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ویرایش: نویسندگان: Thomas J. Colacot (editor), Vilvanathan Sivakumar (editor) سری: ISBN (شابک) : 303027960X, 9783030279608 ناشر: Springer سال نشر: 2020 تعداد صفحات: 334 زبان: English فرمت فایل : PDF (درصورت درخواست کاربر به PDF، EPUB یا AZW3 تبدیل می شود) حجم فایل: 20 مگابایت
در صورت تبدیل فایل کتاب Organometallics in Process Chemistry (Topics in Organometallic Chemistry, 65) به فرمت های PDF، EPUB، AZW3، MOBI و یا DJVU می توانید به پشتیبان اطلاع دهید تا فایل مورد نظر را تبدیل نمایند.
توجه داشته باشید کتاب آلی فلزات در شیمی فرآیندی (موضوعات شیمی آلی فلزی، 65) نسخه زبان اصلی می باشد و کتاب ترجمه شده به فارسی نمی باشد. وبسایت اینترنشنال لایبرری ارائه دهنده کتاب های زبان اصلی می باشد و هیچ گونه کتاب ترجمه شده یا نوشته شده به فارسی را ارائه نمی دهد.
این جلد مروری بر کاربردهای شیمی آلی فلزی در شیمی فرآیندی مربوط به موضوعات جاری در شیمی مصنوعی میدهد. این جلد با مقدمهای در مورد پیشرفت تاریخی آلی فلزات در شیمی فرآیند شروع میشود و با فصلهایی دنبال میشود که به توسعه پنج سال اخیر در انواع مختلف واکنشهای آلی فلزی میپردازد، مانند فرآیند جفتگیری متقابل چالش برانگیز، ساخت دوچرخههای 3.1.0، فشار و انتقال هیدروژناسیون ترکیبات چالش برانگیز تاریخی مانند استرها، استفاده از دی اکسید کربن برای ساخت ترکیبات آلی با فرآیند جریان، سنتز دارو و تشخیص فلز و مهار در APIهای نهایی. فصلی توسط کولاکوت و همکاران نیز به توسعه فرآیند و درک ساختاری کاتالیزورهای آلی فلزی با تاکید ویژه بر LnPd اختصاص دارد. (0) کاتالیزورها. فصلی با همکاری دانشگاه و صنعت در مورد استفاده از آب به عنوان حلال برای فرآیندهای آلی فلزی در این کتاب گنجانده شده است.
This volume gives an overview of the applications of organometallic chemistry in process chemistry relevant to the current topics in synthetic chemistry. This volume starts with an introduction on the historical development of organometallics in process chemistry and is followed by chapters dealing with the last five years’ development in various organometallic reaction types such as the challenging cross coupling process, construction of 3.1.0 bicycles, pressure and transfer hydrogenations of historically challenging compounds such as esters, utilization of carbon dioxide for making organic compounds by flow process, drug synthesis and metal detection and scavenging in the finished APIs. A chapter by Colacot et.al., is also devoted to the process development and structural understanding of organometallic catalysts with particular emphasis to LnPd(0) catalysts. An academia – industry collaborated chapter on the use of water as a solvent for organometallic processes is included in this book.
Foreword Preface Contents Editors and Authors Organometallics in Process Chemistry: An Historical Snapshot 1 Introduction 2 Main Group Organometallics as Stoichiometric Reagents 2.1 Organomagnesium Reagents 2.2 Organolithium Reagents 3 Transition Metal Organometallics in Catalysis 3.1 Hydroformylation 3.2 Asymmetric Hydrogenation 3.3 Cross-Coupling 3.4 Metathesis 3.5 C-H Activation 4 Emerging Technologies 4.1 Photoredox Catalysis 4.2 Flow Chemistry 4.3 Ester Hydrogenation Under Greener Conditions 4.4 Organic Electrosynthesis 4.5 Computational Modelling for Reaction Predictability 5 Summary and Outlook References Organometallic Approaches to [3.1.0] Bicycles in Process Chemistry 1 Introduction 2 Intermolecular Metallocarbenoid Cyclopropanation 2.1 Cyclopropanation of Electron-Rich Heterocycles 2.2 Cyclopropanation of Less Electron-Rich Heterocycles 2.3 Simmons-Smith Cyclopropanations 3 Michael-Initiated Ring Closure 3.1 Reactions Between Sulfur Ylides and Enone Substrates 3.2 Reactions Between Sulfur Ylides and 1,4-Enedicarbonyl Substrates 3.3 Reactions Between α-Halo Enolates and 1,4-Enedicarbonyl Substrates 4 Intramolecular Metallocarbenoid Cyclopropanation 4.1 α-Diazocarbonyl Substrates 4.2 Lithium Carbenoids 5 Nucleophilic Displacement Approaches 5.1 Cyclization of Enolates 5.2 Intermolecular Enolate Double Addition to Epichlorohydrin 6 Conclusion References Structural Diversity in Ruthenium-Catalyzed Asymmetric Transfer Hydrogenation Reactions 1 Introduction 2 ATH Catalysts 3 ATH of Polyfunctionalized Ketones 4 Diastereoselective TH 5 ATH of Imines 6 ATH Through Dynamic Kinetic Resolution (DKR) 7 Conclusions References Application of Organometallic Catalysts in API Synthesis 1 Introduction 2 Asymmetric Hydrogenation 2.1 α-Amino Acids 2.2 β-Amino Acids 2.3 Chiral Carboxylic Acids 2.4 Chiral Amines 2.5 Chiral Alcohols 3 C-H Functionalization 4 Cyclopropanation 5 Hydroformylation 6 Cross-Coupling for the Formation of Carbon-Carbon and