Wearable
electronic
textiles,
also
known
as
e-textiles,
have
surfaced
a
promising
means
of
seamless
and
unobstructed
incorporation
health
monitoring
gadgets
into
our
daily
routines.
Yet,
creating
high-performance
flexible
energy
storage
solutions
still
presents
notable
hurdle
in
advancing
these
technologies.
Nevertheless,
efficient,
adaptable,
expandable
continues
to
pose
noteworthy
obstacle
powering
devices.
This
study
demonstrates
facile
strategy
design
fabricate
MOF-based
smart
wearable
e-textiles
for
all-solid-state
textile
supercapacitors.
We
report
the
fabrication
highly
washable
by
exploiting
screen
printing,
pad-dry
coating
inkjet
print
technology
utilising
standalone
MOF.
The
fabricated
were
used
electrodes
an
supercapacitor.
high
areal
capacitance
~221.51
mF
cm-2,
~359.4
cm-2
~353.5
achieved
at
scan
rate
1
mVs-1
print,
printing
respectively.
With
densities
~123.06
µWh
cm−2
(screen
print),
~199.66
(coating)
~196.39
(inkjet
print)
very
high-power
~55
377.5
µW
291.54
~54
385.38
supercapacitors
showed
outstanding
retention
(⁓97.4-97.9%)
after
000
cycles.
Our
findings
successfully
demonstrate
potential
textiles
electronics
applications,
especially
opening
new
pathway
textile-based
solutions.
ACS Nano,
Год журнала:
2024,
Номер
18(5), С. 3871 - 3915
Опубликована: Янв. 23, 2024
Energy
harvesting
textiles
have
emerged
as
a
promising
solution
to
sustainably
power
wearable
electronics.
Textile-based
solar
cells
(SCs)
interconnected
with
on-body
electronics
meet
such
needs.
These
technologies
are
lightweight,
flexible,
and
easy
transport
while
leveraging
the
abundant
natural
sunlight
in
an
eco-friendly
way.
In
this
Review,
we
comprehensively
explore
working
mechanisms,
diverse
types,
advanced
fabrication
strategies
of
photovoltaic
textiles.
Furthermore,
provide
detailed
analysis
recent
progress
made
various
types
textiles,
emphasizing
their
electrochemical
performance.
The
focal
point
review
centers
on
smart
for
electronic
applications.
Finally,
offer
insights
perspectives
potential
solutions
overcome
existing
limitations
textile-based
photovoltaics
promote
industrial
commercialization.
Energy Strategy Reviews,
Год журнала:
2024,
Номер
53, С. 101422 - 101422
Опубликована: Май 1, 2024
This
review
reports
recent
breakthroughs
in
piezoelectric
wearable
energy
harvesting
technology,
specifically
focusing
on
their
harnessing
biomechanical
from
all
over
the
human
motion.
Wearable
technology
has
significantly
reshaped
our
daily
lives,
prompting
a
pressing
demand
for
intelligent
and
novel
sensing
mechanisms.
These
devices
sensors
often
rely
batteries,
necessitating
frequent
replacements
or
recharging.
Leveraging
of
body,
this
paper
underscores
piezoelectric-based
The
sources
body's
motion
are
categorized
into
three
distinct
groups
based
roles
as
excitation
harvesting.
Additionally,
reviews
latest
advancements
electricity
generation,
explicating
fundamental
operational
principles,
structural
designs,
materials,
potential
applications
harvesters.
Furthermore,
it
discusses
prevailing
challenges
associated
with
dedicated
section.
Concluding
recommended
guidelines,
opportunities
shed
light
future
exploration.
Abstract
The
human
body
continuously
generates
ambient
mechanical
energy
through
diverse
movements,
such
as
walking
and
cycling,
which
can
be
harvested
via
various
renewable
harvesting
mechanisms.
Triboelectric
Nanogenerator
(TENG)
stands
out
one
of
the
most
promising
emerging
technologies
for
wearable
applications
due
to
its
ability
harness
forms
energies,
including
vibrations,
pressure,
rotations,
convert
them
into
electricity.
