Microscopy Books

Book SynopsisThe publication date of the first edition is not stated, but the new edition is apparently considerably revised and expanded. It was written to serve as a multi-purpose text at the senior or graduate level and as a reference for the practicing scientist or engineer. Readers should have a math backgrTable of ContentsCHAPTER 1: FUNDAMENTAL PROPERTIES OF ELECTRONS AND IONS. CHAPTER 2: ELECTRON EMISSION AND EMISSION AND IONIZATION MICROSCOPY. CHAPTER. 3: ELECTRON AND ION OPTICS AND OPTICAL SYSTEMS. CHAPTER 4: ELECTRON AND ION PROBE MICROANALYSIS. CHAPTER 5: ELECTRON AND ION MICROSCOPY OF SURFACES. CHAPTER 6: ELECTRON DIFFRACTION. CHAPTER 7: TRANSMISSION ELECTRON MICROSCOPY. CHAPTER 8: HIGH-VOLTAGE ELECTRON MICROSCOPY.

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Book SynopsisIn situ hybridization is a technique that allows for the visualization of specific DNA and RNA sequences in individual cells, and is an especially important method for studying nucleic acids in heterogeneous cell populations. in situ Hybridization in Electron Microscopy reviews the three main methods developed for the ultrastructural visualization of genes: hybridization on ultrathin sections of tissue embedded in hydrophilic resin (post-embedding method) hybridization prior to embedding (pre-embedding) hybridization on ultrathin sections of frozen tissue (frozen tissue method). For each technique, the different stages are described in detail: the preparation of tissue, pretreatment, hybridization, and visualization of the hybridization products. The book combines theory and practice, starting with the basic principles, then breaking down the experimental process into successive steps illustrated by numerous diagrams, detailed protocols, and tables. This is aTable of ContentsGeneral Introduction. Abbreviations. Probes. Principles of Methodology. Sample Preparation. Post-Embedding Technique. Pre-Embedding Technique. Frozen Tissue Technique. Semithin Sections. Controls and Problems. Examples of Results. Appendices. Glossary. Index.

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Book SynopsisMicroscopy is at the forefront of multidisciplinary research. It was developed by physicists, made specific by chemists, and applied by biologists and doctors to better understand how the human body works. For this very reason, the field has been revolutionized in past decades.The objective of Optical Nanoscopy and Novel Microscopy Techniques is to choose some of those revolutionary ideas and serve a general audience from broad disciplines to achieve a fundamental understanding of these technologies and to better apply them in their daily research.The book begins with coverage of super-resolution optical microscopy, which discusses targeted modulation such as STED and SIM or localization methods such as PALM. It then discusses novel development of fluorescent probes, such as organic small-molecule probes, fluorescent proteins, and inorganic labels such as quantum dots. Finally, it describes advanced optical microscopy, such as fluorescence lifetimeTrade Review"… a reference for the optical physicist, biophysicist, chemist, or just plain tinkerer who wants to design and build systems or construct probes. … For the student, one particularly nice feature is the inclusion of a list of problems to solve at the end of each chapter. These range from simple to very challenging, and any student who works through them all will gain an understanding that could never be obtained by rote learning."—Microscopy and Microanalysis, 2015"These days, all over the world, biology labs and physicists are collaborating, looking at the rapidly evolving techniques of super-resolution and saying ‘But, hey, we could do better if we did it this way…’ This is their handbook. Then there are the tinkerers, who will read the more obscure chapters and say ‘Wow, I could use this to…’ It is their handbook too. The book is a valuable addition to the literature."—Guy Cox, Australian Centre for Microscopy and Microanalysis, University of SydneyTable of ContentsOptical Nanoscopy with Stimulated Emission Depletion. Structured Illumination Microscopy. Super-Resolution Imaging with Stochastic Optical Reconstruction Microscopy (STORM) and Photoactivated Localization Microscopy (PALM). Small-Molecule Labeling Probes. Fluorescent Proteins for Optical Microscopy. Single-Molecule Imaging with Quantum Dots. Fluorescence Detection and Lifetime Imaging with Stimulated Emission. Fiber Optic Microscopy. Scanning Ion Conductance Microscopy. Advanced Photoacoustic Microscopy. Index.

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Book SynopsisCell Membrane Nanodomains: From Biochemistry to Nanoscopy describes recent advances in our understanding of membrane organization, with a particular focus on the cutting-edge imaging techniques that are making these new discoveries possible. With contributions from pioneers in the field, the book explores areas where the application of these novel techniques reveals new concepts in biology. It assembles a collection of works where the integration of membrane biology and microscopy emphasizes the interdisciplinary nature of this exciting field.Beginning with a broad description of membrane organization, including seminal work on lipid partitioning in model systems and the roles of proteins in membrane organization, the book examines how lipids and membrane compartmentalization can regulate protein function and signal transduction. It then focuses on recent advances in imaging techniques and tools that foster further advances in our understanding of signaling nTable of ContentsPart 1 Diffraction-limited microscopy. Part 2 Super resolution microscopy and advancements in probes and data analysis. Part 3 Protein and lipid nanodomains.

