern approach to the laboratory experience within the organic division. Notable features include inquiry-driven experimentation, validation of the purification process, and the implementation of greener processes (including microwave use) to perform traditional experimentation. In addition to offering alternative methods to perform microscale experiments, this text offers strong pedagogy to promote student success through empowerment and encouragement.Table of ContentsChapter 1 Introduction 1 Chapter 2 Safety 6 Chapter 3 Introduction to Microscale Organic Laboratory Equipment And Techniques 20 Chapter 4 Determination of Physical Properties 47 Chapter 5 Microscale Laboratory Techniques 59 Chapter 6 Microscale Organic Laboratory Experiments 119 Chapter 7 Sequential Syntheses: the Transition From Macro To Micro 440 Chapter 8 Spectroscopic Identification The Monochromator 625 Chapter 9 Qualitative Identification Of Organic Compounds 649 Chapter 10 Advanced Microscale Organic Laboratory Experiments 685 Glossary G-1 Index I-1

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a huge range and FREE tracked UK delivery on ALL orders.

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a huge range and FREE tracked UK delivery on ALL orders.

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Book SynopsisSecond edition of an established text on common procedures for the identification and processing of evidence at scenes of crime Includes chapters on quality assurance and credibility of practices and processes issues surrounding major and complex crime Forensic handling of mass fatalities Crime scene reconstruction and impact on evidence recovery processes Table of ContentsIntroduction and Use of this Text xi List of Contributors xiv About the Companion Website xv PART I Crime Scene Principles 1 1 The Crime Scene Context 3Raul Sutton 1.1 Introduction 3 1.2 What is a crime? 4 1.3 The nature of the UK legal system 6 1.4 The legal system in England and Wales 7 1.5 Other courts 9 1.6 The judicial system in Northern Ireland 9 1.7 The Scottish legal system 11 1.8 Judicial processes that deal with causes of death 12 1.9 What constitutes evidence? 14 1.10 The chain of events in evidence gathering 15 1.11 The relationship between evidence gatherers and analysts 19 1.12 Health and safety considerations 20 Suggested further reading 21 2 First Officer Attending 22Keith Trueman and Christopher Moran 2.1 Introduction 22 2.2 Response to incident report 23 2.3 Personnel involved in the investigative process 24 2.4 Recording and recovery of scientific evidence 25 2.5 Initial considerations of the First Officer Attending (FOA) 25 2.6 Dealing with the victim 27 2.7 Dealing with witnesses 28 2.8 Dealing with suspects 29 2.9 Dealing with the crime scene(s) 29 2.10 Documentation 35 2.11 Dealing with violent crime 35 2.12 Summary and conclusion 36 3 The Role of the Crime Scene Investigator 38Keith Trueman and Christopher Moran 3.1 Introduction 38 3.2 Training the CSI 39 3.3 The responsibilities of a CSI 40 3.4 Forensic evidence 42 3.5 Request for CSI attendance at crime scenes 46 3.6 Actions when attending the crime scene 47 3.7 Initial scene assessment (including health and safety considerations) 48 3.8 Planning evidence recovery 51 3.9 Recording the evidence 52 3.10 The elimination process 58 3.11 Details of evidence recovered 58 3.12 Integrity, continuity and contamination 59 3.13 Packaging materials 64 3.14 Conclusion 68 PART II Evidence-gathering Techniques 71 4 Police Photography, Video Recording,3D Laser Scanning 73Chris Crowe and Christopher Moran 4.1 Introduction 73 4.2 General guidelines 74 4.3 Equipment 75 4.4 Exposure 76 4.5 Image quality/size 80 4.6 Depth of field 81 4.7 White balance 83 4.8 Image data 83 4.9 Flash photography 84 4.10 Room interiors 85 4.11 Vehicles 85 4.12 Evidential items 85 4.13 Recording injuries to the person 86 4.14 Night photography 88 4.15 Footwear impressions 89 4.16 Fingerprints 90 4.17 Recording video evidence at crime scenes 92 4.18 The use of digital images in court 94 4.19 3D laser scanning of scenes 95 Suggested further reading 96 5 Fingerprints 97David Charlton 5.1 Introduction 97 5.2 The nature of friction ridge skin 99 5.3 The structure of friction ridge skin 100 5.4 Friction ridge growth 100 5.5 Principles of friction ridge identification 102 5.6 Comparison methodology 103 5.7 Chemical composition of latent prints 105 5.8 Identification of common locations for prints 107 5.9 The use of powdering techniques to enhance latent finger marks 109 5.10 Chemical development techniques 112 5.11 Laboratory and scene applications 113 5.12 Fingerprints in bodily fluids 115 5.13 Scenes of fire 118 5.14 Optical methods to reveal fingerprints (laser and other light sources) 119 5.15 New and emerging techniques 122 5.16 Remote transmission 122 5.17 Chapter summary 123 Acknowledgements 125 Selected further reading 126 6 DNA-rich Evidence 128Terry Bartlett and Sara Short 6.1 Introduction and historical background 128 6.2 The structure and properties of DNA 129 6.3 DNA analysis 130 6.4 Types of DNA testing 130 6.5 Biological evidence 134 6.6 Procedures for collection of biological evidence: general considerations 136 6.7 Limitations of DNA evidence 147 6.8 Elimination and reference samples 148 6.9 Summary 148 References 149 7 Blood Pattern Analysis 151Raul Sutton and Terry Bartlett 7.1 Introduction 151 7.2 History of the development of blood spatter as a scientific discipline 152 7.3 Composition of blood 153 7.4 Physical properties of blood 154 7.5 Causes of bleeding 156 7.6 Blood dynamics 157 7.7 Drop-surface impact and droplet pattern 157 7.8 Determination of area of origin of spatter 161 7.9 Cast-off patterns 162 7.10 Arterial damage patterns 163 7.11 Non-spatter patterns 166 7.12 Physiologically altered bloodstains 169 7.13 Volume bloodstains 173 7.14 Composite patterns 175 7.15 Investigative transfer and contamination issues 176 7.16 Recording traces 176 7.17 Summary 178 Suggested further reading 178 8 Physical Evidence 180Craig Williams 8.1 Introduction 180 8.2 Tool marks 180 8.3 Clothing 182 8.4 Fibres 183 8.5 Footwear impressions 186 8.6 Glass fragments 188 8.7 Glass fragmentation 190 8.8 Soils 192 8.9 Firearms 193 8.10 Scene recovery of firearms 197 8.11 Gunshot residues (GSR) 199 8.12 Drugs of abuse (DOA) 200 8.13 The crime scene characteristics of various DOA 202 8.14 Presumptive tests for drugs 203 8.15 Amateur explosives 206 8.16 Summary 206 Suggested further reading 207 PART III Specialised Scenes and Report Writing 209 9 Fire Scene Examination 211Chris Perry and Mark McCabe 9.1 Introduction 211 9.2 The nature of fire 212 9.3 The oxygen demand of fuels 214 9.4 Flame and fire classifications; fire development 217 9.5 Types of evidence specific to fire scenes 219 9.6 Locating the origin of the fire 220 9.7 Fire cause determination and evidence-gathering methods 223 9.8 Methods for ascertaining whether a crime has been committed 226 9.9 Health and safety considerations 228 9.10 Summary 229 Suggested further reading 230 10 Examination of Recovered Stolen Motor Vehicles 231Keith Trueman 10.1 Introduction 231 10.2 What is a motor vehicle? 233 10.3 The definition of an auto crime 233 10.4 Auto crime scene examinations 237 10.5 Requests to attend an auto crime scene 238 10.6 The examination process 241 10.7 Conclusion 251 11 Managing Complex Scenes and Multiple or Mass Fatality Scenes 252Christopher Moran and Derek Forest 11.1 Introduction 252 11.2 Self-briefing 254 11.3 Communication 255 11.4 Establishing priorities 255 11.5 Avoidance of contamination 256 11.6 The forensic strategy 257 11.7 ‘Defence’ case review meeting 259 11.8 Incident debrief 259 11.9 Introduction to mass fatality incidents 260 11.10 The range and nature of mass fatality incidents 261 11.11 The type of investigation conducted 261 11.12 Sequence of events in managing disaster victim identification scenes 262 11.13 Recovery of mortal remains 264 Suggested further reading 266 12 Preparing Reports and Statements 267Keith Trueman 12.1 Introduction 267 12.2 Documentation at the crime scene 268 12.3 Photography 269 12.4 Plans, sketches and diagrams 269 12.5 The exhibit label 271 12.6 Handling the evidence 275 12.7 Statements of evidence 278 12.8 Criminal Justice Act 1967, section 9 278 12.9 Crime scene examination statements 279 12.10 Conclusion 281 13 Quality Assurance in Crime Scene Investigation 283Christopher Moran 13.1 Introduction 283 13.2 Informal aspects of quality assurance 284 13.3 The development of formal quality assurance 284 13.4 The role of the Forensic Science Regulator 285 13.5 Responsibility for measuring quality assurance 286 13.6 The accreditation process 287 13.7 Organisational requirements for accreditation 288 13.8 Personnel requirements for accreditation 288 13.9 Resource requirements for accreditation 289 13.10 Process requirements for accreditation 289 13.11 Management requirements for accreditation 290 13.12 Maintaining accreditation 290 Suggested further reading 292 Appendices 293 Index 303

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Book SynopsisSPREADSHEET APPLICATIONS IN CHEMISTRY USING MICROSOFT EXCEL Find step-by-step tutorials on scientific data processing in the latest versions of Microsoft Excel The Second Edition of Spreadsheet Applications in Chemistry Using Microsoft Excel delivers a comprehensive and up-to-date exploration of the application of scientific data processing in Microsoft Excel. Written to incorporate the latest updates and changes found in Excel 2021, as well as later versions, this practical textbook is tutorial-focused and offers simple, step-by-step instructions for scientific data processing tasks commonly used by undergraduate students. Readers will also benefit from an online repository of experimental datasets that can be used to work through the tutorials to gain familiarity with data processing and visualization in Excel. This latest edition incorporTable of Contents Introduction to Excel Statistical Analysis of Experimental Data Regression Analysis Calibration Plots in Analytical Chemistry Visualizing concepts in Physical Chemistry Regression Analysis using Solver