However,
their
application
is
limited
challenges
in
achieving
performance,
flexibility,
low
power
consumption,
durability.
Here,
we
present
a
robust
high‐performance
self‐powered
system
integrated
cotton
fabric
by
incorporating
textile‐based
triboelectric
nanogenerator
(T‐TENG)
based
on
2D
materials,
addressing
both
storage.
proposed
extracts
significant
from
movements
stores
it
textile
supercapacitor
(T‐Supercap).
integration
materials
(graphene
MoS
2
)
fabrication
enhances
performance
T‐TENG
significantly,
demonstrated
record‐high
open‐circuit
voltage
1068
V
density
14.64
W/m
under
force
22
N.
developed
this
study
effectively
powers
200+
LEDs
miniature
watch
while
also
charging
T‐Supercap
with
4‐5
N
efficient
electronics
operation.
Integrated
step
counter
within
sock,
serves
sensor.
This
work
establishes
platform
electronic
textiles,
contributing
significantly
advancement
sustainable
autonomous
technologies.
image
Journal of Sensor and Actuator Networks,
Год журнала:
2024,
Номер
13(4), С. 40 - 40
Опубликована: Июль 11, 2024
Smart
textile-based
wearable
sweat
sensors
have
recently
received
a
lot
of
attention
due
to
their
potential
for
use
in
personal
medical
monitoring.
They
variety
desirable
qualities,
including
low
cost,
easy
implementation,
stretchability,
flexibility,
and
light
weight.
Wearable
are
approach
personalized
devices
because
these
features.
Moreover,
real-time
can
easily
monitor
health
by
analyzing
the
produced
human
body.
We
reviewed
most
recent
advancements
from
fabrication,
materials,
disease
detection
monitoring
perspectives.
To
integrate
biosensors
with
electronics
introduce
field
technology,
key
chemical
constituents
sweat,
collection
technologies,
concerns
textile
substrates
elaborated.
Perspectives
building
biosensing
systems
based
on
reviewed,
as
well
methods
difficulties
involved
enhancing
sweat-sensing
performance.
Abstract
Wearable
electronic
textiles
(e‐textiles)
are
transforming
personalized
healthcare
through
innovative
applications.
However,
integrating
electronics
into
for
e‐textile
manufacturing
exacerbates
the
rapidly
growing
issues
of
waste
(e‐waste)
and
textile
recycling
due
to
complicated
disposal
processes
needed
mixed
materials,
including
fibers,
components.
Here,
first
closed‐loop
wearable
e‐textiles
is
reported
by
incorporating
thermal‐pyrolysis
graphene‐based
convert
them
graphene‐like
electrically
conductive
recycled
powders.
A
scalable
pad‐dry
coating
technique
then
used
reproduce
demonstrate
their
potential
applications
as
electrodes
capturing
electrocardiogram
(ECG)
signals
temperature
sensors.
Additionally,
supercapacitor
highlights
sustainable
energy
storage
devices,
maintaining
notable
durability
retaining
≈94%
capacitance
after
1000
cycles
with
an
areal
4.92
mF
cm⁻
2
.
Such
showcases
repurposing
multifunctional
applications,
promoting
a
circular
approach
that
potentially
prevents
negative
environmental
impact
reduces
landfill
disposal.
Advanced Materials,
Год журнала:
2024,
Номер
unknown
Опубликована: Окт. 3, 2024
Abstract
The
rapid
development
of
wearable
electronics,
personal
mobile
equipment,
and
Internet
Things
systems
demands
smart
textiles
that
integrate
multiple
functions
with
enhanced
durability.
Herein,
the
study
reports
robust
multifunctional
energy
harvesting,
electromagnetic
interference
(EMI)
shielding,
flame
resistance,
Joule
heating
capabilities,
fabricated
by
a
facile
yet
effective
integration
method
using
deposition
cross‐linked
MXene
(Ti
3
C
2
T
x
),
poly(vinyl
alcohol)
(PVA),
poly(acrylic
acid)
(PAA)
onto
traditional
Korean
paper,
Hanji
via
vacuum
filtration.