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Book SynopsisA complete guide to one of the most revolutionary technologies in the history of imaging Near-field microscopes combine the richness of optical analysis, the noninvasive character of light, and the wide variety of sample environments of conventional microscopes with the finer spatial resolution of alternative technologies. Near-Field Optics combines an introduction to near-field optical theory with a handbook and reference for the practice and application of near-field microscopy. Michael A. Paesler and Patrick J. Moyer provide the most comprehensive presentation available on the instrumentation and operation of near-field microscopes. Writing from the viewpoint of the scientist who wants to apply these revolutionary instruments in a laboratory setting, the authors: * Explain the pertinent optical theory and provide a developmental history of near-field instruments * Discuss imaging theory and its application in the near-field scanning optical microscope (NSOM) * ETable of ContentsTHEORY AND INSTRUMENTATION. Imaging. The Tapered Optical Fiber and Other Sensing Elements. NSOM Theory. NSOM Instrumentation. Optical Tunneling Microscopes. PRACTICE. Contrast. Intensity. Polarization. Wavelength. Amplitude and Phase. Time. Plasmons. APPLICATIONS. Surface Chemistry. Biology. Materials Science. Information Storage. Non-Visible Wavelength Instruments. RELATED TECHNIQUES AND CONCLUSION. Related Techniques and Unusual Configurations. Conclusions and Future Directions. Index.

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Book SynopsisThis text is intended to provide students with instruction and valuable laboratory experience in the often neglected area of inorganic chemistry. Divided into four main parts, the book covers chemistry of the main group elements, chemistry of the transition metals, organometallic chemistry, and bioinorganic chemistry. Recognizing the high cost of materials, difficulties in waste disposal, and dangers of toxicity, the authors have adopted a ``microscale'''' approach to experiments in the book, thereby also reducing the time students spend in preparation. With over 45 experiments, Microscale Inorganic Chemistry incorporates the use of a broad sampling of elements and also covers such topics as laboratory safety, equipment, report writing, and literature searching.Table of ContentsList of Tables xvii Introduction 1–3 A. A Brief History of Inorganic Chemistry 1 B. The Microscale Approach 2 C. A Word to the Student 3 Chapter 1 Safety in the Laboratory 5–17 1.A General Safety Rules 5 1.A.1 Introduction 5 1.A.2 Before the Laboratory 6 1.A.3 Safety Rules in the Laboratory 6 1.B Planning for Chemicaly Safety 8 1.B.1 Introduction 8 1.B.2 Use of MSD Sheets 8 1.B.3 The Merck Index 12 1.B.4 Compressed Gas Cylinders and Lecture Bottles 13 1.B.5 Fire Safety 16 Chapter 2 Laboratory Equipment 19–29 2.A Glassware 19 2.B Other Locker Equipment 21 2.C Measuring Quantities of Chemicals 22 2.C.1 Weighing 22 2.C.2 Liquid Volumes 22 2.D Heating Methods 25 2.D.1 The Microburner 25 2.D.2 Steam Bath 25 2.D.3 Oil Baths 25 2.D.4 Infrared Lamp 26 2.D.5 Sand Bath or Aluminum Block with Magnetic Stirring Hot Plate 26 2.E Stirring 27 2.F Reflux and Distillation 27 Chapter 3 Writing Laboratory Reports 31–35 3.A Introduction 31 3.B Maintenance of the Laboratory Notebook 31 3.C The Laboratory Report 34 3.D Proper Citation and Plagiarism 35 Chapter 4 Literature Searching and the Inorganic Literature 37–47 4.A Literature Searching 37 4.A.1 Chemical Abstracts Method 37 Searching a Topic in Chemical Abstracts 38 Use of the Formula Index 38 Use of the General Subject Index 40 CAS Online 40 Advantages and Disadvatages of Chemical Abstracts 40 4.A.2 Use of the Science Citation Index 41 Searching Using the Printed Science Citation Index 41 Searching Using the Compact Disc Science Citation Index 42 Searching Using the Citation Index 42 Advantages and Disadvatages of the Science Citation Index 44 4.A.3 Comparison of the Two Methods 44 4.B The Inorganic Chemical Literature 44 4.B.1 Introduction 44 4.B.2 Purely Inorganic Journals 44 4.B.3 General Coverage Journals 45 4.B.4 Review Journals and Monographs Covering Inorganic Chemistry 45 4.B.5 Major Comprehensive Books on Inorganic Chemistry 46 Chapter 5 Inorganic Microscale Laboratory Techniques 49–105 5.A Microscale Determination of Magnetic Susceptibility 49 5.A.1 Introduction 49 5.A.2 Measurement of Magnetic Susceptibility 50 5.A.3 Calculation of Magnetic Moment from Magnetic Susceptibility 52 5.A.4 Operation of the Evans–Johnson Matthey Balance for Solids 54 5.A.5 Operation for Liquids and Solutions 55 5.A.6 Determining Magnetic Susceptibility by NMR Spectroscopy 56 5.B Thermal Analysis 57 5.B.1 Introduction 57 5.B.2 Differential Scanning Calorimetry and Differential Thermal Analysis 57 5.B.3 Thermogravimetric Analysis 58 5.B.4 Variables in Thermal Analysis 58 5.B.5 Analysis of the Thermogram 59 5.B.6 Theoretical Aspects 60 5.B.7 Applications 61 5.C Vacuum and Inert Atmosphere Techniques 62 Introduction 62 5.C.1 Purging with an Inert Gas 62 5.C.2 Use of Manifold for Inert Gas or Vacuum 64 Rough Pump 64 Cold Trap 64 Manifold 65 Multiple Vacuum Lines in