From structure to function: innovative applications of biomass carbon materials in microwave absorption
Advanced Composites and Hybrid Materials,
Journal Year:
2024,
Volume and Issue:
7(6)
Published: Oct. 31, 2024
Language: Английский
Flexible Micro-LEDs: Advanced Fabrication Techniques and Applications
Sung Jin Seo,
No information about this author
Sohyeon Park,
No information about this author
Ho Won Jang
No information about this author
et al.
Electronic Materials Letters,
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 8, 2025
Language: Английский
Laser-induced adhesives with excellent adhesion enhancement and reduction capabilities for transfer printing of microchips
Science Advances,
Journal Year:
2024,
Volume and Issue:
10(49)
Published: Dec. 6, 2024
Transfer
printing
based
on
tunable
and
reversible
adhesive
that
enables
the
heterogeneous
integration
of
materials
is
essential
for
developing
envisioned
electronic
systems.
An
with
both
adhesion
enhancement
reduction
capabilities
in
a
rapid
selective
manner
challenging.
Here,
we
report
laser-induced
adhesive,
featuring
geometrically
simple
shape
memory
polymer
layer
glass
backing,
excellent
modulation
capability
programmable
pickup
noncontact
microchips.
Selective
laser
heating
substantially
enhances
adhesive’s
strength
from
kilopascal
to
megapascal
within
10
ms
due
fixing
effect,
allowing
precise
pickup.
Conversely,
enhanced
can
be
quickly
reduced
eliminated
3
through
recovery
enabling
printing.
Demonstrations
transfer
microlight-emitting
diodes
(LEDs)
mini-LEDs
onto
various
low-adhesive
flat,
rough,
curved
surfaces
highlight
unusual
this
deterministic
assembly.
Language: Английский
Soft Materials and Devices Enabling Sensorimotor Functions in Soft Robots
Jiangtao Su,
No information about this author
Ke He,
No information about this author
Yanzhen Li
No information about this author
et al.
Chemical Reviews,
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 31, 2025
Sensorimotor
functions,
the
seamless
integration
of
sensing,
decision-making,
and
actuation,
are
fundamental
for
robots
to
interact
with
their
environments.
Inspired
by
biological
systems,
incorporation
soft
materials
devices
into
robotics
holds
significant
promise
enhancing
these
functions.
However,
current
systems
often
lack
autonomy
intelligence
observed
in
nature
due
limited
sensorimotor
integration,
particularly
flexible
sensing
actuation.
As
field
progresses
toward
soft,
flexible,
stretchable
materials,
developing
such
becomes
increasingly
critical
advanced
robotics.
Despite
rapid
advancements
individually
devices,
combined
applications
enable
capabilities
emerging.
This
review
addresses
this
emerging
providing
a
comprehensive
overview
that
functions
robots.
We
delve
latest
development
technologies,
actuation
mechanism,
structural
designs,
fabrication
techniques.
Additionally,
we
explore
strategies
control,
artificial
(AI),
practical
application
across
various
domains
as
healthcare,
augmented
virtual
reality,
exploration.
By
drawing
parallels
aims
guide
future
research
robots,
ultimately
adaptability
unstructured
Language: Английский
Mitochondria- and anaerobic glycolysis-targeted self-assembled copper complex nanoparticles for boosting cuproptosis-immunotherapy
Hanyu Zhang,
No information about this author
Jing Xia,
No information about this author
Lingling Xie
No information about this author
et al.
Advanced Composites and Hybrid Materials,
Journal Year:
2024,
Volume and Issue:
8(1)
Published: Dec. 16, 2024
Language: Английский
Luminance compensation for stretchable displays using deep visual feature‐optimized Gaussian‐weighted kernels
Ye‐In Park,
No information about this author
Suk‐Ju Kang
No information about this author
Journal of the Society for Information Display,
Journal Year:
2025,
Volume and Issue:
unknown
Published: April 6, 2025
Abstract
Stretchable
displays,
characterized
by
their
flexibility
and
deformability,
are
gaining
attention
as
next‐generation
display
technologies.
While
various
studies
have
been
conducted
on
hardware
aspects
of
stretchable
the
software
received
comparatively
less
focus.
When
displays
stretched,
empty
pixels
inevitably
lead
to
a
decrease
in
overall
luminance,
which
significantly
degrades
visual
quality
user
experience.
To
address
this
issue
from
aspect,
we
propose
novel
luminance
compensation
method
that
leverages
deep
learning
through
Learned
Perceptual
Image
Patch
Similarity
(LPIPS)‐based
pre‐optimization
technique
combined
with
Gaussian‐weighted
kernels.
The
proposed
applies
relatively
higher
values
areas
near
pixels,
where
loss
is
most
significant
while
preserving
original
unaffected
areas.
This
design
minimizes
color
distortion
enhances
brightness
effectively.
