Chemistry Books

Book SynopsisSucceeding in Health Science Chemistry is meant to be a powerful supplement for any student taking the General Chemistry component of a one or two semester General, Organic and Biochemistry (GOBC) sequence or for students taking a chemistry review course to help prepare for college. These courses are commonly taken by pre-nursing students, exercise science students or students seeking health care certifications. Succeeding in Health Science Chemistry: Is a workbook compatible with any GOBC or basic chemistry textbook on the market and provides students with practical step-by-step ways to understand and work with the basics of inorganic chemistry. Guides students through basic problem solving skills with training examples and thoroughly explained answers. Features a short quiz which can be used as a homework assignment, an in-class worksheet or an assessment activity in each Chapter. Is flexible! The Chapters are sequenced to match up with the content structure of most courses, but instructors can certainly go in any order and then simply assign components of the workbook that fit. Provides a suggested lists of ions to memorize, more details on signification figures and measurements, and a simple to use VSEPR table. Feedback from pre-nursing students who have already used this textbook have been glowingly positive. They have indicated that the training exercises, the clear way in which concepts are explained and detailed explanation of solved problems have really helped them learn the content and improve their academic performance. This low-cost workbook can really help your students succeed regardless of your teaching style, textbook used or content pace/sequencing. Give the workbook a try for a semester and provide your students with a really useful tool to help you help them experience greater success.

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Book SynopsisTight junctions between epithelial and endothelial cells form selective barriers and paracellular channels and regulate paracellular transport of solutes, immune cells, and drugs. More specifically, tight junctions consist of proteins that laterally interconnect neighboring cells of epithelia and endothelia. Certain proteins seal the tight junction, so that a nearly impermeable barrier develops, whereas others form channels that allow for permeation between the cells. Recent investigations have focused on tight junction proteins, belonging to the claudin family (claudins-1 to -27 in humans) and the newly defined group of TAMP (three proteins: occludin, Marvel-D2, and tricellulin). Barriers and Channels Formed by Tight Junction Proteins I showcases work in this area clustered around three major themes: the molecular properties of tight junctions, for example, the role of the claudin family of proteins and the formation of ion and charge-selective channels; the regulation of tight junction and barrier functions via genetic mechanisms and scaffold protein mediation; and the functional role of the tight junction in various tissues, such as the skin, lungs, endothelia, and nervous system NOTE: Annals volumes are available for sale as individual books or as a journal. For informatio.n on institutional journal subscriptions, please visit http://ordering.onlinelibrary.wiley.com/subs.asp?ref=1749-6632&doi=10.111/(ISSN)1749-6632. ACADEMY MEMBERS: Please contact the New York Academy of Sciences directly to place your order (www.nyas.org). Members of the New York Academy of Science receive full-text access to the Annals online and discounts on print volumes. Please visit http://www.nyas.org/MemberCenter/Join.aspx for more information about becoming a member. Table of Contents1. Perspectives on tight junction research Jörg-Dieter Schulzke, Dorothee Günzel, Lena J. John, and Michael Fromm Molecular properties of the tight junction 20. Charge-selective claudin channel Susanne M. Krug, Dorothee Günzel, Marcel P. Conrad, In-Fah M. Lee, Salah Amasheh, Michael Fromm, and Alan S. L. Yu 29. Claudin-derived peptides are internalized via specific endocytosis pathways Denise Zwanziger, Christian Staat, Anuska V. Andjelkovic, and Ingolf E. Blasig 38. A phosphorylation hotspot within the occluding C-terminal domain Max J. Dörfel and Otmar Huber 45. Determinants contributing to claudin ion channel formation Anna Veshnyakova, Susanne M. Krug, Sebastian L. Mueller, Jörg Piontek, Jonas Protze, Michael Fromm, and Gerd Krause 54. Lipolysis-stimulted lipoprotein receptor: a novel membrane protein of tricellular tight junctions Mikio Furuse, Yukako Oda, Tomohito-Higashi, Noriko Iwamoto, and Sayuri Masuda 59. Overexpression of claudin-5 but not claudin-3 induces formation of trans-interaction-dependent multilamellar bodies Jan Rossa, Dorothea Lorenz, Martina Ringling, Anna Veshnyakova, and Joerg Piontek 67. Association between segments of zonula occludens proteins: live-cell FRET and mass spectrometric analysis Christine Rueckert, Victor Castro, Corinna Gagell, Sebastian Dabrowski, Michael Schümann, Eberhard Krause, Ingolf E. Blasig, and Reiner F. Haseloff 77. Dynamic properties of the tight junction barrier Christopher R. Weber Regulation of the tight junction and barrier function 85. Regulation of tight junctions in human normal pancreatic duct epithelial cells and cancer cells Takashi Kojima and Norimasa Sawada 93. The role for protein tyrosine phosphatase nonreceptor type 2 in regulating autophagosome formation Michael Scharl and Gerhard Rogler 103. Caveolin binds independently to claudin-2 and occluding Christina M. Van Itallie and James M. Anderson 108. Regulation of epithelial barrier function by the inflammatory bowel disease candidate gene, PTPN2 Declan F. McCole 115. Intracellular mediators of JAM-A-dependent epithelial barrier function Ana C. Monteiro and Charles A. Parkos 125. Cingulin, paracingulin, and PLEKHA7: signaling and cytoskeletal adaptors at the apical junctional complex Sandra Citi, Pamela Pulimeno, and Serge Paschoud 133. ZO-2, a tight junction scaffold protein involved in the regulation of cell proliferation and apoptosis Lorenza Gonzalez-Mariscal, Pablo Bautista, Susana Lechuga, and Miguel Quiros 142. From TER to trans- and paracellular resistance: lessons from impedance spectroscopy Dorothee Günzel, Silke S. Zakrzewski, Thomas Schmid, Maria Pangalos, John Wiedenhoeft, Corinna Blasse, Christopher Ozboda, and Susanne M. Krug Tight junctions in skin, lung, endothelia, and nervous tissues 152. Diverse type of junctions containing tight junction proteins in stratified mammalian epithelia Werner W. Franke and Ulrich-Frank Pape 158. Barriers and more: functions of tight junction proteins in the skin Nina Kirschner and Johanna M. Brandner 167. Roles for claudins in alveolar epithelial barrier function Christian E. Overgaard, Leslie A. Mitchell, and Michael Koval 175. Claudins and alveolar epithelial barrier function in the lung James A. Frank 184. Relevance of endothelial junctions in leukocyte extravasation and vascular permeability Dietmar Vestweber 193. Involvement of claudins in zebrafish brain ventricle morphogenesis Jingjing Zhang, Martin Liss, Hartwig Wolburg, Ingolf E. Blasig, and Salim Abdelilah-Seyfried 199. Modulation of tight junction proteins in the perineurium for regional pain control D. Hackel, A. Brack, M. Fromm, and K. L. Rittner

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Book SynopsisThe Global Medical Excellence Cluster (GMEC) and the New York Academy of Sciences, in collaboration with Imperial College London and King's College London, sponsored the conference "Animal Models and Their Value in Predicting Drug Efficacy and Toxicity." The goal was to provide a neutral forum to critically examine and discuss the traditional role of pre-clinical animal models in drug discovery, and how these models most effectively contribute to translational medicine and therapeutic development. International, multi-disciplinary clinical and basic science investigators convened to discuss and identify changes needed to increase the predictive power of various models for drug efficacy and toxicity in humans, and ways in which to further refine, reduce, and replace animal models in biomedical research in areas such as metabolic and cardiovascular disease, inflammation, pain. Other topics discussed included new technologies in bioimaging, biosimulation, bioinformatics, the generation of genetically modified animals, phenotype screening, alternatives to rodent models, the use of embryonic stem cells, patient-specific induced pluripotent stem cells, and humanized animal models. This volume presents a collection of short papers on some of the topics discussed at this important conference. NOTE: Annals volumes are available for sale as individual books or as a journal. For information on institutional journal subscriptions, please visit http://ordering.onlinelibrary.wiley.com/subs.asp?ref=1749-6632&doi=10.1111/(ISSN)1749-6632. ACADEMY MEMBERS: Please contact the New York Academy of Sciences directly to place your order (www.nyas.org). Members of the New York Academy of Science receive full-text access to Annals online and discounts on print volumes. Please visit http://www.nyas.org/MemberCenter/Join.aspx for more information about becoming a member.

