Click Chemistry: Approaches, Applications and Challenges

Description

Contents......Page 6 Abstract......Page 8 1. Development of Click Chemistry......Page 9 2. Characteristics of Click Chemistry Reaction......Page 11 3. Types of Click Chemistry Reaction......Page 12 4. Application of Click Chemistry Reaction and Its Development......Page 17 References......Page 18 Abstract......Page 28 Introduction......Page 29 1. Preparation Methods of Nitrile N-Oxide......Page 31 2. Reaction of Nitrile N-Oxide......Page 32 3. Structure of Nitrile N-Oxide......Page 37 4. Synthesis and Applications of Nitrile N-Oxide-Based Click Agents......Page 43 Acknowledgments......Page 50 References......Page 51 1. Introduction......Page 58 2.1. Condensations and Non-Catalyzed Cycloadditions......Page 60 2.2. Copper-Catalyzed Alkyne-Azide Cycloaddition......Page 61 2.3. Homocoupling Reactions......Page 69 3. Reactions of Bi-1,2,3-Triazoles......Page 70 References......Page 72 Abstract......Page 76 Introduction......Page 77 1.2. C6 Quaternary Ammonium Chitosan Derivative......Page 78 1.3. Hollow Tubes [4]-A Novel Cellulose-Click-Chitosan Polymer......Page 79 1.4. Chitosan-Oxanorbornadiene [5]......Page 80 1.5. Locating Substitution Derivatives......Page 81 1.6. Regioselective Sequential Modification of Chitosan......Page 82 1.7. Side-Chain Type Benzoxazine-Functional Cellulose [8]......Page 84 1.8. Linking Cellulose and Clay......Page 85 1.10. Side-Chain Modification of Dextran derivatives......Page 86 1.11. Facile synthesis of β-Cyclodextrin-Dextran Derivatives Polymers [15]......Page 87 1.13. Grafting of Oligocaprolactones onto Starch Backbone......Page 88 2.1. Chitosan/Hyaluronan Hydrogels [21]......Page 89 2.2. Furan Chitosan Hydrogels [22]......Page 90 2.3. Hyaluronic Acid Hydrogels for Tissue Engineering......Page 91 2.6. Emulating the Extracellular Matrix by hyaluronic acid......Page 92 2.8. Biological Hydrogel......Page 94 2.10. Hydrogel Tissue Engineering Scaffolds......Page 95 2.12. Alginate Hydrogels [32]......Page 96 3. Click Chemistry Application of Natural Polymers Nanomaterials......Page 97 3.2. Grafting Chitosan on the Surface of Hydroxyapatite Nanoparticles [34]......Page 98 3.3. Cellulose Nanocrystals......Page 99 3.5. Functionalized Cellulose Nanocrystals [37]......Page 100 3.6. Nano- and Microfibrillar Cellulose......Page 101 3.7. Thiol-yne Click on Nano-Starch [39]......Page 102 4.1. Multicolor Fluorescent Labeling of Cellulose Nanofibril......Page 103 4.3. Fluorescent Hyperbranched Polymeric Sensors [43]......Page 104 4.4. A Turn-on Fluorescent Probe for Specific Detection of Cysteine......Page 105 5.1. Surface Modification of Silk Fibroin Films......Page 106 6. Prospect......Page 107 References......Page 108 Abstract......Page 114 1. Hydrogels Prepared from Azide-Alkyne Cycloaddition catalyzed by Cu (I)......Page 115 2. Hydrogels Prepared from Thiol-ene Photo Coupling......Page 120 3. Strain-Promoted Azide-Alkyne Cycloaddition (SPAAC)......Page 124 4.1. Common Diels-Alder Reaction......Page 132 4.2. Special Diels-Alder Reactions......Page 134 4.3. Thiol-yne Reaction......Page 136 4.4. Thiol-Michael Reaction......Page 137 References......Page 140 Abstract......Page 146 1. The preparation of elastomers and rubber with “click” reaction......Page 147 1.1 Using of Alkyne-azide Reaction......Page 148 1.2 Using of thiol-ene reaction......Page 150 1.3 Others reactions and applications......Page 155 2. Using of “click” reaction on surface modification of elastomer......Page 157 Conclusion......Page 160 References......Page 161 Abstract......Page 164 1. Introduction......Page 165 3. Key Features of Monoliths......Page 167 4. Key Features of Click Chemistry......Page 