Modulating the Electronic Properties of Single Ni Atom Catalyst via First‐Shell Coordination Engineering to Boost Electrocatalytic Flue Gas CO2 Reduction
Advanced Functional Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 10, 2025
Abstract
Electrochemical
converting
CO
2
to
via
single
atom
catalyst
is
an
effective
strategy
for
reducing
concentration
in
the
atmosphere
and
achieving
a
carbon‐neutral
cycle.
However,
relatively
low
industrial
processes
large
energy
barriers
activating
severely
obstruct
actual
application.
Reasonably
modulating
coordination
shell
of
active
center
enhance
activity
catalysts.
Herein,
well‐designed
single‐atom
electrocatalyst
Ni‐N
3
S
1
developed
large‐scale
synthesis
strategy.
The
constructed
S‐C
exhibits
superior
catalytic
than
4
‐C
conversion
H‐type
cells,
industrial‐level
current
density
with
excellent
durability
at
wide
pH
range
can
be
achieved
gas‐diffusion
flow
cells.
Experimental
results
functional
theory
(DFT)
calculation
demonstrate
that
introducing
electronegative
significantly
regulate
electronic
structure
site,
promoting
adsorption
capacity
decreasing
barrier
*COOH
formation,
thus
larger
size
flexibility
sulfur
mitigate
nickel
agglomeration
stability
catalyst.
This
work
provides
designing
highly
catalysts
electrocatalysis
reactive
sites.
Language: Английский
Strong electronic metal-support interactions for enhanced hydroformylation activity and stability over Rh single-atom catalysts through phosphorus doping
Bo Fu,
No information about this author
Ping Ma,
No information about this author
Xiaoqi Ding
No information about this author
et al.
JUSTC,
Journal Year:
2025,
Volume and Issue:
55, P. 1 - 1
Published: Jan. 1, 2025
Language: Английский
A Tandem Catalysis for Isoindolinone Synthesis over Single‐atom Pd/TiO2 Catalyst
Jin Xie,
No information about this author
Jianian Cheng,
No information about this author
Junbao Peng
No information about this author
et al.
Angewandte Chemie International Edition,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Sept. 12, 2024
Abstract
Developing
an
efficient
strategy
to
replace
the
conventional
synthesis
method
for
producing
isoindolinone
(IIO)
scaffold,
a
crucial
structural
motif
constructing
pharmaceutical
molecules,
remains
be
great
challenge.
Herein,
single‐atom
Pd/TiO
2
tandem
catalysis
has
been
developed
IIO
scaffold
by
using
readily
available
phthalic
anhydride
(PA),
ammonia,
and
H
.
The
catalyst
demonstrates
superior
catalytic
performance,
achieving
PA
conversion
of
99
%,
selectivity
91
turnover
frequency
(TOF)
up
4807
h
−1
This
exceptional
performance
can
attributed
between
TiO
support
Pd.
efficiently
catalyzes
with
ammonia
form
phthalimide
(PAM),
subsequently
transformed
into
over
through
reaction
PAM
NH
3
spillover
hydrogen
species
derived
from
Notably,
functions
not
only
as
reactant
but
also
promoter
accelerate
reduction
amides
combined
catalyst.
provides
promising
platform
molecules.
Language: Английский
A Tandem Catalysis for Isoindolinone Synthesis over Single‐atom Pd/TiO2 Catalyst
Jin Xie,
No information about this author
Jianian Cheng,
No information about this author
Junbao Peng
No information about this author
et al.
Angewandte Chemie,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Sept. 12, 2024
Abstract
Developing
an
efficient
strategy
to
replace
the
conventional
synthesis
method
for
producing
isoindolinone
(IIO)
scaffold,
a
crucial
structural
motif
constructing
pharmaceutical
molecules,
remains
be
great
challenge.
Herein,
single‐atom
Pd/TiO
2
tandem
catalysis
has
been
developed
IIO
scaffold
by
using
readily
available
phthalic
anhydride
(PA),
ammonia,
and
H
.
The
catalyst
demonstrates
superior
catalytic
performance,
achieving
PA
conversion
of
99
%,
selectivity
91
turnover
frequency
(TOF)
up
4807
h
−1
This
exceptional
performance
can
attributed
between
TiO
support
Pd.
efficiently
catalyzes
with
ammonia
form
phthalimide
(PAM),
subsequently
transformed
into
over
through
reaction
PAM
NH
3
spillover
hydrogen
species
derived
from
Notably,
functions
not
only
as
reactant
but
also
promoter
accelerate
reduction
amides
combined
catalyst.
provides
promising
platform
molecules.
Language: Английский