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Book SynopsisFor chemists, attempting to mimic nature by synthesizing complex natural products from raw material is a challenge that is fraught with pitfalls. To tackle this unique but potentially rewarding task, researchers can rely on well-established reactions and methods of practice, or apply their own synthesis methods to verify their potential. Whatever the goal and its complexity, there are multiple ways of achieving it. We must now establish a strategic and effective plan that requires the minimum number of steps, but lends itself to widespread use. This book is structured around the study of a dozen target products (butyrolactone, macrolide, indole compound, cyclobutanic terpene, spiro- and polycyclic derivatives, etc.). For each product, the different disconnections are presented and the associated syntheses are analyzed step by step. The key reactions are described explicitly, followed by diagrams showing the range of impact of certain transformations. This set of data alone is conducive to understanding syntheses and indulging in this difficult, but worthwhile activity. Table of ContentsPreface xi Chapter 1. Total Synthesis: Some Elements to Contemplate 1 1.1. Total synthesis – why and for what purpose? 1 1.2. The different approaches 3 1.3. Efficiency, selectivity 7 1.4. The essential reactions 9 1.5. Towards a sustainable total synthesis 11 1.6. What about tomorrow? 12 1.7. References 12 Chapter 2. Squamostolide 21 2.1. Structure, isolation and properties 21 2.2. Bond disconnections 21 2.3. Approach according to M.J. Wu 23 2.3.1. Bond disconnections 23 2.3.2. Synthesis 24 2.3.3. Key reaction: Claisen–Ireland rearrangement 27 2.3.4. Key reaction: functionalization of true alkynes 29 2.3.5. Supporting synthetic transformations 31 2.4. Approach according to K.J. Quinn 33 2.4.1. Bond disconnections 33 2.4.2. Synthesis 34 2.4.3. Key reaction: alkene metathesis and tandem processes 37 2.4.4. Supporting synthetic transformations 43 2.5. References 44 Chapter 3. Rubrenolide 51 3.1. Structure, isolation and properties 51 3.2. Disconnections 52 3.3. Approach according to H. Fujioka 53 3.3.1. Disconnection 53 3.3.2. Synthesis, developed by the Fujioka group 54 3.3.3. Key reaction: iodoetherification 56 3.3.4. Key reaction: oxidation of aldehydes to carboxylic acids 57 3.3.5. Supporting synthetic transformations 58 3.4. Approach according to B. Zwanenburg 59 3.4.1. Retrosynthesis 59 3.4.2. Synthesis, Zwanenburg’s approach 60 3.4.3. Key reaction: Wolff rearrangement 62 3.4.4. Key reaction: dehydration of alcohols according to Grieco 63 3.4.5. Supporting synthetic transformations 64 3.5. Approach according to N. Kommu 65 3.5.1. Disconnections 65 3.5.2. Synthesis 66 3.5.3. Key reaction: diastereoselective alkylation of oxazolidinones 68 3.5.4. Key reaction: enantioselective reduction of ketones – CBS method 71 3.5.5. Key reaction: alkyne formation according to Ohira–Bestmann 73 3.5.6. Supporting synthetic transformations 74 3.6. References 75 Chapter 4. Bipinnatin J 81 4.1. Structure, isolation and properties 81 4.2. Disconnections 82 4.3. Approach according to D. Trauner (racemic synthesis) 83 4.3.1. Synthesis 83 4.3.2. Key reaction: ene reaction between alkynes and alkenes 86 4.3.3. Key reaction: Stille coupling 88 4.3.4. Key reaction: Nozaki–Hiyama–Kishi reaction 90 4.3.5. Supporting synthetic transformations 93 4.4. Approach according to V.H. Rawal 94 4.4.1. Synthesis 94 4.4.2. Key reaction: Negishi coupling 97 4.4.3. Supporting synthetic transformations 98 4.5. Enantioselective approach according to G. Pattenden 99 4.5.1. Synthesis 99 4.5.2. Supporting synthetic transformations 102 4.6. Approach according to D. Trauner – enantioselective version 102 4.6.1. Synthesis 102 4.6.2. Supporting synthetic transformations 105 4.7. Comparison of the four syntheses 106 4.8. References 107 Chapter 5. Tubingensin B 111 5.1. Structure, isolation and properties 111 5.2. Bond disconnections 112 5.3. Approach according to N.K. Garg 113 5.3.1. Bond disconnections 113 5.3.2. Synthesis 114 5.3.3. Key reaction: Sonogashira reaction 116 5.3.4. Key reaction: Suzuki coupling 118 5.3.5. Key reaction: cycloaddition [2+2] of arynes 120 5.3.6. Key reaction: radical cyclization and Baldwin’s rules 122 5.3.7. Key reaction: enantioselective hydrogenation of ketones 122 5.3.8. Supporting synthetic transformations 124 5.4. References 125 Chapter 6. Polygonatine A 127 6.1. Structure, isolation and properties 127 6.2. Disconnections 127 6.3. Synthesis according to S.M. Allin 128 6.3.1. Disconnection 128 6.3.2. Synthesis 129 6.3.3. Key reaction: radical cyclization of selenoesters 130 6.3.4. Supporting synthetic transformations 133 6.4. Synthesis by J.P. Michael 133 6.4.1. Disconnections 133 6.4.2. Synthesis 134 6.4.3. Key reaction: Vilsmeier–Haack–Arnold reaction 135 6.4.4. Supporting synthetic transformations 137 6.5. References 139 Chapter 7. (+)-Intricatetraol 143 7.1. Structure, isolation and properties 143 7.2. Disconnections 143 7.3. Approach according to Morimoto 145 7.3.1. Synthesis 145 7.3.2. Key reaction: epoxidation according to Katsuki–Sharpless 149 7.3.3. Key reaction: asymmetric epoxidation according to Shi 151 7.3.4. Supporting synthetic transformations 153 7.4. References 155 Chapter 8. Enigmazole A 159 8.1. Structure, isolation and properties 159 8.2. Disconnections 160 8.3. Approach according to T. Molinski 160 8.3.1. Disconnections 160 8.3.2. Synthesis 161 8.3.3. Key reaction: 1,2-enantioselective addition of dialkylzinc to aldehydes 166 8.3.4. Key reaction: reduction of β-aldols to 1,3-diols 168 8.3.5. Supporting synthetic transformations 169 8.4. Approach according to A. Fürstner 172 8.4.1. Disconnections 172 8.4.2. Synthesis 173 8.4.3. Key reaction: diastereoselective alkylation according to Myers 177 8.4.4. Key reaction: Yne-yne ring-closing metathesis (RCAM) 179 8.4.5. Key reaction: sigmatropic rearrangement [3,3] of propargyl esters 180 8.4.6. Supporting synthetic transformations 181 8.5. Approach according to A.B. Smith III 183 8.5.1. Disconnections 183 8.5.2. Synthesis 183 8.5.3. Key reaction: dithiane, umpolung and relayed reactions 189 8.5.4. Key reaction: Petasis–Ferrier rearrangement 191 8.5.5. Supporting synthetic transformations 191 8.6. Approach according to H. Fuwa 194 8.6.1. Disconnections 194 8.6.2. Synthesis 195 8.6.3. Key reaction: Tishchenko–Evans reaction 199 8.6.4. Key reaction: Meyer–Schuster