Micromachines,
Journal Year:
2024,
Volume and Issue:
15(8), P. 955 - 955
Published: July 26, 2024
Wearable
and
implantable
bio-MEMS
sensors
actuators
have
attracted
tremendous
attention
in
the
fields
of
health
monitoring,
disease
treatment,
human-machine
interaction,
to
name
but
a
few
[...].
Carbon Energy,
Journal Year:
2024,
Volume and Issue:
6(3)
Published: Feb. 27, 2024
Abstract
Flexible,
breathable,
and
highly
sensitive
pressure
sensors
have
increasingly
become
a
focal
point
of
interest
due
to
their
pivotal
role
in
healthcare
monitoring,
advanced
electronic
skin
applications,
disease
diagnosis.
However,
traditional
methods,
involving
elastomer
film‐based
substrates
or
encapsulation
techniques,
often
fall
short
mechanical
mismatches,
discomfort,
lack
breathability,
limitations
sensing
abilities.
Consequently,
there
is
pressing
need,
yet
it
remains
significant
challenge
create
that
are
not
only
flexible,
comfortable
but
also
sensitive,
durable,
biocompatible.
Herein,
we
present
biocompatible
breathable
fabric‐based
sensor,
using
nonwoven
fabrics
as
both
the
electrode
(coated
with
MXene/poly(3,4‐ethylenedioxythiophene):polystyrene
sulfonate
[PEDOT:PSS])
interdigitated
(printed
MXene
pattern)
via
scalable
spray‐coating
screen‐coating
technique.
The
resultant
device
exhibits
commendable
air
permeability,
biocompatibility,
performance,
including
remarkable
sensitivity
(754.5
kPa
−1
),
rapid
response/recovery
time
(180/110
ms),
robust
cycling
stability.
Furthermore,
integration
PEDOT:PSS
plays
crucial
protecting
nanosheets
from
oxidation,
significantly
enhancing
device's
long‐term
durability.
These
outstanding
features
make
this
sensor
suitable
for
applications
full‐range
human
activities
detection
Our
study
underscores
promising
future
flexible
realm
intelligent
wearable
electronics,
setting
new
benchmark
industry.
Chemical Reviews,
Journal Year:
2024,
Volume and Issue:
124(5), P. 2205 - 2280
Published: Feb. 21, 2024
Advances
in
soft
materials,
miniaturized
electronics,
sensors,
stimulators,
radios,
and
battery-free
power
supplies
are
resulting
a
new
generation
of
fully
implantable
organ
interfaces
that
leverage
volumetric
reduction
mechanics
by
eliminating
electrochemical
storage.
This
device
class
offers
the
ability
to
provide
high-fidelity
readouts
physiological
processes,
enables
stimulation,
allows
control
over
organs
realize
therapeutic
diagnostic
paradigms.
Driven
seamless
integration
with
connected
infrastructure,
these
devices
enable
personalized
digital
medicine.
Key
advances
carefully
designed
material,
electrophysical,
electrochemical,
electromagnetic
systems
form
implantables
mechanical
properties
closely
matched
target
deliver
functionality
supports
sensors
stimulators.
The
elimination
operation,
anywhere
from
acute,
lifetimes
matching
subject
physical
dimensions
imperceptible
operation.
review
provides
comprehensive
overview
basic
building
blocks
related
topics
such
as
implantation,
delivery,
sterilization,
user
acceptance.
State
art
examples
categorized
system
an
outlook
interconnection
advanced
strategies
for
computation
leveraging
consistent
influx
elevate
this
current
battery-powered
is
highlighted.
Advanced Functional Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 19, 2025
Abstract
With
the
rapid
advancement
of
2D
material‐based
optoelectronic
devices,
significant
progress
is
made
in
development
all‐optical
logic
synaptic
biomimetic
and
multidimensional
detection
systems.
As
entering
to
high‐speed
information
era,
there
an
urgent
demand
for
complex,
compact,
multifunctional,
low‐energy,
intelligent
sensing
chips.
Examining
evolution
current
technologies
reveals
a
parallel
bipolar
response
mechanisms‐from
simple
positive
negative
responses
more
intricate
inhibition‐promotion
dynamics
with
persistent
characteristics.
This
significantly
broadens
their
applications
devices.
Moreover,
compared
unipolar
responses,
complex
offer
greater
flexibility
adaptation
unique
one‐to‐one
mapping
high‐dimensional
parameters
such
as
polarization,
phase,
spectrum,
positioning
them
promising
candidates
breakthroughs
resolution.
In
this
review,
design
strategies
are
comprehensively
explored
various
materials,
highlighting
deep
advanced
fields.
