Journal of Materials Chemistry A,
Journal Year:
2020,
Volume and Issue:
8(30), P. 14844 - 14862
Published: Jan. 1, 2020
Critical
assessment
of
the
present
status
HEA
NPs
as
catalysts,
including
an
in-depth
discussion
computational
studies,
combinatorial
screening,
or
machine-learning
studies
to
find
optimum
composition
and
structure
electrocatalysts.
Chemical Reviews,
Journal Year:
2022,
Volume and Issue:
122(16), P. 13478 - 13515
Published: July 21, 2022
Electrocatalysts
and
photocatalysts
are
key
to
a
sustainable
future,
generating
clean
fuels,
reducing
the
impact
of
global
warming,
providing
solutions
environmental
pollution.
Improved
processes
for
catalyst
design
better
understanding
electro/photocatalytic
essential
improving
effectiveness.
Recent
advances
in
data
science
artificial
intelligence
have
great
potential
accelerate
electrocatalysis
photocatalysis
research,
particularly
rapid
exploration
large
materials
chemistry
spaces
through
machine
learning.
Here
comprehensive
introduction
to,
critical
review
of,
learning
techniques
used
research
provided.
Sources
electro/photocatalyst
current
approaches
representing
these
by
mathematical
features
described,
most
commonly
methods
summarized,
quality
utility
models
evaluated.
Illustrations
how
applied
novel
discovery
elucidate
electrocatalytic
or
photocatalytic
reaction
mechanisms
The
offers
guide
scientists
on
selection
research.
application
catalysis
represents
paradigm
shift
way
advanced,
next-generation
catalysts
will
be
designed
synthesized.
Angewandte Chemie International Edition,
Journal Year:
2021,
Volume and Issue:
60(52), P. 26894 - 26903
Published: Aug. 26, 2021
Abstract
The
formation
of
a
vast
number
different
multielement
active
sites
in
compositionally
complex
solid
solution
materials,
often
more
generally
termed
high‐entropy
alloys,
offers
new
and
unique
concepts
catalyst
design,
which
mitigate
existing
limitations
change
the
view
on
structure–activity
relations.
We
discuss
these
by
summarising
currently
fundamental
knowledge
critically
assess
chances
this
material
class,
also
highlighting
design
strategies.
A
roadmap
is
proposed,
illustrating
characteristic
could
be
exploited
using
strategy,
breakthroughs
might
possible
to
guide
future
research
highly
promising
class
for
(electro)catalysis.
Nature Communications,
Journal Year:
2021,
Volume and Issue:
12(1)
Published: June 23, 2021
Abstract
High-entropy
alloys
(HEAs)
have
been
intensively
pursued
as
potentially
advanced
materials
because
of
their
exceptional
properties.
However,
the
facile
fabrication
nanometer-sized
HEAs
over
conventional
catalyst
supports
remains
challenging,
and
design
rational
synthetic
protocols
would
permit
development
innovative
catalysts
with
a
wide
range
potential
compositions.
Herein,
we
demonstrate
that
titanium
dioxide
(TiO
2
)
is
promising
platform
for
low-temperature
synthesis
supported
CoNiCuRuPd
HEA
nanoparticles
(NPs)
at
400
°C.
This
process
driven
by
pronounced
hydrogen
spillover
effect
on
TiO
in
conjunction
coupled
proton/electron
transfer.
The
NPs
produced
this
work
were
found
to
be
both
active
extremely
durable
during
CO
hydrogenation
reaction.
Characterization
means
various
situ
techniques
theoretical
calculations
elucidated
cocktail
sluggish
diffusion
originating
from
synergistic
obtained
combination
elements.
Angewandte Chemie International Edition,
Journal Year:
2020,
Volume and Issue:
59(36), P. 15298 - 15312
Published: July 1, 2020
Abstract
The
use
of
renewable
energy
by
means
electrochemical
techniques
converting
H
2
O,
CO
and
N
into
chemical
sources
raw
materials,
is
the
basis
for
securing
a
future
sustainable
“green”
supply.
Some
weaknesses
inconsistencies
in
practice
determining
electrocatalytic
performance,
which
prevents
rational
bottom‐up
catalyst
design,
are
discussed.
Large
discrepancies
material
properties
as
well
activity
stability
become
obvious
when
materials
tested
under
conditions
their
intended
opposed
to
usual
laboratory
conditions.
They
advocate
uniform
activity/stability
correlations
application‐relevant
conditions,
need
clear
representation
performance
contextualization
terms
functional
investigation
or
progress
towards
application
emphasized.
iScience,
Journal Year:
2021,
Volume and Issue:
24(3), P. 102177 - 102177
Published: Feb. 16, 2021
High-entropy
materials
(HEMs),
including
high-entropy
alloys
(HEAs),
oxides
(HEOs),
and
other
compounds,
have
gained
significant
interests
over
the
past
years.
These
unique
structures
with
coexistence
of
antisite
disordering
crystal
periodicity,
which
were
originally
investigated
as
structural
materials.
Recently,
they
emerged
for
energy-related
applications,
such
catalysis,
energy
storage,
etc.
In
this
work,
we
review
research
progress
applications
HEMs.
After
an
introduction
on
background,
theory,
syntheses
HEMs,
survey
their
electrocatalysis,
batteries,
others,
aiming
to
retrieve
correlations
between
performances.
end,
discussed
challenges
future
directions
developing
Chemical Reviews,
Journal Year:
2022,
Volume and Issue:
123(9), P. 5859 - 5947
Published: Sept. 28, 2022
Alloying
has
long
been
used
as
a
promising
methodology
to
improve
the
catalytic
performance
of
metallic
materials.
In
recent
years,
field
alloy
catalysis
made
remarkable
progress
with
emergence
variety
novel
materials
and
their
functions.
Therefore,
comprehensive
disciplinary
framework
for
chemistry
alloys
that
provides
cross-sectional
understanding
broad
research
is
in
high
demand.
this
review,
we
provide
classification
various
based
on
metallurgy,
thermodynamics,
inorganic
summarize
roles
alloying
its
principles
brief
introduction
historical
background
field.
Furthermore,
explain
how
each
type
can
be
catalyst
material
design
functional
target
reaction
by
introducing
representative
case
studies.
This
review
includes
two
approaches,
namely,
from
reactions,
better
alloys.
Our
offers
perspective
encyclopedically
according
readers'
individual
interests.
Small,
Journal Year:
2021,
Volume and Issue:
18(7)
Published: Nov. 5, 2021
Abstract
High‐entropy
alloys
(HEAs)
are
expected
to
function
well
as
electrocatalytic
materials,
owing
their
widely
adjustable
composition
and
unique
physical
chemical
properties.
Recently,
HEA
catalysts
extensively
studied
in
the
field
of
electrocatalysis;
this
motivated
authors
investigate
relationship
between
structure
HEAs
performance.
In
review,
latest
advances
electrocatalysts
systematically
summarized,
with
special
focus
on
nitrogen
fixation,
carbon
cycle,
water
splitting,
fuel
cells;
addition,
by
combining
characterization
analysis
microstructures,
rational
design
strategies
for
optimizing
electrocatalysts,
including
controllable
preparation,
component
regulation,
strain
engineering,
defect
theoretical
prediction
proposed.
Moreover,
existing
issues
future
trends
predicted,
which
will
help
further
develop
these
high‐entropy
materials.