and Rupe rearrangement 201 8.6.5. Supporting synthetic transformations 203 8.7. Comparative assessment of the different syntheses 205 8.8. References 206 Chapter 9. Biyouyanagin A 213 9.1. Structure, isolation and properties 213 9.2. Synthesis according to K.C. Nicolaou 214 9.2.1. Disconnections 214 9.2.2. Synthesis 215 9.2.3. Key reaction: 1,4-addition and organocatalysis 220 9.2.4. Shapiro reaction 222 9.2.5. Supporting synthetic transformations 225 9.3. References 229 Chapter 10. Elatol 233 10.1. Structure, isolation and properties 233 10.2. Disconnections 234 10.3. Approach according to B. Stoltz 234 10.3.1. Disconnections 234 10.3.2. Synthesis 235 10.3.3. Key reaction: Tsuji–Trost reaction 237 10.3.4. Key reaction: ring-closing metathesis of hindered olefins 241 10.3.5. Key reaction: reduction of enones according to Luche 242 10.3.6. Supporting synthetic diagrams 243 10.4. References 245 Chapter 11. Thiomarinol H 249 11.1. Structure, isolation and properties 249 11.2. Disconnections 250 11.3. Approach according to D.G. Hall 250 11.3.1. Disconnections 250 11.3.2. Synthesis 252 11.3.3. Key reaction: hetero-Diels–Alder enantioselective reaction 254 11.3.4. Supporting synthetic transformations 256 11.4. Approach according to S. Raghavan 258 11.4.1. Disconnections 258 11.4.2. Synthesis 260 11.4.3. Key reaction: Kirmse–Doyle rearrangement 262 11.4.4. Key reaction: Julia–Lythgoe and Julia–Kocienski reaction 264 11.4.5. Supporting synthetic transformations 268 11.5. References 270 Chapter 12. Oblongolides A and C 273 12.1. Structures, isolation and properties 273 12.2. Disconnections 274 12.3. Synthesis of oblongolide A according to Shing 275 12.3.1. Disconnections 275 12.3.2. Synthesis 275 12.3.3. Key reaction: intramolecular Diels–Alder reaction 278 12.3.4. Supporting synthetic transformations 280 12.4. Shishido’s approach to oblongolide C 281 12.4.1. Disconnections 281 12.4.2. Synthesis 283 12.4.3. Key reaction: intramolecular [3+2] cycloadditions 287 12.4.4. Supporting synthetic transformations 288 12.5. References 291 List of Abbreviations 295 Index 301

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Book SynopsisBiphasic Chemistry and The Solvent Case examines recent improvements in reaction conditions, in order to affirm the role of chemistry in the sustainable field. This book shows that those who work within the chemistry industry support limits for the use of toxic or flammable solvents, since it reduces the purifications to simple filtrations. Thanks to commercial scavengers, solid phase syntheses are now available to all. Fluorine biphasic catalysis enables extremely efficient catalyst recycling and has a high applicability potential at the industrial level. This book also reviews the many studies that have shown that water is a solvent of choice for most synthetic reactions. Particular traits can be obtained and the effects on thermodynamics make it possible to operate at lower temperatures, thereby achieving energy savings. Finally the great diversity of application of the reactions without solvents is illustrated.Table of ContentsChapter 1. Solid-phase Supported Chemistry 1Géraldine GOUHIER 1.1. Introduction 1 1.2. Principle of solid-phase chemistry 2 1.3. Advantages 4 1.4. Safety and environment 4 1.5. Disadvantages and limitations 5 1.6. Evolution 6 1.7. Supports: linear skeletons 6 1.8. Three-dimensional resins 7 1.8.1. Macroporous resins 7 1.8.2. Gel resins 8 1.9. Characteristics of gel supports 10 1.9.1. Functionalization rate 10 1.9.2. Swelling properties 10 1.9.3. Size of the beads 12 1.9.4. Influence of cross-linking on swelling 12 1.9.5. Diffusion effect 13 1.9.6. Influence of cross-linking on diffusion 13 1.9.7. Influence of steric bulk 14 1.9.8. Influence of agitation 14 1.9.9. Proximity and pseudodilution effects 14 1.9.10. Proximity effect 15 1.9.11. Pseudodilution effect 15 1.9.12. Availability and costs 16 1.10. Functionalization of the solid support 17 1.10.1. Spacer arms 17 1.10.2. Linkers 18 1.10.3. Influence of functionalization 19 1.11. Analytical methods and reaction monitoring 20 1.11.1. Centesimal analyses 20 1.11.2. Colorimetric dosages 22 1.11.3. Indirect analyses 23 1.11.4. Infrared spectroscopy 23 1.11.5. Nuclear magnetic resonance spectrometry 24 1.11.6. Mass spectrometry 29 1.12. Solid-phase syntheses 29 1.12.1. Supported reagents 29 1.12.2. Supported chiral catalysts 32 1.12.3. Scavengers 34 1.13. Innovative applications and processes 35 1.13.1. Examples 35 1.13.2. Parallel syntheses on a solid support 37 1.14. Activation on solid phase 40 1.14.1. Microwave reactions 40 1.14.2. Reactions under high pressure 42 1.14.3. Reactions under ultrasound 42 1.14.4. Supported electrochemical reactions 43 1.14.5. Reactions in ionic liquid 43 1.15. Industrial applications and prospects 45 1.16. Conclusion 45 1.17. References 45 Chapter 2. Fluorous Tags and Phases for Synthesis and Catalysis 57Jean-Marc VINCENT 2.1. Introduction 57 2.2. Structures and properties of fluorous tags and phases 58 2.2.1. History of fluorous chemistry 58 2.2.2. Fluorous tags 59 2.2.3. Fluorous solvents 60 2.2.4. Solid fluorous phases 62 2.3. Separation/recycling methodologies using fluorous tags and phases 64 2.3.1. Application for catalysis 64 2.3.2. Application for synthesis 75 2.4. Conclusion 90 2.5. References 90 Chapter 3. Chemistry In and On Water 99Marie-Christine SCHERRMANN 3.1. Introduction 99 3.1.1. Presentation and history 99 3.1.2. Position in the context of green chemistry 100 3.2. General: origin of reactivity in and on water 100 3.2.1. Water structure and properties 100 3.2.2. Chemistry in water: the hydrophobic effect 102 3.2.3. Origin of reactivity on water 106 3.3. Limitations of the method 107 3.4. Reactivity in and on water 107 3.4.1. Pericyclic reactions 107 3.4.2. Addition reactions of carbonyl derivatives 121 3.4.3. Coupling reactions catalyzed by transition metals 127 3.4.4. Radical reactions 135 3.4.5. Oxidation and reduction reactions 136 3.5. Multistep syntheses 142 3.6. Industrial applications 143 3.7. Conclusion 144 3.8. References 145 Chapter 4. Solvent-free Chemistry 169Thomas-Xavier MÉTRO, Xavier BANTREIL, Jean MARTINEZ and Frédéric LAMATY 4.1. Introduction 169 4.2. General information on solvent-free synthesis: why use a solvent? 170 4.3. Working without solvents 170 4.4. Limitations of the technique 171 4.5. In practice: methods and reactivity 172 4.5.1. Methods and equipment. 172 4.5.2. Examples 172 4.5.3. Scaling up: industrial applications 173 4.6. Mortar and pestle 176 4.6.1. Methods and equipment 176 4.6.2. Examples 176 4.6.3. Scaling up: industrial applications 177 4.7. Ball-mills 178 4.7.1. Methods and equipment 178 4.7.2. Examples 180 4.7.3. Scaling up: industrial applications 185 4.8. Extruders 190 4.8.1. Methods and equipment 190 4.8.2. Examples 191 4.9. Microwave irradiation 192 4.9.1. Methods and equipment 192 4.9.2. Examples 194 4.9.3. Scaling up: industrial applications 196 4.10. Photochemistry 198 4.10.1. Methods and equipment 198 4.10.2. Examples 199 4.10.3. Scaling up: industrial applications 201 4.11. Comparison of techniques 204 4.12. Conclusion 206 4.13. References 206 List of Authors 217 Index 219