Series 65 Use and Operation of Manifolds 65 5.C.3 Cannula Techniques 66 5.D Crystallization Techniques 67 5.D.1 Introduction 67 5.D.2 Crystallization from Solution 67 5.D.3 Isolation of Crystalline Products (Suction Filtration) 69 5.D.4 The Craig Tube Method 69 5.D.5 Recrystallization Pipet 70 5.D.6 Removal of Suspended Particles from Solution 71 5.D.7 Washing of the Collected Crystals 71 5.D.8 Decolorization 72 5.D.9 Drying Techniques 73 5.E Determination of Melting Points 74 5.E.1 Introduction 74 5.E.2 Theory 74 5.E.3 Mixture Melting Point Determination 75 5.E.4 Correcting Melting Points 76 5.E.5 Determination of the Melting Point Range 77 5.E.6 Melting Point Apparatus 78 The Thiele Tube 78 The Mel-Temp Apparatus 78 The Fisher–Johns Apparatus 78 The Thomas–Hoover Apparatus 81 5.F Concentration of Solutions 81 5.F.1 Introduction 81 5.F.2 Evaporation Techniques 81 5.F.3 Removal of Solvent Under Reduced Pressure 81 5.G Chromatography 82 5.G.1 Introduction 82 5.G.2 Thin-Layer Chromatography 84 5.G.3 Gas Chromatography: Introduction 86 Components of the Gas Chromatograph 87 5.G.4 Liquid Chromatography 89 Ion and Ion Exchange Chromatography 89 High-Performance Liquid Chromatography 90 5.H Sublimation 92 5.H.1 Introduction 92 5.H.2 Theory 93 5.H.3 Sublimation Technique 93 5.I Solvent Extraction 94 5.I.1 Introduction 94 5.I.2 Theory 94 5.I.3 Extraction Procedures: Simple Extraction 97 Use of the Separatory Funnel 97 Pasteur Filter Pipet Extractions 99 5.I.4 Continuous Extraction 100 5.I.5 Drying of the Wet Organic Layer 100 5.I.6 Drying of Organic Solvents 101 5.J Conductivity Measurements 102 5.J.1 Introduction 102 5.J.2 Experimental Procedure 104 5.J.3 Non-Aqueous Solutions 105 Chapter 6 Spectroscopy 107–146 6.A Introduction 107 6.A.1 Spectrometer Components 108 6.B Visible Spectroscopy 109 6.B.1 Introduction and Theory 109 6.B.2 The Visible Spectrum 110 6.B.3 Molar Absorbance and Color 111 6.B.4 Size of the Crystal Field Splitting 112 6.B.5 Energy Level Diagrams l12 6.C Infrared Spectroscopy 114 6.C.1 Introduction 114 6.C.2 Sample Handling 115 6.C.3 Bond Vibrations 1l6 6.C.4 Vibrational Modes 119 6.C.5 Inorganic Functional Groups 121 6.C.6 Synergistic Effects 121 6.C.7 Interpretation of IR Spectra 122 6.C.8 Fourier Transform lnfrared 123 6.D Nuclear Magnetic Resonance Spectroscopy 125 6.D.1 Introduction 125 6.D.2 Sample Preparation 128 6.D.3 Reference Materials 129 6.D.4 The Chemical Shift 129 6.D.5 Integration 131 6.D.6 Spin–Spin Coupling 132 6.D.7 13C-NMR Spectroscopy 133 6.D.8 Quadrupolar Nuclei 136 6.D.9 The Coupling Constant 136 6.D.10 Interpretation of Inorganic Spectra 137 6.D.11 Spectral Collapse l38 6.D.12 Decoupling 139 6.D.13 Identification of Isomers 139 6.E Atomic Absorption Spectroscopy 141 6.E.1 Introduction 141 6.E.2 Theory 141 6.E.3 The Instrument 142 The Flame 142 The Nebulizer Burner System 142 The Light Source 144 The Monochromator 144 The Detector 144 6.E.4 Measurement of Concentration 144 6.E.5 Other Considerations 145 Chapter 7 Chemistry of the Main Group Elements 147–215 Experiment 1 Preparation of Sodium Amide 148 Experiment 2 Synthesis and Thermal Analysis of the Group 2 (IIA) Metal Oxalate Hydrates 152 Experiment 3 Atomic Absorption Analysis of Magnesium and Calcium 155 Experiment 4 Preparation of Trialkoxyborates 158 Part A Preparation of Tri-n-propylborate 160 Part B Preparation of a Poly(vinylalcohol)–Borate Copolymer 161 Experiment 5 Synthesis of Tetrafluoroberyllate and Tetrafluoroborate Complexes 163 Part A Synthesis of Ammonium Tetrafluoroberyllate, (NH4)2[BeF4] 164 Part B Synthesis of Ammonium Tetrafluoroborate, NH4[BF4] 165 Experiment 6 Synthesis of Dichlorophenylborane 167 Experiment 7 Synthesis and Reactions of Carboranes 170 Part A Preparation of Potassium Dodecahydro-7-8-dicarba-nido-undecarborate(1-), a Carborane Anion 172 Part B Preparation of 3-[η5-Cyclopentadienyl)-1,2-dicarba-3-cobalta-closo-dodecaborane(11), a Metal Carborane 173 Experiment 8 Silicone Polymers: Preparation of Bouncing Putty 176 Experiment 9 The Oxidation States of Tin 181 Part A Preparation of Tin(IV) Iodide 183 Part B Preparation of Tin(II) Iodide 184 Experiment 10 Relative Stabilities of Tin(IV) and Lead(IV) 186 Part A Preparation of Ammonium Hexachlorostannate(IV) 186 Part B Preparation of Ammonium Hexachloroplumbate(IV) 187 Experiment 11 Preparation of Substituted 1,2,3,4-Thiatriazoles 189 Part A Preparation of 5-Anilino-1,2,3,4-thiatriazole 190 Part B Preparation of 5-Amino-1,2,3,4-thiatriazole 191 Experiment 12 Synthesis of Hexakis(4-nitrophenoxy) cyclotriphosphazene 193 Part A Preparation of Potassium 4-Nitrophenoxide 194 Part B Preparation of Hexakis(4-nitrophenoxy) cyclotriphosphazene 195 Experiment 13 Synthesis of Ammonium Phosphoramidate 197 Experiment 14 Preparation of an Explosive: Nitrogen Triiodide Ammoniate 199 Experiment 15 Synthesis of Trichlorodiphenylantimony[V) Hydrate 201 Experiment 16 Preparation of Tetrathionate 204 Part A Determination of Reaction Quantities 205 Part B Quantitative Preparation of Sodium Tetrathionate 206 Experiment 17 Thione Complexes of Cobalt(II) Nitrate Hexahydrate 207 Part A Synthesis of Co(mimt)4(NO3)2·H2O 209 Part B Synthesis of Co(mimt)2(NO3)2 209 Experiment 18 Positive Oxidation States