It
aimed
review
provide
broad
overview
bi‐directional
mechanisms,
offering
inspiration
designing
next
generation
Polymers,
Journal Year:
2022,
Volume and Issue:
15(1), P. 222 - 222
Published: Dec. 31, 2022
Triboelectric
nanogenerators
(TENGs)
have
attracted
much
attention
because
they
not
only
efficiently
harvest
energy
from
the
surrounding
environment
and
living
organisms
but
also
serve
as
multifunctional
sensors
toward
detection
of
various
chemical
physical
stimuli.
In
particular,
biodegradable
TENG
(BD-TENG)
represents
an
emerging
type
self-powered
device
that
can
be
degraded,
either
in
physiological
environments
implantable
power
source
without
necessity
second
surgery
for
retrieval,
or
ambient
to
minimize
associated
environmental
pollution.
Such
TENGs
TNEG-based
devices
find
important
applications
many
scenarios,
such
tissue
regeneration,
drug
release,
pacemakers,
etc.
this
review,
recent
progress
developed
on
basis
polymers
is
comprehensively
summarized.
Material
strategies
fabrication
schemes
are
thoroughly
introduced
according
classification
plant-degradable
polymer,
animal-degradable
synthetic
degradable
polymer.
Finally,
current
problems,
challenges,
potential
opportunities
future
development
BD-TENGs
discussed.
We
hope
work
may
provide
new
insights
modulating
design
BD-TNEGs
beneficial
both
protection
healthcare.
Advanced Intelligent Systems,
Journal Year:
2023,
Volume and Issue:
6(3)
Published: Dec. 1, 2023
Human–robot
interaction
(HRI)
has
escalated
in
notability
recent
years,
and
multimodal
communication
control
strategies
are
necessitated
to
guarantee
a
secure,
efficient,
intelligent
HRI
experience.
In
spite
of
the
considerable
focus
on
HRI,
comprehensive
disquisitions
delineating
various
modalities
intricately
analyzing
their
combinations
remain
elusive,
consequently
limiting
holistic
understanding
future
advancements.
This
article
aspires
bridge
this
inadequacy
by
conducting
profound
exploration
predominantly
concentrating
four
principal
modalities:
vision,
auditory
language,
haptics,
physiological
sensing.
An
extensive
review
encapsulating
algorithmic
dissection,
interface
devices,
applicative
dimensions
forms
part
discourse.
manuscript
distinctively
combines
with
cognitive
science,
deeply
probing
into
three
dimensions,
perception,
cognition,
action,
thereby
demystifying
algorithms
intrinsic
HRI.
Finally,
it
accentuates
empirical
challenges
contours
preemptive
trajectories
for
human‐centric
smart
manufacturing.
Advanced Intelligent Systems,
Journal Year:
2023,
Volume and Issue:
5(7)
Published: March 15, 2023
The
past
decades
have
seen
the
rapid
development
of
tactile
sensors
in
material,
fabrication,
and
mechanical
structure
design.
advancement
has
heightened
expectation
sensor
functions,
thus
put
forward
a
higher
demand
for
data
processing.
However,
conventional
analysis
techniques
not
kept
pace
with
still
suffer
from
some
severe
drawbacks,
like
cumbersome
models,
poor
efficiency,
expensive
costs.
Machine
learning,
its
prominent
ability
big
fast
processing
speed,
can
offer
many
possibilities
analysis.
Herein,
machine
learning
employed
signals
are
reviewed.
Supervised
unsupervised
analog
covered,
spike
summarized.
Furthermore,
applications
robotic
perception
human
activity
monitoring
presented.
Finally,
current
challenges
future
prospects
sensors,
data,
algorithms,
benchmarks
discussed.
Nature Chemical Engineering,
Journal Year:
2024,
Volume and Issue:
1(11), P. 691 - 701
Published: Oct. 25, 2024
Advances
in
the
development
of
tiny
devices
with
sizes
below
a
few
cubic
millimeters
require
corresponding
decrease
volume
driving
power
sources.
To
be
minimally
invasive,
prospective
sources
biomedical
must
fabricated
from
soft
materials.
Previous
endeavors
droplet-based
have
produced
promising
miniature
sources;
however,
rechargeable
battery
has
remained
out
reach.
Here
we
report
microscale
flexible
lithium-ion
droplet
(LiDB)
based
on
lipid-supported
assembly
droplets
constructed
biocompatible
silk
hydrogel.
Capabilities
such
as
triggerable
activation,
biocompatibility
and
biodegradability
high
capacity
are
demonstrated.
We
used
LiDB
to
electrophoretic
translocation
charged
molecules
between
synthetic
cells
mediate
defibrillation
pacing
ex
vivo
mouse
hearts.
By
inclusion
magnetic
particles
enable
propulsion,
can
function
mobile
energy
courier.
Our
versatile
will
thereby
variety
applications.