Skip to main content
Graph
Search
fr
|
en
Login
Search
All
Categories
Concepts
Courses
Lectures
MOOCs
People
Practice
Publications
Startups
Units
Show all results for
Home
Lecture
Asymmetric Catalysis: Sulfa-Michael Addition Mechanism
Graph Chatbot
Related lectures (32)
Previous
Page 1 of 4
Next
Catalytic Radical Processes: Asymmetric Synthesis of Cyclobutanones
Covers a novel catalytic radical process for asymmetric synthesis of cyclobutanones.
Chemical Bonds: Stability and Reactivity
Explores chemical bonding rules, stability of isomers, reaction energy profiles, and nucleophile-electrophile interactions.
Asymmetric Catalysis: Diels-Alder Reactions and Applications
Covers asymmetric catalysis in Diels-Alder reactions, focusing on chiral oxazaborolidinium ions and their applications in fine chemical synthesis.
Catalytic asymmetric reactions
Explores catalytic asymmetric reactions in organic chemistry, covering topics like asymmetric induction, kinetic resolution, and catalyst activation.
Catalytic Asymmetric Reactions in Organic Chemistry
Covers catalytic asymmetric reactions in organic chemistry, focusing on various methods and mechanisms.
Catalytic Asymmetric Reactions in Organic Chemistry
Explores catalytic asymmetric reactions in organic chemistry, covering Lewis and Brønsted acids activation, Aldol Reaction, Allylation, Ene Reactions, and more.
Catalytic Asymmetric Reactions in Organic Chemistry
Explores catalytic asymmetric reactions in organic chemistry, focusing on proline-catalyzed reactions and amination of aldehydes and ketones.
Catalytic Asymmetric Reactions in Organic Synthesis
Explores catalytic asymmetric reactions in organic synthesis, covering topics like enamine catalysis and chiral ylides generation.
Hydrogenation Mechanism
Delves into the detailed reaction mechanism of hydrogenation, emphasizing Wilkinson's catalyst and the impact of ligand design.
Chemistry of Saturated Carbon Compounds: Reactions and Mechanisms
Provides an overview of saturated carbon compounds and their chemical reactions, focusing on halogenoalkanes and substitution mechanisms.