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Book SynopsisTrade Review"...this third edition of the book that I consider as the Electrochemistry bible is consistent with the evolution and development of electrochemistry in these last twenty years. The new chapters highlight the most recent advances and innovative techniques while the chapters dealing with older electrochemical methods have been lightened.... The authors have made a great job in this third edition to update the book with the electrochemistry currently studied and practiced in laboratories.... Both junior and senior electrochemists, from novices to experts, should have this book available in the laboratory."—Estelle Lebègue, Transition Metal Chemistry (2023) 48:433–436 https://doi.org/10.1007/s11243-023-00555-6Table of ContentsPreface xxi Major Symbols and Abbreviations xxv About the Companion Website liii 1 Overview of Electrode Processes 1 1.1 Basic Ideas 2 1.1.1 Electrochemical Cells and Reactions 2 1.1.2 Interfacial Potential Differences and Cell Potential 4 1.1.3 Reference Electrodes and Control of Potential at a Working Electrode 5 1.1.4 Potential as an Expression of Electron Energy 6 1.1.5 Current as an Expression of Reaction Rate 6 1.1.6 Magnitudes in Electrochemical Systems 8 1.1.7 Current–Potential Curves 9 1.1.8 Control of Current vs. Control of Potential 16 1.1.9 Faradaic and Nonfaradaic Processes 17 1.2 Faradaic Processes and Factors Affecting Rates of Electrode Reactions 17 1.2.1 Electrochemical Cells—Types and Definitions 17 1.2.2 The Electrochemical Experiment and Variables in Electrochemical Cells 18 1.2.3 Factors Affecting Electrode Reaction Rate and Current 21 1.3 Mass-Transfer-Controlled Reactions 23 1.3.1 Modes of Mass Transfer 24 1.3.2 Semiempirical Treatment of Steady-State Mass Transfer 25 1.4 Semiempirical Treatment of Nernstian Reactions with Coupled Chemical Reactions 31 1.4.1 Coupled Reversible Reactions 31 1.4.2 Coupled Irreversible Chemical Reactions 32 1.5 Cell Resistance and the Measurement of Potential 34 1.5.1 Components of the Applied Voltage When Current Flows 35 1.5.2 Two-Electrode Cells 37 1.5.3 Three-Electrode Cells 37 1.5.4 Uncompensated Resistance 38 1.6 The Electrode/Solution Interface and Charging Current 41 1.6.1 The Ideally Polarizable Electrode 41 1.6.2 Capacitance and Charge at an Electrode 41 1.6.3 Brief Description of the Electrical Double Layer 42 1.6.4 Double-Layer Capacitance and Charging Current 44 1.7 Organization of this Book 51 1.8 The Literature of Electrochemistry 52 1.8.1 Reference Sources 52 1.8.2 Sources on Laboratory Techniques 53 1.8.3 Review Series 53 1.9 Lab Note: Potentiostats and Cell Behavior 54 1.9.1 Potentiostats 54 1.9.2 Background Processes in Actual Cells 55 1.9.3 Further Work with Simple RC Networks 56 1.10 References 57 1.11 Problems 57 2 Potentials and Thermodynamics of Cells 61 2.1 Basic Electrochemical Thermodynamics 61 2.1.1 Reversibility 61 2.1.2 Reversibility and Gibbs Free Energy 64 2.1.3 Free Energy and Cell emf 64 2.1.4 Half-Reactions and Standard Electrode Potentials 66 2.1.5 Standard States and Activity 67 2.1.6 emf and Concentration 69 2.1.7 Formal Potentials 71 2.1.8 Reference Electrodes 72 2.1.9 Potential–pH Diagrams and Thermodynamic Predictions 76 2.2 A More Detailed View of Interfacial Potential Differences 80 2.2.1 The Physics of Phase Potentials 80 2.2.2 Interactions Between Conducting Phases 82 2.2.3 Measurement of Potential Differences 84 2.2.4 Electrochemical Potentials 85 2.2.5 Fermi Energy and Absolute Potential 88 2.3 Liquid Junction Potentials 91 2.3.1 Potential Differences at an Electrolyte–Electrolyte Boundary 91 2.3.2 Types of Liquid Junctions 91 2.3.3 Conductance, Transference Numbers, and Mobility 92 2.3.4 Calculation of Liquid Junction Potentials 96 2.3.5 Minimizing Liquid Junction Potentials 100 2.3.6 Junctions of Two Immiscible Liquids 101 2.4 Ion-Selective Electrodes 101 2.4.1 Selective Interfaces 101 2.4.2 Glass Electrodes 102 2.4.3 Other Ion-Selective Electrodes 106 2.4.4 Gas-Sensing ISEs 111 2.5 Lab Note: Practical Use of Reference Electrodes 112 2.5.1 Leakage at the Reference Tip 112 2.5.2 Quasireference Electrodes 112 2.6 References 113 2.7 Problems 116 3 Basic Kinetics of Electrode Reactions 121 3.1 Review of Homogeneous Kinetics 121 3.1.1 Dynamic Equilibrium 121 3.1.2 The Arrhenius Equation and Potential Energy Surfaces 122 3.1.3 Transition State Theory 123 3.2 Essentials of Electrode Reactions 125 3.3 Butler–Volmer Model of Electrode Kinetics 126 3.3.1 Effects of Potential on Energy Barriers 127 3.3.2 One-Step, One-Electron Process 127 3.3.3 The Standard Rate Constant 130 3.3.4 The Transfer Coefficient 131 3.4 Implications of the Butler–Volmer Model for the One-Step, One-Electron Process 132 3.4.1 Equilibrium Conditions and the Exchange Current 133 3.4.2 The Current–Overpotential Equation 133 3.4.3 Approximate Forms of the i–η Equation 135 3.4.4 Exchange Current Plots 139 3.4.5 Very Facile Kinetics and Reversible Behavior 139 3.4.6 Effects of Mass Transfer 140 3.4.7 Limits of Basic Butler–Volmer Equations 141 3.5 Microscopic Theories of Charge Transfer 142 3.5.1 Inner-Sphere and Outer-Sphere Electrode Reactions 142 3.5.2 Extended Charge Transfer and Adiabaticity 143 3.5.3 The Marcus Microscopic Model 146 3.5.4 Implications of the Marcus Theory 152 3.5.5 A Model Based on Distributions of Energy States 162 3.6 Open-Circuit Potential and Multiple Half-Reactions at an Electrode 168 3.6.1 Open-Circuit Potential in Multicomponent Systems 169 3.6.2 Establishment or Loss of Nernstian Behavior at an Electrode 170 3.6.3 Multiple Half-Reaction Currents in i–E Curves 171 3.7 Multistep Mechanisms 171 3.7.1 The Primacy of One-Electron Transfers 172 3.7.2 Rate-Determining, Outer-Sphere Electron Transfer 173 3.7.3 Multistep Processes at Equilibrium 173 3.7.4 Nernstian Multistep Processes 174 3.7.5 Quasireversible and Irreversible Multistep Processes 174 3.8 References 177 3.9 Problems 180 4 Mass Transfer by Migration and Diffusion 183 4.1 General Mass-Transfer Equations 183 4.2 Migration in Bulk Solution 186 4.3 Mixed Migration and Diffusion Near an Active Electrode 187 4.3.1 Balance Sheets for Mass Transfer During Electrolysis 188 4.3.2 Utility of a Supporting Electrolyte 192 4.4 Diffusion 193 4.4.1 A Microscopic View 193 4.4.2 Fick’s Laws of Diffusion 196 4.4.3 Flux of an Electroreactant at an Electrode Surface 199 4.5 Formulation and Solution of Mass-Transfer Problems 199 4.5.1 Initial and Boundary Conditions in Electrochemical Problems 200 4.5.2 General Formulation of a Linear Diffusion Problem 201 4.5.3 Systems Involving Migration or Convection 202 4.5.4 Practical Means for Reaching Solutions 202 4.6 References 204 4.7 Problems 205 5 Steady-State Voltammetry at Ultramicroelectrodes 207 5.1 Steady-State Voltammetry at a Spherical UME 207 5.1.1 Steady-State Diffusion 208 5.1.2 Steady-State Current 211 5.1.3 Convergence on the Steady State 211 5.1.4 Steady-State Voltammetry 212 5.2 Shapes and Properties of Ultramicroelectrodes 214 5.2.1 Spherical or Hemispherical UME 215 5.2.2 Disk UME 215 5.2.3 Cylindrical UME 221 5.2.4 Band UME 221 5.2.5 Summary of Steady-State Behavior at UMEs 222 5.3 Reversible Electrode Reactions 224 5.3.1 Shape of the Wave 224 5.3.2 Applications of Reversible i–E Curves 226 5.4 Quasireversible and Irreversible Electrode Reactions 230 5.4.1 Effect of Electrode Kinetics on Steady-State Responses 230 5.4.2 Total Irreversibility 232 5.4.3 Kinetic Regimes 234 5.4.4 Influence of Electrode Shape 234 5.4.5 Applications of Irreversible i–E Curves 235 5.4.6 Evaluation of Kinetic Parameters by Varying Mass-Transfer Rates 237 5.5 Multicomponent Systems and Multistep Charge Transfers 239 5.6 Additional Attributes of Ultramicroelectrodes 241 5.6.1 Uncompensated Resistance at a UME 241 5.6.2 Effects of Conductivity on Voltammetry at a UME 242 5.6.3 Applications Based on Spatial Resolution 243 5.7 Migration in Steady-State Voltammetry 245 5.7.1 Mathematical Approach to Problems Involving Migration 245 5.7.2 Concentration Profiles in the Diffusion–Migration Layer 246 5.7.3 Wave Shape at Low Electrolyte Concentration 248 5.7.4 Effects of Migration on Wave Height in SSV 248 5.8 Analysis at High Analyte Concentrations 251 5.9 Lab Note: Preparation of Ultramicroelectrodes 253 5.9.1 Preparation and Characterization of UMEs 254 5.9.2 Testing the Integrity of a UME 254 5.9.3 Estimating the Size of a UME 256 5.10 References 257 5.11 Problems 258 6 Transient Methods Based on Potential Steps 261 6.1 Chronoamperometry Under Diffusion Control 261 6.1.1 Linear Diffusion at a Plane 262 6.1.2 Response at a Spherical Electrode 265 6.1.3 Transients at Other Ultramicroelectrodes 267 6.1.4 Information from Chronoamperometric Results 270 6.1.5 Microscopic and Geometric Areas 271 6.2 Sampled-Transient Voltammetry for Reversible Electrode Reactions 275 6.2.1 A Step to an Arbitrary Potential 276 6.2.2 Shape of the Voltammogram 277 6.2.3 Concentration Profiles When R Is Initially Absent 278 6.2.4 Simplified Current–Concentration Relationships 279 6.2.5 Applications of Reversible i–E Curves 279 6.3 Sampled-Transient Voltammetry for Quasireversible and Irreversible Electrode Reactions 279 6.3.1 Effect of Electrode Kinetics on Transient Behavior 280 6.3.2 Sampled-Transient Voltammetry for Reduction of O 282 6.3.3 Sampled Transient Voltammetry for Oxidation of R 284 6.3.4 Totally Irreversible Reactions 285 6.3.5 Kinetic Regimes 287 6.3.6 Applications of Irreversible i–E Curves 287 6.4 Multicomponent Systems and Multistep Charge Transfers 289 6.5 Chronoamperometric Reversal Techniques 290 6.5.1 Approaches to the Problem 292 6.5.2 Current–Time Responses 293 6.6 Chronocoulometry 294 6.6.1 Large-Amplitude Potential Step 295 6.6.2 Reversal Experiments Under Diffusion Control 296 6.6.3 Effects of Heterogeneous Kinetics 299 6.7 Cell Time Constants at Microelectrodes 300 6.8 Lab Note: Practical Concerns with Potential Step Methods 303 6.8.1 Preparation of the Electrode Surface at a Microelectrode 303 6.8.2 Interference from Charging Current 305 6.9 References 306 6.10 Problems 307 7 Linear Sweep and Cyclic Voltammetry 311 7.1 Transient Responses to a Potential Sweep 311 7.2 Nernstian (Reversible) Systems 313 7.2.1 Linear Sweep Voltammetry 313 7.2.2 Cyclic Voltammetry 321 7.3 Quasireversible Systems 325 7.3.1 Linear Sweep Voltammetry 326 7.3.2 Cyclic Voltammetry 326 7.4 Totally Irreversible Systems 329 7.4.1 Linear Sweep Voltammetry 329 7.4.2 Cyclic Voltammetry 332 7.5 Multicomponent Systems and Multistep Charge Transfers 332 7.5.1 Multicomponent Systems 332 7.5.2 Multistep Charge Transfers 333 7.6 Fast Cyclic Voltammetry 334 7.7 Convolutive Transformation 336 7.8 Voltammetry at Liquid–Liquid Interfaces 339 7.8.1 Experimental Approach to Voltammetry 340 7.8.2 Effect of Interfacial Potential on Composition 341 7.8.3 Voltammetric Behavior 341 7.9 Lab Note: Practical Aspects of Cyclic Voltammetry 344 7.9.1 Basic Experimental Conditions 344 7.9.2 Choice of Initial and Final Potentials 345 7.9.3 Deaeration 347 7.10 References 347 7.11 Problems 349 8 Polarography, Pulse Voltammetry, and Square-Wave Voltammetry 355 8.1 Polarography 355 8.1.1 The Dropping Mercury Electrode 355 8.1.2 The IlkovičEquation 356 8.1.3 Polarographic Waves 357 8.1.4 Practical Advantages of the DME 358 8.1.5 Polarographic Analysis 358 8.1.6 Residual Current and Detection Limits 359 8.2 Normal Pulse Voltammetry 361 8.2.1 Implementation 362 8.2.2 Renewal at Stationary Electrodes 363 8.2.3 Normal Pulse Polarography 364 8.2.4 Practical Application 366 8.3 Reverse Pulse Voltammetry 367 8.4 Differential Pulse Voltammetry 369 8.4.1 Concept of the Method 370 8.4.2 Theory 371 8.4.3 Renewal vs. Pre-Electrolysis 374 8.4.4 Residual Currents 375 8.4.5 Differential Pulse Polarography 375 8.5 Square-Wave Voltammetry 376 8.5.1 Experimental Concept and Practice 376 8.5.2 Theoretical Prediction of Response 377 8.5.3 Background Currents 380 8.5.4 Applications 381 8.6 Analysis by Pulse Voltammetry 383 8.7 References 385 8.8 Problems 386 9 Controlled-Current Techniques 389 9.1 Introduction to Chronopotentiometry 389 9.2 Theory of Controlled-Current Methods 391 9.2.1 General Treatment for Linear Diffusion 391 9.2.2 Constant-Current Electrolysis—The Sand Equation 392 9.2.3 Programmed Current Chronopotentiometry 394 9.3 Potential–Time Curves in Constant-Current Electrolysis 394 9.3.1 Reversible (Nernstian) Waves 394 9.3.2 Totally Irreversible Waves 394 9.3.3 Quasireversible Waves 395 9.3.4 Practical Issues in the Measurement of Transition Time 396 9.4 Reversal Techniques 398 9.4.1 Response Function Principle 398 9.4.2 Current Reversal 398 9.5 Multicomponent Systems and Multistep Reactions 400 9.6 The Galvanostatic Double Pulse Method 401 9.7 Charge Step (Coulostatic) Methods 403 9.7.1 Small Excursions 404 9.7.2 Large Excursions 405 9.7.3 Coulostatic Perturbation by Temperature Jump 405 9.8 References 406 9.9 Problems 407 10 Methods Involving Forced Convection—Hydrodynamic Methods 411 10.1 Theory of Convective Systems 411 10.1.1 The Convective-Diffusion Equation 412 10.1.2 Determination of the Velocity Profile 412 10.2 Rotating Disk Electrode 414 10.2.1 The Velocity Profile at a Rotating Disk 414 10.2.2 Solution of the Convective-Diffusion Equation 416 10.2.3 Concentration Profile 418 10.2.4 General i–E Curves at the RDE 419 10.2.5 The Koutecký–Levich Method 420 10.2.6 Current Distribution at the RDE 423 10.2.7 Practical Considerations for Application of the RDE 426 10.3 Rotating Ring and Ring-Disk Electrodes 426 10.3.1 Rotating Ring Electrode 427 10.3.2 The Rotating Ring-Disk Electrode 