The differentiation of closely related lipid isomers is increasingly important to our evolving understanding of lipid biochemistry but it is equally challenging to contemporary chromatographic and mass spectral analyses. Recently, we described a novel ion-activation approach based on combining collision- with ozone-induced dissociation (CID/OzID) for the identification of the relative acyl chain substitution positions in glycerophospholipids. Here we demonstrate, for the first time, that CID/OzID can be effectively combined with reversed-phase chromatography to enable the separation and unambiguous identification of regioisomeric pairs of phosphatidylcholines that differ only in the arrangement of acyl chains on the glycerol backbone
The inability of current mass spectrometry techniques to differentiate phospholipid isomers results ...
The inability of current mass spectrometry techniques to differentiate phospholipid isomers results ...
Glycerophospholipids with two, non-equivalent fatty acyl chains can adopt one of two isomeric forms ...
The differentiation of closely related lipid isomers is increasingly important to our evolving under...
The complete structural elucidation of complex lipids, including glycerophospholipids, using only ma...
The complete structural elucidation of complex lipids, including glycerophospholipids, using only ma...
The complete structural elucidation of complex lipids, including glycerophospholipids, using only ma...
Revealing the inherent molecular diversity of lipid biology requires advanced analytical technologie...
Glycerophospholipids with two, non-equivalent fatty acyl chains can adopt one of two isomeric forms ...
Unambiguous identification of isomeric lipids by mass spectrometry represents a significant analytic...
Unambiguous identification of isomeric lipids by mass spectrometry represents a significant analytic...
Unambiguous identification of isomeric lipids by mass spectrometry represents a significant analytic...
Unambiguous identification of isomeric lipids by mass spectrometry represents a significant analytic...
Unambiguous identification of isomeric lipids by mass spectrometry represents a significant analytic...
Glycerophospholipids with two, non-equivalent fatty acyl chains can adopt one of two isomeric forms ...
The inability of current mass spectrometry techniques to differentiate phospholipid isomers results ...
The inability of current mass spectrometry techniques to differentiate phospholipid isomers results ...
Glycerophospholipids with two, non-equivalent fatty acyl chains can adopt one of two isomeric forms ...
The differentiation of closely related lipid isomers is increasingly important to our evolving under...
The complete structural elucidation of complex lipids, including glycerophospholipids, using only ma...
The complete structural elucidation of complex lipids, including glycerophospholipids, using only ma...
The complete structural elucidation of complex lipids, including glycerophospholipids, using only ma...
Revealing the inherent molecular diversity of lipid biology requires advanced analytical technologie...
Glycerophospholipids with two, non-equivalent fatty acyl chains can adopt one of two isomeric forms ...
Unambiguous identification of isomeric lipids by mass spectrometry represents a significant analytic...
Unambiguous identification of isomeric lipids by mass spectrometry represents a significant analytic...
Unambiguous identification of isomeric lipids by mass spectrometry represents a significant analytic...
Unambiguous identification of isomeric lipids by mass spectrometry represents a significant analytic...
Unambiguous identification of isomeric lipids by mass spectrometry represents a significant analytic...
Glycerophospholipids with two, non-equivalent fatty acyl chains can adopt one of two isomeric forms ...
The inability of current mass spectrometry techniques to differentiate phospholipid isomers results ...
The inability of current mass spectrometry techniques to differentiate phospholipid isomers results ...
Glycerophospholipids with two, non-equivalent fatty acyl chains can adopt one of two isomeric forms ...