Triggerable Patches for Medical Applications
Advanced Materials,
Journal Year:
2024,
Volume and Issue:
36(35)
Published: June 11, 2024
Medical
patches
have
garnered
increasing
attention
in
recent
decades
for
several
diagnostic
and
therapeutic
applications.
Advancements
material
science,
manufacturing
technologies,
bioengineering
significantly
widened
their
functionalities,
rendering
them
highly
versatile
platforms
wearable
implantable
Of
particular
interest
are
triggerable
designed
drug
delivery
tissue
regeneration
purposes,
whose
action
can
be
controlled
by
an
external
signal.
Stimuli-responsive
particularly
appealing
as
they
may
enable
a
high
level
of
temporal
spatial
control
over
the
therapy,
allowing
precision
possibility
to
adjust
treatment
according
specific
clinical
personal
needs.
This
review
aims
provide
comprehensive
overview
existing
extensive
literature
on
patches,
emphasizing
potential
diverse
applications
highlighting
strengths
weaknesses
different
triggering
stimuli.
Additionally,
current
open
challenges
related
design
use
efficient
such
tuning
mechanical
adhesive
properties,
ensuring
acceptable
trade-off
between
smartness
biocompatibility,
endowing
with
portability
autonomy,
accurately
controlling
responsiveness
stimulus
maximizing
efficacy,
reviewed.
Language: Английский
Locomotion control of Cyborg insects by using ultra-thin, self-adhesive electrode film on abdominal surface
Shumpei Katayama,
No information about this author
Kyohei ANDO,
No information about this author
Sunghoon Lee
No information about this author
et al.
npj Flexible Electronics,
Journal Year:
2025,
Volume and Issue:
9(1)
Published: March 13, 2025
Abstract
Cyborg
insects
are
living
organisms
combined
with
artificial
systems,
allowing
flexible
behavioral
control
while
preserving
biological
functions.
Conventional
methods
often
electrically
stimulate
sensory
organs
like
antennae
and
cerci
but
these
invasive
can
impair
vital
This
study
shows
a
minimally
approach
using
flexible,
ultra-thin
electrodes
on
the
cockroach’s
abdomen,
avoiding
contact
primary
organs.
Using
liquid
evaporation
for
film
adhesion
provides
biocompatible
process
excellent
adhesive
strength
electrical
durability.
Body
surface
stimulating
component
structures
formed
by
utilizing
an
insect’s
natural
movement
showed
higher
stability
than
conventional
methods.
These
enable
effective
of
both
turning
straight-line
movements.
method
maintains
behavior
enhancing
cyborg
functionality,
extending
potential
applications.
Language: Английский
Enhancing Regeneration and Functionality of Excitable Tissues via Integrating Bioelectronics and Bioengineered Constructs
Zijie Meng,
No information about this author
Bingsong Gu,
No information about this author
Cong Yao
No information about this author
et al.
International Journal of Extreme Manufacturing,
Journal Year:
2024,
Volume and Issue:
7(2), P. 022004 - 022004
Published: Nov. 15, 2024
Abstract
The
inherent
complexities
of
excitable
cardiac,
nervous,
and
skeletal
muscle
tissues
pose
great
challenges
in
constructing
artificial
counterparts
that
closely
resemble
their
natural
bioelectrical,
structural,
mechanical
properties.
Recent
advances
have
increasingly
revealed
the
beneficial
impact
bioelectrical
microenvironments
on
cellular
behaviors,
tissue
regeneration,
therapeutic
efficacy
for
tissues.
This
review
aims
to
unveil
mechanisms
by
which
electrical
enhance
regeneration
functionality
cells
tissues,
considering
both
endogenous
cues
from
electroactive
biomaterials
exogenous
stimuli
external
electronic
systems.
We
explore
synergistic
effects
these
microenvironments,
combined
with
structural
guidance,
using
engineering
scaffolds.
Additionally,
emergence
micro/nanoscale
bioelectronics
has
significantly
broadened
this
field,
facilitating
intimate
interactions
between
implantable
across
cellular,
tissue,
organ
levels.
These
enable
precise
data
acquisition
localized
modulation
cell
functionalities
through
intricately
designed
components
according
physiological
needs.
integration
promises
optimal
outcomes,
highlighting
a
growing
trend
developing
living
construct-bioelectronic
hybrids
restoring
monitoring
damaged
Furthermore,
we
envision
critical
next-generation
hybrids,
focusing
integrated
fabrication
strategies,
development
ionic
conductive
biomaterials,
convergence
biosensors.
Language: Английский