428 10.4 Transient Currents 432 10.4.1 Transients at the RDE 432 10.4.2 Transients at the RRDE 433 10.5 Modulation of the RDE 435 10.6 Electrohydrodynamic Phenomena 436 10.7 References 439 10.8 Problems 440 11 Electrochemical Impedance Spectroscopy and ac Voltammetry 443 11.1 A Simple Measurement of Cell Impedance 444 11.2 Brief Review of ac Circuits 446 11.3 Equivalent Circuits of a Cell 450 11.3.1 The Randles Equivalent Circuit 451 11.3.2 Interpretation of the Faradaic Impedance 452 11.3.3 Behavior and Uses of the Faradaic Impedance 455 11.4 Electrochemical Impedance Spectroscopy 458 11.4.1 Conditions of Measurement 458 11.4.2 A System with Simple Faradaic Kinetics 460 11.4.3 Measurement of Resistance and Capacitance 465 11.4.4 A Confined Electroactive Domain 466 11.4.5 Other Applications 470 11.5 ac Voltammetry 470 11.5.1 Reversible Systems 470 11.5.2 Quasireversible and Irreversible Systems 473 11.5.3 Cyclic ac Voltammetry 477 11.6 Nonlinear Responses 477 11.6.1 Second Harmonic ac Voltammetry 478 11.6.2 Large Amplitude ac Voltammetry 479 11.7 Chemical Analysis by ac Voltammetry 481 11.8 Instrumentation for Electrochemical Impedance Methods 482 11.8.1 Frequency-Domain Instruments 482 11.8.2 Time-Domain Instruments 483 11.9 Analysis of Data in the Laplace Plane 485 11.10 References 485 11.11 Problems 487 12 Bulk Electrolysis 489 12.1 General Considerations 490 12.1.1 Completeness of an Electrode Process 490 12.1.2 Current Efficiency 491 12.1.3 Experimental Concerns 491 12.2 Controlled-Potential Methods 495 12.2.1 Current–Time Behavior 495 12.2.2 Practical Aspects 497 12.2.3 Coulometry 498 12.2.4 Electrogravimetry 500 12.2.5 Electroseparations 501 12.3 Controlled-Current Methods 501 12.3.1 Characteristics of Controlled-Current Electrolysis 501 12.3.2 Coulometric Titrations 503 12.3.3 Practical Aspects of Constant-Current Electrolysis 506 12.4 Electrometric End-Point Detection 507 12.4.1 Current–Potential Curves During Titration 507 12.4.2 Potentiometric Methods 508 12.4.3 Amperometric Methods 509 12.5 Flow Electrolysis 510 12.5.1 Mathematical Treatment 510 12.5.2 Dual-Electrode Flow Cells 515 12.5.3 Microfluidic Flow Cells 516 12.6 Thin-Layer Electrochemistry 521 12.6.1 Chronoamperometry and Coulometry 521 12.6.2 Potential Sweep in a Nernstian System 524 12.6.3 Dual-Electrode Thin-Layer Cells 526 12.6.4 Applications of the Thin-Layer Concept 526 12.7 Stripping Analysis 527 12.7.1 Introduction 527 12.7.2 Principles and Theory 528 12.7.3 Applications and Variations 529 12.8 References 531 12.9 Problems 534 13 Electrode Reactions with Coupled Homogeneous Chemical Reactions 539 13.1 Classification of Reactions 539 13.1.1 Reactions with One E-Step 541 13.1.2 Reactions with Two or More E-Steps 542 13.2 Impact of Coupled Reactions on Cyclic Voltammetry 545 13.2.1 Diagnostic Criteria 545 13.2.2 Characteristic Times 547 13.2.3 An Example 547 13.2.4 Including Kinetics in Theory 548 13.2.5 Comparative Simulation 551 13.3 Survey of Behavior 552 13.3.1 Following Reaction—case E R c I 552 13.3.2 Effect of Electrode Kinetics in Ec I Systems 556 13.3.3 Bidirectional Following Reaction 558 13.3.4 catalytic Reaction—case E r c ′ I 561 13.3.5 Preceding Reaction—Case C r E r 564 13.3.6 Multistep Electron Transfers 569 13.3.7 ECE/DISP Reactions 576 13.3.8 Concerted vs.StepwiseReaction 584 13.3.9 Elaboration of Reaction Schemes 590 13.4 Behavior with Other Electrochemical Methods 591 13.5 References 593 13.6 Problems 595 14 Double-Layer Structure and Adsorption 599 14.1 Thermodynamics of the Double Layer 599 14.1.1 The Gibbs Adsorption Isotherm 599 14.1.2 The Electrocapillary Equation 601 14.1.3 Relative Surface Excesses 601 14.2 Experimental Evaluations 602 14.2.1 Electrocapillarity 602 14.2.2 Excess Charge and Capacitance 603 14.2.3 Relative Surface Excesses 606 14.3 Models for Double-Layer Structure 606 14.3.1 The Helmholtz Model 607 14.3.2 The Gouy–Chapman Theory 609 14.3.3 Stern’s Modification 614 14.3.4 Specific Adsorption 617 14.4 Studies at Solid Electrodes 619 14.4.1 Well-Defined Single-Crystal Electrode Surfaces 620 14.4.2 The Double Layer at Solids 623 14.5 Extent and Rate of Specific Adsorption 627 14.5.1 Nature and Extent of Specific Adsorption 628 14.5.2 Electrosorption Valency 629 14.5.3 Adsorption Isotherms 630 14.5.4 Rate of Adsorption 633 14.6 Practical Aspects of Adsorption 634 14.7 Double-Layer Effects on Electrode Reaction Rates 636 14.7.1 Introduction and Principles 636 14.7.2 Double-Layer Effects Without Specific Adsorption of Electrolyte 638 14.7.3 Double-Layer Effects with Specific Adsorption 639 14.7.4 Diffuse Double-Layer Effects on Mass Transport 640 14.8 References 645 14.9 Problems 648 15 Inner-Sphere Electrode Reactions and Electrocatalysis 653 15.1 Inner-Sphere Heterogenous Electron-Transfer Reactions 653 15.1.1 TheRoleoftheElectrodeSurface 653 15.1.2 Energetics of 1e Electron-Transfer Reactions 654 15.1.3 Adsorption Energies 657 15.2 Electrocatalytic Reaction Mechanisms 657 15.2.1 Hydrogen Evolution Reaction 657 15.2.2 Tafel Plot Analysis of HER Kinetics 660 15.3 Additional Examples of Inner-Sphere Reactions 667 15.3.1 Oxygen Reduction Reaction 667 15.3.2 Chlorine Evolution 670 15.3.3 Methanol Oxidation 670 15.3.4 CO 2 Reduction 673 15.3.5 Oxidation of NH 3 to N 2 674 15.3.6 Organic Halide Reduction 676 15.3.7 Hydrogen Peroxide Oxidation and Reduction 677 15.4 Computational Analyses of Inner-Sphere Electron-Transfer Reactions 678 15.4.1 Density Functional Theory Analysis of Electrocatalytic Reactions 679 15.4.2 Hydrogen Evolution Reaction 679 15.4.3 Oxygen Reduction Reaction 681 15.5 Electrocatalytic Correlations 684 15.6 Electrochemical Phase Transformations 688 15.6.1 Nucleation and Growth of a New Phase 688 15.6.2 Classical Nucleation Theory 689 15.6.3 Electrodeposition 699 15.6.4 Gas Evolution 707 15.7 References 713 15.8 Problems 718 16 Electrochemical Instrumentation 721 16.1 Operational Amplifiers 721 16.1.1 Ideal Properties 721 16.1.2 Nonidealities 723 16.2 Current Feedback 725 16.2.1 Current Follower 725 16.2.2 Scaler/Inverter 726 16.2.3 Adders 726 16.2.4 Integrators 727 16.3 Voltage Feedback 728 16.3.1 Voltage Follower 728 16.3.2 Control Functions 729 16.4 Potentiostats 730 16.4.1 Basic Considerations 730 16.4.2 The Adder Potentiostat 731 16.4.3 Refinements to the Adder Potentiostat 732 16.4.4 Bipotentiostats 733 16.4.5 Four-Electrode Potentiostats 734 16.5 Galvanostats 734 16.6 Integrated Electrochemical Instrumentation 736 16.7 Difficulties with Potential Control 737 16.7.1 Types of Control Problems 737 16.7.2 Cell Properties and Electrode Placement 740 16.7.3 Electronic Compensation of Resistance 740 16.8 Measurement of Low Currents 744 16.8.1 Fundamental Limits 744 16.8.2 Practical Considerations 746 16.8.3 Current Amplifier 746 16.8.4 Simplified Instruments and Cells 746 16.9 Instruments for Short Time Scales 748 16.10 Lab Note: Practical Use of Electrochemical Instruments 749 16.10.1 Caution Regarding Electrochemical Workstations 749 16.10.2 Troubleshooting Electrochemical Systems 749 16.11 References 751 16.12 Problems 752 17 Electroactive Layers and Modified Electrodes 755 17.1 Monolayers and Submonolayers on Electrodes 756 17.2 Cyclic Voltammetry of Adsorbed Layers 757 17.2.1 Fundamentals 757 17.2.2 Reversible Adsorbate Couples 758 17.2.3 Irreversible Adsorbate Couples 763 17.2.4 Nernstian Processes Involving Adsorbates and Solutes 766 17.2.5 More Complex Systems 770 17.2.6 Electric-Field-Driven Acid–Base Chemistry in Adsorbate Layers 771 17.3 Other Useful Methods for Adsorbed Monolayers 775 17.3.1 Chronocoulometry 775 17.3.2 Coulometry in Thin-Layer Cells 777 17.3.3 Impedance Measurements 778 17.3.4 Chronopotentiometry 779 17.4 Thick Modification Layers on Electrodes 780 17.5 Dynamics in Modification Layers 782 17.5.1 Steady State at a Rotating Disk 783 17.5.2 Principal Dynamic Processes in Modifying Films 784 17.5.3 Interplay of Dynamical Elements 789 17.6 Blocking Layers 791 17.6.1 Permeation Through Pores and Pinholes 792 17.6.2 Tunneling Through Blocking Films 796 17.7 Other Methods for Characterizing Layers on Electrodes 798 17.8 Electrochemical Methods Based on Electroactive Layers or Electrode Modification 798 17.8.1 Electrocatalysis 799 17.8.2 Bioelectrocatalysis Based on Enzyme-Modified Electrodes 799 17.8.3 Electrochemical Sensors 803 17.8.4 Faradaic Electrochemical Measurements in vivo 809 17.9 References 812 17.10 Problems 817 18 Scanning Electrochemical Microscopy 819 18.1 Principles 819 18.2 Approach Curves 821 18.3 Imaging Surface Topography and Reactivity 825 18.3.1 Imaging Based on Conductivity of the Substrate 825 18.3.2 Imaging Based on Heterogeneous Electron-Transfer Reactivity 826 18.3.3 Simultaneous Imaging of Topography and Reactivity 827 18.4 Measurements of Kinetics 828 18.4.1 Heterogeneous Electron-Transfer Reactions 828 18.4.2 Homogeneous Reactions 831 18.5 Surface Interrogation 835 18.6 Potentiometric Tips 839 18.7 Other Applications 839 18.7.1 Detection of Species Released from Surfaces, Films, or Pores 839 18.7.2 Biological Systems 840 18.7.3 Probing the Interior of a Layer on a Substrate 841 18.8 Scanning Electrochemical Cell Microscopy 841 18.9 References 846 18.10 Problems 849 19 Single-Particle Electrochemistry 851 19.1 General Considerations in Single-Particle Electrochemistry 851 19.2 Particle Collision Experiments 852 19.3 Particle Collision Rate at a Disk-Shaped UME 854 19.3.1 Collision Frequency 854 19.3.2 Variance in the Number of Particle Collisions 855 19.3.3 Time of First Arrival 856 19.4 Nanoparticle Collision Behavior 857 19.4.1 Blocking Collisions 857 19.4.2 Electrocatalytic Amplification Collisions 861 19.4.3 Electrolysis Collisions 864 19.5 Electrochemistry at Single Atoms and Atomic Clusters 870 19.6 Single-Molecule Electrochemistry 875 19.7 References 879 19.8 Problems 881 20 Photoelectrochemistry and Electrogenerated Chemiluminescence 885 20.1 Solid Materials 885 20.1.1 The Band Model 885 20.1.2 Categories of Pure Crystalline Solids 886 20.1.3 Doped Semiconductors 889 20.1.4 Fermi Energy 890 20.1.5 Highly Conducting Oxides 891 20.2 Semiconductor Electrodes 892 20.2.1 Interface at a Semiconducting Electrode in the Dark 892 20.2.2 Current–Potential Curves at Semiconductor Electrodes 896 20.2.3 Conducting Polymer Electrodes 899 20.3 Photoelectrochemistry at Semiconductors 901 20.3.1 Photoeffects at Semiconductor Electrodes 901 20.3.2 Photoelectrochemical Systems 903 20.3.3 Dye Sensitization 905 20.3.4 Surface Photocatalytic Processes at Semiconductor Particles 906 20.4 Radiolytic Products in Solution 908 20.4.1 Photoemission of Electrons from an Electrode 908 20.4.2 Detection and Use of Radiolytic Products in Solution 909 20.4.3 Photogalvanic Cells 909 20.5 Electrogenerated Chemiluminescence 910 20.5.1 Chemical Fundamentals 910 20.5.2 Fundamental Studies of Radical-Ion Annihilation 912 20.5.3 Single-Potential Generation Based on a Coreactant 916 20.5.4 ECL Based on Quantum Dots 917 20.5.5 Analytical Applications of ECL 918 20.5.6 ECL Beyond the Solution Phase 922 20.6 References 922 20.7 Problems 927 21 In situ Characterization of Electrochemical Systems 931 21.1 Microscopy 931 21.1.1 Scanning Tunneling Microscopy 932 21.1.2 Atomic Force Microscopy 934 21.1.3 Optical Microscopy 937 21.1.4 Transmission Electron Microscopy 938 21.2 Quartz Crystal Microbalance 940 21.2.1 Basic Method 940 21.2.2 QCM with Dissipation Monitoring 942 21.3 UV–Visible Spectrometry 942 21.3.1 Absorption Spectroscopy with Thin-Layer Cells 942 21.3.2 Ellipsometry 945 21.3.3 Surface Plasmon Resonance 946 21.4 Vibrational Spectroscopy 947 21.4.1 Infrared Spectroscopy 947 21.4.2 Raman Spectroscopy 950 21.5 X-Ray Methods 953 21.6 Mass Spectrometry 954 21.7 Magnetic Resonance Spectroscopy 955 21.7.1 Esr 955 21.7.2 Nmr 956 21.8 Ex-situ Techniques 957 21.8.1 Electron Microscopy 957 21.8.2 Electron and Ion Spectrometry 958 21.9 References 960 Appendix A Mathematical Methods 967 A.1 Solving Differential Equations by the Laplace Transform Technique 967 A.1.1 Partial Differential Equations 967 A.1.2 Introduction to the Laplace Transformation 968 A.1.3 Fundamental Properties of the Transform 969 A.1.4 Solving Ordinary Differential Equations by Laplace Transformation 970 A.1.5 Simultaneous Linear Ordinary Differential Equations 972 A.1.6 Mass-Transfer Problems Based on Partial Differential Equations 973 A.1.7 The Zero-Shift Theorem 975 A.2 Taylor Expansions 976 A.2.1 Expansion of a Function of Several Variables 976 A.2.2 Expansion of a Function of a Single Variable 977 A.2.3 Maclaurin Series 977 A.3 The Error Function and the Gaussian Distribution 977 A.4 Leibnitz Rule 979 A.5 Complex Notation 979 A.6 Fourier Series and Fourier Transformation 981 A.7 References 982 A.8 Problems 983 Appendix B Basic Concepts of Simulation 985 B.1 Setting Up the Model 985 B.1.1 A Discrete System 985 B.1.2 Diffusion 986 B.1.3 Dimensionless Parameters 987 B.1.4 Time 990 B.1.5 Distance 990 B.1.6 Current 991 B.1.7 Thickness of the Diffusion Layer 992 B.1.8 Diffusion Coefficients 993 B.2 An Example 993 B.2.1 Organization of the Spreadsheet 993 B.2.2 Concentration Arrays 996 B.2.3 Results and Error Detection 996 B.2.4 Performance 997 B.3 Incorporating Homogeneous Kinetics 999 B.3.1 Unimolecular Reactions 999 B.3.2 Bimolecular Reactions 1000 B.4 Boundary Conditions for Various Techniques 1001 B.4.1 Potential Steps in Nernstian Systems 1001 B.4.2 Heterogeneous Kinetics 1002 B.4.3 Potential Sweeps 1003 B.4.4 Controlled Current 1003 B.5 More Complex Systems 1004 B.6 References 1005 B.7 Problems 1005 Appendix C Reference Tables 1007 References 1013 Index 1015

