ACS Omega,
Journal Year:
2024,
Volume and Issue:
9(52), P. 50868 - 50893
Published: Dec. 16, 2024
This
review
explores
the
tribological
properties
of
biosourced
lubricants
(biolubricants)
enhanced
by
graphene
(Gr)
and
its
derivatives
hybrids.
Friction
wear
at
mechanical
interfaces
are
primary
causes
energy
loss
machinery
degradation,
necessitating
effective
lubrication
strategies.
Traditional
derived
from
mineral
oils
present
environmental
challenges,
leading
to
an
increased
interest
in
biolubricants
plant
animal
fats.
Biolubricants
offer
high
biodegradability,
renewability,
low
toxicity,
positioning
them
as
ecofriendly
alternatives.
work
extensively
reviews
role
Gr-based
nanoadditives
enhancing
biolubricants.
Gr
with
exceptional
physicomechanical
has
shown
promise
reducing
friction
wear.
The
covers
various
derivatives,
including
oxide
(GO)
reduced
(r-GO),
their
performance
additives.
discussion
extends
hybrids
metals,
polymers,
other
2D
materials,
highlighting
synergistic
effects
on
performance.
mechanisms
through
which
these
additives
enhance
lubrication,
such
formation
protective
films
improved
interactions
between
tribopairs,
examined.
Emphasis
is
placed
benefits
potential
improvements
Finally,
analyzing
current
research
technological
trends,
paper
outlines
future
prospects
for
optimizing
lubricant
formulations
nanoadditives,
aiming
more
sustainable
efficient
applications.
Polymers for Advanced Technologies,
Journal Year:
2025,
Volume and Issue:
36(2)
Published: Feb. 1, 2025
ABSTRACT
Recent
developments
in
polymer
materials
have
led
to
an
increased
implementation
of
hydrogels
biomedical
settings,
especially
the
creation
smart
hydrogels.
Traditional
single‐network
often
exhibit
challenges,
such
as
poor
mechanical
strength,
insufficient
biocompatibility,
and
slow
response
rates.
To
address
these
issues,
researchers
introduced
Interpenetrating
Polymer
Network
(IPN)
hydrogels,
which
significantly
improve
strength
via
topological
entanglements
physical
interactions.
This
dual‐network
design
not
only
enhances
biocompatibility
but
also
responsiveness
stimuli,
endowing
with
distinctive
properties
like
cell
adhesion,
conductivity,
hemostatic
functions,
antioxidant
abilities,
color‐changing
properties.
The
purpose
this
article
is
elucidate
factors
that
trigger
stimuli
IPN
their
impacts
on
cellular
behavior,
various
applications
they
can
serve.
A
comprehensive
overview
provided
regarding
classification,
mechanisms,
performance
attributes,
related
subjects.
Ultimately,
review
emphasizes
promise
hold
fulfilling
increasing
need
for
innovative
improved
features
sector.
Polymers for Advanced Technologies,
Journal Year:
2025,
Volume and Issue:
36(4)
Published: April 1, 2025
ABSTRACT
The
rapid
advancement
of
digital
technologies
has
heightened
the
demand
for
multifunctional
smart
materials
with
adaptive
and
responsive
capabilities.
Among
these,
chromogenic
hydrogel
composites
have
emerged
as
promising
candidates
next‐generation
applications
due
to
their
unique
stimuli‐responsive
behavior.
These
hydrogels
exhibit
dynamic
optical
changes
in
response
external
triggers
such
light,
temperature,
pH,
humidity,
mechanical
stress,
electric
or
magnetic
fields,
enabling
a
wide
range
functionalities
data
storage,
security,
authentication,
anti‐counterfeiting
technologies.
This
review
provides
comprehensive
examination
composites,
focusing
on
fundamental
design
principles,
mechanisms,
emerging
systems.
categorizes
these
based
response,
including
photochromic,
hydrochromic,
electrochromic,
magnetochromic,
thermochromic,
tribochromic,
mechanochromic
systems,
analyzing
key
material
compositions
functional
characteristics.
Furthermore,
recent
advances
fabrication
techniques
3D
4D
printing,
self‐healing
networks,
multi‐stimuli‐responsive
are
discussed,
highlighting
potential
programmable
displays,
rewritable
encrypted
security
Finally,
identifies
current
challenges
future
directions
field,
emphasizing
need
enhanced
durability,
faster
times,
improved
integration
insights
presented
this
work
aim
guide
development
innovative
interactive
intelligent
materials.
Polymers for Advanced Technologies,
Journal Year:
2025,
Volume and Issue:
36(4)
Published: April 1, 2025
ABSTRACT
Smart
polymeric
micelles
have
emerged
as
versatile
nanocarriers
in
targeted
drug
delivery,
driven
by
their
unique
ability
to
encapsulate
therapeutic
agents
and
deliver
them
with
precision
specific
sites.