of Iodine: Preparation of Dipyridineiodine(I) Nitrate 210 Experiment 19 Synthesis of Interhalogens: Iodine Trichloride 213 Chapter 8 Chemistry of the Transition Metals 217 Experiment 20 Metal Complexes of Dimethyl Sulfoxide 218 Part A Preparation of CuCl2·2DMSO 220 Part B Preparation of PdCl2·2DMSO 221 Part C Preparation of RuCl2·4DMSO 221 Experin1ent 21 Preparation of trans-Dichlorotetrapyridinerhodium(III) Chloride 222 Experiment 22 Synthesis of Metal Acetylacetonates 224 Part A Preparation of Tris(2,4-pentanedionato) chromium(III) 226 Part B Preparation of Tris(2,4-pentanedionato) manganese(III) 227 Experiment 23 Gas Chromatographic Analysis of Brominated Tris(2,4-pentanedionato) chromium(III) 229 Experiment 24 Determination of Magnetic Moments in Metal–Metal Bonded Complexes 231 Part A Synthesis of Rhodium(II) Acetate Ethanolate 232 Part B Synthesis of Copper(II) Acetate Monohydrate 234 Experiment 25 Multiply Bonded Species: Preparation of Tetrabutylammonium Octachlorodirhenate(III) 235 Experiment 26 Geometic Isomerism 239 Part A Synthesis of trans-Dichlorobis(ethylenediamine)cobalt(III) Chloride 241 Part B Synthesis of cis-Dichlorobis(ethylenediamine)cobalt(III) Chloride 242 Experiment 27 Optical Isomers: Separation of an Optical Isomer of cis-Dichlorobis (ethylenediamine)cobalt(III) Chloride 243 Experiment 28 Ion Exchange Separation of the Oxidation States of Vanadium 246 Experiment 29 Determination of Δ0 in Cr(III) Complexes 248 Experiment 30 Preparation and Study of a Cobalt(II) Oxygen Adduct Complex 252 Part A Preparation of N,N' -Bis(salicylaldehyde) ethylenediimine, salenH2 254 Part B Preparation of Co(salen) 254 Part C Determination of Oxygen Absorption by Co(salen) 256 Part D Reaction of Oxygen Adduct with Chloroform 257 Experiment 31 Preparation of Dichloro-1,3-bis[diphenylphosphino)propanenickel(II) 257 Experiment 32 Preparation of Iron(II) Chloride (Use of FeCl3 as a Friedel–Crafts Chlorination Source) 260 Experiment 33 Reaction of Cr(III) with a Multidentate Ligand: A Kinetics Experiment 263 Experiment 34 Organometallic Compounds and Catalysis: Synthesis and Use of Wilkinson’s Catalyst 271 Part A Synthesis of RhCl(PPh3)3, Wilkinson’s Catalyst 276 Part B Substitution of the Chloro Ligand in Wilkinson’s Catalyst 277 Part C Reaction of Wilkinson’s Catalyst with Aldehydes 278 Part D Reaction of Wilkinson’s Catalyst with Ethylene 279 Part E Absorption of Hydrogen by Wilkinson’s Catalyst 279 Part F Catalytic Hydrogenation of Olefins in the Presence of Wilkinson’s Catalyst 281 Experiment 35 Synthesis and Reactions of Cobalt Phenanthroline Complexes 282 Part A Preparation of Tris(1, 10-phenanthroline) cobalt(II) Bromide 283 Part A (Alternate): Preparation of Tris(1, 10-phenanthroline) cobalt(II) Antimonyl-d-tartrate 284 Part B Preparation of Tris(1, 10-phenanthroline) cobalt(III) Tetrafluoroborate 285 Part C Preparation of Tris(1, 10-phenanthroline-5,6-quinone)cobalt(III) Hexafluorophosphate 286 Part D Isolation of 1, 10-phenanthroline-5,6-quinone 287 Experiment 36 Preparation of Tetrakis(triphenylphosphine)platinum(0) 288 Experiment 37 Platinum(II) Complexes––the Trans Effect 290 Part A Preparation of cis-Dichloro(dipyridine) platinum(II) 291 Part B Preparation of trans-Dichloro(dipyridine) platinum(II) 291 Chapter 9 Chemistry of Organometallic and Related Compounds 295 Experiment 38 Organoplatinum[II) Complexes: Preparation of η4-C8H12PtCl2 296 Experiment 39 NMR Investigation of Molecular Fluxionality: Synthesis of Allylpalladium Complexes 298 Experiment 40 Preparation and Use of Ferrocene 302 Part A Preparation of Cyclopentadiene 304 Part B Preparation of Ferrocene 305 Part C Acetylation of Ferrocene 307 Part D HPLC Analysis of the Acetylation Reaction 309 Experiment 41 Preparation of Organopalladium Complexes 310 Part A Preparation of Dichloro-bis-(benzonitrile) palladium(II) 311 Part B Preparation of Di-µ-chlorodichlorodiethylenedipalladium(II) 312 Experiment 42 Synthesis of Metal Carbonyls 313 Part A Preparation of trans-Chlorocarbonylbis­ (triphenylphosphine)rhodium(I) 315 Part B Preparation of mer-Carbonyltrichlorobis ­(triphenylphosphine)rhodium(III) 316 Part C Synthesis of the SO2 Adduct of trans­ Chlorocarbonylbis(triphenylphosphine)rhodium(I) 317 Experiment 43 Sunlight Photochemistry: Preparation of Dicarbonyl(η5-methylcyclopentadienyl)triphenylphosphinemanganese (0) 318 Experiment 44 Synthesis of Metal Nitrosyl Complexes 320 Part A Preparation of Trichloronitrosyl-bis(triphenylphosphine)ruthenium(II) 321 Part B Preparation of Dinitrosylbis(triphenylphosphine)ruthenium(– II) 323 Experiment 45 13C NMR Analysis of Cyclopentadienylirondicarbonyl Dimer 324 Part A Preparation of [(η5-C5H5)Fe(CO)2]2 325 Part B Variable Temperature 13C NMR lnvestigation of [η5-C5H5)Fe(CO)2]2 327 Chapter 10 Bioinorganic Chemistry 329 Experiment 46 Synthesis of Palladium Nucleosides 330 Part A Preparation of cis-[Dichlorobis(inosine) palladium(II)] 331 Part B Preparation of cis-[Bis(lnosinato) palladium(II)] 332 Part C Preparation of trans-[Bis(inosinato) palladium(II)] 333 Experiment 47 Metal Complexes of Saccharin 334 Part A Preparation of Tetraaqua-bis(o-sulfobenzoimido)copper(II) 336 Part B Preparation of Tetraaqua-bis(o-sulfobenzoimido)cobalt(II) 336 Experiment 48 Synthesis of cis-Diamminedihaloplatinum(II) Compounds 337 Part A Preparation of cis-Diamminediiodoplatinum(II) 338 Part B Preparation of cis-diamminedichloroplatinum(II), Cisplatin 339 Experiment 49 Preparation of Copper Glycine Complexes 341 Part A Preparation of cis-Bis(glycinato) copper(II) Monohydrate 342 Part B Preparation of trans-Bis(glycinato) copper(II) 342 Appendix A Safety Data for Common Solvents 345 Appendix B List of Common Acids and Bases 347 Appendix C Table of Reagents and Selected Solvents Used in Experiments 349 Appendix D Table of Instrumental Techniques Used in Experiments 353 Appendix E Companies and Addresses 355 Index 359

