Advanced Functional Materials,
Journal Year:
2023,
Volume and Issue:
34(1)
Published: Sept. 15, 2023
Abstract
Using
sensing
devices
for
noncontact
information
transfer
enhances
data
security
in
human‐machine
interaction
by
eliminating
direct
contact
between
the
carrier
and
communication
interface.
However,
current
contactless
strategies
struggle
with
complex
application
scenarios
due
to
limitations
mechanisms.
Here,
this
work
proposes
an
innovative
approach
that
leverages
invisible
thermal
radiation
Seebeck
effect,
demonstrates
its
feasibility
designing
a
high‐resolution
temperature
sensor
based
on
laminar
thermoelectric
aerogel
of
carbon
nanotube/PEDOT:PSS/nanocellulose.
The
exhibits
exceptional
sensitivity,
ultralow
detection
limits
(0.02
K),
rapid
response
time,
reliable
cycling
stability
without
interference
from
pressure
stimuli.
This
further
presents
array‐based
interface
capable
extracting,
decoding,
transmitting
high‐capacity
encrypted
contactlessly.
also
serves
as
input
terminal
precisely
monitoring
finger
movements.
Additionally,
can
convert
into
resistance
signals,
functioning
tactile
electronic
skin
scenarios.
study
dependable
strategy
physical
contact,
contributing
development
future
integrated
devices.
Advanced Functional Materials,
Journal Year:
2022,
Volume and Issue:
32(46)
Published: Sept. 7, 2022
Abstract
Electronic
skin
(e‐skin),
which
mimics
the
tactile
perception
as
human
skin,
is
of
interest
to
advance
robotics,
prosthetics,
and
human‐machine
interactions
(HMI).
However,
construction
artificial
e‐skin
with
simulated
function
morphology
recognition
stimuli
response
remains
challenging.
Here,
design
a
multifunctional
self‐powered
system
based
on
whisker‐like
magnetized
micro‐cilia
array
(MMCA)
underneath
flexible
coils
reported.
Owing
excellent
flexibility
MMCA,
adaptive
bending
can
be
produced
according
inputs
or
surface
morphologies.
With
built‐in
magnetic
moments,
MMCA
deformation
thus
alters
flux
distribution,
induces
an
electromotive
force
(voltage)
in
for
pressure
detection
quantitative
micro‐scaled
3D
It
shown
that
using
distinct
voltage
intensities
waveforms,
optimized
applied
real‐time
healthcare
monitoring,
Braille
identification,
reconstruction
relief
information.
By
customizing
moment
alignments
one
device
further
produce
distinguishable
signals
build
up
multi‐commands
efficient
HMI,
e.g.,
underwater
Morse
code
communication.
Along
temperature
tolerance
environmental
immunity,
exhibits
potential
serve
effective
channel
intelligent
topology
high‐capacity
communications.
Advanced Energy Materials,
Journal Year:
2022,
Volume and Issue:
12(33)
Published: July 21, 2022
Abstract
Triboelectric
nanogenerators
(TENGs),
a
promising
energy
harvesting
technology
for
distributed
power
sources,
faces
inevitable
issues
regarding
long‐term
wear
and
durability.
However,
current
low‐wear
TENGs
are
impaired
by
lower
performances
due
to
low
charge
density.
Here,
both
addressed
using
double
supplement
TENG
(DCS‐TENG).
Adding
two
friction
brushes
allows
the
DCS‐TENG
achieve
high
surface
density
(76.5
µC
m
−2
)
(697.5
mW
Hz
–1
),
setting
new
record
among
previously
reported
TENGs.
Moreover,
device
exhibits
unprecedented
durability
with
an
attenuation
of
only
5%
after
continuous
operation
110
h
(3
960
000
cycles).
Using
customized
management
module,
3
×
7
hygrothermograph
array,
high‐power
vehicle's
radar
accelerometer
modules
stably
powered,
demonstrating
DCS‐TENG's
strong
electrical
load
capacity.
