Macromolecular Rapid Communications,
Journal Year:
2023,
Volume and Issue:
45(4)
Published: Nov. 13, 2023
Abstract
Fibrous
strain
sensing
materials
with
both
high
sensitivity
and
linearity
are
of
significant
importance
for
wearable
sensors,
yet
they
still
face
great
challenges.
Herein,
a
photo‐spun
reaction
encapsulation
strategy
is
proposed
the
continuous
fabrication
fibrous
sensor
(AMGF)
core‐sheath
structure.
Metallogels
(MOGs)
formed
by
bacterial
cellulose
(BC)
nanofibers
Ag
nanoparticles
(AgNPs),
thermoplastic
elastomers
(TPE)
employed
as
core
sheath,
respectively.
The
in
situ
ultraviolet
light
reduction
+
ensured
AgNPs
to
maintain
interconnections
between
BC
form
electron
conductive
networks
(0.31
S
m
−1
).
Under
applied
strain,
experience
separation,
bringing
AMGF
(gauge
factor
4.36).
concentration
free
ions
MOGs
uniformly
varies
deformation,
endowing
goodness‐of‐fit
0.98.
sheath
TPE
provided
stable
working
life
(>10
000
s).
Furthermore,
sensors
demonstrated
monitor
complex
deformations
dummy
joints
real‐time
sensor.
Therefore,
hybrid
network
fibers
fabricated
via
provide
new
route
addressing
challenge
achieving
linearity.
ChemNanoMat,
Journal Year:
2023,
Volume and Issue:
9(9)
Published: July 5, 2023
Abstract
Nanotechnology
embodies
a
groundbreaking
innovation
for
the
textile
and
apparel
industry,
facilitating
enhancements
to
functionality
performance
of
textiles,
including
durability,
resistance
water,
odor,
flame,
stain,
UV‐protection,
antimicrobial
properties.
also
enables
biosensing,
drug
delivery,
energy
generation,
storage
in
textiles.
Here,
we
present
comprehensive
overview
possibilities
offered
by
nanotechnology
context
high‐performance
textiles
providing
roadmap
future
research
development
this
exciting
field.
We
scrutinize
current
on
exploring
various
types
nanomaterials
their
properties,
methods
incorporating
into
numerous
applications
across
critical
industries
such
as
healthcare,
military,
sports,
fashion,
wearable
electronics.
conclude
review
with
an
analysis
potential
health
environmental
concerns
arising
from
use
emphasizing
importance
further
these
areas.
Advanced Science,
Journal Year:
2024,
Volume and Issue:
11(38)
Published: Aug. 9, 2024
This
review
examines
the
recent
advancements
in
transparent
electrodes
and
their
crucial
role
multimodal
sensing
technologies.
Transparent
electrodes,
notable
for
optical
transparency
electrical
conductivity,
are
revolutionizing
sensors
by
enabling
simultaneous
detection
of
diverse
physical,
chemical,
biological
signals.
Materials
like
graphene,
carbon
nanotubes,
conductive
polymers,
which
offer
a
balance
between
transparency,
mechanical
flexibility,
at
forefront
this
development.
These
integral
various
applications,
from
healthcare
to
solar
cell
technologies,
enhancing
sensor
performance
complex
environments.
The
paper
addresses
challenges
applying
these
such
as
need
high
optoelectronic
performance,
biocompatibility.
It
explores
new
materials
innovative
techniques
overcome
hurdles,
aiming
broaden
capabilities
devices.
provides
comparative
analysis
different
electrode
materials,
discussing
applications
ongoing
development
novel
systems
sensing.
exploration
offers
insights
into
future
highlighting
transformative
potential
bioelectronics
Advanced Materials Technologies,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 10, 2025
Abstract
Sustainable
electronic
devices
offer
the
virtue
of
energy
efficiency.
However,
their
fabrication
is
often
reliant
on
environmentally
deleterious
methods
and
materials
that
overshadow
environmental
benefits
provide.
Toward
improving
overall
footprint
devices,
stretchable
conductive
substrates
for
enabling
wearable
electronics
are
fabricated
predominately
from
both
sustainable
biodegradable
(chitosan
sorbitol)
along
with
an
benign
solvent:
water.