This
review
delves
into
the
recent
advancements
design,
functionality,
biomedical
applications
of
these
nanostructures,
emphasizing
role
enhancing
efficacy
while
minimizing
systemic
toxicity.
The
begins
discussing
principles
behind
stimuli‐responsive
micelles,
exploring
mechanisms
triggered
pH,
redox
conditions,
temperature,
light
achieve
controlled
release.
It
highlights
advances
functionalization
strategies,
including
surface
modifications
targeting
ligands
stimuli‐sensitive
linkages,
which
enhance
specificity
adaptability
pathological
microenvironments.
Subsequent
sections
focus
on
cutting‐edge
applications,
particularly
cancer
therapy,
regenerative
medicine,
theranostics,
showcasing
potential
addressing
complex
clinical
challenges.
Emerging
technologies,
such
multi‐stimuli‐responsive
systems
hybrid
are
explored
for
overcome
limitations
loading,
stability,
release
profiles.
Despite
significant
progress,
current
technologies
still
face
challenges,
achieving
consistent
reproducible
loading
efficiencies,
maintaining
stability
physiological
environments,
controlling
precise
kinetics,
ensuring
scalable
cost‐effective
production
methods.
concludes
a
discussion
challenges
future
perspectives
field,
need
integrating
advanced
polymer
chemistry,
nanotechnology,
biomedicine
develop
next‐generation
smart
micelles.
By
providing
comprehensive
overview,
this
article
aims
underscore
transformative
advancing
medicine
interventions.
Polymers for Advanced Technologies,
Journal Year:
2025,
Volume and Issue:
36(2)
Published: Feb. 1, 2025
ABSTRACT
The
increasing
proliferation
of
electronic
devices
and
advanced
communication
networks
has
resulted
in
heightened
electromagnetic
interference
(EMI),
posing
significant
challenges
both
technological
environmental
contexts.
Traditional
EMI
shielding
materials,
such
as
metals
composite
coatings,
offer
limited
adaptability
are
unable
to
meet
the
dynamic
demands
modern
systems.
Recent
advancements
have
introduced
smart
stimuli‐responsive
materials
for
shielding,
which
provide
real‐time
tunability,
thereby
addressing
limitations
conventional
static
solutions.
These
leverage
various
mechanisms—such
compressive
tensile
strains,
phase
transitions,
shape
memory
effects,
responses
chemical
agents,
humidity,
or
crossover
angle
changes—to
dynamically
adjust
their
effectiveness
(EMI‐SE).
This
review
provides
an
in‐depth
analysis
recent
progress
technologies,
highlighting
tunable
mechanisms,
material
compositions,
applications.
Furthermore,
it
discusses
existing
potential
future
research
directions
required
advancement
this
technology.
By
enabling
environments,
present
a
promising
solution
telecommunications,
wearable
electronics,
aerospace,
defense
sectors.
Polymers for Advanced Technologies,
Journal Year:
2024,
Volume and Issue:
35(12)
Published: Nov. 25, 2024
ABSTRACT
The
exploration
of
cellulose,
a
natural
polysaccharide
derived
from
renewable
biomass,
has
seen
significant
advancements
in
recent
years
due
to
its
biocompatibility,
biodegradability,
and
versatility.
This
review
paper
comprehensively
covers
the
latest
developments
cellulose
derivatives
as
functional
biomaterials
for
various
biomedical
applications.
Emphasis
is
placed
on
intrinsic
properties
such
mechanical
strength,
thermal
stability,
chemical
modifiability,
which
enable
wide‐ranging
use
drug
delivery
systems,
wound
dressings,
tissue
engineering,
biosensors.
article
further
delves
into
modification
techniques—such
oxidation,
esterification,
etherification—that
enhance
cellulose's
performance,
allowing
it
be
fine‐tuned
specialized
medical
applications,
including
creation
scaffolds
regeneration
smart
materials
responsive
release.
Additionally,
hybridization
with
inorganic
offers
potential
developing
superior
antimicrobial
improved
characteristics.
also
addresses
challenges
processing,
particularly
concerning
optimizing
structure
specific
while
highlighting
future
opportunities
field
personalized
medicine
intelligent
healthcare
devices.
By
examining
both
current
innovations
trends,
this
highlights
growing
importance
sustainable
versatile
resource
industry.
Polymers for Advanced Technologies,
Journal Year:
2024,
Volume and Issue:
35(12)
Published: Dec. 1, 2024
ABSTRACT
Recent
advancements
in
naturally
derived
bioadhesives
have
transformed
their
application
across
diverse
medical
fields,
including
tissue
engineering,
wound
management,
and
surgery.
This
review
focuses
on
the
innovative
development
multifunctional
nature
of
these
bioadhesives,
particularly
emphasizing
role
enhancing
adhesion
performance
wet
environments
optimizing
mechanical
properties
for
use
dynamic
tissues.