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INCI Names 121 Learning Objectives 121 Key Concepts 122 7.1 Introduction 123 7.2 Cosmetic Products 125 7.3 OTC Drug–Cosmetic Products 130 7.4 INCI Naming 134 7.5 Do You Know the Exact Composition of a Cosmetic Product or OTC Drug–Cosmetic Product? 136 Glossary of Terms 137 Abbreviations 138 References 139 8 Testing of Cosmetics and OTC Drug–Cosmetic Products 141 Learning Objectives 141 Key Concepts 142 8.1 Product Development Cycle 143 8.2 Product Testing 144 Glossary of Terms 156 Abbreviations 157 References 157 Part 2 Skin Care Products 161 9 Skin Anatomy and Physiology 163 Learning Objectives 163 Key Concepts 164 9.1 Introduction 165 9.2 Structure and Function of Human Skin 165 9.3 Main Characteristics of Human Skin 172 Glossary of Terms 178 Abbreviations 180 References 180 10 Skin Cleansing Products 183 Learning Objectives 183 Key Concepts 185 10.1 Introduction 186 10.2 Types and Definition of Skin Cleansing Products 186 10.3 History of Using Skin Cleansing Products 187 10.4 How Skin Cleansers May Affect the Skin 188 10.5 Required Characteristics and Consumer Needs 191 10.6 Basic Concepts of Skin Cleansing Products 191 10.7 Typical Ingredients and Formulation of Skin Cleansing Products 195 10.8 Considerations When Selecting Skin Cleansing Products 211 10.9 Typical Quality Problems of Skin Cleansing Products 212 10.10 Evaluation of Skin Cleansing Products 216 10.11 Ingredients Causing Safety Concerns 231 10.12 Packaging of Skin Cleansing Products 233 Glossary of Terms 234 Abbreviations 236 References 237 11 Skin Moisturizing Products 243 Learning Objectives 243 Key Concepts 244 11.1 Introduction 245 11.2 Types and Definition of Skin Moisturizers 245 11.3 History of Using Skin Moisturizers 246 11.4 How Skin Moisturizers May Affect the Skin 247 11.5 Required Characteristics and Consumer Needs 249 11.6 Typical Ingredients and Formulation of Skin Moisturizers 249 11.7 Product Types 256 11.8 Considerations When Selecting Skin Moisturizers 259 11.9 Typical Quality Issues of Skin Moisturizer Formulations 260 11.10 Evaluation of Skin Moisturizing Products 260 11.11 Ingredients Causing Safety Concerns 267 11.12 Packing of Skin Moisturizers 268 Glossary of Terms 269 Acronyms 270 References 270 12 Products for Aging 275 Learning Objectives 275 Key Concepts 276 12.1 Introduction 277 12.2 Changes in Skin Structure and Function During Aging 277 12.3 Drug or Cosmetic? 281 12.4 Typical Ingredients Used in Topical Antiaging Products 282 12.5 Formulation Considerations of Topical Antiaging Products 287 12.6 Formulation Challenges of Common Antiaging Ingredients 290 12.7 Safety Concerns Regarding the Use of Topical Noninvasive Antiaging Ingredients 291 12.8 Packing of Antiaging Products 293 Glossary of Terms 293 Abbreviations 294 References 295 13 Products for Acne 301 Learning Objectives 301 Key Concepts 302 13.1 Introduction 302 13.2 Anatomy and Physiology of the Pilosebaceous Unit 303 13.3 Development of Acne 304 13.4 Symptoms and Types of Acne Vulgaris 307 13.5 Treatment of Acne Vulgaris 309 13.6 Formulation Considerations 314 13.7 Ingredients Causing Safety Concerns 315 13.8 Packaging of Anti-Acne Products 316 Glossary of Terms 316 Abbreviations 317 References 317 14 Skin Lightening Products 323 Learning Objectives 323 Key Concepts 324 14.1 Introduction 325 14.2 Skin Color and Production of Melanin 325 14.3 Common Hyperpigmention Lesions 327 14.4 History of Using Skin Lightening Products 329 14.5 Drug or Cosmetic? 329 14.6 How Skin Lightening Products May Affect the Skin 330 14.7 Required Characteristics and Consumer Needs 331 14.8 Typical Ingredients used in Skin Lightening Products 331 14.9 Formulation Considerations and Challenges for Topical Skin Lightening Products 334 14.10 Important Considerations When Using Skin Lightening Products 335 14.11 Typical Quality Issues of Skin Lightening Formulations 336 14.12 Evaluation of Skin Lightening Products 336 14.13 Ingredients Causing Safety Concerns 339 14.14 Packaging of Skin Lightening Products 340 Glossary of Terms 340 Abbreviations 341 References 341 15 Sun Care Products 347 Learning Objectives 347 Key Concepts 348 15.1 Introduction 349 15.2 Sun Protection Basics 350 15.3 Effects of UV Radiation on the Human Body 356 15.4 Types and Definition of Sun Care Products 358 15.5 History of Using Sun Care Products 359 15.6 Required Characteristics and Consumer Needs 360 15.7 Sunscreens 361 15.8 After-Sun Products 370 15.9 Typical Quality Problems of Sun Care Products 371 15.10 Evaluation of Sun Care Products 371 15.11 Ingredients Causing Safety Concerns 380 15.12 Packaging of Sun Care Products 382 Glossary of Terms 383 Abbreviations 385 References 385 Part 3 Hair Care Products 393 16 Hair Anatomy And Physiology 395 Learning Objectives 395 Key Concepts 396 16.1 Introduction 396 16.2 Structure and Function of Human Hair 397 16.3 Main Characteristics of Human Hair 400 Glossary of Terms 409 Abbreviations 411 References 411 17 Hair Cleansing and Conditioning Products 413 Learning Objectives 413 Key Concepts 414 17.1 Introduction 415 17.2 Types and Definition of Hair Cleansing and Conditioning Products 415 17.3 History of Using Hair Cleansing and Conditioning Products 416 17.4 How Hair Cleaning and Conditioning Products May Affect the Hair and Scalp 416 17.5 Required Characteristics and Consumer Needs 418 17.6 Hair Cleansing Products 419 17.7 Hair Conditioners 426 17.8 Typical Quality Issues of Hair Cleansing and Conditioning Products 430 17.9 Evaluation of Hair Cleansing and Conditioning Products 430 17.10 Ingredients Causing Safety Concerns 432 17.11 Packaging of Hair Cleansing and Conditioning Products 433 Glossary of Terms 433 Abbreviations 434 References 434 18 Hair Styling Products Hair Straightening Products and Hair Waving Products 439 Learning Objectives 439 Key Concepts 441 18.1 Introduction 442 18.2 Types and Definition of Hair Styling Hair Straightening and Hair Waving Products 442 18.3 History of Using Hair Styling Hair Waving and Hair Straightening Products 443 18.4 How Hair Styling Products and Procedures May Affect the Hair and Scalp 444 18.5 Required Characteristics and Consumer Needs 446 18.6 Hair Styling Products 447 18.7 Hair Styling Procedures 452 18.8 Typical Quality Issues of Hair Styling Hair Waving and Hair Straightening Products 460 18.9 Evaluation of Hair Styling Hair Waving and Hair Straightening Products 461 18.10 Ingredients Causing Safety Concerns 465 18.11 Packaging of Hair Styling Hair Waving and Hair Straightening Products 468 Glossary of Terms 468 Abbreviations 470 References 470 19 Hair Coloring Products 475 Learning Objectives 475 Key Concepts 476 19.1 Introduction 477 19.2 Types and Definition of Hair Coloring Products 477 19.3 History of Using Hair Coloring Products 478 19.4 How Hair Coloring Products May Affect the Scalp and Hair 479 19.5 Required Characteristics and Consumer Needs 481 19.6 Current US Regulation of Hair Dyes 481 19.7 Types Typical Ingredients and Formulation of Hair Coloring Products 482 19.8 Typical Quality Issues of Hair Coloring Products 489 19.9 Evaluation of Hair Coloring Products 490 19.10 Ingredients Causing Safety Concerns 490 19.11 Packaging of Hair Coloring Products 492 Glossary of terms 492 Abbreviations 494 References 494 Part 4 Color Cosmetics 497 20 Lip Makeup Products 499 Learning Objectives 499 Key Concepts 500 20.1 Introduction 501 20.2 Anatomy and Physiology of Human Lips 501 20.3 History of Using Lip Makeup Products 503 20.4 Types and Definition of Lip Makeup Products 504 20.5 How Lip Makeup Products May Affect the Lips 505 20.6 Required Characteristics and Consumer Needs 506 20.7 Typical Ingredients of Lip Makeup Products 506 20.8 Common Types of Lip Makeup Products 509 20.9 Formulation of Lip Makeup Products 511 20.10 Typical Quality Issues of Lip Makeup Products 515 20.11 Evaluation of Lip Makeup Products 517 20.12 Ingredient Causing Safety Concerns 519 20.13 Packaging of Lip Makeup Products 520 Glossary of Terms 520 Abbreviations 522 References 522 21 Eye Makeup Products 525 Learning Objectives 525 Key Concepts 526 21.1 Introduction 527 21.2 Anatomy and Physiology of Human Eyelids and Eyelashes 527 21.3 History of Using Eye Makeup Products 528 21.4 Types and Definition of Eye Makeup Products 529 21.5 How Eye Makeup Products May Affect the Eye Area 530 21.6 Required Characteristics and Consumer Needs 532 21.7 Typical Ingredients and Formulation of Eye Makeup Products 533 21.8 Typical Quality Issues of Eye Makeup Products 541 21.9 Evaluation of Eye Makeup Products 543 21.10 Safety Testing of Eye Cosmetics 547 21.11 Packaging of Eye Makeup Products 548 Glossary of Terms 549 Abbreviations 550 References 550 22 Facial Makeup Products 553 Learning Objectives 553 Key Concepts 554 22.1 Introduction 555 22.2 Types and Definition of Facial Makeup Products 555 22.3 History of Using Facial Makeup Products 556 22.4 How Facial Makeup Products May Affect the Skin 557 22.5 Required Characteristics and Consumer Needs 559 22.6 Typical Ingredients and Formulation of Facial Makeup Products 559 22.7 Typical Quality Issues of Facial Makeup Products 567 22.8 Evaluation of Facial Makeup Products 568 22.9 Ingredients Causing Safety Concerns 568 22.10 Packaging of Facial Makeup Products 570 Glossary of Terms 570 Abbreviations 571 References 571 23 Nail Care Products 575 Learning Objectives 575 Key Concepts 576 23.1 Introduction 577 23.2 Anatomy and Physiology of Human Nails 577 23.3 History of Using Nail Care Products 579 23.4 Types and Definition of Nail Care Products 580 23.5 How Nail Care Products May Affect the Human Nails 581 23.6 Required Characteristics and Consumer Needs 583 23.7 Functional Nail Care Products 583 23.8 Decorative Nail Care Products 585 23.9 Nail Polish Removers 593 23.10 Typical Quality Issues of Nail Care Products 594 23.11 Evaluation of Nail Care Products 595 23.12 Ingredients Causing Safety Concerns 598 23.13 Packaging of Nail Care Products 600 Glossary of Terms 601 Abbreviations 602 References 602 Part 5 Additional Personal Care Products 607 24 Oral and Dental Care Products 609 Learning Objectives 609 Key Concepts 610 24.1 Introduction 611 24.2 Anatomy and Physiology of the Human Oral Cavity 612 24.3 Review of the Most Common Oral and Dental Care Problems 613 24.4 History of Using Oral and Dental Care Products 617 24.5 Types and Definition of Oral and Dental Care Products 618 24.6 How Oral and Dental Care Products May Affect the Teeth and the Oral Cavity 619 24.7 Required Characteristics and Consumer Needs 620 24.8 Typical Ingredients and Formulation of Oral and Dental Care Products 621 Glossary of Terms 640 Abbreviations 641 References 642 25 Hair Removal Products 647 Learning Objectives 647 Key Concepts 648 25.1 Introduction 649 25.2 Review of the Structure and Function of Human Hair 649 25.3 History of Using Hair Removal Methods 651 25.4 Possible Methods for Removing Hair 652 25.5 Types and Definition of Hair Removal Products 656 25.6 How Hair Removal Products May Affect the Skin and Hair 657 25.7 Required Characteristics and Consumer Needs 659 25.8 Types Typical Ingredients and Formulation of Hair Removal Products 660 25.9 Typical Quality Issues of Hair Removal Products 671 25.10 Evaluation of Hair Removal Products 671 25.11 Ingredients Causing Safety Concerns 672 25.12 Packaging of Hair Removal Products 673 Glossary of Terms 673 Abbreviations 674 References 674 26 Deodorants and Antiperspirants 677 Learning Objectives 677 Key Concepts 678 26.1 Introduction 679 26.2 Anatomy and Physiology of Human Sweat Glands 679 26.3 Types and Definition of Products Reducing Body Odor 682 26.4 History of Using Deodorants and Antiperspirants 683 26.5 How Deodorants and Antiperspirants May Affect the Human Skin and Body 684 26.6 Required Characteristics and Consumer Needs 685 26.7 The Mechanism of Action of Deodorant and Antiperspirant Ingredients 685 26.8 Most Common Product Forms of Deodorants and Antiperspirants 687 26.9 Formulation of Deodorant and Antiperspirant Products 691 26.10 Typical Quality Issues of Deodorants and Antiperspirants 692 26.11 Evaluation of Deodorants and Antiperspirants 694 26.12 Ingredients Causing Safety Concerns 696 26.13 Packaging of Deodorants and Antiperspirants 698 Glossary of Terms 699 Abbreviations 700 References 700 27 Baby Care Products 705 Learning Objectives 705 Key Concepts 706 27.1 Introduction 707 27.2 Anatomical and Physiological Differences Between Baby and Adult Skin and Hair 707 27.3 Types and Definition of Baby Care Products 710 27.4 History of Using Baby Care Products 711 27.5 How Baby Care Products May Affect Baby Skin Hair and Eyes 711 27.6 Required Characteristics and Consumer Needs 714 27.7 Types Typical Ingredients and Formulation of Baby Care Products 714 27.8 Typical Quality Issues of Baby Care Products 722 27.9 Evaluation of Baby Care Products 722 27.10 Ingredients Causing Safety Concerns 723 27.11 Packaging of Baby Care Products 724 Glossary of Terms 725 Abbreviations 725 References 726 28 Feminine Hygiene Products 731 Learning Objectives 731 Key Concepts 732 28.1 Introduction 733 28.2 Anatomy and Physiology of the Female Genital Area 733 28.3 Types and Definition of Feminine Hygiene Products 736 28.4 History of Using Feminine Hygiene Products 738 28.5 How Feminine Hygiene Products May Affect the Human Body and Female Genital Area 739 28.6 Required Qualities and Characteristics and Consumer Needs 741 28.7 Types Typical Ingredients and Formulation of Feminine Hygiene Products 741 28.8 Typical Quality Issues of Feminine Hygiene Products 748 28.9 Evaluation of Feminine Hygiene Products 748 28.10 Ingredients Causing Safety Concerns 749 28.11 Packaging of Feminine Hygiene Products 750 Glossary of Terms 751 Abbreviations 752 References 752 29 Sunless Tanning Products 757 Learning Objectives 757 Key Concepts 758 29.1 Introduction 758 29.2 Types and Definition of Sunless Tanning Products 759 29.3 History of Using Sunless Tanning Products 759 29.4 How Sunless Tanners May Affect the Human Body 760 29.5 Required Characteristics and Consumer Needs 762 29.6 Types and Typical Ingredients of Sunless Tanning Products 762 29.7 Formulation Considerations 765 29.8 Typical Quality Problems of Sunless Tanners 767 29.9 Evaluation of Sunless Tanners 767 29.10 Ingredients Causing Safety Concerns 768 29.11 Packaging of Sunless Tanning Products 769 Glossary of Terms 769 Abbreviations 770 References 770 Index 773