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Book SynopsisThe go-to resource for microscopists on biological applications of field emission gun scanning electron microscopy (FEGSEM) The evolution of scanning electron microscopy technologies and capability over the past few years has revolutionized the biological imaging capabilities of the microscopegiving it the capability to examine surface structures of cellular membranes to reveal the organization of individual proteins across a membrane bilayer and the arrangement of cell cytoskeleton at a nm scale. Most notable are their improvements for field emission scanning electron microscopy (FEGSEM), which when combined with cryo-preparation techniques, has provided insight into a wide range of biological questions including the functionality of bacteria and viruses. This full-colour, must-have book for microscopists traces the development of the biological field emission scanning electron microscopy (FEGSEM) and highlights its current value in biological research aTrade ReviewSince the first commercial SEM (scanning electron microscope) was produced by Cambridge Instruments in 1965, the resolution,image contrast, and operability have improved dramatically which have turned field emission SEM into an increasingly valuable tool in the life science community. The challenge of life science microscopy is to provide the structural information for the correlation of structure and function in complex biological systems. For this reason, this two-volume edition comes as a welcome addition to the biologist’s library, since they encompass all the information needed to approach life science FEG SEM imaging challenges, including detailed descriptions of the instrumentation and analytical techniques currently available in the field. There are many features of this edition that make it a useful resource for both the beginner and more advanced microscopist. First, the two volumes are composed of 31 self-contained chapters, each written by leading authorities on these subjects. Secondly, the chapters are richly illustrated and most chapters are complemented with a comprehensive, valuable, and up-to-date list of references. Accordingly, the user who seeks to purchase new equipment or select the appropriate technique will find useful information in both volumes. In the initial nine chapters of vol. 1, the reader is given a comprehensive historical review and introduction to the possibilities of the current technology—choice of microscopy method and specimen preparation as well as cryo and room temperature options—edited by representatives from the major companies in the field. The three last chapters of vol. 1 are dedicated to a review of specimen preparation methods—chemical fixation and cryo methods—which are a must-read for any scientist in this field. In vol. 2 in the first five chapters, the reader is introduced to more special applications and results of the techniques, spanning from pathology and infectious diseases, plant cell wall and nuclear envelope, yeast cell to food research. The three following chapters focus on cryo-FEGSEM in biology, preparation protocols of vitrified cells for cryo-FIB microscopy, and ESEM (environmental scanning electron microscopy) including many valuable tips and tricks. Opportunities for "Life in 3D" research are described in great detail with chapters on Correlative Array Tomography and the Automatic Tape Collection Microtome followed by chapters on FIB-SEM for Biomaterials, FIB-SEM tomography, and 3D FEGSEM as a tool for structural biology. Vol. 2 is concluded with three chapters on image post-processing and resource management, which are relevant to all scientists—not just FEG SEM microscopists. In conclusion, I highly recommend Biological Field Emission Scanning Electron Microscopy to anybody who wishes to implement and/or improve an available technology or method. This two-volume edition allows the reader to contemplate how to use existing equipment with some minor adjustments or simple application of sample preparation and analytical tools. Furthermore, this book provides a comprehensive analysis of the latest imaging technologies available in the field and should therefore be invaluable to any researcher who wishes to find a discussion of all these techniques and applications under one umbrella.