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Book SynopsisThis manual, Introduction to Chemistry Lab Manual, is written for undergraduate students taking a General Chemistry laboratory course concurrently with General Chemistry. This is written primarily for those taking Chem 171 at Rutgers, The State University of New Jersey, however would be applicable in most any General Chemistry laboratory course. The purpose of a General Chemistry laboratory is not only to reinforce concepts taken from lecture through experimentation, but also to develop the student's experimental techniques. Beginning with elementary experiments in density of solids and liquids, these experiments traverse a myriad of general chemistry topics through twelve illuminating experiments including heats of formation and titrations, finally ending with a novel experiment in magnetic susceptibility. Table of Contents Lab Safety Rules Glassware and General Equipment Recording and Representing Data LAB 1 Significant Figures and the Density of Water - Version 1.6 LAB 2 Density: A Physical Property of Matter LAB 3 Paper Chromatography LAB 4 Water of Hydration Version 6.3 LAB 5 Net Ionic Equations LAB 6 Empirical Formula of Copper Chloride LAB 7 Reactivity of Metals LAB 8 Volumetric Analysis: An Acid-Base Titration LAB 9 Evaluating Commercial Antacids LAB 10 Determining the Molar Volume of Carbon Dioxide LAB 11 Enthalpy of Formation of Ammonium Salts LAB 12 Magnetic Behavior and Electron Configuration of Compounds Version: 6.3

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Book SynopsisThis title brings together a variety of papers presented at the 9th annual Meso meeting in 2007. The topics selected for Meso 2007 are designed to illustrate the relation of thresholds to multiscaling: Flow through capillary tubes in contrast to pipes Laminar and turbulent flow transition Heat convection of thin wires in contrast to cylinders Electrical conductance of macro- and nano-circuits Rubbery and glassy polymers Single- and poly-crystal behavior Strength of wires and round cylindrical bars Uni-axial and multi-axial material: linear and non-linear response Thin and thick plate behavior Brittle and ductile fracture Small and large crack growth behavior Low and high temperature effects Local and global material property characteristics Small and large bodies: size and time effects Specimen and structure Table of ContentsSection I: Physical Mechanisms of Multiple Damage 1 Multiple hierarchical scale-dependency on physical mechanisms of material damage: macromechanical, microstructural and nanochemical 3 G.c. Sih Surface layers and inner interfaces as functional subsystems of solid 37 V.E. Panin, S.V. Panin and A.V. Panin Microstructural evolution in dual-phase steels at high strain-rates 45 M.N. Bassim and A.G. Odeshi Plastic deformation in single cryctal Ni3Fe (thin and thick plates) 55 S.V. Starenchenko, V.A. Starenchenko and LP. Radchenko Mechanisms of physical aging in polypropylene 63 G. Guero and T. Vu-Khan Section II: Physical, Mesoscopical and Multiscale Models 73 Finite element homogeneization for the determination ofthe RYE size for elastoviscoplastic Polycrystalline Materials 75 H. Haddadi and A. Salahouelhadj An incremental energy based fatigue life calculations method for metallic structures under multiaxial amplitude loadings 83 J. Benabes, N. Saintier, T. Palin-Luc and F. Cocheteux Meso/micro fatigue crack growth involving crystal structure and crack geometry 91 C.A. Rodopoulos and G. Chliveros Development of a nonlinear homogeneization method: evaluation and application to a rubber-reinforced material 105 V. Bouchart, M. Brieu, D. Kondo and M. Nait-Abdelaziz Cavitation of rubber toughened polymer: numerical and experimental investigation 113 N. Belayachi, N. Benseddiq and M. Nail-Abdelaziz Ductile damage by interface decohesion 123 N. Bonfoh, S. Tiem and P. Lipinski A multiscale discussion of fatigue and shakedown for notched structures 131 G. Bertolino, A. Constantinescu, M. Ferjani and P. Treiber Two scale approach for the defect tolerance fatigue design of automotive components 145 H. Gadouini and Y. Nadot Section III: Film, Layer and Interface 153 Plastic deformation and fracture ofthin metallic films on annealing in terms of the multilevel model ofa deformed solid 155 A.V. Panin and A.R Shugurov Mesoscopic model for electroactive Composite Films and its applications 163 D. Roy Mahapatra and RV.N. Melnik Interfaces of one-way glass/epoxy composite in inflexion 171 A. Djebbar and L. Vincent Point defects ofthe elastic properties oflayered structured nano-materials 183 T.E. Karakasidis, CA. Charitidis and D. Skarakis DFT study of interactions of water on Kaolinte and Goethite surfaces 191 D. Tunega Nanolayered MAX phases from ab initio calculations 199 R Ahuja Section IV: Crack Models and Solutions 205 Fracture initiation at re-entrant corners: experiments and finite fracture mechanics predictions 207 A. Carpinteri, P. Cornetti, N. Pugno, A. Sapora and D. Taylor Buckling analysis of cracked columns subjected to lateral loads 217 L. Nobile Micro-cavity effect on the plastic zone size ahead ofthe crack tip in confmed plasticity 229 M. El Meguenni, B. Bachir Bouiadjra, M. Benguediab, A. Ziadi, M. Nait-Abdelaziz and F. ZaYri Effect of microcrack on plastic zone size ahead of main crack in small-scale plasticity 237 B. Bachir Bouiadjra, M. Benguediab, M. El Meguenni, M. Belhouari, B. Serier and M. Nail-Abdelaziz Stress intensity factor ofsurface and interface cracks in coating/substrate system 245 Y. Bao, G. Chai, X. Lou and W. Hao T-stress by stress difference method (SDM) 253 M. Hadj Meliani, H. Moustabchir and Z. Azari Elasto-inelastic self-consistent model of ellipsoidal