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Organometallic Complex Synthesis and Catalysis
Research Guide

What is Organometallic Complex Synthesis and Catalysis?

Organometallic complex synthesis and catalysis is the preparation of compounds containing bonds between carbon and metals, particularly transition metals, and their application as catalysts in reactions such as olefin metathesis, polymerization, and asymmetric synthesis.

The field encompasses over 121,648 published works focused on developing metal complexes for catalytic transformations. Ruthenium-based catalysts for olefin metathesis, as detailed in 'The Development of L₂X₂RuCHR Olefin Metathesis Catalysts:  An Organometallic Success Story' by Trnka and Grubbs (2000), have enabled versatile carbon-carbon bond formation with high activity. Late-metal systems for ethylene polymerization, reviewed by Ittel, Johnson, and Brookhart (2000), support homo- and copolymerization processes.

121.6K
Papers
N/A
5yr Growth
2.1M
Total Citations

Research Sub-Topics

Why It Matters

Organometallic complexes drive industrial polymer production, with Grubbs' ruthenium catalysts in 'The Development of L₂X₂RuCHR Olefin Metathesis Catalysts:  An Organometallic Success Story' (2000, 3504 citations) enabling ring-closing metathesis for pharmaceuticals like the antiviral drug production scaled to tons annually. Brookhart's Pd(II)- and Ni(II)-based catalysts in 'New Pd(II)- and Ni(II)-Based Catalysts for Polymerization of Ethylene and α-Olefins' (1995, 2645 citations) produce branched polyethylene without cocatalysts, impacting commodity plastics manufacturing. Chiral metallocene catalysts from Brintzinger et al. (1995, 2687 citations) yield isotactic polypropylene with >99% stereoregularity, used in automotive and packaging industries.

Reading Guide

Where to Start

'The Development of L₂X₂RuCHR Olefin Metathesis Catalysts:  An Organometallic Success Story' by Trnka and Grubbs (2000) provides an accessible entry through its narrative of catalyst evolution from early designs to highly active ruthenium systems, with clear mechanistic insights and applications.

Key Papers Explained

Trnka and Grubbs (2000) established ruthenium olefin metathesis catalysts, which Schwab, Grubbs, and Ziller (1996) refined by varying alkylidene moieties to tune activity. Johnson, Killian, and Brookhart (1995) introduced Pd/Ni catalysts for α-olefin polymerization, expanded in Ittel, Johnson, and Brookhart (2000) to copolymerization reviews. Brintzinger et al. (1995) detailed metallocene stereocontrol, contrasted by Gibson and Spitzmesser (2002) on non-metallocene advances. Kato et al. (1995) applied ruthenium in living radical polymerization, linking metathesis expertise to radical processes.

Paper Timeline

100%
graph LR P0["Polymerization of Methyl Methacr...
1995 · 3.0K cites"] P1["Stereospecific Olefin Polymeriza...
1995 · 2.7K cites"] P2["New Pd II - and Ni II -Based Cat...
1995 · 2.6K cites"] P3["The Development of L2...
2000 · 3.5K cites"] P4["Late-Metal Catalysts for Ethylen...
2000 · 3.1K cites"] P5["Catalytic asymmetric synthesis
2001 · 2.7K cites"] P6["Advances in Non-Metallocene Olef...
2002 · 2.5K cites"] P0 --> P1 P1 --> P2 P2 --> P3 P3 --> P4 P4 --> P5 P5 --> P6 style P3 fill:#DC5238,stroke:#c4452e,stroke-width:2px
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Most-cited paper highlighted in red. Papers ordered chronologically.

Advanced Directions

Recent preprints explore phosphite-bearing Fe₂(CO)₆ azadithiolate clusters for multimetallic assemblies (Torres and Sierra, 2023). Reviews cover organocopper(III) complexes in oxidative addition (Liu Laboratory, 2023) and N-heterocyclic carbene adducts as ligands (Zhong and Yuan, 2023). News highlights ferrocene-based 20-electron complexes challenging valence rules (Takebayashi et al., 2025).

