Skip to main content
Tweeted twitter.com/StackChemistry/status/955256888257589248
edited body
Source Link
KanyeBest
  • 353
  • 1
  • 4
  • 14

I was reading in The Organometallic Chemistry of the Transition Metals (Robert Crabtree) that lewis acids like BF3 often accept electrons from d(pi) orbitals. Is this generally true for all pi acceptor ligands? That is, do metals with filled d(pi) orbitals form thermodynamically stable bonds with pi acceptor ligands? I would imagine that d(pi) electrons would only be available for donation if said metal haswas in a low oxidation state. Correct me if I'm wrong.

If this post merits two different question threads, I'd be happy to separate them.

I was reading in The Organometallic Chemistry of the Transition Metals (Robert Crabtree) that lewis acids like BF3 often accept electrons from d(pi) orbitals. Is this generally true for all pi acceptor ligands? That is, do metals with filled d(pi) orbitals form thermodynamically stable bonds with pi acceptor ligands? I would imagine that d(pi) electrons would only be available for donation if said metal has in a low oxidation state. Correct me if I'm wrong.

If this post merits two different question threads, I'd be happy to separate them.

I was reading in The Organometallic Chemistry of the Transition Metals (Robert Crabtree) that lewis acids like BF3 often accept electrons from d(pi) orbitals. Is this generally true for all pi acceptor ligands? That is, do metals with filled d(pi) orbitals form thermodynamically stable bonds with pi acceptor ligands? I would imagine that d(pi) electrons would only be available for donation if said metal was in a low oxidation state. Correct me if I'm wrong.

If this post merits two different question threads, I'd be happy to separate them.

Source Link
KanyeBest
  • 353
  • 1
  • 4
  • 14

Bond strength of pi acceptors and metals with filled d(pi) orbitals

I was reading in The Organometallic Chemistry of the Transition Metals (Robert Crabtree) that lewis acids like BF3 often accept electrons from d(pi) orbitals. Is this generally true for all pi acceptor ligands? That is, do metals with filled d(pi) orbitals form thermodynamically stable bonds with pi acceptor ligands? I would imagine that d(pi) electrons would only be available for donation if said metal has in a low oxidation state. Correct me if I'm wrong.

If this post merits two different question threads, I'd be happy to separate them.