2 research outputs found
Curculio incanus
Four isomers are currently known for the trioxygenated
fullerene
derivative C<sub>60</sub>(O)<sub>3</sub>, three regioisomers with
all of the oxygen addends as epoxy groups and the unstable ozonide
isomer with a 1,2,3-trioxlane ring. Here we report the synthesis of
an open-cage isomer for C<sub>60</sub>(O)<sub>3</sub> with a ketolactone
moiety embedded into the fullerene skeleton through a three-step procedure
mediated by fullerene peroxide chemistry. Two fullerene skeleton carbon–carbon
bonds are cleaved in the process. The open-cage derivative C<sub>60</sub>(O)<sub>3</sub> can be converted back to C<sub>60</sub> through deoxygenation
with PPh<sub>3</sub>. Single crystal X-ray structure confirmed the
open-cage structure
Synthesis of C<sub>60</sub>(O)<sub>3</sub>: An Open-Cage Fullerene with a Ketolactone Moiety on the Orifice
Four isomers are currently known for the trioxygenated
fullerene
derivative C<sub>60</sub>(O)<sub>3</sub>, three regioisomers with
all of the oxygen addends as epoxy groups and the unstable ozonide
isomer with a 1,2,3-trioxlane ring. Here we report the synthesis of
an open-cage isomer for C<sub>60</sub>(O)<sub>3</sub> with a ketolactone
moiety embedded into the fullerene skeleton through a three-step procedure
mediated by fullerene peroxide chemistry. Two fullerene skeleton carbon–carbon
bonds are cleaved in the process. The open-cage derivative C<sub>60</sub>(O)<sub>3</sub> can be converted back to C<sub>60</sub> through deoxygenation
with PPh<sub>3</sub>. Single crystal X-ray structure confirmed the
open-cage structure