169 4.1. Copper-Catalyzed Azide-Alkyne Huisgen Dipolar Cycloaddition Reaction (CuAAC)......Page 172 4.2. Thiol-Ene (TEC) and Thiol-Yne (TYC) Coupling Chemistries......Page 173 4.3. Thiol-(Meth)Acrylate Reaction......Page 175 4.4. Thiol-Epoxy Click Coupling......Page 176 4.5. Diels-Alder Click Coupling......Page 177 5.1. Click Chemistry for the Preparation of Monoliths......Page 178 5.2. Synthesis of Clickable Monoliths......Page 185 5.3. Click Chemistry for the Surface Functionalization of Monoliths......Page 192 6.1. Clicked Monoliths for (Electro)Chromatographic Separation Science......Page 197 6.2. Clicked Monoliths for Sample Pretreatment Technology......Page 203 6.3. Clicked Monoliths for Micro-Reactor Science and Technology......Page 205 References......Page 210 Abstract......Page 218 Click Chemistry......Page 219 Click Chemistry Reaction Types......Page 220 Membrane Technology......Page 223 Advantages of Membrane Surface Modification......Page 224 Membrane Modification with Click Chemistry......Page 225 Acknowledgments......Page 231 References......Page 232 Abstract......Page 242 Introduction......Page 243 Click on Carbon Nanostructures......Page 245 Fullerenes......Page 246 Carbon Nanotubes......Page 253 Graphene......Page 258 Click on Small Polycyclic Aromatic Hydrocarbon......Page 262 Pyrene......Page 263 Perylene......Page 268 Corannulene......Page 272 Conclusion......Page 273 References......Page 274 Abstract......Page 288 1.1. The Role of Click Chemistry in the Research of Chemical Sensor......Page 289 1.2. The Application of Chemical Sensor Based on Click Chemistry......Page 290 2. The Application of Click Chemistry in Gene Transfer Carrier......Page 294 3. Application of Click Chemistry in Pharmaceutical Science......Page 299 3.1.2. Fragment-Based Drug Discovery......Page 301 3.1.3. Dynamic Template-Assisted Strategies in Fragment-Based Drug Discovery......Page 303 3.2.1. Protein Tyrosine Phosphatase Inhibitors......Page 305 3.2.2. Protein Kinase Inhibitors......Page 307 3.3. Click Chemistry in Drug Development Using Fragment-Based Drug Discovery......Page 309 References......Page 311 Abstract......Page 320 1. Introduction......Page 321 2.1.1. Copper(I) Catalyzed Azide-Alkyne Cycloaddition (CuAAC) Reaction......Page 324 2.1.2. CuAAC Reaction in DNAs and Proteins Detection......Page 325 2.1.3. CuAAC Reaction in Small Biomolecules Sensing......Page 327 2.1.4. CuAAC Reaction In Vivo Sensing......Page 329 2.2. Strain-Promoted Azide-Alkyne Cycloaddition (SPAAC) Reaction......Page 330 2.2.1. SPAAC Reaction in DNAs Analysis......Page 331 2.2.2. SPAAC Reaction in Proteins and Pathogens Detection......Page 332 2.2.3. SPAAC Reaction in Cells Detection......Page 333 2.3. Thiol-ene Reaction......Page 334 2.3.1. Thiol-ene Reaction in DNAs and Proteins Detection......Page 335 2.3.2. Thiol-ene Reaction in Small Biomolecules Detection......Page 336 2.4.1. Oxime Ligation......Page 337 2.4.2. Diels-Alder Reaction......Page 338 Conclusion and Outlooks......Page 339 Acknowledgments......Page 340 References......Page 341 Abstract......Page 354 Introduction......Page 355 2.1. Materials......Page 356 2.4. Propellant Processing......Page 357 2.5.1. Synthesis of Propargyloxy Terminated Polybutadiene (PTPB)......Page 358 3.1. Curing Characteristics of PTPB......Page 360 3.2. Mechanical Properties......Page 362 3.4. Thermal Decomposition Studies......Page 363 3.5.1. Thermochemical Measurements......Page 366 3.5.2. Propellant Processabiity, Mechanical Properties, Thermal Decomposition and Burn Rate......Page 367 Acknowledgment......Page 369 References......Page 370 Editor Contact Information......Page 374 Index......Page 376 Blank Page......Page 0