Key
areas
covered
include
chemical
physical
mechanisms
adhesion,
incorporation
multi‐adhesion
strategies
that
combine
covalent
non‐covalent
bonding,
bioinspired
designs
mimicking
natural
adhesives
such
as
those
barnacles
mussels.
Additionally,
discusses
emerging
applications
regeneration
musculoskeletal,
cardiac,
neural,
ocular
tissues,
highlighting
potential
bioadhesive‐based
therapies
complex
biological
settings.
Despite
substantial
progress,
challenges
scaling
lab‐based
innovations
clinical
overcoming
environmental
constraints
remain
critical.
Ongoing
research
bioadhesive
technologies
aims
to
bridge
gaps,
promising
significant
improvements
tailored
therapeutic
needs.
Polymers for Advanced Technologies,
Journal Year:
2024,
Volume and Issue:
35(12)
Published: Dec. 1, 2024
ABSTRACT
This
review
provides
a
comprehensive
overview
of
the
emerging
applications
stimuli‐responsive
hydrogels
in
3D
printing,
emphasizing
their
transformative
potential
creating
adaptive
and
multifunctional
structures.
Stimuli‐responsive
hydrogels,
including
magneto‐,
thermo‐,
pH‐,
moisture‐,
solvent‐,
photo‐responsive
varieties,
have
gained
significant
attention
due
to
ability
undergo
dynamic
changes
response
specific
environmental
stimuli.
The
begins
by
exploring
fundamental
characteristics
fabrication
methods
used
additive
manufacturing,
highlighting
exceptional
adaptability
programmability.
It
then
delves
into
various
across
diverse
fields,
soft
robotics,
tissue
engineering,
drug
delivery
systems,
wearable
electronics,
food
technology,
electromagnetic
interference
shielding,
anti‐counterfeiting
technologies.
By
integrating
latest
advancements
printing
techniques,
this
aims
offer
insights
how
are
enabling
development
innovative,
intelligent,
environmentally
responsive
systems.
future
perspectives
section
discusses
challenges
opportunities
for
advancing
use
suggesting
directions
research
that
could
push
boundaries
functional
materials
programmable
Polymers for Advanced Technologies,
Journal Year:
2024,
Volume and Issue:
35(12)
Published: Dec. 1, 2024
ABSTRACT
This
review
aims
to
provide
a
comprehensive
analysis
of
recent
advancements
in
smart
microneedles
(MNs)
within
the
biomedical
field,
focusing
on
integration
stimuli‐responsive
polymers
for
enhanced
therapeutic
and
diagnostic
applications.
Conventional
drug
delivery
methods
are
known
face
limitations
precision,
safety,
patient
compliance,
which
can
be
addressed
by
innovative
features
MNs.
Through
use
various
polymers,
these
MNs
have
been
designed
react
environmental
or
physiological
cues,
allowing
on‐demand
release,
biomarker
sensing,
localized
interventions.
Fundamental
materials
used
fabrication
MNs,
including
metals,
composite
hydrogels,
reviewed,
different
categories
stimuli‐responsiveness,
such
as
photo,
electro,
thermal,
mechanical,
biochemical,
explored.
Application‐specific
designs
areas
delivery,
cancer
therapy,
diabetes
management,
skin
disease
treatments
also
examined.
this
discussion,
it
is
highlighted
that
poised
play
significant
role
advancing
personalized
noninvasive
medical
treatments.
Polymers for Advanced Technologies,
Journal Year:
2024,
Volume and Issue:
35(12)
Published: Nov. 29, 2024
ABSTRACT
MXene‐based
hydrogels
represent
a
significant
advancement
in
biomedical
material
science,
leveraging
the
unique
properties
of
2D
MXenes
and
versatile
functionality
hydrogels.
This
review
discusses
recent
developments
integration
into
hydrogel
matrices,
focusing
on
their
applications
such
as
wound
healing,
drug
delivery,
antimicrobial
activity,
tissue
engineering,
biosensing.
MXenes,
due
to
remarkable
electrical
conductivity,
mechanical
robustness,
tunable
surface
chemistry,
enhance
properties,
responsiveness
environmental
stimuli.
Specifically,
have
shown
great
promise
accelerating
healing
through
photothermal
effects,
delivering
drugs
controlled
manner,
serving
antibacterial
agents.
Their
also
enables
targeted
cancer
therapies,
including
chemodynamic
facilitated
by
high
conductivity
properties.
Despite
promising
progress,
challenges
ensuring
biocompatibility
optimizing
synthesis
for
large‐scale
production
remain.
aims
provide
comprehensive
overview
current
state
applications,
highlighting
ongoing
advancements
potential
future
directions
these
multifunctional
materials.