inclusion 261 M. Radi and A. Abdul-Latif Crack propagation in solid oxide fuel cells 271 N. Joulaee, A. Makradi, S. Ahzi and M.A. Khaleel Elastoplastic solution for an eccentric crack loaded by two pairs of point tensile forces 279 X. Zhou and H. Yang J-integral and CMOD for cracked cylinders 289 M. Kiric Oscillating contact of isotropic elastic half-spaces 297 H.Y. Yu Section V: Nanomateria1s 305 Mechanical properties of thin pulsed laser deposited amorphous carbons and amorphous carbon/silver nanocomposites 307 C.A. Charitidis, P. Patsalas, F. Chouliaras, C. Kosmidis and G.A. Evangelakis Extension of the Hertz model for accounting to surface tension in nanoindentation tests of soft materials 315 C. Fond, o. Noel and M. Brogly Multi-scale modeling of tensile behavior of carbon nanotube-reinforced composites 323 K.I. Tserpes, P. Papanikos, G.N. Labeas and S. G. Pantelakis Mechanical, thermal and electronic properties of nanoscale materials 331 K. Masuda-Jindo, V. Van Hung and M. Menon SWNT reinforced Ni-Cu nanocomposites 341 B. Lim, B. Kim, B. Sung, J. Choi, u. Shim, S. Oh, C. Kim and S. Baik Section VI: Electronic and Composite Materials 349 A general piezoelctric interface model: coordinate-free asymptotic derivation and application to the homogenization of piezoelectric composites 351 S.-T. Gu, Q.-C. He and V. Pensee Effect of non-homogeneous strain on the band structure of semi-conductors due to the end friction under compression tests 359 X.X. Wei and K.T. Chau Composite based polypropylene 369 D. Pessey, N. Bahlouli, S. Ahzi and J.M. Hiver Deformation of reinforcement on size effects in metal/metal composite 375 S. Ataya, M. Korthauer and E. El-Magd Deformation behavior of coal as a composite material and its impacts on permeability in coalbed gas reservoir 385 G.X. Wang, Z.T. Wang, V. Rudolph and P. Massarotto Characterization of a multi-cracked composite material using ESPI and phase shifting 395 L. Farge, Z. Ayadi, J. Varna and M. Nivoit Section VII: Brittle Fracture 403 Mechanism of cleavage fracture ofHSLA steels and TiAI alloys 405 C. Jianhong Strength of brittle materials based on mixture of two Weibull distributions 415 L. Guerra Rosa and 1. Figueiredo Assessment of brittle failure processes in polyolefins 429 J.P. Dear and N.S. Mason Computational modelling of damage in glass loaded with a spherical indenter 439 J. Ismail, F. ZaYri, M. Nait-Abdelaziz and Z. Azari Section VIII: Failure, Creep and Fracture 451 New approach to predicting crack path and instability 453 D.A. Zacharopoulos A fracture analysis of short glass fibre reinforced SGFR-PA66 461 B. Mouhmid, A. Imad and N. Benseddiq Elastic and plastic creep mechanism in thin metal films using FEM method 473 Y.-X. Zheng, L.-S. Niu, T.-T. Dai et H.-J. Shi A new fracture criterion under multiaxial monotonic loading for rubbers 481 A. Hamdi, M. Nait-Abdelaziz and N. Att-Hocine Section IX: Thermal, Mechanical and Environmental Effects 489 Simulation of chemo-mechanical degradations of undergroung concrete structures 491 E. Stora, B. Bary, Q.-c. He, E. Deville and P. Montarnal The geometry influence on integrity thresholds for a cracked cylinder 501 M. Kiric and A. Sedmak Progressive fracture oflaminated fiber-reinforced composite stiffened plate under thenno-mechanicalloads 509 P.K. Gotsis, c.c. Chamis, K. David, D. Xie and F. Abdi Thermal residual streses related to the sintering process of metal matrix diamond tools 519 P.M. Amaral, C. Anjinho, B. Li, L. Reis, M. de Freias and L. Guerra Rosa Mechanical and chemical effects of solvent swelling on butyl rubber 527 C. Nohile, P.l. Dolez and T. Vu-Khanh Section X: Processing and Fabrication 535 Microstructure-based formability characterisation of multi phase steels using damage mechanics 537 V. Uthaisangsuk, U. Prahl and W. Bleck Advanced materials and processes at the nano/micro scale in covering materials of greenhouses for energy savings 545 C.A. Charitidis, S. Pantelakis, V. Bontozoglou, L. Kontonasios, A. Kavga and P. Charitidis Effect of PPS matrix evolution during processing of carbon fiber reinforced PPS on the mechanical behaviour of the composite material 553 C.V. Katsiropoulos, P. Lefebure and S.G. Pantelakis Coupling of hydration and fracture models: failure mechanisms in hydrating cement particle systems 563 L. Tan, G. Ye, E. Schlangen and K. van Breugel Micro-strain measurement in copper sheets by X-rays diffraction 573 N. Hfaiedh, M. Francois, A. Baczmanski and K. Saanouni Steady plastic flow of a polymer during ECAE process: experiments and modelling 581 F. Zaui, B. Aour, M. Nait-Abdelaziz, 1. M. Gloaguen and 1.M. Lefebvre Microscopic transformations explain the modification of the mechanical properties of TRIP steels after galvanization 593 EJ. Petit, 1. Sriti, M. Gilles, 1. Gilgert and Z. Azari Section XI: Fatigue and Crack Growth 603 Fatigue performance of2139 aluminium alloy laser beam welds following exposure to salt spray environmnent 605 S.G. Pantelakis, AT. Kermanidis, G.A. Papadimitriou, G.N. Haidemenopoulos and A.D. Zervaki A comparison of the fatigue behaviour ofFSW and MIG weldments of two aluminium alloys 613 P.M.G.P. Moreira, R.A.M. da Silva, M.A.V. de Figueiredo, F.M.F. de Oliveira and P.M.S.T. de Castro Useful life prediction of rubber materials for refrigerator component 623 C.S. Woo and H.S. Park Damage by cyclic loading of composite dental materials 631 L. Smata, S. Bouzid and Z. Azari High temperature oxidation and fatigue ofP122 alloy 641 S.Y. Bae, H. G. Kang, D.B. Lee, C.W. Kim and B.S. Lim Fatigue crack growth rate under constant amplitude loading and under tensile overloads in sheet and plate 2024 aluminium alloy 649 A.T. Kermanidis, V.K. Spiliadis and S.G. Pantelakis Residual fatigue damage on the fracture toughness properties 657 P. Cadenas, X. Decoopman, A. Amrouche and G. Mesmacque Role of stress gradient in fatigue emanating from notch roots using volumetric method 665 G. Pluvinage Section XII: Vibration, Ultrasonic and Impact 679 Lateral vibration of a cracked free-free beam 681 T.G. Chondros Ultrasonic impact related to toughness of cast aluminium alloy 691 E.S. Statnikov and V.N. Vityazev Physics and mechanics of ultrasonic impact 701 E.Statnikov Application of ultrasound to accelerate fatigue 711 E.S. Statnikov and V.Y. Korostel A comparative study of the fatigue resistance of aluminide coatings on P91 steel substrate under cyclic impact loading 721 C. David, K. Anthymidis and D.N. Tsipas Dynamic