Description
The file is restricted for YU community access only.
The file is restricted for YU community access only.
Abstract
Fluorinated compounds have an extensive role in modern chemical applications. An
estimated 20% of all pharmaceuticals and 30% of synthetic agrochemicals contain at least one
fluorine atom. Furthermore, radioactive 18F-labeled molecules are increasingly utilized for
diagnostic purposes as contrast agents in PET scans. Despite the wide use of fluorinated
compounds, few synthetic approaches are known that can incorporate fluorine atoms into
aromatic rings, especially when other functional groups are present. This is a limiting factor to
the development of novel PET tracers that could theoretically enhance the detection of
physiological disorders, and of other industry-relevant compounds. Many current fluorination
techniques require harsh reaction conditions, long reaction times, or stoichiometric amounts of
rare reactants. These syntheses are generally expensive and harmful to the environment.