Paired Electro‐Synthesis of Remote Amino Alcohols with/in H2O
Zhixiong Ruan,
No information about this author
Xinyue Fang,
No information about this author
Xinwei Hu
No information about this author
et al.
Angewandte Chemie International Edition,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Nov. 13, 2024
Abstract
Amino
alcohols,
particularly
remote
amino
alcohols
and
peptide
are
valuable
due
to
their
functional
diversity
in
biologically
active
compounds.
However,
traditional
synthesis
methods
face
significant
challenges,
making
electrochemistry
an
attractive
alternative.
We
have
developed
a
mild
biocompatible
sequential
paired
electrolysis
strategy,
leveraging
copper‐electrocatalysis
synthesize
diverse
including
unnatural
alcohols.
Both
experimental
results
density
theory
(DFT)
calculations
demonstrated
that
water
serves
as
both
the
hydroxyl
source
solvent,
facilitating
generation
of
CuH
with
Cu(I)
at
cathode,
which
turn
reduces
aldehyde
intermediates
formed
during
reaction.
Language: Английский
Manganese/Enzyme Sequential Catalytic Pathway for the Production of Optically Active γ-Functionalized Alcohols
The Journal of Organic Chemistry,
Journal Year:
2024,
Volume and Issue:
89(12), P. 9103 - 9109
Published: June 6, 2024
A
brief,
practical
catalytic
process
for
the
production
of
optically
active
γ-functionalized
alcohols
from
relevant
alkenes
has
been
developed
by
using
a
robust
Mn(III)/air/(Me2SiH)2O
system
combined
with
lipase-catalyzed
kinetic
resolution.
This
approach
demonstrates
exceptional
tolerance
toward
proximal
functional
groups
present
on
alkenes,
enabling
achievement
high
yields
and
exclusive
enantioselectivity.
Under
this
sequential
system,
chiral
alkene
precursors
can
also
be
converted
into
related
acetates
as
separable
single
enantiomers.
Language: Английский
Direct site-selective C(sp<sup>3</sup>)–H functionalization of unprotected non-activated alcohols
Russian Chemical Reviews,
Journal Year:
2024,
Volume and Issue:
93(6), P. RCR5123 - RCR5123
Published: June 1, 2024
Free
alcohols
are
ubiquitous
in
nature,
drugs,
bulk
chemicals,
and
various
complex
molecules.
The
abundantly
available
free
aliphatic
alcohols,
being
inexpensive,
sustainable
starting
materials
organic
synthesis
to
construct
value-added
scaffolds.
Direct
C(sp<sup>3</sup>)–H
functionalization
of
inert
bonds
alcoholic
chain
is
challenging
due
their
inactive
nature
towards
chemical
reactions
also
multiple
similar
C–H
for
reaction
at
a
time.
Barton
process,
which
classical
method
generating
alkoxyl
radicals,
has
been
widely
used
the
remote
using
strategy
1,5-hydrogen
atom
transfer
(1,5-HAT).
However,
requirement
pre-activation
not
only
adds
extra
tedious
steps
but
also,
these
precursors
prepare
handle.
Generating
desired
radicals
from
difficult
task
affects
economy
reactions.
Numerous
methods
covering
unprotected
non-activated
diverse
(α-,
β-,
γ-,
δ-)
positions
access
functionalized
elaborated
here.
A
precise
focused
compilation
will
help
understand
what
established
how
new
methodologies
can
be
developed
future
needs.
<br>
bibliography
includes
158
references.
Language: Английский
Paired Electro‐Synthesis of Remote Amino Alcohols with/in H2O
Zhixiong Ruan,
No information about this author
Xinyue Fang,
No information about this author
Xinwei Hu
No information about this author
et al.
Angewandte Chemie,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Nov. 13, 2024
Abstract
Amino
alcohols,
particularly
remote
amino
alcohols
and
peptide
are
valuable
due
to
their
functional
diversity
in
biologically
active
compounds.
However,
traditional
synthesis
methods
face
significant
challenges,
making
electrochemistry
an
attractive
alternative.
We
have
developed
a
mild
biocompatible
sequential
paired
electrolysis
strategy,
leveraging
copper‐electrocatalysis
synthesize
diverse
including
unnatural
alcohols.
Both
experimental
results
density
theory
(DFT)
calculations
demonstrated
that
water
serves
as
both
the
hydroxyl
source
solvent,
facilitating
generation
of
CuH
with
Cu(I)
at
cathode,
which
turn
reduces
aldehyde
intermediates
formed
during
reaction.
Language: Английский