Comprehensive
analyses
confirm
cross‐linking,
structural
integrity,
interface
stability
in
MXene/PVA/PAA‐Hanji
(MPP‐H)
textiles,
which
synergistically
boost
their
performance.
MPP‐H
exhibit
remarkable
power
generation
lasting
over
60
min
density
102.2
µW
cm
−3
an
31.0
mWh
upon
application
20
µL
NaCl
solution.
EMI
shielding
effectiveness
(SE)
per
unit
thickness
X‐band
(8.2–12.4
GHz)
is
up
to
437.6
dB
mm
−1
,
ratio
absorption
reflection
reaching
4.5,
outperforming
existing
materials.
Superior
thermo‐chemo‐mechanical
properties
(flame
heating,
durability,
washability)
further
demonstrate
versatile
usability.
enables
diverse
functionalities
within
single,
textile
through
scalable
fabrication
method,
offering
transformative
potential
for
mobility
platforms.
Highlights in Science Engineering and Technology,
Год журнала:
2024,
Номер
96, С. 251 - 260
Опубликована: Май 5, 2024
In
recent
years,
flexible
electronics
have
made
significant
strides,
especially
in
organic
light-emitting
diodes,
photovoltaics,
thin-film
transistors,
integrated
circuits,
sensors,
and
memories.
This
study
investigates
the
pivotal
role
of
shaping
wearable
technology.
It
explores
key
aspects
such
as
conductive
polymers,
small
molecule
semiconductors,
use
dyes
pigments
displays,
alongside
synthesis
techniques
like
polymerization
vapor
deposition.
These
methods
highlight
advances
flexibility
engineering
integration
into
devices,
enabling
innovations
textile-integrated
ultra-thin,
skin-like
interfaces.
The
discussion
also
covers
fabrication
strategies,
emphasizing
cost-effective,
solution-processing
for
manufacturing
electrodes,
interconnects,
metal
contacts
on
various
substrates.
Advanced
materials
graphene
polymer
composites,
carbon-nanotube
polymer-ceramic
composites
are
investigated
enhancing
stretchability
device
architectures.
Furthermore,
paper
examines
evolution
focusing
design
strategies
stretchability,
innovative
architectures,
including
3D
integration.
Integration
textile
electronics,
discussed,
showcasing
their
transformative
potential
applications
health
monitoring
smart
clothing,
displays.
Finally,
proposed
solutions
to
address
challenges
durability,
stability,
scalability,
efficiency,
ongoing
quest
improved
processes.
conclusion
underscores
envisioning
a
new
era
technology
seamlessly
daily
life,
revolutionizing
our
interactions
with
electronic
devices.
Journal of Engineering Research,
Год журнала:
2024,
Номер
unknown
Опубликована: Фев. 1, 2024
Wireless
power
transfer
(WPT)
has
already
been
established
as
a
popular
technology
in
multiple
areas
such
electric
vehicle
charging,
smartphone
or
powering
bio-medical
implants.
In
recent
years,
wireless
electronic
textiles
(e-textiles)
smart
seen
rapid
growth
with
the
advancement
of
textile
materials
and
flexible
components.
Although
many
reviews
surveys
on
WPT
can
be
found
literature
for
other
fields,
this
is
not
case
application
e-textiles.
To
address
issue,
comparative
review
previous
e-textiles
presented
paper.
The
textile-based
systems
have
categorized
according
to
their
transmitter
(Tx)
receiver
(Rx)
properties,
Tx
Rx
fabrication
technique,
applied
substrate,
operating
frequency,
level,
achieved
efficiency.
tabular
analysis
different
parameters
acts
platform
researchers,
manufacturers,
industry
personnel
acquire
information
data
evaluating
systems.
opportunities
challenges
applications
also
discussed
detail
give
an
overview
prospects
field.
