Beilstein Journal of Nanotechnology,
Год журнала:
2024,
Номер
15, С. 638 - 663
Опубликована: Июнь 5, 2024
Laser
synthesis
and
processing
of
colloids
(LSPC)
is
an
established
method
for
producing
functional
durable
nanomaterials
catalysts
in
virtually
any
liquid
choice.
While
the
redox
reactions
during
laser
water
are
fairly
well
understood,
corresponding
organic
liquids
remain
elusive,
particularly
because
much
greater
complexity
carbon
chemistry.
To
this
end,
article
first
reviews
knowledge
base
chemical
LSPC
then
deduces
identifiable
reaction
pathways
mechanisms.
This
review
also
includes
findings
that
specific
to
variants
ablation
(LAL),
fragmentation
(LFL),
melting
(LML),
reduction
(LRL)
liquids.
A
particular
focus
will
be
set
on
permanent
gases,
hydrocarbons,
solid,
carbonaceous
species
generated,
including
formation
doped,
compounded,
encapsulated
nanoparticles.
It
shown
how
choice
solvent,
method,
parameters
influence
nanostructure
as
amount
chain
length
generated
polyyne
by-products.
Finally,
theoretical
approaches
address
mechanisms
decomposition
shell
highlighted
discussed
regarding
current
challenges
future
perspectives
using
instead
water.
Light Science & Applications,
Год журнала:
2022,
Номер
11(1)
Опубликована: Авг. 10, 2022
The
global
energy
crisis
is
increasing
the
demand
for
innovative
materials
with
high
purity
and
functionality
development
of
clean
production
storage.
novel
photo-
electrocatalysts
significantly
depends
on
synthetic
techniques
that
facilitate
tailored
advanced
nanomaterials.
emerging
use
pulsed
laser
in
liquid
synthesis
has
attracted
immense
interest
as
an
effective
technology
several
advantages
over
conventional
chemical
physical
routes,
including
fine-tuning
size,
composition,
surface,
crystalline
structures,
defect
densities
associated
catalytic,
electronic,
thermal,
optical,
mechanical
properties
produced
Herein,
we
present
overview
fundamental
understanding
importance
process,
namely
various
roles
mechanisms
involved
types
nanomaterials,
such
metal
nanoparticles,
oxides,
non-oxides,
carbon-based
materials.
We
mainly
cover
advancement
electrocatalytic
nanomaterials
via
laser-assisted
technologies
detailed
mechanistic
insights
structural
optimization
along
catalytic
performances
environmental
remediation
processes.
Finally,
future
directions
challenges
are
briefly
underlined.
This
review
can
exert
practical
guidance
design
fabrication
laser-induced
fascinating
catalysis
applications.
Journal of Energy Chemistry,
Год журнала:
2021,
Номер
67, С. 101 - 137
Опубликована: Окт. 25, 2021
The
deployment
of
hydrogen
as
an
energy
carrier
is
found
to
be
a
vital
alternative
fuel
for
the
future.
It
expected
that
water
electrolysis,
powered
by
renewable
sources,
able
scale‐up
production.
However,
reaction
kinetic
oxygen
evolution
(OER)
sluggish
process,
which
predominantly
limits
efficiency
electrolysis.
This
review
recapitulates
recent
progress
and
efforts
made
in
design
development
two
selected
earth-abundant
bimetallic
electrocatalysts
(NiCo
CoFe)
alkaline
OER.
Each
bimetal
electrocatalyst
thoroughly
outlined
discussed
five
sub-sections,
including
(oxy)
hydroxides,
Layered
double
hydroxides
(LDHs)
structures,
oxides,
composites,
alloy
nanostructured
electrocatalysts,
assembled
with
heteroatoms.
Furthermore,
brief
introduction
situ/operando
characterization
techniques
advantages
monitoring
structure
provided.
Finally,
summary
outlining
challenges
conceivable
approaches
advance
OER
performance
highlighted
discussed.
Magnetochemistry,
Год журнала:
2023,
Номер
9(4), С. 110 - 110
Опубликована: Апрель 20, 2023
Catalysts
play
a
critical
role
in
producing
most
industrial
chemicals
and
are
essential
to
environmental
remediation.
Under
the
demands
of
sustainable
development,
environment
protection,
cost-related
factors,
it
has
been
suggested
that
catalysts
sufficiently
separable
conveniently
recyclable
catalysis
process.
Magnetite
(Fe3O4)
nanomaterials
provide
possible
way
achieve
this
goal,
due
their
magnetism,
chemical
stability,
low
toxicity,
economic
viability,
etc.
Therefore,
Fe3O4-based
materials
emerging
as
an
important
solid
support
load
heterogeneous
immobilize
homogeneous
catalysts.
Moreover,
addition
magnetic
character
will
not
only
make
recovery
much
easier
but
also
possibly
endow
with
desirable
properties,
such
magnetothermal
conversion,
Lewis
acid,
mimetic
enzyme
activity,
Fenton
activity.
