Atomically Dispersed Cu Active Centers: Local Structure and Mechanism Modulation for Carbon Dioxide Reduction
Xupeng Qin,
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Qizheng An,
No information about this author
Jing Shang
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et al.
Advanced Functional Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 10, 2025
Abstract
Reducing
carbon
dioxide
(CO
2
)to
high‐value
products
using
green
renewable
energy
is
a
promising
approach
for
addressing
and
greenhouse
effect
issues.
Consequently,
electrocatalytic
CO
reduction
reaction
(CO
RR)
technology
has
become
current
research
hotspot.
Since
the
discovery
of
high
activity
selectivity
copper
in
RR,
atomically
dispersed
Cu
catalysts
have
garnered
widespread
attention
due
to
their
efficient
atom
utilization,
unique
electronic
structure,
outstanding
catalytic
performance.
However,
great
challenge
remains
providing
rational
catalyst
design
principles
achieve
regulation
product
distribution.
A
clear
understanding
materials
an
in‐depth
interpretation
mechanism
as
well
elucidation
strategy
progress
toward
different
are
keys
building
solving
above
problem.
Therefore,
this
review
starts
with
introduction
advanced
characterization
techniques
reveal
structure
mechanisms.
Then,
various
optimization
strategies
applications
producing
targeted
summarized
discussed.
Finally,
perspectives
on
RR
field
future
development
offered.
Language: Английский
Revealing the Invisible Dimensions of Electrochemical Carbon Capture Technologies Through in Situ/Operando Techniques
Published: Jan. 1, 2025
Electrochemical
carbon
capture
technologies
are
emerging
as
sustainable
solutions
for
mitigating
CO2
emissions,
offering
compatibility
with
renewable
energy
sources
and
operation
under
ambient
conditions.
However,
their
development
depends
on
a
detailed
understanding
of
the
intricate
mechanisms
driving
capture.
Conventional
characterization
methods,
which
often
rely
aggregate
data
or
ex
situ
techniques,
fail
to
real-time,
dynamic
behavior
these
systems.
This
perspective
highlights
importance
in
operando
techniques
uncovering
invisible
dimensions
electrochemical
Through
case
studies
spanning
molecular,
interfacial,
system-wide
scales,
we
demonstrate
how
situ/operando
methodologies
provide
critical
insights
into
reaction
mechanisms,
interfacial
dynamics,
device
performance.
The
presented
here
aim
encourage
further
adoption
deepen
our
underlying
ultimately
advancement
deployment
technologies.
Language: Английский
Revealing the Invisible Dimensions of Electrochemical Carbon Capture Technologies Through In Situ/Operando Techniques
Materials Today Energy,
Journal Year:
2025,
Volume and Issue:
unknown, P. 101870 - 101870
Published: March 1, 2025
Language: Английский
Glimpsing the Dynamics at Solid–Liquid Interfaces Using In Situ/Operando Synchrotron Radiation Techniques
Hsiang‐Chun Yu,
No information about this author
Yu‐Ru Lin,
No information about this author
Chun‐Kuo Peng
No information about this author
et al.
Advanced Energy and Sustainability Research,
Journal Year:
2025,
Volume and Issue:
unknown
Published: April 24, 2025
Electrochemical
processes
involving
electrified
solid–liquid
interfaces
are
pivotal
in
the
area
of
catalysis
reaction.
Nevertheless,
microscopic
characteristics
these
catalytic
interfaces,
particularly
structural
transformations
they
undergo
during
reactions,
have
yet
to
be
fully
understood—posing
considerable
implications
for
practical
applications.
Exploring
interface
between
catalysts
and
electrolytes
can
provide
valuable
insights
into
development
a
concise
electrocatalytic
mechanism.
Advanced
synchrotron
X‐ray
methodologies
demonstrated
their
efficacy
analyzing
electronic
electrocatalysts.
Combined
with
situ/operando
techniques,
approaches
successfully
illuminate
dynamic
unveil
genuine
active
sites.
In
this
review,
comprehensive
overview
latest
advancements
key
such
as
scattering
spectroscopy,
highlighting
current
limitations
challenges,
is
provided.
Building
on
core
principles
robust
characterization
capabilities
explored
revealing
understanding
mechanisms.
Finally,
address
complexity
processes,
“in
mechanism
probing
map”
specifically
designed
liquid–solid
offering
clear
guide
systematically
uncover
fundamental
nature
mechanisms,
proposed
Language: Английский