About: Selectfluor is a research topic. Over the lifetime, 747 publications have been published within this topic receiving 17659 citations. The topic is also known as: Selectfluor.
TL;DR: The unique properties of complex organofluorine compounds are discussed in detail in this paper, including the properties of the perfluoroalkoxy group, perfluoromethylation and perfluorosulfanyl group.
Abstract: PREFACE TO THE SECOND EDITION PREFACE TO THE FIRST EDITION INTRODUCTION Why Organofluorine Chemistry? History The Basic Materials The Unique Properties of Organofluorine Compounds PART I: Synthesis of Complex Organofluorine Compounds INTRODUCTION OF FLUORINE Perfluorination and Selective Direct Fluorination Electrochemical Fluorination (ECF) Nucleophilic Fluorination Synthesis and Reactivity of Fluoroaromatic Compounds Transformations of Functional Groups "Electrophilic" Fluorination PERFLUOROALKYLATION Radical Perfluoroalkylation Nucleophilic Perfluoroalkylation "Electrophilic" Perfluoroalkylation Difluorocarbene and Fluorinated Cyclopropanes SELECTED FLUORINATED STRUCTURES AND REACTION TYPES Difluoromethylation and Halodifluoromethylation The Perfluoroalkoxy Group The Perfluoroalkylthio Group and Sulfur-Based Super-Electron-Withdrawing Groups The Pentafluorosulfanyl Group and Related Structures THE CHEMISTRY OF HIGHLY FLUORINATED OLEFINS Fluorinated Polymethines Fluorinated Enol Ethers as Synthetic Building Blocks PART II: Fluorous Chemistry FLUOROUS CHEMISTRY Fluorous Biphase Catalysis FLUOROUS SYNTHESIS AND COMBINATORIAL CHEMISTRY Fluorous Synthesis Separation on Fluorous Stationary Phases Fluorous Concepts in Combinatorial Chemistry PART III: Applications of Organofluorine Compounds HALOFLUOROCARBONS, HYDROFLUOROCARBONS, AND RELATED COMPOUNDS Polymers and Lubricants Applications in the Electronics Industry Fluorinated Dyes Liquid Crystals for Active Matrix Liquid Crystal Displays Fluorine in Organic Electronics PHARMACEUTICALS AND OTHER BIOMEDICAL APPLICATIONS Why Fluorinated Pharmaceuticals? Lipophilicity and Substituent Effects Hydrogen Bonding and Electrostatic Interactions Stereoelectronic Effects and Conformation Metabolic Stabilization and Modulation of Reaction Centers Bioisosteric Mimicking Mechanism-Based "Suicide" Inhibition Fluorinated Radiopharmaceuticals Inhalation Anesthetics Blood Substitutes and Respiratory Fluids Contrast Media and Medical Diagnostics Agricultural Chemistry APPENDIX A: TYPICAL SYNTHETIC PROCEDURES Selective Direct Fluorination Hydrofluorination and Halofluorination Electrophilic Fluorination with F-TEDA - BF4 (Selectfluor) Fluorinations with DAST and BAST (Deoxofluor) Fluorination of a Carboxylic Acid with Sulfur Tetrafluoride Generation of a Trifluoromethoxy Group by Oxidative Fluorodesulfuration of a Xanthogenate Oxidative Alkoxydifluorodesulfuration of Dithianylium Salts Electrophilic Trifluoromethylation with Umemoto's Reagents Nucleophilic Trifluoromethylation with Me3SiCF3 Transition Metal-Mediated Aromatic Perfluoroalkylation Copper-Mediated Introduction of the Trifluoromethylthio Group Substitution Reactions on Fluoroolefins and Fluoroarenes Reactions with Difluoroenolates APPENDIX B: INDEX OF SYNTHETIC CONVERSIONS INDEX
TL;DR: The many applications of selectfluor are documented and possible mechanistic pathways for its reaction are discussed and this reagent is described as one of the most reactive electrophilic fluorinating reagents available, but it is also safe, nontoxic, and easy to handle.
Abstract: The replacement of hydrogen atoms with fluorine substituents in organic substrates is of great interest in synthetic chemistry because of the strong electronegativity of fluorine and relatively small steric footprint of fluorine atoms. Many sources of nucleophilic fluorine are available for the derivatization of organic molecules under acidic, basic, and neutral conditions. However, electrophilic fluorination has historically required molecular fluorine, whose notorious toxicity and explosive tendencies limit its application in research. The necessity for an electrophilic fluorination reagent that is safe, stable, highly reactive, and amenable to industrial production as an alternative to very hazardous molecular fluorine was the inspiration for the discovery of selectfluor. This reagent is not only one of the most reactive electrophilic fluorinating reagents available, but it is also safe, nontoxic, and easy to handle. In this Review we document the many applications of selectfluor and discuss possible mechanistic pathways for its reaction.
TL;DR: With the catalysis of AgNO3, the reactions of various N-arylpent-4-enamides with Selectfluor reagent in CH2Cl2/H2O led to the efficient synthesis of 5-fluoromethyl-substituted γ-lactams.
Abstract: We report herein a mild and catalytic intramolecular aminofluorination of unactivated alkenes. Thus, with the catalysis of AgNO3, the reactions of various N-arylpent-4-enamides with Selectfluor reagent in CH2Cl2/H2O led to the efficient synthesis of 5-fluoromethyl-substituted γ-lactams. A mechanism involving silver-catalyzed oxidative generation of amidyl radicals and silver-assisted fluorine atom transfer was proposed.
TL;DR: This chemistry reveals the synthetic potential of incorporating gold(I)/gold(III) catalytic cycles into contemporary gold chemistry and promises a new area of gold research by merging powerful gold catalysis and oxidative metal-catalyzed cross-coupling reactions.
Abstract: Oxidizing gold? A gold(I)/gold(III) catalytic cycle is essential for the first oxidative cross-coupling reaction in gold catalysis. By using Selectfluor for gold(I) oxidation, this chemistry reveals the synthetic potential of incorporating gold(I)/gold(III) catalytic cycles into contemporary gold chemistry and promises a new area of gold research by merging powerful gold catalysis and oxidative metal-catalyzed cross-coupling reactions.
TL;DR: A catalytic cycle involving gold(I)/gold(III) and a bimolecular reductive elimination for the key CC bond-forming step is proposed.
Abstract: Gold-ilocks and the 3 mol % catalyst: Bimetallic gold bromides allow the room temperature aminoarylation of unactivated terminal olefins with aryl boronic acids using Selectfluor as an oxidant. A catalytic cycle involving gold(I)/gold(III) and a bimolecular reductive elimination for the key CC bond-forming step is proposed. dppm= bis(diphenylphosphanyl)methane.