Electron Counting
18-electron rule, stability, bonding and applications.
L-01 to L-04Master electron counting, metal clusters, metal carbonyls, fluxionality, organometallic reactions and catalysis through a structured, exam-oriented lecture series by Chiral Academy.
Follow the lectures in sequence to move from electron counting and cluster chemistry to fluxionality, elementary organometallic reactions and homogeneous catalysis.
18-electron rule, stability, bonding and applications.
L-01 to L-04Wade rule, isolobality, boranes, clusters and metal carbonyls.
L-05 to L-12Nonrigidity, fluxional behaviour and spectroscopic interpretation.
L-13 to L-16Oxidative addition, insertion, elimination and transmetallation.
L-17 to L-22Catalytic cycles, metallocenes and final topic revision.
L-23 to L-2525 lectures displayed
Build the foundation of organometallic electron counting and understand the basic application of the 18-electron rule.
Continue the 18-electron rule with additional examples, ligand classifications and organometallic complex calculations.
Strengthen electron-counting skills through advanced examples and important competitive-examination applications.
Apply the 18-electron rule to stability, structure, reactivity and bonding problems in organometallic chemistry.
Learn the fundamentals of Wade’s rules and the isolobal analogy for understanding clusters and related structures.
Continue Wade-rule calculations and isolobal relationships with higher-level examples and applications.
Study isolobal relationships, boranes, metal clusters and Zintl compounds through connected structural concepts.
Master the classification, electron counting, structures and important properties of organometallic clusters.
Understand carboranes, acidity trends and the fundamental bonding concepts of metal carbonyl complexes.
Learn metal-carbonyl bonding and reinforce the topic through previous-year questions and exam-oriented practice.
Study metal carbonyls, metal–olefin bonding and metal-halide clusters with structure and bonding applications.
Continue metal–olefin complexes and metal-halide clusters with important structural and bonding examples.
Begin nonrigid and fluxional behaviour in organometallic compounds with dynamic structural changes and examples.
Continue fluxionality through rearrangement pathways, exchange processes and important organometallic examples.
Complete nonrigidity and fluxionality with advanced examples and competitive-exam problem solving.
Use proton NMR to interpret organometallic compounds and connect spectroscopic behaviour with OMC reactions.
Understand three fundamental organometallic reaction classes with electron-count and oxidation-state changes.
Continue key OMC reaction mechanisms with emphasis on reductive elimination, coupling and migratory insertion.
Study transmetallation, beta-hydrogen transfer and important bonding aspects of metal–alkene complexes.
Learn metal–alkene complexes, Dewar–Chatt–Duncanson type bonding ideas, DMG rules and metal carbenes.
Explore bonding, structure, classification and reactivity of metal–olefin and metal-carbene complexes.
Connect metal-carbene chemistry with important catalytic reactions and organometallic transformation pathways.
Begin homogeneous organometallic catalysis with catalytic cycles, elementary steps and important applications.
Continue organometallic catalysis and study metallocenes, including their structure, bonding and applications.
Complete the series with catalysis, metal-carbonyl revision and remaining high-value organometallic topics.
Follow all 25 lectures to strengthen Organometallic Chemistry for CSIR NET, GATE Chemistry and IIT JAM examinations.
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