Carbon-Heteroatom Bonds 6.1 Cycloaddition Reaction 7 Transition Metal-Catalyzed Transformations in Batch and Continuous Mode 8 Conclusion and Prospect References Process Economics and Atom Economy for Industrial Cross Coupling Applications via LnPd(0)-Based Catalysts 1 Introduction 1.1 A Brief Overview of Cross Coupling Technology 2 Process Drawbacks of In Situ-Generated Palladium Catalysts and Even the Classical Preformed Pd(Ph3P)4 2.1 Process Drawbacks of Using Pd(OAc)2 2.2 Process Drawbacks of Pdydbaz 3 Process Benefits of Preformed Pd Complexes and Catalyst Selection 3.1 Preformed Catalysts 3.2 L2Pd(0) 3.2.1 L2PdX2 Introduction 3.2.2 L2PdX2 Applications Limitations of L2PdX2 Pre-catalysts 3.2.3 A Special Class of L2Pd(0): Bidentate (L-L)PdX2 Application of Bidentate (L-L)PdX2 3.2.4 Special Note on L2PdX2 3.2.5 L2Pd(0) Pre-catalysts Process Applications of L2Pd(0) Limitations of L2Pd(0) 3.3 L1Pd(0) Pre-catalysts 3.3.1 Development of L1Pd(0) Buchwald Palladacycle Pre-catalysts Application of Buchwald Palladacycles Process Drawbacks of Buchwald Palladacycles 3.3.2 Development of L1Pd(0) π-Allyl Pre-catalysts Process Applications of L1Pd(0) Allyl/Crotyl Pd Overcoming Process Drawbacks of π-Allyl Pre-catalysts 4 Conclusion References Organometallic Processes in Water 1 Organometallic Processes in Water 2 Development of Tailor-Made Catalysts for Surfactant Chemistry and Their Applications to Reductions and Cross-Coupling Transf... 3 Applications to Multistep and Telescoped Sequences References Meeting Metal Limits in Pharmaceutical Processes 1 Introduction 1.1 Understanding and Optimising the Metal-Catalysed Process 1.2 Heterogeneous Catalysis 2 Methods of Removal 2.1 Extraction and Precipitation Treatments and Associated Problems 2.1.1 Chromatography 2.1.2 Crystallisation 2.1.3 Precipitation of Catalyst Residues 2.1.4 Extraction 2.1.5 Distillation 2.2 Adsorption and Filtration Methods 2.2.1 Activated Carbon 2.2.2 Nanofiltration 2.2.3 Metal Scavengers Silica-Based Metal Scavengers Organic Polymers 2.2.4 Towards a Cost-Effective Strategy for Metal Removal Screening Optimisation: Isotherms Optimisation: Kinetics Slurry or Fixed-Bed Trial 2.2.5 Using DoE as an Optimisation Tool 3 Analysis 4 Case Studies 4.1 Applying Metal Scavengers at the Pilot Plant Scale 4.1.1 Removal in Batch Mode 4.1.2 Early Developments in the Use of Scavenging Technology 4.1.3 Development of a Cartridge-Based Scavenging System 4.1.4 Development and Optimisation of Single-Pass Cartridge Scavenging 4.2 Batch Versus Fixed-Bed Removal: A Cost Analysis 4.3 Replacing Carbon with a Metal Scavenger 4.4 Use of a Metal Scavenger in Acidic Solutions 4.5 Processes Which Require Multiple Metal Removal Techniques 4.6 Ruthenium Removal Using a Metal Scavenger 4.7 Removing Multiple Metals with One Scavenger 4.8 Adsorbent Screening for Removal of Coloured Impurities 5 Conclusion References Sodium Acrylate from Ethylene and CO2: The Path from Basic Research to a System Appropriate for a Continuous Process 1 Introduction 2 Catalysts 3 Bases 4 Solvents 5 Process Concepts 6 Conclusion References Oxygen Effect in Heteromultimetallic Catalysis: Oxygen-Bridged Catalysts for Olefin Polymerization Process 1 Introduction 2 Conceptual Background: Effect of Oxygen on the Active Metal Center 3 Introducing the Oxygen Between Two Metal Centers: Development of M-O-M′ Containing Molecular Catalysts 3.1 Synthesis of Precursors for Heterometallic Complexes: Main-Group and Transition Metal Hydroxides 3.1.1 Aluminum Hydroxides 3.1.2 Zirconium Hydroxide 3.2 Synthetic Methodology for Construction of MOM′ Motif 3.3 Synthetic Strategy of Inserting a Lewis Acid Between Active Metal Centers 3.3.1 Metallocene-Nonmetallocene Heterobimetallic Complexes: Group-4 Metallocenes Grafted on Aluminum Oxide 3.3.2 Half-Metallocene Group-4 Metal Precursors Grafted on Aluminum Oxide 3.3.3 Heterometallic Oxides of Aluminum and Non-metallocene Group-4 Metal Precursors 3.4 Ethylene Polymerization Using Lewis Acid Grafted Heterometallic Catalysts 3.4.1 Polymerization Data Analysis 3.4.2 Structure and Activity Relationship 3.5 Hetero Transition Metals: Assembly and Development of Bimodal Catalyst 3.6 Study of the Catalytically Active Species 3.7 Investigations of Styrene Polymerization 4 Oxygen Effect on the Catalytic Activity 5 Conclusions References Correction to: Organometallics in Process Chemistry: An Historical Snapshot Correction to: Chapter ``Organometallics in Process Chemistry: An Historical Snapshot´´ in: V. Sivakumar et al., Topics in Org... Index