Chemical Science,
Год журнала:
2024,
Номер
15(27), С. 10436 - 10447
Опубликована: Янв. 1, 2024
A
high-performance
triboelectric
nanogenerator
with
dual
nanostructure
is
fabricated
and
further
enhanced
by
surface
chemical
modification.
The
signal
used
to
control
an
optocoupler
switch
for
remote
of
a
switching
circuit.
Abstract
Benefiting
from
the
high
sensitivity
and
electromechanical
conversion
efficiency,
triboelectric
nanogenerators
(TENGs)
are
widely
used
in
various
fields
of
self‐powered
sensing
mechanical
energy
harvesting,
which
have
great
potential
for
application
future
smart
Internet
Things.
The
development
sustainable
materials
with
high‐performance
has
a
vital
impact
on
construction
TENG
devices
that
combine
high‐output
performance
environmental
friendliness,
positive
humanity.
This
review
systematically
comprehensively
summarizes
latest
research
work
TENG's
materials.
First,
an
overall
overview
is
provided
based
composition
materials,
including
amino
acids,
polysaccharides,
synthetic
polymer,
representative
works
further
classified
summarized
detail.
In
addition,
progress
harvesting
applications
also
summarized.
Finally,
overviews
challenges
current
material,
related
outlooks
offered
corresponding
strategies
directions
this
field
future.
International Journal of Extreme Manufacturing,
Год журнала:
2024,
Номер
6(6), С. 062003 - 062003
Опубликована: Июль 20, 2024
Abstract
Triboelectric
nanogenerators
(TENGs)
stand
at
the
forefront
of
energy
harvesting
innovation,
transforming
mechanical
into
electrical
power
through
triboelectrification
and
electrostatic
induction.
This
groundbreaking
technology
addresses
urgent
need
for
sustainable
renewable
solutions,
opening
new
avenues
self-powered
systems.
Despite
their
potential,
TENGs
face
challenges
such
as
material
optimization
enhanced
triboelectric
effects,
scalability,
improving
conversion
efficiency
under
varied
conditions.
Durability
environmental
stability
also
pose
significant
hurdles,
necessitating
further
research
towards
more
resilient
Nature
inspired
TENG
designs
offer
promising
solutions
by
emulating
biological
processes
structures,
mechanisms
plants
textured
surfaces
animal
skins.
biomimetic
approach
has
led
to
notable
improvements
in
properties,
structural
designs,
overall
performance,
including
robustness.
The
exploration
bio-inspired
unlocked
possibilities
harvesting,
sensing,
wearable
electronics,
emphasizing
reduced
consumption
increased
innovative
design.
review
encapsulates
advancements
nature
TENGs,
highlighting
integration
principles
overcome
current
limitations.
By
focusing
on
augmented
biodegradability,
self-healing
capabilities,
pave
way
versatile
solutions.
ACS Applied Materials & Interfaces,
Год журнала:
2024,
Номер
16(27), С. 34549 - 34560
Опубликована: Июнь 28, 2024
Self-powered
sensors
have
the
potential
to
enable
real-time
health
monitoring
without
contributing
ever-growing
demand
for
energy.
Piezoelectric
nanogenerators
(PENGs)
respond
mechanical
deformations
produce
electrical
signals,
imparting
a
sensing
capability
external
power
sources.
Textiles
conform
human
body
and
serve
as
an
interactive
biomechanical
energy
harvesting
medium
compromising
comfort.
However,
textile-based
PENG
fabrication
process
is
complex
lacks
scalability,
making
these
devices
impractical
mass
production.
Here,
we
demonstrate
of
long-length
fiber
compatible
with
industrial-scale
manufacturing.
The
thermal
drawing
enables
one-step
self-poled
MoS2–poly(vinylidene
fluoride)
(PVDF)
nanocomposite
integrated
electrodes.
Heat
stress
during
MoS2
nanoparticle
addition
facilitate
interfacial
polarization
dielectric
modulation
enhance
output
performance.
fibers
show
57
70%
increase
in
voltage
current
compared
pristine
PVDF
fiber,
respectively,
at
considerably
low
loading
3
wt
%.
Young's
modulus
outer
cladding
ensures
effective
transfer
piezocomposite
domain
allows
minute
motion
detection.
flexible
wireless,
self-powered
physiological
biomotion
analysis
capability.
study
aims
guide
large-scale
production
highly
sensitive
plug-and-play
wearable
sensors.