—Microscopy and Microanalysis (2020)Klaus Qvortrup, Faculty of Health Sciences, University of Copenhagen, The Panum Institute, DenmarkTable of ContentsAbout the Editors xix List of Contributors xxi Foreword xxv 1 Scanning Electron Microscopy: Theory, History and Development of the Field Emission Scanning Electron Microscope 1David C. Joy 2 Akashi Seisakusho Ltd – SEM Development 1972–1986 7Michael F. Hayles 3 Development of FE-SEM Technologies for Life Science Fields 25Mitsugu Sato, Mami Konomi, Ryuichiro Tamochi and Takeshi Ishikawa 4 A History of JEOL Field Emission Scanning Electron Microscopes with Reference to Biological Applications 53Kazumichi Ogura and Andrew Yarwood 5 TESCAN Approaches to Biological Field Emission Scanning Electron Microscopy 79Jaroslav Jiruše, Vratislav Košˇtál and Bohumila Lencová 6 FEG-SEM for Large Volume 3D Structural Analysis in Life Sciences 103Ben Lich, Faysal Boughorbel, Pavel Potocek and Emine Korkmaz 7 ZEISS Scanning Electron Microscopes for Biological Applications 117Isabel Angert, Christian Böker, Martin Edelman, Stephan Hiller, Arno Merkle and Dirk Zeitler 8 SEM Cryo-Stages and Preparation Chambers 143Robert Morrison 9 Cryo–SEM Specimen Preparation Workflows from the Leica Microsystems Design Perspective 167Guenter P. Resch 10 Chemical Fixation 191Bruno M. Humbel, Heinz Schwarz, Erin M. Tranfield and Roland A. Fleck 11 A Brief Review of Cryobiology with Reference to Cryo Field Emission Scanning Electron Microscopy 223Roland A. Fleck, Eyal Shimoni and Bruno M. Humbel 12 High-Resolution Cryo-Scanning Electron Microscopy of Macromolecular Complexes 265Sebastian Tacke, Falk Lucas, Jeremy D. Woodward, Heinz Gross and Roger Wepf 13 FESEM in the Examination of Mammalian Cells and Tissues 299Andrew Forge, Anwen Bullen and Ruth Taylor 14 Public Health/Pharmaceutical Research – Pathology and Infectious Disease 311Paul A. Gunning and Bärbel Hauröder 15 Field Emission Scanning Electron Microscopy in Cell Biology Featuring the Plant Cell Wall and Nuclear Envelope 343Martin W. Goldberg 16 Low-Voltage Scanning Electron Microscopy in Yeast Cells 363Masako Osumi 17 Field Emission Scanning Electron Microscopy in Food Research 385Johan Hazekamp and Marjolein van Ruijven 18 Cryo-FEGSEM in Biology 397Paul Walther 19 Preparation of Vitrified Cells for TEM by Cryo-FIB Microscopy 415Yoshiyuki Fukuda, Andrew Leis and Alexander Rigort 20 Environmental Scanning Electron Microscopy 439Rudolph Reimer, Dennis Eggert and Heinrich Hohenberg 21 Correlative Array Tomography 461Thomas Templier and Richard H.R. Hahnloser 22 The Automatic Tape Collection UltraMicrotome (ATUM) 485Anwen Bullen 23 SBEM Techniques 495Christel Genoud 24 FIB-SEM for Biomaterials 517Lucille A. Giannuzzi 25 New Opportunities for FIB/SEM EDX in Nanomedicine: Cancerogenesis Research 533Damjana Drobne, Sara Novak, Andreja Erman and Goran Draži´c 26 FIB-SEM Tomography of Biological Samples: Explore the Life in 3D 545Caroline Kizilyaprak, Damien De Bellis, Willy Blanchard, Jean Daraspe and Bruno M. Humbel 27 Three-Dimensional Field-Emission Scanning Electron Microscopy as a Tool for Structural Biology 567J.D. Woodward and R.A. Wepf 28 Element Analysis in the FEGSEM: Application and Limitations for Biological Systems 589Alice Warley and Jeremy N. Skepper 29 Image and Resource Management in Microscopy in the Digital Age 611Patrick Schwarb, Anwen Bullen, Dean Flanders, Maria Marosvölgyi, Martyn Winn, Urs Gomez and Roland A. Fleck 30 Part 1: Optimizing the Image Output: Tuning the SEM Parameters for the Best Photographic Results 625Oliver Meckes and Nicole Ottawa 31 A Synoptic View on Microstructure: Multi-Detector Colour Imaging, nanoflight® 659Stefan Diller Index 679

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Book SynopsisDIATOM MICROSCOPY The main goal of the book is to demonstrate the wide variety of microscopy methods being used to investigate natural and altered diatom structures. This book on Diatom Microscopy gives an introduction to the wide panoply of microscopy methods being used to investigate diatom structure and biology, marking considerable advances in recent technology including optical, fluorescence, confocal and electron microscopy, surface-enhanced Raman spectroscopy (SERS), atomic force microscopy (AFM) and spectroscopy as applied to diatoms. Each chapter includes a tutorial on a microscopy technique and reviews its applications in diatom nanotechnology and diatom research. The number of diatomists, diatom research, and their publications are increasing rapidly. Although many books have dealt with various aspects of diatom biotechnology, nanotechnology, and morphology, to our knowledge, no volume exists that summarizes advanced microscopic approaches to diatoms. Audience The intended Table of ContentsPreface xi 1 Investigation of Diatoms with Optical Microscopy 1Shih-Ting Lin, Ming-Xin Lee and Guan-Yu Zhuo 1.1 Introduction 2 1.2 Light Microscopy 4 1.2.1 Phase Contrast Microscopy 4 1.2.2 Differential Interference Contrast (DIC) Microscopy 6 1.2.3 Darkfield Microscopy 9 1.3 Fluorescence Microscopy 10 1.4 Confocal Laser Scanning Microscopy 12 1.5 Multiphoton Microscopy 19 1.6 Super-Resolution Optical Microscopy 22 1.7 Conclusion 25 Acknowledgement 25 References 25 2 Nanobioscience Studies of Living Diatoms Using Unique Optical Microscopy Systems 33Kazuo Umemura Abbreviations 33 2.1 Trajectory Analysis of Gliding Among Individual Diatom Cells Using Microchamber