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Book SynopsisAn essential companion for catalysis researchers and professionals studying economically viable and eco-friendly catalytic strategies for energy conversion In the two-volume Heterogeneous Nanocatalysis for Energy and Environmental Sustainability, a team of distinguished researchers deliver a comprehensive discussion of fundamental concepts in, and practical applications of, heterogeneous nanocatalysis for alternative energy production, biomass conversion, solar energy, green fuels, H2 production, fuel cells, electrochemical energy conversion processes, CO2 conversion, clean water, and environmental protection. The volumes cover the design and catalytic performance of various nanocatalysts, including nanosized metals and metal oxides, supported metal nanoparticles, inverse oxide-metal nanocatalysts, core-shell nanocatalysts, nanoporous zeolites, nanocarbon composites, and metal oxides in confined spaces. Each chapter contains a criticTable of Contents1. Pt-based catalysts for complete VOC oxidation 2. Nanocarbon Composites: Synthesis, Characterization, and Applications in Water Purification 3. Nanostructured Iron oxide hybrid composites as heterogeneous Fenton-like catalyst for remediation of persistent organic pollutants 4. Degradation kinetics of organic dyes using nanostructured catalysts 5. Current perspective on environmental remediation of 2D nanosheets and its composites for photocatalytic degradation of organic pollutants 6. Metal–Organic Frameworks as Heterogeneous Catalysts for the Valorization of Greenhouse Gase 7. Application of Metal-Organic Frameworks and Their Derived Materials in CO2 conversion 8. Advances in thermo-catalytic direct CO2 conversion to chemicals and hydrocarbons 9. Study of Catalytic CO2 Reduction by In-situ Characterization Techniques 10. Photocatalytic Conversion of CO2 into Value Added and Renewable Fuels over Heterogeneous Nanocatalysts 11. Copper based electrocatalysts for CO2 reduction 12. Mechanistic details of catalytic hydrogenation of CO2 to useful chemicals using SnO2 clusters 13. Electrochemical CO2 reduction to methanol using nanocatalyst

