Advanced Physics Research,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 4, 2025
Abstract
Bioelectronics,
which
integrate
biological
systems
with
electronic
components,
have
attracted
significant
attention
in
developing
biomimetic
materials
and
advanced
hardware
architectures
to
enable
novel
information‐processing
systems,
sensors,
actuators.
However,
the
rigidity
of
conjugated
molecular
lack
reconfigurability
static
crosslinked
structures
pose
challenges
for
flexible
sensing
applications.
Topological
networks
(TCNs)
featuring
dynamic
interactions
offer
enhanced
flexibility
environmentally
induced
reconfigurability,
decoupling
competition
between
performances.
Here,
recent
advances
are
summarized
assembly
methods
bioelectronics
different
TCNs
elaborate
ion/electron‐transport
mechanisms
from
perspective
interactions.
Decoupling
effects
can
be
achieved
by
comparing
distinct
their
respective
properties,
an
outlook
is
provided
on
a
new
range
neuromorphic
biocompatibility,
self‐healing,
self‐powered,
multimodal‐sensing
capabilities.
The
development
TCN‐based
significantly
impact
fields
artificial
perception
devices,
networks,
systems.
Materials,
Journal Year:
2025,
Volume and Issue:
18(1), P. 144 - 144
Published: Jan. 2, 2025
This
study
focuses
on
selecting
a
suitable
3D
printer
and
defining
experimental
methods
to
gather
the
necessary
data
for
determining
optimal
filament
material
printing
components
of
VEX
GO
IQ
robotic
kits.
The
aim
is
obtain
required
identify
an
appropriate
set
parameters
achieve
desired
mechanical
properties
parts
while
maintaining
cost-effectiveness.
Another
key
objective
achieving
operational
functionality,
ensuring
part
performance
with
minimal
costs.
It
desirable
modeled
printed
exhibit
economic
efficiency.
crucial
aspect
functionality
produced
will
be
assessed
by
analyzing
impact
technology
parameters,
focusing
in
this
research
phase
selection.
criteria
materials
include
ease
printability
under
conditions
primary
secondary
schools,
simplicity
printing,
need
post-processing,
adequate
verified
through
measurements
destructive
tests
original
from
analyzed
various
filaments
regarding
their
properties,
printability,
most
significant
practical
contribution
tested
tests,
emphasizing
real-life
application
parts.
includes
repetitive
assembly
disassembly
model
constructions
activation
demonstration
purposes
applications
STEM/STEAM/STREAM
educational
process
components.
Additionally,
aims
up
such
that
even
beginner-level
operator,
as
or
school
student
supervision
teacher
knowledge
experience
can
successfully
execute
it.
Further
ongoing
evaluating
effects
characteristic
infill
perimeter,
3D-printed
additional
analyses.
Soft Science,
Journal Year:
2025,
Volume and Issue:
5(1)
Published: Jan. 16, 2025
Highly
sensitive
strain
sensors
are
crucial
for
monitoring
subtle
plant
growth
changes
and
show
diverse
applications
in
sensing.
However,
the
prevailing
integrated
fabrication
methods
such
tend
to
be
costly
complex,
impeding
their
fundamental
design
practical
usage.
Herein,
we
develop
a
simple
effective
multimaterial
all-3D
printing
technique
manufacture
with
multilayered
structure.
Such
an
all-3D-printed
sensor
exhibits
excellent
sensing
performance
enabling
precise
detection
of
minor
strains
growth,
including
high
stretchability
(>
300%),
sensitivity
(~12.78)
good
linearity
(0.98),
long-term
stability
over
3,000
loading/unloading
cycles.
We
further
validate
potential
our
3D-printed
accurate
continuous
bamboo
both
horizontal
vertical
directions
14
days.
Our
offers
promising
avenue
systems
toward
monitoring.
Advanced Functional Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 28, 2025
Abstract
Neural
biointerfacing,
enabling
direct
communication
between
neural
systems
and
external
devices,
holds
great
promises
for
applications
in
brain
machine
interfaces,
prosthetics,
neuromodulation.
However,
current
electronics
made
of
conventional
rigid
materials
are
challenged
by
their
inherent
mechanical
mismatch
with
the
tissues.
Hydrogel
bioelectronics,
properties
compatible
tissues,
represent
an
alternative
to
these
limitations
enable
next‐generation
biointerfacing
technology.
Here,
overview
cutting‐edge
research
on
conducting
hydrogels
(CHs)
bioelectronics
development,
emphasizing
material
design
principles,
manufacturing
techniques,
essential
requirements,
corresponding
application
scenarios
is
presented.
Future
challenges
potential
directions
regarding
CHs‐based
technologies,
including
long‐term
reliability,
multimodal
hydrogel
closed‐loop
system
wireless
power
supply
system,
raised.
It
believed
that
this
review
will
serve
as
a
valuable
resource
further
advancement
implementation
ACS Nano,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 23, 2025
Achieving
high-quality
biopotential
signal
recordings
requires
soft
and
stable
interfaces
between
tissues
bioelectronic
devices.
Traditional
bioelectronics,
typically
rigid
dependent
on
medical
tape
or
sutures,
lead
to
mechanical
mismatches
inflammatory
responses.
Existing
conducting
polymer-based
bioelectronics
offer
tissue-like
softness
but
lack
intrinsic
adhesion,
limiting
their
effectiveness
in
creating
stable,
conductive
interfaces.
Here,
we
present
an
intrinsically
adhesive
hydrogel
with
a
modulus
strong
adhesion
various
substrates.
Adhesive
catechol
groups
are
incorporated
into
the
poly(3,4-ethylenedioxythiophene)
(PEDOT)
matrix,
which
reduces
PEDOT
size
improves
dispersity
form
percolating
network
excellent
electrical
conductivity
strain
insensitivity.
This
effectively
bridges
bioelectronics–tissue
interface,
ensuring
pristine
minimal
interference
from
bodily
movements.
capability
is
demonstrated
through
comprehensive
vivo
experiments,
including
electromyography
electrocardiography
both
static
dynamic
human
skin
electrocorticography
moving
rats.
represents
significant
advancement
for
interfaces,
facilitating
more
accurate
less
intrusive
diagnostics.
Gels,
Journal Year:
2024,
Volume and Issue:
10(4), P. 220 - 220
Published: March 25, 2024
This
study
explores
the
dynamic
field
of
3D-printed
hydrogels,
emphasizing
advancements
and
challenges
in
customization,
fabrication,
functionalization
for
applications
biomedical
engineering,
soft
robotics,
tissue
engineering.
It
delves
into
significance
tailored
scaffolds
regeneration,
enhancement
bioinks
realistic
replication,
development
bioinspired
actuators.
Additionally,
this
paper
addresses
fabrication
issues
aiming
to
mimic
biological
structures
through
high-resolution,
multimaterial
printing.
In
it
highlights
efforts
create
environments
conducive
cell
migration
functional
development.
research
also
extends
drug
delivery
systems,
focusing
on
controlled
release
biocompatibility,
examines
integration
hydrogels
with
electronic
components
bioelectronic
applications.
The
interdisciplinary
nature
these
a
commitment
overcoming
material
limitations
optimizing
techniques
realize
full
potential
improving
health
well-being.