behavior ofTiNi cantilever beams with phase transformation 729 Z. Tang, J. Lu, X. Zhang Section XIII: Heat Transfer and Fluid Mechanics 739 Magnetic field on stress intensification in soft ferromagnetic materials 741 Y. Shindo, I. Shindo and F. Narita Pattern formation in the Taylor-Dean flow 749 A. Ait Aider, S. Skali, J.P. Brancher and A. Chahine Flow field and heat transfer in chaotic-advector fins 761 Q. Dong, K. Wang, S. Kong and Y. Wang Heat conduction properties of PTFE/graphite-based composites 769 M. Liu, Q. Dong, X. Gu and A. Sun Section XIV: Micromechanical Damage and Effects 777 A "morphological" approach for modelling the anisotropic damage behaviour of highly-filled particulate composites 779 C. Nadot, S. Dartois, D. Halm, A. Dragon and A. Fanget Determination ofthe macroscopic plastic yield behaviour of micro cracked materials 789 V. Monchiet, E. Charkaluk and D. Kondo A non-local anisotropic micromechanics based damage model applied to concrete 797 Q. Zhu and I-F. Shao Mechanical and hydraulic effective properties of an anisotropic fractured medium 805 J-F. Barthelemy Index of authors 813

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Book SynopsisThe book aims at providing to master and PhD students the basic knowledge in fluid mechanics for chemical engineers. Applications to mixing and reaction and to mechanical separation processes are addressed. The first part of the book presents the principles of fluid mechanics used by chemical engineers, with a focus on global theorems for describing the behavior of hydraulic systems. The second part deals with turbulence and its application for stirring, mixing and chemical reaction. The third part addresses mechanical separation processes by considering the dynamics of particles in a flow and the processes of filtration, fluidization and centrifugation. The mechanics of granular media is finally discussed.Trade Review"The text is crisply and clearly written and well-supported by quality illustrations." (Booknews, 1 June 2011)Table of ContentsPreface xiii PART I. ELEMENTS IN FLUID MECHANICS 1 Chapter 1. Local Equations of Fluid Mechanics 3 1.1. Forces, stress tensor, and pressure 4 1.2. Navier–Stokes equations in Cartesian coordinates 6 1.3. The plane Poiseuille flow 10 1.4. Navier–Stokes equations in cylindrical coordinates: Poiseuille flow in a circular cylindrical pipe 13 1.5. Plane Couette flow 17 1.6. The boundary layer concept 19 1.7. Solutions of Navier–Stokes equations where a gravity field is present, hydrostatic pressure 22 1.8. Buoyancy force 25 1.9. Some conclusions on the solutions of Navier–Stokes equations 26 Chapter 2. Global Theorems of Fluid Mechanics 29 2.1. Euler equations in an intrinsic coordinate system 30 2.2. Bernoulli’s theorem 31 2.3. Pressure variation in a direction normal to a streamline 33 2.4. Momentum theorem 36 2.5. Evaluating friction for a steady-state flow in a straight pipe 38 2.6. Pressure drop in a sudden expansion (Borda calculation) 40 2.7. Using the momentum theorem in the presence of gravity 43 2.8. Kinetic energy balance and dissipation 43 2.9. Application exercises 47 Exercise 2.I: Force exerted on a bend 47 Exercise 2.II: Emptying a tank 48 Exercise 2.III: Pressure drop in a sudden expansion and heating 48 Exercise 2.IV: Streaming flow on an inclined plane 49 Exercise 2.V: Impact of a jet on a sloping plate 50 Exercise 2.VI: Operation of a hydro-ejector 51 Exercise 2.VII: Bypass flow 53 Chapter 3. Dimensional Analysis 55 3.1. Principle of dimensional analysis, Vaschy–Buckingham theorem 56 3.2. Dimensional study of Navier–Stokes equations 61 3.3. Similarity theory 63 3.4. An application example: fall velocity of a spherical particle in a viscous fluid at rest 65 3.5. Application exercises 69 Exercise 3.I: Time of residence and chemical reaction in a stirred reactor 69 Exercise 3.II: Boundary layer on an oscillating plate 69 Exercise 3.III: Head capacity curve of a centrifugal pump 70 Chapter 4. Steady-State Hydraulic Circuits 73 4.1. Operating point of a hydraulic circuit 73 4.2. Steady-state flows in straight pipes: regular head loss 78 4.3. Turbulence in a pipe and velocity profile of the flow 81 4.4. Singular head losses 83 4.5. Notions on cavitation 87 4.6. Application exercises 88 Exercise 4.I: Regular head loss measurement and flow rate in a pipe 88 Exercise 4.II: Head loss and cavitation in a hydraulic circuit 89 Exercise 4.III: Ventilation of a road tunnel 91 Exercise 4.IV: Sizing a network of heating pipes 92 Exercise 4.V: Head, flow rate, and output of a hydroelectric power plant 93 4.7. Bibliography 93 Chapter 5. Pumps 95 5.1. Centrifugal pumps 96 5.2. Classification of turbo pumps and axial pumps 105 5.3. Positive displacement pumps 106 Chapter 6. Transient Flows in Hydraulic Circuits: Water Hammers 111 6.1. Sound propagation in a rigid pipe 111 6.2. Over-pressures associated with a water hammer: characteristic time of a hydraulic circuit 115 6.3. Linear elasticity of a solid body: sound propagation in an elastic pipe 118 6.4. Water hammer prevention devices 120 Exercise 121 Chapter 7. Notions of Rheometry 123 7.1. Rheology 123 7.2. Strain, strain rate, solids and fluids 126 7.3. A rheology experiment: behavior of a material subjected to shear 129 7.4. The circular cylindrical rheometer (or Couette rheometer) 132 7.5. Application exercises 136 Exercise 7.I: Rheometry and flow of a Bingham fluid in a pipe 136 Exercise 7.II: Cone/plate rheometer 137 PART II. MIXING AND CHEMICAL REACTIONS 139 Chapter 8. Large Scales in Turbulence: Turbulent Diffusion – Dispersion 141 8.1. Introduction 141 8.2. Concept of average in the turbulent sense, steady turbulence, and homogeneous turbulence 142 8.3. Average velocity and RMS turbulent velocity 145 8.4. Length scale of turbulence: integral scale 146 8.5. Turbulent flux of a scalar quantity: averaged diffusion equation 151 8.6. Modeling turbulent fluxes using the mixing length model 153 8.7. Turbulent dispersion 157 8.8. The k-ε model 159 8.9. Appendix: solution of a diffusion equation in cylindrical coordinates 163 8.10. Application exercises 165 Exercise 8.I: Dispersion of fluid streaks introduced into a pipe by a network of capillary tubes 165 Exercise 8.II: Grid turbulence and k-ε modeling 167 Chapter 9. Hydrodynamics and Residence Time Distribution – Stirring 171 9.1. Turbulence and residence time distribution 172 9.2. Stirring 178 9.3. Appendix: interfaces and the notion of surface tension 