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Book SynopsisPlant Ionomics A thoroughly up-to-date exploration of nutrient uptake in plants In Plant Ionomics: Sensing, Signaling and Regulation, accomplished botanists and researchers Dr. Vijay Singh and Dr. Manzer Siddiqui deliver an up-to-date discussion on the sensing, signaling, and regulation of nutrient uptake in plants under a variety of conditions. The book offers an accessible and easy-to-use reference for researchers with an interest in plant ionomics, combining the latest research from leading laboratories around the globe. The authors provide coverage of a variety of critical topics, including plant and soil nutrient stoichiometry, nutrient management and stress tolerance in crops, and the relationship between agricultural production and nutrient applications. Readers will also find: A thorough introduction to nutrient regulation and abiotic stress tolerance in plants In-depth discussions of nutrient uptake and transport in plants and theTable of ContentsList of Contributors xii Preface xvi 1 Regulation of Metabolites by Nutrients in Plants 1 Akash Tariq, Fanjiang Zeng, Corina Graciano, Abd Ullah, Sehrish Sadia, Zeeshan Ahmed, Ghulam Murtaza, Khasan Ismoilov, and Zhihao Zhang Introduction 1 Nitrogen (N) 2 Phosphorus (P) 3 Potassium (K) 5 Sulfur (S) 7 Magnesium (Mg) 7 Calcium (Ca) 8 Boron (B) 9 Chlorine (Cl) 10 Copper (Cu) 11 Iron (Fe) 11 References 12 2 Agricultural Production Relation with Nutrient Applications 19 Sehrish Sadia, Muhammad Zubair, Akash Tariq, Fanjiang Zeng, Corina Graciano, Abd Ullah, Zeeshan Ahmed, Zhihao Zhang, and Khasan Ismoilov Introduction 19 Soil as a Basic Element in Agriculture 21 Constituents and Ingredients of Soil 21 Essential Nutrients in Agriculture Especially in Plants 23 Beneficial/Valuable Nutrients 24 Some Other Valuable Nutrients 24 Plant Nutrient Sources 24 Plant Nutrients Supply and Nature 24 Compost 25 Biosolids 25 Manure of Livestock 25 Crop Residues 25 Atmospheric Deposition 26 Synthetic Fertilizers 26 Issues Related to Plant Nutrition 26 Fertilizers and Fertilization Strategies 27 References 28 3 Role of Nutrients in the ROS Metabolism in Plants 30 Muhammad Arslan Ashraf, Rizwan Rasheed, Mudassir Iqbal Shad, Iqbal Hussain, and Muhammad Iqbal Introduction 30 Oxidative Defense System 31 Reactive Oxygen Species (ROS) and Reactive Nitrogen Species (RNS) 33 ROS Generation and Functions in Plants 34 RNS and ROS Signaling in Plants in Response to Environmental Stresses 35 Antioxidant Compounds 36 Antioxidant-Mediated RNS/ROS Regulation 37 Role of Nutrients in ROS Metabolism Under Salinity 39 Role of Nutrients in ROS Metabolism Under Drought 40 Role of Nutrients in ROS Metabolism Under Heavy Metal Stress 42 Role of Nutrients in ROS Metabolism Under Low- and High-Temperature Stress 43 References 45 4 Polyamines Metabolism and their Regulatory Mechanism in Plant Development and in Abiotic Stress Tolerance 54 Savita Bhardwaj, Tunisha Verma, Monika Thakur, Rajeev Kumar, and Dhriti Kapoor Introduction 54 Distribution, Biosynthesis, and Catabolism of Polyamines 55 Distribution 55 Polyamine Biosynthesis 55 Catabolism 57 Role of Polyamines in Plant Development 57 Polyamines as Biochemical Markers for Abiotic Stress Tolerance 59 Drought Stress 59 Salinity Stress 60 Heavy Metal Stress 61 Temperature Stress 62 Crosstalk of Polyamines with Other Signaling Molecules 63 Nitric Oxide 63 Plant Growth Regulators 64 Conclusion 65 References 65 5 Mycorrhizal Symbiosis and Nutrients Uptake in Plants 73 Kashif Tanwir, Saghir Abbas, Muhammad Shahid, Hassan Javed Chaudhary, and Muhammad Tariq Javed Introduction 73 Mycorrhizal Association and Its Types 74 Endomycorrhiza 74 Ectomycorrhiza (ECM) 75 Establishment of Arbuscular Mycorrhiza in Soil 76 Growth of Asymbiotic Hyphae 76 Presymbiotic Stage 77 Different Symbiotic Stages of Fungal Mycelium Growth 77 Root Modifications for Accumulation of Nutrients 79 Nitrogen Uptake Mechanisms of Mycorrhizal Symbionts 80 Phosphorus Accumulation Mechanisms of Mycorrhizal Fungus 81 Potassium (K) and Sodium (Na) Uptake Mechanisms of Mycorrhizal Fungi 83 Metabolism of Sulfur in Mycorrhizal Symbiosis 83 Role of Mycorrhizal Lipid Metabolism in Nutrients Accumulation 84 Mechanism of Micronutrients and Heavy Metal Uptake in Mycorrhizae 85 Carbons-Based Triggering of Nutrients Accumulation in Mycorrhizal Symbiosis 86 Conclusion 87 References 87 6 Nutrient Availability Regulates Root System Behavior 96 Salar Farhangi-Abriz and Kazem Ghassemi-Golezani Introduction 96 Nutrients Importance in Root Growth and Development 98 Morpho-Physiological Responses of Plant Roots to Nutrients Availability 99 Macronutrients 99 Nitrogen 99 Phosphorus 101 Potassium 103 Calcium 104 Magnesium 105 Sulfur 105 Micronutrients 106 Zinc 106 Boron 108 Copper 108 Iron 109 Nano Nutrients and Root System Modifications 110 Management Strategies for Maximizing Root Systems 110 Soil Management 110 Plant Management 111 Conclusions and Future Perspectives 111 References 112 7 Potassium Transport Systems at the Plasma Membrane of Plant Cells. Tools for Improving Potassium Use Efficiency of Crops 120 Jesús Amo, Almudena Martínez-Martínez, Vicente Martínez, Manuel Nieves-Cordones, and Francisco Rubio Potassium (K+) as a Macronutrient for Plants 120 Functions of K+ and Its Concentration in Plant Cells 120 Concentrations of K+ in Soil, K+-Deficient Soils, and Presence of Environmental Conditions that Affect K+ Nutrition 121 K+ Transport Systems 122 HAK/KT/KUP Transporters 123 Voltage-Gated K+ Channels 124 HKT Transporters 125 Cyclic Nucleotide Gated Channels 126 Key Points for K+ Homeostasis and Transport Systems Involved 127 General Mechanisms of Regulation 129 Transcriptional Regulation 129 PostTranslational Regulation 131 Multimerization and Regulatory Subunits 131 Regulation by Phosphorylation 131 Agriculture for the Future: K+ Use Efficiency and Stress Tolerance 132 K+ Use Efficiency 132 Abiotic Stress Affecting K+ Homeostasis 133 Salinity 133 Drought 134 Waterlogging 134 Toxic Ions 135 Biotic Stress Affecting K+ Homeostasis 136 Biotechnological Approaches and Emerging Techniques for Crop Improvement 136 Models Versus Crops and Translational Research 136 Natural Variation Exploitation 137 New Alleles Generated in the Lab 138 Genome Editing 138 References 139 8 Role of Nutrients in Modifications of Fruit Quality and Antioxidant Activity 148 Tomo Milošević and Nebojša Milošević Introduction 148 Short Overview About Fruit Quality 149 Main Role of Mineral Elements on Trees Growth, Development, and Fruit Quality 150 The Ionomic Analysis of Fruit Crops 152 Requirements of Fruit Trees to Chemical Elements 153 The Role of Elements in the Metabolism of Fruit Trees and in Improving Quality 155 Macroelements 155 Nitrogen (N) 155 Phosphorus (P) 156 Potassium (K) 156 Calcium (Ca) 157 Magnesium (Mg) 157 Sulfur (S) 158 Microelements 158 Iron (Fe) 158 Manganese (Mn) 159 Copper (Cu) 159 Zinc (Zn) 159 Boron (B) 159 Other Essential Microelements 160 Conclusion and Future Prospects 161 References 162 9 Nutrients Use Efficiency in Plants 171 Neda Dalir Introduction 171 Nutrient Use Efficiency (Concepts and Importance) 172 Role of Nutrient-Efficient Plants for Improving Crop Yields 172 Physiological Mechanisms in Plant Nutrient Use Efficiency 173 Uptake Efficiency 173 Acquisition of Available Nutrients 173 Increasing Nutrient Availability 174 Utilization Efficiency 175 Conclusion and Future Prospects 175 References 176 10 Nutrients Uptake and Transport in Plants: An Overview 180 Neda Dalir Introduction 180 Routes from the Soil to the Stele 181 Apoplastic Pathway 181 Symplastic Pathway 183 Movement of Solutes Across Membranes 183 Passive Transport 184 Simple Diffusion 184 Facilitated Diffusion 184 Osmosis 185 Active Transport 185 Primary Active Transport 185 Secondary Active Transport 185 Radial Transport of Mineral Ions 186 Long Transport of Mineral Ions 186 Conclusion and Future Prospects 187 References 187 11 Regulation of Phytohormonal Signaling by Nutrients in Plant 191 Harshita Joshi, Nikita Bisht, and Puneet Singh Chauhan Introduction 191 Phytohormones: Structure, Sites of Biosynthesis, and its Effects 192 Interaction between Nutrient Availability and Phytohormone Signaling 195 Nutrients in Cytokinin (CK) Signaling 197 Nutrients in Ethylene (ETH) Signaling 198 Nutrients in Auxin Signaling 199 Nutrients in Gibberellic Acid (GA) and Abscisic Acid (ABA) Signaling 201 Nutrient Availability and Signaling of other Phytohormones 201 Jasmonic Acid (JA) 202 Brassinosteroids (BR) 202 Salicylic Acid (SA) 202 Polyamines and Strigolactones 203 Transcriptional Interrelation between Nutrient Deprivation and Phytohormones 203 Conclusions and Prospects 204 Acknowledgments 204 References 204 12 Nutrients Regulation and Abiotic Stress Tolerance in Plants 209 Nikita Bisht, Harshita Joshi, and Puneet Singh Chauhan Introduction 209 How Abiotic Stresses Affect Plants 210 Plant’s Response to Abiotic Stress 211 Mineral Nutrients in the Alleviation of Abiotic Stress in Plants 213 Macronutrients 213 Micronutrients 215 Plant Growth-Promoting Rhizobacteria (PGPR), Mineral Nutrients, and Abiotic Stress 216 Conclusion 217 Acknowledgments 217 References 219 13 Nutrient Management and Stress Tolerance in Crops 224 Saghir Abbas, Kashif Tanwir, Amna, Muhammad Tariq Javed, and Muhammad Sohail Akram Introduction 224 Implications of Abiotic Stress in Plants 226 Salinity Stress 226 Drought 227 Toxic Metals 228 Other Stresses 228 Role of Nutrients in Stress Tolerance 229 Nitrogen 229 Nitrogen Role in Stress Tolerance 230 Potassium 230 Role of Potassium in Stress Tolerance 231 Phosphorus 232 Role of Phosphorus in Stress Tolerance 232 Calcium 233 Role of Calcium Under Stress 233 Sulfur 234 Role of Sulfur in Stress Tolerance 234 Magnesium 234 Role of Mg in Stress Tolerance 235 Boron 235 Role of Boron Under Stress 236 Iron 236 Role of Iron in Stress 236 Zinc 237 Role of Zn Under Stress 237 Copper 238 Role of Copper in Stress Tolerance 238 Manganese 238 Role of Mn in Stress Tolerance 239 Molybdenum 239 Molybdenum Role Under Stress 239 Conclusion 240 References 241 Index 253