Papers at a Glance

# Paper Year Venue Citations Open Access
1 The Development of L<sub>2</sub>X<sub>2</sub>RuCHR Olefin Meta... 2000 Accounts of Chemical R... 3.5K
2 Late-Metal Catalysts for Ethylene Homo- and Copolymerization 2000 Chemical Reviews 3.1K
3 Polymerization of Methyl Methacrylate with the Carbon Tetrachl... 1995 Macromolecules 3.0K
4 Catalytic asymmetric synthesis 2001 Choice Reviews Online 2.7K
5 Stereospecific Olefin Polymerization with Chiral Metallocene C... 1995 Angewandte Chemie Inte... 2.7K
6 New Pd(II)- and Ni(II)-Based Catalysts for Polymerization of E... 1995 Journal of the America... 2.6K
7 Advances in Non-Metallocene Olefin Polymerization Catalysis 2002 Chemical Reviews 2.5K
8 Cyclic polyethers and their complexes with metal salts 1967 Journal of the America... 2.2K
9 Controlled Ring-Opening Polymerization of Lactide and Glycolide 2004 Chemical Reviews 2.2K
10 Synthesis and Applications of RuCl<sub>2</sub>(CHR‘)(PR<sub>3<... 1996 Journal of the America... 2.1K

In the News

Code & Tools

Recent Preprints

Latest Developments

Recent developments in organometallic complex synthesis and catalysis research include high-throughput methods for creating and testing metal complexes, such as potent new metalloantibiotics and highly active catalysts demonstrated in 2025 (Nature, May 2025) (Result 4), advancements in the catalytic synthesis of compounds like 5-substituted 1H-tetrazoles (RSC Advances, 2025) (Result 3), and the ongoing organization of major conferences such as the 2026 GRC on Organometallic Chemistry focusing on new approaches and multidisciplinary strategies (Result 6).

Frequently Asked Questions

What are key ruthenium catalysts for olefin metathesis?

Trnka and Grubbs (2000) developed L₂X₂RuCHR catalysts in 'The Development of L₂X₂RuCHR Olefin Metathesis Catalysts:  An Organometallic Success Story', which are highly active and compatible with functional groups. These catalysts facilitate carbon-carbon bond formation in ring-closing and cross-metathesis reactions. The paper reports state-of-the-art performance with 3504 citations.

How do late-metal catalysts polymerize ethylene?

Ittel, Johnson, and Brookhart (2000) reviewed late-metal catalysts for ethylene homo- and copolymerization in their Chemical Reviews paper with 3084 citations. These Pd and Ni systems produce branched polymers directly from ethylene. They operate under mild conditions without additional chain-transfer agents.

What enables living radical polymerization of methyl methacrylate?

Kato et al. (1995) demonstrated living radical polymerization using the CCl₄/RuCl₂(PPh₃)₃/MAO initiating system in their Macromolecules paper (2962 citations). This ruthenium-based method achieves narrow polydispersity and controlled molecular weights. The system allows reactivation of dormant species for chain extension.

What are non-metallocene catalysts for olefin polymerization?

Gibson and Spitzmesser (2002) advanced non-metallocene catalysis in their Chemical Reviews article (2493 citations), covering late-transition metal systems. These catalysts tolerate polar monomers and produce branched polymers. Examples include diimine and pyridyl-amine ligands with Ni and Fe centers.

How do metallocene catalysts achieve stereospecific polymerization?

Brintzinger et al. (1995) explained stereospecific olefin polymerization with chiral metallocene catalysts in their Angewandte Chemie paper (2687 citations). Single-site zirconocene centers control tacticities like isotactic and syndiotactic polypropylene. The mechanism involves coordinated anion effects on monomer insertion.

What influences alkylidene moiety in ruthenium metathesis catalysts?

Schwab, Grubbs, and Ziller (1996) synthesized RuCl₂(CHR')(PR₃)₂ complexes and showed alkylidene substituents affect metathesis activity in their JACS paper (2088 citations). Para-substituted arylidenes modulate reactivity. Electron-withdrawing groups enhance initiation rates.

Open Research Questions

  • ? How can earth-abundant metals replace noble metals like Ru and Pd in metathesis and polymerization catalysts while maintaining activity?
  • ? What ligand designs enable selective branched polyethylene from ethylene without comonomers in late-transition metal systems?
  • ? Can controlled ring-opening polymerization mechanisms from lactide catalysts be extended to sustainable polyester production at scale?
  • ? How do electronic effects of alkylidene substituents predict metathesis catalyst initiation and propagation rates?
  • ? What structural modifications in non-metallocene catalysts improve functional group tolerance for copolymerizing polar monomers?

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