Systems 35 2.2 Direct Observation of Floating Phenomena of Individual Diatoms Using a “Tumbled” Microscope System 40 2.3 Three-Dimensional Physical Imaging of Living Diatom Cells Using a Holographic Microscope System 44 Acknowledgements 47 References 47 3 Recent Insights Into the Ultrastructure of Diatoms Using Scanning and Transmission Electron-Microscopy 57Dharshini Gopal, Shweta Chakrabarti, Dataram Venkata Srikar Keshav, Richard Gordon and Nirmal Mazumder 3.1 Introduction 58 3.2 Scanning Electron Microscopy (SEM) of Diatoms 58 3.3 Transmission Electron Microscopy (TEM) of Diatoms 65 3.3.1 Limitations 69 3.4 Conclusion 73 References 73 4 Atomic Force Microscopy Study of Diatoms 81Ishita Chakraborty, Shweta Chakrabarti, Vishwanath Managuli and Nirmal Mazumder 4.1 Introduction 82 4.2 Types of AFM Modes 86 4.3 Sample Preparation and Methods 88 4.4 Study of Diatom Ultrastructure Under AFM 88 4.5 Conclusion 102 Glossary 104 Acknowledgement 104 References 105 5 Refractive Index Tomography for Diatom Analysis 111Juan M. Soto, José A. Rodrigo and Tatiana Alieva 5.1 Introduction 112 5.2 Fundamentals of PC-ODT 113 5.3 Experimental Setup for PC-ODT 117 5.4 Diatom RI Reconstructions with Bright-Field Illumination 120 5.5 Illumination Impact on PC-ODT Performance 126 5.6 Concluding Remarks 131 Acknowledgement 134 References 134 6 Luminescent Diatom Frustules: A Review on the Key Research Applications 139Jayur Tisso, Shruthi Shetty, Nirmal Mazumder, Ankur Gogoi and Gazi A. Ahmed 6.1 Introduction 140 6.2 Key Research Applications of Luminescence Properties of Diatom Frustules 141 6.2.1 Novel Nanophotonic and Optoelectronic Applications of Luminescent Diatom Frustules 142 6.2.2 Applications of Diatom Luminescence in Sensing 145 6.2.3 Biomedical Applications of Diatom Luminescence 149 6.2.4 Other Studies on Diatom Luminescence 151 6.3 Future Perspectives 167 6.4 Conclusion 168 Acknowledgement 168 References 168 7 Micro to Nano Ornateness of Diatoms from Geographically Distant Origins of the Globe 179Mohd Jahir Khan, Daniel Mathys and Vandana Vinayak 7.1 Introduction 180 7.2 Materials and Methods 183 7.2.1 Diatom Samples and Microscopy 183 7.2.1.1 By Michael J. Stringer 183 7.2.1.2 Diatom Oamaru Slides by Diane Winter 184 7.2.1.3 By Daniel Mathys 184 7.2.1.4 Diatom Sampling, Slide Preparation and Imaging from Himalayas, Plains and Arabian Sea, India 185 7.3 Diatoms from Different Geographical Origins of the World 185 7.3.1 Oamaru Diatoms 185 7.3.2 Diatom Images Gifted by Michael J. Stringer 186 7.3.3 Diatoms from Natural History Museum Basel, Switzerland a Piece of Art by Daniel Mathys 190 7.3.4 Diatoms from India 193 7.4 Conclusion 216 7.5 Acknowledgements 216 References 216 8 Types of X-Ray Techniques for Diatom Research 221Mridula Sunder, Neha Acharya, Smitha Nayak, Richard Gordon and Nirmal Mazumder 8.1 Introduction 221 8.2 Applications 222 8.2.1 Synchrotron Radiation-Based X-Ray Techniques 222 8.2.2 X-Ray Computed Tomography 224 8.2.3 X-Ray Fluorescence-Based Techniques 226 8.2.4 X-Ray Microanalysis 227 8.2.5 X-Ray Absorption-Based Techniques 228 8.2.6 X-Ray Diffraction 229 8.2.7 Other X-Ray-Based Techniques 230 8.3 Conclusions 233 Glossary 233 References 234 9 Diatom Assisted SERS 237Rajib Biswas and Sankar Biswas 9.1 Introduction 237 9.2 Diatom 239 9.2.1 Basic Overview 239 9.2.2 Physiological Characteristics 239 9.2.3 Optical and Relevant Properties 240 9.3 Raman Scattering 241 9.3.1 Basics 241 9.3.2 Surface Enhanced Raman Scattering 242 9.3.3 Optoelectronic Investigations 242 9.4 SERS Through Diatom: Fundamentals and Application Overview 243 9.5 Conclusion and Future Outlook 245 References 246 10 Diatoms as Sensors and Their Applications 251Priyasha De and Nirmal Mazumder 10.1 Introduction 251 10.2 Diatoms as Biosensors 255 10.2.1 Electrochemical Sensors 260 10.2.2 Plasmonic Sensors 261 10.2.3 Immunoassay Sensors 264 10.2.4 Optical and Optofluidic Sensors 268 10.2.5 Biochemical Sensors 271 10.2.6 FRET-Based Sensors 273 10.2.7 Microfluidics-Based Sensors 274 10.3 Conclusion 276 Acknowledgments 276 References 277 11 Diatom Frustules: A Transducer Platform for Optical Detection of Molecules 283Viji S., Ponpandian N. and Viswanathan C. 11.1 Introduction 284 11.2 Optical Properties of Diatom Frustules 285 11.2.1 Diatom as a Photoluminescent Materials 285 11.2.2 Diatom as a Photonic Crystal 287 11.2.3 Diatoms as a SERS Substrate 288 11.3 Methods Involved in Thin Film Deposition of Diatom Frustules 290 11.4 Diatom as an Optical Transducer for Biosensors 294 11.5 Diatom as an Optical Transducer for Gas/Chemical Sensors 297 11.6 Conclusion 300 References 301 12 Effects of Light on Physico-Chemical Properties of Diatoms 307Janardan Sen, Priyal Dhawan, Priyasha De and Nirmal Mazumder 12.1 Introduction 308 12.2 Effect of Light on Diatom Function and Morphology 310 12.2.1 Effect of Light Intensity on Diatom Morphology 310 12.2.2 Effect of Light Intensity on Diatom Growth 313 12.2.3 Effect of Light Intensity on Photosynthesis in Diatoms 318 12.2.4 Effect of Wavelength of Light on Diatom Pigment System 321 12.2.5 Effect of Light Intensity on the Physiology of Diatoms 327 12.3 Conclusion 330 Acknowledgment 330 References 330 Index 335