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Book SynopsisProcess Safety for Engineers Familiarizes an engineer new to process safety with the concept of process safety management In this significantly revised second edition of Process Safety for Engineers: An Introduction, CCPS delivers a comprehensive book showing how Process Safety concepts are used to reduce operational risks. Students, new engineers, and others new to process safety will benefit from this book. In this updated edition, each chapter begins with a detailed incident case study, provides steps that help address issues, and contains problem sets which can be assigned to students. The second edition covers: Process Safety: including an overview of CCPS' Risk Based Process Safety Hazards: specifically fire and explosion, reactive chemical, and toxicity Design considerations for hazard control: including Hazard Identification and Risk Analysis Management of operational risk: incluTable of ContentsChapter 1 Introduction and Regulatory Overview Chapter 2 Risk Based Process Safety Chapter 3 Process Safety Regulations, Codes, and Standards Chapter 4 Fire and Explosion Hazards Chapter 5 Reactive Chemical Hazards Chapter 6 Toxic Hazards Chapter 7 Chemical Hazards Data Sources Chapter 8 Other Hazards Chapter 9 Process Safety Incident Classification Chapter 10 Project Design Basics Chapter 11 Equipment Failure Chapter 12 Hazard Identification Chapter 13 Consequence Analysis Chapter 14 Risk Assessment Chapter 15 Risk Mitigation Chapter 16 Human Factors Chapter 17 Operational Readiness Chapter 18 Management of Change Chapter 19 Operating Procedures, Safe Work Practices, Conduct of Operations, and Operational Discipline Chapter 20 Emergency Management Chapter 21 People Management Aspects of Process Safety Management Chapter 22 Sustaining Process Safety Performance Chapter 23 Process Safety Culture Appendix A – Concluding Exercises Appendix B – Relationship Between Book Content and Typical Engineering Courses Appendix C – Example RAGAGEP List Appendix D – Reactive Chemicals Checklist Appendix E – Classifying Process Safety Events Using API RP 754 3nd Edition Appendix F – Example Process Operations Readings and Evaluations Appendix G – List of CSB Videos

