Carbon-carbon sigma bonds are known to be very stable under most reaction conditions; however, through the use of organometallic chemistry, specifically with rhodium catalysis, we have successfully been able to activate carbon-carbon bonds in quinolinyl ketones and have consequently been able to propose a mechanism for the reaction (JACS, 2009, 131, 412 and JACS, 2011, 133, 2031). Current work has involved expanding the reaction to a variety of substrates by functionalizing one the aromatic rings of the parent quinolynl ketone. Following synthesis of the desired analogs, each is subjected to the carboacylation reaction. Reactions are run in re-sealable NMR tubes and can be performed with as a single reaction with one substrate or a compet...
Intramolecular alkene carboacylation has previously been achieved under rhodium catalysis using quin...
Rhodium-catalyzed intramolecular carboacylation of alkenes, achieved using quinolinyl ketones contai...
The work described in this thesis documents the development of new rhodium(I)-catalysed methodologie...
Carbon-carbon sigma bonds are known to be very stable under most reaction conditions; however, throu...
Though the carbon-carbon single bond is thought to be exceptionally stable because of a lack of pola...
Carbon-carbon single bond activation reactions promise to revolutionize organic synthesis by opening...
Carbon-carbon single bonds form the framework for many organic molecules, but in most cases, they ca...
ABSTRACT The rhodium-catalyzed intramolecular carboacylation of quinolinyl ketones serves as an idea...
Carbon-carbon single bonds are highly stable and inert under most reaction conditions, but can be ma...
Carbon-carbon single bonds are some of the most inert and stable bonds in chemistry. Very few metho...
Carbon-carbon single bonds form the framework for many organic molecules, but in most cases, they ca...
The rhodium-catalyzed intramolecular carboacylation of quinolinyl ketones serves as an ideal subjec...
Being able to utilize carbon-carbon single bonds can allow for numerous new pathways in organic synt...
Intramolecular alkene carboacylation has previously been achieved under rhodium catalysis using quin...
Carbon-carbon σ bond activation is difficult due to the strength of the σ bond and the steric hindra...
Intramolecular alkene carboacylation has previously been achieved under rhodium catalysis using quin...
Rhodium-catalyzed intramolecular carboacylation of alkenes, achieved using quinolinyl ketones contai...
The work described in this thesis documents the development of new rhodium(I)-catalysed methodologie...
Carbon-carbon sigma bonds are known to be very stable under most reaction conditions; however, throu...
Though the carbon-carbon single bond is thought to be exceptionally stable because of a lack of pola...
Carbon-carbon single bond activation reactions promise to revolutionize organic synthesis by opening...
Carbon-carbon single bonds form the framework for many organic molecules, but in most cases, they ca...
ABSTRACT The rhodium-catalyzed intramolecular carboacylation of quinolinyl ketones serves as an idea...
Carbon-carbon single bonds are highly stable and inert under most reaction conditions, but can be ma...
Carbon-carbon single bonds are some of the most inert and stable bonds in chemistry. Very few metho...
Carbon-carbon single bonds form the framework for many organic molecules, but in most cases, they ca...
The rhodium-catalyzed intramolecular carboacylation of quinolinyl ketones serves as an ideal subjec...
Being able to utilize carbon-carbon single bonds can allow for numerous new pathways in organic synt...
Intramolecular alkene carboacylation has previously been achieved under rhodium catalysis using quin...
Carbon-carbon σ bond activation is difficult due to the strength of the σ bond and the steric hindra...
Intramolecular alkene carboacylation has previously been achieved under rhodium catalysis using quin...
Rhodium-catalyzed intramolecular carboacylation of alkenes, achieved using quinolinyl ketones contai...
The work described in this thesis documents the development of new rhodium(I)-catalysed methodologie...