European Polymer Journal,
Год журнала:
2024,
Номер
214, С. 113180 - 113180
Опубликована: Май 31, 2024
MXene
is
a
novel
2D
nanomaterial
with
excellent
mechanical
properties,
thermal
and
electrical
conductivities,
flame
retardancy,
electromagnetic
interference
shielding,
etc.
Owing
to
these
inherent
extensively
used
as
reinforcing
functional
material
in
elastomer
nanocomposites
while
identifying
its
capabilities
potential
applications.
Due
the
above
reasons,
systematic
rationally
well-detailed
up-to-date
review
focused
on
an
overall
understanding
of
MXene/elastomer
needed.
Hence,
critical
provided
herein,
reporting
status
research
nanocomposites,
knowledge
gaps,
future
potential.
A
bibliometric
analysis
shows
steady
growth
interest
nanocomposites.
Also,
metadata
reported
synthesis
processes
pre-surface
modifications
indicate
parameters
fine-tuned
functionalities
The
characterization
critically
reviewed,
focusing
photothermal
electrothermal
conversion,
resistance.
Finally,
applications
composites,
e.g.,
sensing,
energy
applications,
have
also
been
emphasizing
existing
technical
challenges
possible
directions
field.
Scientific Reports,
Год журнала:
2024,
Номер
14(1)
Опубликована: Май 21, 2024
Abstract
The
development
of
supporting
materials
based
on
carbon
nanotubes
(CNTs)
impregnated
with
iron
nanoparticles
via
a
sustainable
and
green
synthesis
employing
plant
extract
Punica
granatum
L.
leaves
was
carried
out
for
the
nanoparticle
modification
following
impregnation
into
composites
(CNT-Fe)
that
were
also
coated
polypyrrole
(CNT-Fe
+
PPy)
use
as
electrode
supercapacitor
triboelectric
nanogenerators.
electrochemical
characterization
by
cyclic
voltammetry
(CV)
galvanostatic
charge–discharge
(GCD)
assays
revealed
CNT-Fe
PPy
gave
rise
to
better
performance
due
association
double-layer
capacitance
behavior
derivative
in
pseudocapacitance
contribution
resulting
an
areal
value
202
mF/
cm
2
overall
composite.
In
terms
application
electrodes
nanogenerators,
best
composite
60
V
output
voltage
power
density
6
μW/cm
.
integrated
system
showed
supercapacitors
can
be
charged
directly
nanogenerator
from
0
42
mV
300
s.
successful
CNT
further
coating
provides
feasible
method
design
high-performance
SCs
TENGs
materials.
This
work
systematic
approach
moves
research
front
forward
generating
data
underpins
self-powered
electronic
devices.
Objective:
This
study
aims
to
develop
and
characterize
electroactive
hydrogels
based
on
reduced
bacterial
cellulose
(BC)
Ti3C2T
x
-MXene
for
their
potential
application
in
wound
healing
real-time
monitoring.
Impact
Statement:
The
integration
of
into
BC
matrices
represents
a
novel
approach
creating
multifunctional
that
combine
biocompatibility,
electrical
conductivity,
mechanical
durability.
These
properties
make
the
promising
candidates
advanced
care
monitoring
applications.
Introduction:
Wound
requires
materials
support
cell
growth,
promote
tissue
regeneration,
enable
MXenes,
class
2-dimensional
materials,
offer
unique
properties,
making
them
suitable
biomedical
explores
with
BC,
biopolymer
known
its
excellent
biocompatibility
strength,
create
composite
hydrogel
films
care.
Methods:
was
synthesized
by
etching
Ti3AlC2
hydrofluoric
acid
integrated
pellicles
produced
Gluconacetobacter
xylinum.
underwent
characterization
through
x-ray
diffraction
(XRD),
photoelectron
spectroscopy
(XPS),
Fourier
transform
infrared
(FTIR),
thermogravimetric
analysis
(TGA)
determine
structural,
chemical,
thermal
properties.
Mechanical
testing
assessed
tensile
compressive
strengths.
Biological
assessments,
including
viability,
hemolysis
rate,
protein
expression,
evaluated
regenerative
potential.
Results:
XRD
confirmed
crystallographic
structure
MXene
film.
XPS
FTIR
validated
successful
incorporation
film
matrix.
Composite
demonstrated
strength
3.5
MPa
4.2
MPa.
TGA
showed
stability
up
350
°C,
conductivity
reached
9.14
×
10-4
S/m,
enabling
capabilities.
Cell
viability
exceeded
95%,
rate
below
2%.
Protein
expression
studies
revealed
ability
skin
regeneration
collagen
I,
K10,
K5,
filaggrin
expression.
Conclusion:
BC/MXene
exhibit
important
as
electronic-skin
patches
accelerating
Their
combination
durability,
highlights
promise
Batteries,
Год журнала:
2024,
Номер
10(11), С. 395 - 395
Опубликована: Ноя. 7, 2024
Carbon
materials/MXenes
composite
materials
have
gained
widespread
attention
in
the
field
of
supercapacitors
due
to
their
excellent
electrochemical
performance.
are
considered
ideal
electrode
for
high
specific
surface
area,
good
conductivity,
and
outstanding
stability.
MXenes,
as
a
novel
two-dimensional
material,
exhibit
prominent
mechanical
properties,
ionic
thereby
showing
great
potential
applications
energy
storage
devices.
The
combination
carbon
MXenes
is
expected
fully
leverage
advantages
both,
optimizing
enhancing
density
power
density,
improving
charge–discharge
This
article
reviews
key
research
progress
carbon/MXenes
recent
years,
including
synthesis
methods,
structural
tuning,
improvements
Finally,
looks
forward
future
directions
proposes
strategies
enhance
overall
performance
achieve
large-scale
applications.
By
addressing
existing
challenges,
anticipated
higher
outputs
supercapacitor
future,
providing
strong
support
development
new
technologies
such
electric
vehicles
wearable