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a huge range and FREE tracked UK delivery on ALL orders.

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a huge range and FREE tracked UK delivery on ALL orders.

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Book SynopsisGain a comprehensive understanding of chemistry and see how it relates to health science with INTRODUCTION TO GENERAL, ORGANIC, AND BIOCHEMISTRY. This bestseller features dynamic art, interesting examples, coverage of the latest issues, and a wide variety of medical and biological applications. As you explore topics such as botulin toxin as a cosmetic agent, implications for the use of antibiotics, the Atkins diet, and ultraviolet sunscreen, you will see how useful the study of chemistry is to so many aspects of your life. The book's built-in integration with OWLv2 (Online Web-based Learning) turns your chemistry study time into active experiences that build your comprehension and bring concepts to life.Table of Contents1. Matter, Energy, and Measurement. 2. Atoms. 3. Chemical Bonds. 4. Chemical Reactions. 5. Gases, Liquids, and Solids. 6. Solutions and Colloids. 7. Reaction Rates and Chemical Equilibrium. 8. Acids and Bases. 9. Nuclear Chemistry. 10. Organic Chemistry. 11. Alkanes. 12. Alkenes and Alkynes. 13. Benzene and Its Derivatives. 14. Alcohols, Ethers, and Thiols. 15. Chirality: The Handedness of Molecules. 16. Amines. 17. Aldehydes and Ketones. 18. Carboxylic Acids. 19. Carboxylic Anhydrides, Esters, and Amides. 20. Carbohydrates. 21. Lipids. 22. Proteins. 23. Enzymes. 24. Chemical Communications: Neurotransmitters and Hormones. 25. Nucleotides, Nucleic Acids, and Heredity. 26. Gene Expression and Protein Synthesis. 27. Bioenergetics: How the Body Converts Food to Energy. 28. Specific Catabolic Pathways: Carbohydrate, Lipid, and Protein Metabolism. 29. Biosynthetic Pathways. 30. Nutrition. 31. Immunochemistry 32. Body Fluids. Appendix 1. Exponential Notation. Appendix 2. Significant Figures. Answers to In-Text and Odd-Numbered End-of-Chapter Problems. Glossary Credits Index.

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Book SynopsisTable of Contents Biochemistry and the Language of Chemistry The Chemical Foundation of Life: Weak Interactions in an Aqueous Environment The Energetics of Life Nucleic Acids Introduction to Proteins: The Primary Level of Protein Structure The Three-Dimensional Structure of Proteins Protein Function and Evolution Enzymes: Biological Catalysts Carbohydrates: Sugars, Saccharides, Glycans Lipids, Membranes, and Cellular Transport Chemical Logic of Metabolism Carbohydrate Metabolism: Glycolysis, Gluconeogenesis, Glycogen Metabolism, and the Pentose Phosphate Pathway The Citric Acid Cycle Electron Transport, Oxidative Phosphorylation, and Oxygen Metabolism Photosynthesis Lipid Metabolism Interorgan and Intracellular Coordination of Energy Metabolism in Vertebrates Amino Acid and Nitrogen Metabolism Nucleotide Metabolism Mechanisms of Signal Transduction Genes, Genomes, and Chromosomes DNA Replication DNA Repair, Recombination, and Rearrangement Transcription and Post-transcriptional Processing Information Decoding: Translation and Post-translational Protein Processing Regulation of Gene Expression APPENDIX I: Answers to Selected Problems  Glossary  Credits  Index

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Book SynopsisPaul G. Hewitt Former silver-medal boxing champion, sign painter, uranium prospector, and soldier, Paul began college at the age of 27, with the help of the GI Bill. He pioneered the conceptual approach to teaching physics at the City College of San Francisco. He has taught as a guest teacher at various middle schools and high schools, the University of California at both the Berkeley and Santa Cruz campuses, and the University of Hawaii at both the Manoa and Hilo campuses. He also taught for 20 years at the Exploratorium in San Francisco, which honored him with its Outstanding Educator Award in 2000. He is the author of Conceptual Physics and a co-author of Conceptual Physical Science and Conceptual Physical Science Explorations (with John Suchocki and Leslie Hewitt Abrams). Suzanne Lyons Suzanne received her B.A. in physics from the University of California, Berkeley. She earned her M.A. in education and her California teaching credential both from Stanford University. She earned another M.A. degree in Integrated Earth Sciences from California State University Sacramento. Suzanne was editor of Conceptual Physics and other books in the Conceptual series for 16 years and has authored 7 books on physics, hands-on science activities, and other topics in science and education. She has taught science and education courses to students of diverse ages and ability levels, from elementary school through college. She is always interested in developing new ways to teach and to that end, she founded the small business CooperativeGames.com. John A. Suchocki John is the author of Conceptual Chemistry and coauthor of Conceptual Physical Science. John obtained his Ph.D. in organic chemistry from Virginia Commonwealth University where he also completed a postdoctoral fellowship in pharmacology. As a tenured professor at Leeward Community College his interests turned to science education, the development of distance learning programs, and student-centered learning curricula. Currently an adjunct professor at Saint Michael's College in Vermont, John also produces science multimedia through his company Conceptual Productions. His popular tutorial video lessons, as well as those of his coauthors, are freely available at ConceptualAcademy.com. Jennifer Yeh Jennifer earned a Ph.D. in integrative biology from the University of Texas, Austin, for her work on frog skeleton evolution. She obtained her B.A. in physics and astronomy from Harvard University. Following her graduate work, Jennifer was a postdoctoral fellow at the University of California, San Francisco, where she studied the genetics of breast cancer. Jennifer has taught courses in physics, cell biology, human embryology, vertebrate anatomy, and ecology and evolution. She is the author of various scientific papers as well as the book Endangered Species: Must They Disappear? (Thomson/Gale, 2002, 2004). Jennifer continues to work on a wide variety of introductory biology materials, including various online materials.Table of ContentsAbout Science PART I. PHYSICS Describing Motion Newton's Laws of Motion Momentum and Energy Gravity Heat Electricity and Magnetism Waves: Sound and Light PART II. CHEMISTRY Atoms and the Periodic Table The Atomic Nucleus and Radioactivity Investigating Matter Chemical Bonds and Mixtures Chemical Reactions Organic Chemistry PART III. BIOLOGY The Basic Unit of Life: The Cell Genetics The Evolution of Life Diversity of Life on Earth Human Biology I: Control and Development Human Biology II: Care and Maintenance Ecology PART IV. EARTH SCIENCE Plate Tectonics: The Earth System Rocks and Minerals Earth's Surface: Land and Water Surface Processes Weather and Climate Environmental Geology PART V. ASTRONOMY The Solar System The Universe Appendix A: On Measurement and Unit Conversion Appendix B: Linear and Rotational Motion Appendix C: More on Vectors Appendix D: Exponential Growth and Doubling Time Appendix E: Physics of Fluids Appendix F: Chemical Equilibrium

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