This
strategy
provides
facile
effective
path
conjointly
boost
output
TENGs,
taking
them
next
level
practical
applications.
Advanced Science,
Journal Year:
2022,
Volume and Issue:
9(8)
Published: Jan. 17, 2022
Abstract
As
the
world
population
structure
has
already
exhibited
an
inevitable
trend
of
aging,
technical
advances
that
can
provide
better
eldercare
are
highly
desired.
Knee
osteoarthritis,
one
most
common
age‐associated
diseases,
be
effectively
treated
via
total
knee
arthroplasty
(TKA).
However,
patients
suffering
from
recovery
process
due
to
inconvenience
in
post‐hospital
treatment.
Here,
a
portable,
modular,
and
wearable
brace
for
self‐assessment
TKA
patients’
rehabilitation
is
reported.
This
system
mainly
consists
force
transducer
isometric
muscle
strength
measurement
active
angle
sensor
bending
detection.
Clinical
experiments
on
demonstrate
feasibility
significance
system.
Specifically,
brace‐based
personalized
healthcare,
quantified
terms
myodynamia,
definite
enhancement
obtained.
Additionally,
new
indicators,
is,
test
score,
evaluating
proposed.
It
anticipated
that,
as
cloud
database
employed
more
data
collected
near
future,
not
only
facilitate
rehabilitations
patients,
but
also
improve
life
quality
geriatric
open
space
remote
artificial
intelligence
medical
engineering.
Advanced Science,
Journal Year:
2022,
Volume and Issue:
9(9)
Published: Jan. 14, 2022
A
self-powered
artificial
mechanoreceptor
module
is
demonstrated
with
a
triboelectric
nanogenerator
(TENG)
as
pressure
sensor
sustainable
energy
harvesting
and
biristor
neuron.
By
mimicking
biological
mechanoreceptor,
it
simultaneously
detects
the
encodes
spike
signals
to
act
an
input
neuron
of
spiking
neural
network
(SNN).
neuromorphic
tactile
system
composed
modules
harvester
can
greatly
reduce
power
consumption
compared
conventional
based
on
von
Neumann
computing,
itself
does
not
demand
external
source
information
transmitted
spikes
in
SNN.
In
addition,
detect
low
pressures
near
3
kPa
due
high
output
range
TENG.
It
therefore
be
advantageously
applied
robotics,
prosthetics,
medical
healthcare
devices,
which
low-pressure
detection
levels.
For
practical
applications
system,
classification
handwritten
digits
software-based
simulation.
Furthermore,
fully
hardware-based
breath-monitoring
implemented
using
capable
detecting
wind
exhalation
case
pulmonary
respiration
bending
abdominal
breathing.
Advanced Functional Materials,
Journal Year:
2023,
Volume and Issue:
34(1)
Published: Sept. 15, 2023
Abstract
Using
sensing
devices
for
noncontact
information
transfer
enhances
data
security
in
human‐machine
interaction
by
eliminating
direct
contact
between
the
carrier
and
communication
interface.
However,
current
contactless
strategies
struggle
with
complex
application
scenarios
due
to
limitations
mechanisms.
Here,
this
work
proposes
an
innovative
approach
that
leverages
invisible
thermal
radiation
Seebeck
effect,
demonstrates
its
feasibility
designing
a
high‐resolution
temperature
sensor
based
on
laminar
thermoelectric
aerogel
of
carbon
nanotube/PEDOT:PSS/nanocellulose.
The
exhibits
exceptional
sensitivity,
ultralow
detection
limits
(0.02
K),
rapid
response
time,
reliable
cycling
stability
without
interference
from
pressure
stimuli.
This
further
presents
array‐based
interface
capable
extracting,
decoding,
transmitting
high‐capacity
encrypted
contactlessly.
also
serves
as
input
terminal
precisely
monitoring
finger
movements.
Additionally,
can
convert
into
resistance
signals,
functioning
tactile
electronic
skin
scenarios.
study
dependable
strategy
physical
contact,
contributing
development
future
integrated
devices.
