Catalytic Reductive Homocoupling of Benzyl Chlorides Enabled by Zirconocene and Photoredox Catalysis
Ryota Tajima,
No information about this author
Keisuke Tanaka,
No information about this author
Kazuhiro Aida
No information about this author
et al.
Published: June 6, 2024
The
bibenzyl
skeleton
is
prevalent
in
numerous
natural
products
and
other
biologically
active
compounds.
Radical
homocoupling
provides
a
straightforward
approach
for
synthesizing
bibenzyls
single
step,
with
the
reductive
of
benzyl
halides
undergoing
extensive
development.
Unlike
bromides
tailored
pre-cursors
used
visible
light-mediated
homocoupling,
chlorides
offer
greater
abundance
chemical
stabil-ity.
Nevertheless,
achieving
chemoselective
cleavage
C–Cl
bond
poses
significant
challenges,
only
limited
number
studies
reported
to
date.
Herein,
we
demonstrate
catalytic
facilitated
by
zirconocene
photoredox
catalysis.
This
cooperative
system
promotes
under
mild
conditions
supports
wide
range
chlorides,
includ-ing
those
derived
from
pharmaceutical
agents.
Our
preliminary
mechanistic
investigations
highlight
pivotal
role
hydrosilane
cycle.
Language: Английский
Catalytic Reductive Homocoupling of Benzyl Chlorides Enabled by Zirconocene and Photoredox Catalysis
Ryota Tajima,
No information about this author
Keisuke Tanaka,
No information about this author
Kazuhiro Aida
No information about this author
et al.
Precision Chemistry,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Nov. 7, 2024
The
bibenzyl
skeleton
is
prevalent
in
numerous
natural
products
and
other
biologically
active
compounds.
Radical
homocoupling
provides
a
straightforward
approach
for
synthesizing
bibenzyls
single
step
with
the
reductive
of
benzyl
halides
undergoing
extensive
development.
Unlike
bromides
tailored
precursors
used
visible-light-mediated
homocoupling,
chlorides
offer
greater
abundance
chemical
stability.
Nevertheless,
achieving
chemoselective
cleavage
C-Cl
bond
poses
significant
challenges,
only
limited
number
studies
reported
to
date.
Herein,
we
demonstrate
catalytic
facilitated
by
zirconocene
photoredox
catalysis.
This
cooperative
system
promotes
under
mild
conditions
supports
wide
range
chlorides,
including
those
derived
from
pharmaceutical
agents.
Our
preliminary
mechanistic
investigations
highlight
pivotal
role
hydrosilane
cycle.
Language: Английский