Specifically,
optimal
increase
rates
(BIRs)
pre‐optimized
using
an
LPIPS‐based
function,
tailored
stretching
scenarios,
such
types,
directions,
rates.
Based
optimized
BIRs,
kernels
generated
for
efficient
adjustment.
Our
flexibly
supports
diverse
conditions,
including
linear/non‐linear
uni‐directional/bi‐directional
stretching,
ratios
ranging
10%
30%.
Through
simulations,
qualitatively
quantitatively
compared
existing
approaches,
demonstrating
superior
performance
across
wide
range
scenarios.
Language: Английский
Flexible electronics for cardiovascular monitoring on complex physiological skins
Tianqi Zhang,
No information about this author
Yunshen Wang,
No information about this author
Xingdong Feng
No information about this author
et al.
iScience,
Journal Year:
2024,
Volume and Issue:
27(9), P. 110707 - 110707
Published: Aug. 12, 2024
Cardiovascular
diseases
(CVDs)
pose
a
significant
global
health
threat,
responsible
for
considerable
portion
of
worldwide
mortality.
Flexible
electronics
enable
continuous,
noninvasive,
real-time,
and
portable
monitoring,
providing
an
ideal
platform
personalized
healthcare.
Nevertheless,
challenges
persist
in
sustaining
stable
adherence
across
diverse
intricate
skin
environments,
hindering
further
advancement
toward
clinical
applications.
Strategies
such
as
structural
design
chemical
modification
can
significantly
enhance
the
environmental
adaptability
monitoring
performance
flexible
electronics.
This
review
delineates
processing
techniques,
including
modification,
to
mitigate
signal
interference
from
sebaceous
skin,
motion
artifacts
motion,
infection
risks
fragile
thereby
enabling
accurate
key
cardiovascular
indicators
complex
physiological
environments.
Moreover,
it
delves
into
potential
strategic
development
improvement
ensure
their
alignment
with
environment
requirements,
facilitating
transition
Language: Английский
Strain-engineered stretchable substrates for free-form display applications
Dong Won Lee,
No information about this author
Dong Hyoun Park,
No information about this author
Jun‐Chan Choi
No information about this author
et al.
Soft Science,
Journal Year:
2024,
Volume and Issue:
4(4)
Published: Nov. 15, 2024
With
the
growing
potential
of
Internet
Things,
displays
are
being
utilized
to
provide
various
types
information
in
every
aspect
daily
life,
leading
expansion
form-factor-free
displays.
Stretchable
considered
ultimate
goal
form
factor
innovation,
and
they
not
limited
rectangular
shapes
with
deformation
characteristics
suited
target
applications.
Because
reliable
stretchable
should
be
robust
under
uniaxial
biaxial
strain,
there
have
been
efforts
tailor
mechanical
stress
promising
strategies
from
structural
material
perspectives.
This
review
focuses
on
strain-engineering
substrates
for
free-form
display
First,
we
introduce
deformable
stretchability,
achieved
by
incorporating
buckling
Kirigami
structures
into
plastic
films,
systematically
analyze
tensile
based
design
elements.
In
addition,
examined
intrinsically
elastomeric
substrates,
which
gained
considerable
attention
due
recent
advances
processing
technologies.
Their
spatial
modulus
patterning
is
studied
applying
optimized
principles,
through
network
alignment
crosslinking
control
homogeneous
elastomers,
as
well
heterogeneous
within
elastomer
materials.
Finally,
discussed
state-of-the-art
applications
employing
strain-engineered
focusing
advantageous
materials
components,
processes,
characteristics.
Building
this
foundation,
discuss
development
next-generation
aim
contribute
their
application
static
dynamic
environments.
Language: Английский
Recent progress of hydrogels in brain-machine interface
Soft Science,
Journal Year:
2024,
Volume and Issue:
4(4)
Published: Nov. 27, 2024
The
long-term
stable
monitoring
of
brain
signals,
including
electroencephalogram
(EEG),
electrocorticogram
(ECoG)
and
local
field
potential
(LFP),
is
great
significance
for
the
fundamental
research
in
science,
artificial
intelligence
diagnosis
treatment
brain-related
disorders.
Therefore,
both
non-invasive
invasive
brain-machine
interfaces
based
on
different
materials
structures
have
been
widely
studied
due
to
their
unique
performance.
Among
these
materials,
hydrogels
emerged
as
a
promising
interface
material
signal
collection
systems
similar
mechanical
properties
biological
tissues,
excellent
biocompatibility,
strong
self-adhesive
properties,
exceptional
ionic
conductive
characteristics.
This
review
aims
provide
an
overview
recent
progress
hydrogel-based
recording
signals
with
methods.
It
expected
that
this
paper
will
serve
valuable
summary
reference
future
interface.
Language: Английский