Emerging Eutectogel Materials: Development, Synthesis, Properties, and Applications in Food Science
Hu Rui,
No information about this author
Da‐Wen Sun,
No information about this author
You Tian
No information about this author
et al.
Trends in Food Science & Technology,
Journal Year:
2025,
Volume and Issue:
unknown, P. 104962 - 104962
Published: March 1, 2025
Language: Английский
Eutectogels: The Multifaceted Soft Ionic Materials of Tomorrow
JACS Au,
Journal Year:
2024,
Volume and Issue:
4(10), P. 3744 - 3758
Published: Oct. 3, 2024
Eutectogels,
a
rising
category
of
soft
materials,
have
recently
garnered
significant
attention
owing
to
their
remarkable
potential
in
various
domains.
This
innovative
class
materials
consists
eutectic
solvent
immobilized
three-dimensional
network
structure.
The
use
eco-friendly
and
cost-effective
solvents
further
emphasizes
the
appeal
these
multiple
applications.
Eutectogels
exhibit
key
characteristics
most
solvents,
including
environmental
friendliness,
facile
preparation,
low
vapor
pressure,
good
ionic
conductivity.
Moreover,
they
can
be
tailored
display
functionalities
such
as
self-healing
capability,
adhesiveness,
antibacterial
properties,
which
are
facilitated
by
incorporating
specific
combinations
mixture
constituents.
perspective
article
delves
into
current
landscape
challenges
associated
with
eutectogels,
particularly
focusing
on
applications
CO
Language: Английский
Thermomechanical constitutive behaviour of 3D printed biomimetic polymer material under high strain rates
Xu Long,
No information about this author
Yuntao Hu,
No information about this author
Tianxiong Su
No information about this author
et al.
Polymer Testing,
Journal Year:
2024,
Volume and Issue:
134, P. 108439 - 108439
Published: April 29, 2024
With
the
continuous
technical
breakthroughs
of
flexible
electronics,
materials
with
outstanding
application
potential
are
constantly
being
designed
and
optimized.
Biomimetic
polymer
particularly
appealing
due
to
their
versatility
ease
fabrication,
but
mechanical
reliability,
thermomechanical
constitutive
behavior
under
extreme
working
loads,
remains
unclear.
In
this
paper,
impact
responses
a
3D
printed
biomimetic
material
named
"Tangoblack"
investigated
thermomechanical,
focusing
on
effect
strain
rate.
By
adjusting
pressure
gas
gun
in
split
Hopkinson
bar,
different
rates
achieved,
while
high
temperature
tested
sample
can
be
controlled
using
heating
furnace
integrated
into
experiment
system.
Materials
for
pulse
shapers
carefully
selected
ensure
longer
durations
at
nearly
constant
rates.
The
behaviour
is
further
wide
rate
range
from
958
s-1
2158
three
temperatures
(20
°C,
70
°C
120
°C).
results
demonstrate
significant
dependence
both
temperature.
A
rapid
increase
forming
enhances
hardening
process,
simultaneously
revealing
substantial
softening
effect.
Then,
an
improved
nonlinear
thermoviscoelastic
ZWT
model
proposed
utilizing
Vogel-Fulcher-Tammann
equation
implemented
as
user-defined
ABAQUS/Explicit.
demonstrated
distinctly
advantageous,
which
suggests
novel
pathway
describing
reliability
conditions.
Language: Английский
Eutectogel adhesives with underwater-enhanced adhesion to hydrophilic surfaces and strong adhesion in harsh environments
Kaiqi Fan,
No information about this author
Wentong Yang,
No information about this author
Jiwei Peng
No information about this author
et al.
Chemical Engineering Journal,
Journal Year:
2024,
Volume and Issue:
unknown, P. 156213 - 156213
Published: Sept. 1, 2024
Language: Английский
Keratin eutectogel as a strain sensor: Towards environmentally friendly technologies
European Polymer Journal,
Journal Year:
2025,
Volume and Issue:
unknown, P. 113791 - 113791
Published: Feb. 1, 2025
Language: Английский
A Flexible and Adhesive Strain Sensor Based on Deep Eutectic Solvents for Deep Learning-Assisted Signal Recognition
ACS Applied Materials & Interfaces,
Journal Year:
2025,
Volume and Issue:
unknown
Published: April 24, 2025
Flexible
wearable
electronic
devices
have
garnered
significant
interest
due
to
their
inherent
properties,
serving
as
replacements
for
traditional
rigid
metal
conductors
in
personal
healthcare
monitoring,
human
motion
detection,
and
sensory
skin
applications.
Here,
we
report
a
preparation
strategy
self-adhesive,
ultrahigh
stretchable
DGel
based
on
poly(acrylic
acid)
(PAA).
The
resulting
exhibits
high
tensile
strength
(approximately
2.16
MPa)
an
stretchability
5622.14%).
More
importantly,
these
meticulously
designed
DES
gels
demonstrate
signal
recognition
capabilities
under
strains
ranging
from
1
500%.
also
shows
excellent
cyclic
stability
durability
(5000
cycles
at
100%
strain),
exhibiting
superior
electromechanical
performance
strain
sensor.
of
is
attributed
the
synergistic
effects
chemical
physical
cross-linking
within
gel.
Additionally,
can
be
effortlessly
assembled
into
sensors.
By
integration
flexible
sensing
with
deep
learning,
fabricated
touch
system
achieves
identification
accuracy
up
99.33%.
This
advancement
offers
new
insights
designing
novel
variety
applications,
including
tissue
engineering,
sensing,
devices.
Language: Английский
Ultrastrength High-Sensitivity Poly(acrylic acid)-Based Deep Eutectic Solvents Gel for Wearable Strain Sensing and Human Health Monitoring
ACS Applied Polymer Materials,
Journal Year:
2024,
Volume and Issue:
6(9), P. 5385 - 5393
Published: April 25, 2024
Flexible
sensing
materials
play
a
pivotal
role
in
realizing
human–machine
interfaces,
biomedical
electronic
applications,
and
robust
wearable
sensors.
Deep
eutectic
solvents
(DES),
as
eco-friendly
alternatives
to
ionic
liquids,
have
garnered
considerable
attention.
However,
achieving
both
high
strength
sensitivity
DES
gel
(DGel)
poses
formidable
challenge.
In
this
study,
we
present
method
for
producing
DGel
with
sensitivity,
utilizing
poly(acrylic
acid)
(PAA).
The
resulting
DGels
demonstrate
satisfactory
tensile
(approximately
17.17
MPa)
impressive
elongation
329.2%).
Most
notably,
these
meticulously
engineered
exhibit
notable
(GF
=
16.14)
across
strain
range
of
0.1%
200%.
also
exhibits
adequate
cyclic
stability
durability,
making
them
ideal
candidates
sensors
outstanding
electromechanical
performance.
exceptional
arises
from
combination
chemical
physical
cross-linking
within
the
structure.
Additionally,
can
be
easily
integrated
into
sensors,
holding
substantial
potential
development
next-generation
high-performance
flexible
devices.
Language: Английский