The
following
review
comprises
short
survey
recent
reports
catalytic
applications
materials.
It
contains
seven
sections,
introduction
into
theme,
remediation,
electrocatalysis,
organic
synthesis,
synthesis
biodiesel,
cancer
treatment,
conclusions
about
reported
research
perspectives
for
future
developments.
Elucidation
functions
mechanisms
Fe3O4
nanoparticles
(NPs)
these
may
benefit
acquisition
robust
affordable
protocols,
leading
good
activity
enhanced
recoverability.
Physical Chemistry Chemical Physics,
Год журнала:
2023,
Номер
25(29), С. 19380 - 19408
Опубликована: Янв. 1, 2023
This
article
explores
upscaling
productivity
of
laser-generated
nanoparticles
in
liquid
and
its
automatization
for
industrial
applications,
considering
laser
chamber
design,
scanner
technology,
target
properties.
Crystals,
Год журнала:
2023,
Номер
13(2), С. 253 - 253
Опубликована: Фев. 1, 2023
Pulsed
laser
ablation
in
liquid
(PLAL)
is
a
physical
and
top-down
approach
used
to
fabricate
nanoparticles
(NPs).
Herein,
the
research
methods
current
trends
PLAL
literature
are
reviewed,
including
recent
uses
of
for
fabricating
bimetallic
(BNPs)
composites.
BNPs
have
gained
attention
owing
their
advanced
physicochemical
properties
over
monometallic
NPs.
involves
irradiation
solid
target
(usually
rod,
plate,
or
thin
film)
under
medium.
The
collects
ejected
NPs
resulting
from
processing,
which
produces
colloid
that
can
be
various
applications,
plasmon
sensing,
energy
harvesting,
drug
delivery.
most
fabrication
techniques,
use
microorganisms,
do
not
precise
NP
size
control
require
separation
microorganisms
produced
quicker
at
producing
than
bottom-up
methods.
drawbacks
include
need
find
required
processing
parameters,
requires
extensive
experimentation,
complex
non-linear
relationships
between
inputs
outputs
(e.g.,
size).
ACS Catalysis,
Год журнала:
2024,
Номер
14(5), С. 3320 - 3335
Опубликована: Фев. 16, 2024
Nowadays,
the
assembling
of
hybrid
water
electrolysis
using
a
hydrazine
oxidation
reaction
(HzOR)
instead
slow
anodic
oxygen
evolution
(OER)
has
been
established
as
favorable
technology
for
efficient
hydrogen
(H2)
production.
Nevertheless,
it
is
still
critical
to
develop
highly
effective
bifunctional
electrocatalysts
both
(HER)
and
HzOR.
In
this
work,
we
propose
facile
approach
design
synthesis
single-Pd-nanoparticles-decorated
bimetallic
NiCo2O4
nanoplates
electrocatalyst
HER
Initially,
are
synthesized
by
combination
hydrothermal
high-temperature
calcination.
Subsequently,
single-Pd
nanoparticles
with
varying
proportions
decorated
on
via
pulsed
laser
irradiation
(PLI),
leading
formation
Pd/NiCo2O4
composites.
The
optimized
composite
shows
remarkable
electrocatalytic
ability
low
overpotential
294
mV
an
ultrasmall
working
potential
−6
(vs
RHE)
HzOR
at
10
mA
cm–2
in
1
M
KOH
electrolyte.
Thus,
overall
splitting
(OHzS)
electrolyzer
Pd/NiCo2O4∥Pd/NiCo2O4
system
presents
current
densities
100
respective
cell
voltages
0.35
0.94
V.
Notably,
situ/operando
Raman
spectroscopy
confirms
surface
α-Co(OH)2
during
γ-NiOOH
Furthermore,
density
function
theory
(DFT)
calculations
demonstrate
that
decoration
Pd
onto
facilitates
optimization
adsorption
free
energy
(ΔGH*)
enhancement
dehydrogenation
kinetics.
This
work
introduces
strategy
fabricating
electrocatalysts,
potentially
useful
energy-saving
H2
Advanced Functional Materials,
Год журнала:
2024,
Номер
34(40)
Опубликована: Июль 26, 2024
Abstract
The
use
of
photons
to
directly
or
indirectly
drive
chemical
reactions
has
revolutionized
the
field
nanomaterial
synthesis
resulting
in
appearance
new
sustainable
laser
chemistry
methods
for
manufacturing
micro‐
and
nanostructures.
incident
radiation
triggers
a
complex
interplay
between
physical
processes
at
interface
solid
surface
liquid
gas
environment.
In
such
multi‐parameter
system,
precise
control
over
nanostructures
is
not
possible
without
deep
understanding
both
environment‐affected
processes.
present
review
intends
provide
detailed
systematization
these
surveying
well‐established
emerging
technologies
production
advanced
nanomaterials.
Both
gases
liquids
are
considered
as
potential
reacting
environments
affecting
fabrication
process,
while
subtractive
additive
analyzed.
Finally,
prospects
applications
discussed.