185 Chapter 10. Micromixing and Macromixing 193 10.1. Introduction 193 10.2. Characterization of the mixture: segregation index 195 10.3. The dynamics of mixing 198 10.4. Homogenization of a scalar field by molecular diffusion: micromixing 201 10.5. Diffusion and chemical reactions 202 10.6. Macromixing, micromixing, and chemical reactions 204 10.7. Experimental demonstration of the micromixing process 205 Chapter 11. Small Scales in Turbulence 209 11.1. Notion of signal processing, expansion of a time signal into Fourier series 210 11.2. Turbulent energy spectrum 213 11.3. Kolmogorov’s theory 214 11.4. The Kolmogorov scale 218 11.5. Application to macromixing, micromixing and chemical reaction 221 11.6. Application exercises 222 Exercise 11.I: Mixing in a continuous stirred tank reactor 222 Exercise 11.II: Mixing and combustion 223 Exercise 11.III: Laminar and turbulent diffusion flames 225 Chapter 12. Micromixing Models 229 12.1. Introduction 229 12.2. CD model 233 12.3. Model of interaction by exchange with the mean 245 12.4. Conclusion 250 12.5. Application exercise 251 Exercise 12.I: Implementation of the IEM model for a slow or fast chemical reaction 251 PART III. MECHANICAL SEPARATION 253 Chapter 13. Physical Description of a Particulate Medium Dispersed Within a Fluid 255 13.1. Introduction 255 13.2. Solid particles 257 13.3 Fluid particles 270 13.4. Mass balance of a mechanical separation process 273 Chapter 14. Flows in Porous Media 277 14.1. Consolidated porous media; non-consolidated porous media, and geometrical characterization 278 14.2. Darcy’s law 280 14.3. Examples of application of Darcy’s law 282 14.4. Modeling Darcy’s law through an analogy with the flow inside a network of capillary tubes 289 14.5. Modeling permeability, Kozeny-Carman formula 291 14.6. Ergun’s relation 293 14.7. Draining by pressing 293 14.8. The reverse osmosis process 298 14.9. Energetics of membrane separation 301 14.10. Application exercises 301 Exercise: Study of a seawater desalination process 301 Chapter 15. Particles Within the Gravity Field 305 15.1. Settling of a rigid particle in a fluid at rest 306 15.2. Settling of a set of solid particles in a fluid at rest 309 15.3. Settling or rising of a fluid particle in a fluid at rest 312 15.4. Particles being held in suspension by Brownian motion 315 15.5. Particles being held in suspension by turbulence 319 15.6. Fluidized beds 321 15.7. Application exercises 329 Exercise 15.I: Distribution of particles in suspension and grain size sorting resulting from settling 329 Exercise 15.II: Fluidization of a bimodal distribution of particles 330 Chapter 16. Movement of a Solid Particle in a Fluid Flow 331 16.1. Notations and hypotheses 332 16.2. The Basset, Boussinesq, Oseen, and Tchen equation 333 16.3. Movement of a particle subjected to gravity in a fluid at rest 336 16.4. Movement of a particle in a steady, unidirectional shear flow 339 16.5. Lift force applied to a particle by a unidirectional flow 341 16.6. Centrifugation of a particle in a rotating flow 350 16.7. Applications to the transport of a particle in a turbulent flow or in a laminar flow 355 Chapter 17. Centrifugal Separation 359 17.1 Rotating flows, circulation, and velocity curl 360 17.2. Some examples of rotating flows 364 17.3. The principle of centrifugal separation 377 17.4. Centrifuge decanters 381 17.5. Centrifugal separators 385 17.6. Centrifugal filtration 388 17.7. Hydrocyclones 391 17.8. Energetics of centrifugal separation 396 17.9. Application exercise 397 Exercise 17.I: Grain size sorting in a hydrocyclone 397 Chapter 18. Notions on Granular Materials 401 18.1. Static friction: Coulomb’s law of friction 402 18.2. Non-cohesive granular materials: Angle of repose, angle of internal friction 403 18.3. Microscopic approach to a granular material 405 18.4. Macroscopic modeling of the equilibrium of a granular material in a silo 407 18.5. Flow of a granular material: example of an hourglass 413 Physical Properties of Common Fluids 417 Index 419

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Book SynopsisMicroelectronics is a complex world where many sciences need to collaborate to create nano-objects: we need expertise in electronics, microelectronics, physics, optics and mechanics also crossing into chemistry, electrochemistry, as well as biology, biochemistry and medicine. Chemistry is involved in many fields from materials, chemicals, gases, liquids or salts, the basics of reactions and equilibrium, to the optimized cleaning of surfaces and selective etching of specific layers. In addition, over recent decades, the size of the transistors has been drastically reduced while the functionality of circuits has increased. This book consists of five chapters covering the chemicals and sequences used in processing, from cleaning to etching, the role and impact of their purity, along with the materials used in “Front End Of the Line” which corresponds to the heart and performance of individual transistors, then moving on to the “Back End Of the Line” which is related to the interconnection of all the transistors. Finally, the need for specific functionalization also requires key knowledge on surface treatments and chemical management to allow new applications. Contents 1. Chemistry in the “Front End of the Line” (FEOL): Deposits, Gate Stacks, Epitaxy and Contacts, François Martin, Jean-Michel Hartmann, Véronique Carron and Yannick Le Tiec. 2. Chemistry in Interconnects, Vincent Jousseaume, Paul-Henri Haumesser, Carole Pernel, Jeffery Butterbaugh, Sylvain Maîtrejean and Didier Louis. 3. The Chemistry of Wet Surface Preparation: Cleaning, Etching and Drying, Yannick Le Tiec and Martin Knotter. 4. The Use and Management of Chemical Fluids in Microelectronics, Christiane Gottschalk, Kevin Mclaughlin, Julie Cren, Catherine Peyne and Patrick Valenti. 