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Book SynopsisOriginally published in 2005, this book covers the closely related techniques of electron microprobe analysis (EMPA) and scanning electron microscopy (SEM) specifically from a geological viewpoint. Topics discussed include: principles of electron-target interactions, electron beam instrumentation, X-ray spectrometry, general principles of SEM image formation, production of X-ray 'maps' showing elemental distributions, procedures for qualitative and quantitative X-ray analysis (both energy-dispersive and wavelength-dispersive), the use of both 'true' electron microprobes and SEMs fitted with X-ray spectrometers, and practical matters such as sample preparation and treatment of results. Throughout, there is an emphasis on geological aspects not mentioned in similar books aimed at a more general readership. The book avoids unnecessary technical detail in order to be easily accessible, and forms a comprehensive text on EMPA and SEM for geological postgraduate and postdoctoral researchers, Trade ReviewReview of the hardback: 'The subject is treated in a clear and logical fashion … Dr Reed has produced an excellent and thoroughly readable book … highly recommended for all those who use the electron microprobe.' Allan Pring, Geological MagazineReview of the hardback: 'A good introductory level of information on all the main aspects of scanning electron microscopy and microanalysis that is not so readily available anywhere else. The book is well illustrated and written in a clear and readable style … It is strongly recommended for new users and should have a place in every laboratory. It would make an excellent textbook for introductory courses.' M. T. Styles, AnalystReview of the hardback: 'This book is a valuable introduction to the use and geological application of scanning electron microscopes and electron microprobes … by far the most readable of the microscope/microprobe books that I have seen … It is pitched at the right level for the market at which it is aimed, postgraduate and postdoctoral workers, or geologists in industrial laboratories … It is a splendid book that should sit on the bookshelf of anybody working with electron microscopes and microprobes, be part of any laboratory and be required reading for any graduate student working with microbeam techniques.' Peter Treloar, GeoscientistReview of the hardback: ' …this is a book that has been long overdue, and will certainly go to the top of my students' reading list.' Eric Condliffe, Journal of PetrologyTable of ContentsPreface; Acknowledgements; 1. Introduction; 2. Electron-specimen interactions; 3. Instrumentation; 4. Scanning electron microscopy; 5. X-ray spectrometers; 6. Element mapping; 7. X-ray analysis (1); 8. X-ray analysis (2); 9. Sample preparation; Appendix; References; Index.

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Book SynopsisThis 2005 book forms a comprehensive text on EMPA and SEM for geological postgraduate and postdoctoral researchers, as well as those working in industrial laboratories. Throughout the book there is an emphasis on geological aspects and unnecessary technical detail is avoided in order to make the book easily accessible.Trade ReviewReview of the hardback: 'The subject is treated in a clear and logical fashion … Dr Reed has produced an excellent and thoroughly readable book … highly recommended for all those who use the electron microprobe.' Allan Pring, Geological MagazineReview of the hardback: 'A good introductory level of information on all the main aspects of scanning electron microscopy and microanalysis that is not so readily available anywhere else. The book is well illustrated and written in a clear and readable style … It is strongly recommended for new users and should have a place in every laboratory. It would make an excellent textbook for introductory courses.' M. T. Styles, AnalystReview of the hardback: 'This book is a valuable introduction to the use and geological application of scanning electron microscopes and electron microprobes … by far the most readable of the microscope/microprobe books that I have seen … It is pitched at the right level for the market at which it is aimed, postgraduate and postdoctoral workers, or geologists in industrial laboratories … It is a splendid book that should sit on the bookshelf of anybody working with electron microscopes and microprobes, be part of any laboratory and be required reading for any graduate student working with microbeam techniques.' Peter Treloar, GeoscientistReview of the hardback: ' …this is a book that has been long overdue, and will certainly go to the top of my students' reading list.' Eric Condliffe, Journal of PetrologyTable of ContentsPreface; Acknowledgements; 1. Introduction; 2. Electron-specimen interactions; 3. Instrumentation; 4. Scanning electron microscopy; 5. X-ray spectrometers; 6. Element mapping; 7. X-ray analysis (1); 8. X-ray analysis (2); 9. Sample preparation; Appendix; References; Index.

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Book SynopsisUses questions about hypothetical situations to introduce the process of thinking according to scientific method.

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