Indeed,
>95
wt.%
bendable
sensor
consists
materials.
By
blending
a
collectively
self‐doped
water‐soluble
homopolymer
during
processing,
films
transverse
resistance
as
low
0.08
MΩ
obtained.
Both
conductivity
mechanical
properties
including
elongation
at
break
Young's
modulus
contingent
chitosan
molecular
weight.
The
prepared
high
weight
upward
200%,
optical
transmission
60%
above
500
nm,
minimal
hysteresis
stretching.
compliance
ideal
wearing
electronics.
This
demonstrated
by
use
strain
sensors
tracking
human
movement
phonation
detection.
Advanced Electronic Materials,
Journal Year:
2023,
Volume and Issue:
9(10)
Published: July 26, 2023
Abstract
Since
the
discovery
of
conducting
polyacetylene
in
1970s,
intrinsically
polymers
(ICPs)
have
attracted
great
attention
because
their
interesting
structure,
properties,
and
applications.
Notably
different
from
conventional
conductors
such
as
metals
doped
semiconductors,
ICPs
high
mechanical
flexibility
are
light
weight.
In
addition,
properties
can
be
easily
tuned
by
controlling
doping
level,
modifying
chemical
or
forming
composites
with
organic
inorganic
materials.
Their
application
bioelectronics
is
particularly
they
good
biocompatibility
matching
biological
tissues.
this
article,
methods
to
increase
stretchability
first
reviewed
often
required
for
bioelectronic
applications
while
pristine
generally
limited
stretchability.
The
stretchable
electrodes
epidermal
biopotential
detection
neural
interfaces
discussed.
Then,
employment
sensing
material
sensors
reviewed.
They
also
important
controllable
drug
delivery.
Last,
wearable
energy
harvesting
storage
devices
including
thermoelectric
generators
supercapacitors
covered.
Materials Chemistry and Physics,
Journal Year:
2024,
Volume and Issue:
314, P. 128888 - 128888
Published: Jan. 4, 2024
The
production
of
electrical
and
electronic
equipment
is
increasing
worldwide
with
a
dramatic
increase
waste.
Sustainable
materials
to
produce
sensors
may
thus
positively
impact
on
the
environment.
Casein
milk
protein
that
was
used
fabricate
non-cytotoxic
biodegradable
capacitive
sensor
by
green
chemical
process
adding
glycerol
trehalose.
casein-based
film
characterized
means
thermal
(TGA
EGA-MS)
spectroscopic
(FTIR-ATR
Dielectric
Spectroscopy)
techniques.
Contact
angle,
water
vapour
transmission
rate,
cytotoxicity
biodegradability
were
also
assessed.
A
PEDOT:PSS/reduced
graphene
oxide
ink
produced
screen-printed
onto
surface
obtain
electrically
conductive
electrodes.
dielectric
properties
allowed
for
fabrication
proved
sensitive
pH
changes.
Toxics,
Journal Year:
2024,
Volume and Issue:
12(2), P. 150 - 150
Published: Feb. 15, 2024
Poly(3,4-ethylenedioxythiophene):poly(styrenesulfonate)
(PEDOT:PSS)
is
a
conductive
polymer
commonly
used
in
various
technological
applications.
However,
its
impact
on
aquatic
ecosystems
remains
largely
unexplored.
In
this
study,
we
investigated
the
toxicity
effects
of
PEDOT:PSS
zebrafish.
We
first
determined
lethal
concentration
(LC50)
zebrafish
and
then
exposed
AB-type
embryos
to
different
concentrations
for
120
h.
Our
investigation
elucidated
development,
including
morphological
assessments,
heart
rate
measurements,
behavioral
analysis,
transcriptome
profiling,
histopathological
analysis.
discovered
that
exhibited
detrimental
early
developmental
stages
zebrafish,
exacerbating
oxidative
stress
level,
suppressing
activity,
impairing
cardiac
causing
intestinal
cell
damage.
This
study
adds
new
dimension
findings
contribute
our
understanding
ecological
repercussions
highlight
importance
responsible
development
application
novel
materials
rapidly
evolving
landscape.