5. Surface Functionalization for Micro- and Nanosystems: Application to Biosensors, Antoine Hoang, Gilles Marchand, Guillaume Nonglaton, Isabelle Texier-Nogues and Francoise Vinet. About the Authors Yannick Le Tiec is a technical expert at CEA-Leti, Minatec since 2002. He is a CEA-Leti assignee at IBM, Albany (NY) to develop the advanced 14 nm CMOS node and the FDSOI technology. He held different technical positions from the advanced 300 mm SOI CMOS pilot line to different assignments within SOITEC for advanced wafer development and later within INES to optimize solar cell ramp-up and yield. He has been part of the ITRS Front End technical working group at ITRS since 2008.Table of ContentsPreface ix Chapter 1. Chemistry in the "Front End of the Line" (FEOL): Deposits, Gate Stacks, Epitaxy and Contacts 1 François MARTIN, Jean-Michel HARTMANN, Véronique CARRON and Yannick LE TIEC 1.1. Introduction 1 1.2. Arrangement of the gate 3 1.3. Chemistry of crystalline materials 19 1.4. Contact areas between the gate and the "source" and "drain" 38 1.5. General conclusion 57 1.6. List of Abbreviations 58 1.7. Bibliography 59 Chapter 2. Chemistry in Interconnects 81 Vincent JOUSSEAUME, Paul-Henri HAUMESSER, Carole PERNEL, Jeffery BUTTERBAUGH, Sylvain MAÎTREJEAN and Didier LOUIS 2.1. Introduction 81 2.2. Interconnects: generalities and background 83 2.3. Dielectric deposits 99 2.4. Deposition and properties of metal layers for interconnect structures 122 2.5. Cleaning process for copper interconnects 144 2.6. General conclusions and perspectives 161 2.7. List of Abbreviations 164 2.8. Bibliography 165 Chapter 3. The Chemistry of Wet Surface Preparation: Cleaning, Etching and Drying 187 Yannick LE TIEC and Martin KNOTTER 3.1. Introduction 187 3.2. Cleaning 188 3.3. Wet etching 202 3.4. Rinsing and drying 214 3.5. Conclusion 224 3.6. List of Abbreviations 225 3.7. Bibliography 225 Chapter 4. The Use and Management of Chemical Fluids in Microelectronics 233 Christiane GOTTSCHALK, Kevin MCLAUGHLIN, Julie CREN, Catherine PEYNE and Patrick VALENTI 4.1. Ultrapure water 233 4.2. Gases for semiconductors 251 4.3. Dissolved gases 268 4.4. High-purity chemicals 283 4.5. Waste management 290 4.6. List of Abbreviations 301 4.7. Bibliography 303 Chapter 5. Surface Functionalization for Micro- and Nanosystems: Application to Biosensors 309 Antoine HOANG, Gilles MARCHAND, Guillaume NONGLATON, Isabelle TEXIER-NOGUES and Francoise VINET 5.1. Introduction 309 5.2. Materials 310 5.3. Functionalization process 317 5.4. Molecule and macromolecule immobilization 332 5.5. Analytes capture 340 5.6. Conclusion 348 5.7. List of Abbreviations 349 5.8. Bibliography 349 List of Authors 361 Index 363

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Book SynopsisChemistry of the Environment, 3rd edition, is a concise, clear and current account of today's environmental issues and the science one needs to understand them. This intermediate-level text, which recommends General Chemistry as a prerequisite, systematically lays out themes of sustainability, atmosphere, hydrosphere, lithosphere and biospheres, while stressing the interconnectedness of environmental problems and solutions. The completely revised third edition explains the natural chemical cycles, and how humans affect them. It also analyzes strategies for ameliorating human impacts. This stimulating new text uses concise, straightforward language and an accessible narrative style to inform quantitative thinking. Ancillaries A detailed Instructors' Manual is available for adopting professors. Art and tables from the textbook may be downloaded by adopting professors. Trade Review'Spiro, Purvis-Roberts and Stigliani write in a clear and engaging style. They organize the material in a logical and compelling manner, emphasizing the many cross-connections among environmental topics. The bottom line is that this is the environmental chemistry book that we have all been waiting for!' - From Foreword by Harry Gray, California Institute of Technology, USA 'I very much congratulate the authors. This is by far the best environmental chemistry text that I have read.' - Professor John Perona, University of California at Santa Barbara, USA 'The authors provide clear and concise explanations and do a good job of integrating calculations throughout the book. This book is useful both for students learning to apply chemical concepts to understand the environment and for instructors seeking a distinct perspective and important data on the environment.' - Professor Keith Kuwata, Macalester College, USA 'No other text in environmental chemistry so nicely balances breadth, depth and readability.' - Professor A.D. Anbar, Arizona State University, USATable of ContentsPART I. SUSTAINABILITY AND GREEN CHEMISTRY Chapter 1. Sustainability and Chemistry Chapter 2. Green Chemistry PART II. ATMOSPHERE Chapter 3. Air Pollution Chapter 4. Nitrogen Oxides, Ozone, and Gasoline Chapter 5. Stratospheric Ozone Shield Chapter 6. Climate Change PART III. ENERGY AND MATERIALS Chapter 7. Energy Flows and Supplies Chapter 8. Fossil Fuels Chapter 9. Nuclear Energy Chapter 10. Renewable Energy Chapter 11. Energy Utilization PART IV. HYDROSPHERE AND LITHOSPHERE Chapter 12. Water Resources Chapter 13. Water as Solvent: Acids and Bases Chapter 14. Water and Lithosphere Chapter 15. Oxygen and Life Chapter 16. Water Pollution and Treatment PART V. BIOSPHERE Chapter 17. Nitrogen and Food Production Chapter 18. Pest Control Chapter 19. Toxicity of Chemicals Appendix A: Organic Structures Appendix B: Mathematical Fundamentals

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Book SynopsisIndispensable GC-MS tool in identifying pesticides Developed by Rolf Kühnle, the Mass Spectra of Pesticides 2009 includes 1,007 high-quality mass spectra of pesticides such as insecticides, acaroids, nematicides, fungicides, rodenticides, and over 900 unique compounds. The mass spectra are unreduced and experimental conditions present in the data record include chemical structure, CAS RN, synonym and systematic name, molecular weight, and molecular formula. For more information, visit https://sciencesolutions.wiley.com/solutions/technique/gc-ms/mass-spectra-of-pesticides-2009/Table of ContentsA. General Mass Spectrometer Supplies Filaments, Multipliers, Accessories B. Mass Spectrometer Instrument Supplies Supplies for Specific Models of Mass Spectrometers C. Thermal Desorption Single Sample and Multiple Sample Thermal Desorption System, Desorption Tube Accessories, Conditioning System D. Gas Chromatography Supplies Columns, Syringes, GC-Cryo-Trap, Ferrules & Septa E. Liquid Chromatography/LCMS HPLC Columns, Microbore LC Columns, HPLC Accessories, Splitters, Multi-well Plates, Syringe Pumps, MALDI Targets F. Vacuum System Supplies O-Rings & Gaskets, Oils & Filters, Valves & Fittings, Vacuum Pumps, Vacuum Gauges & Controllers, LN2 & CO2 Traps G. General Laboratory and Cleaning Supplies Vials & Glassware, Pipettes, Storage Boxes, Homogenizer H. Index

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