Intelligent Nanomaterials Design for Osteoarthritis Managements
Small Methods,
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 30, 2025
Osteoarthritis
(OA)
is
the
most
prevalent
degenerative
joint
disorder,
characterized
by
progressive
degradation,
pain,
and
diminished
mobility,
all
of
which
collectively
impair
patients'
quality
life
escalate
healthcare
expenditures.
Current
treatment
options
are
often
inadequate
due
to
limited
efficacy,
adverse
side
effects,
temporary
symptom
relief,
underscoring
urgent
need
for
more
effective
therapeutic
strategies.
Recent
advancements
in
nanomaterials
nanomedicines
offer
promising
solutions
improving
drug
bioavailability,
reducing
effects
providing
targeted
benefits.
This
review
critically
examines
pathogenesis
OA,
highlights
limitations
existing
treatments,
explores
latest
innovations
intelligent
design
OA
therapy,
with
an
emphasis
on
their
engineered
properties,
mechanisms,
translational
potential
clinical
application.
By
compiling
recent
findings,
this
work
aims
inspire
further
exploration
innovation
nanomedicine,
ultimately
advancing
development
personalized
therapies.
Language: Английский
The advances in zwitterionic materials and their biomedical applications
Wei He,
No information about this author
Jiayao Wen,
No information about this author
Qiaoying Hu
No information about this author
et al.
International Materials Reviews,
Journal Year:
2025,
Volume and Issue:
unknown
Published: April 13, 2025
In
recent
years,
zwitterionic
materials
have
been
widely
used
in
biomedical
and
nanomedical
due
to
their
unique
structure
which
the
molecule
is
electrically
neutral
with
equal
positive
negative
charge.
This
kind
of
material
could
form
a
thick
hydration
layer
by
electrostatic
effect,
prevent
contamination,
show
wide
applications
life
science
fields,
such
as
resisting
non-specific
protein
adsorption,
biofilm,
thrombosis
formation,
so
on.
Most
importantly,
diversity
functional
groups
has
made
it
more
convenient
for
surface
modification
further
utilization,
creating
multifunctional
various
applications.
review
summarized
up-to-date
materials,
including
conventional
novel
structural
characteristics,
well
blood-contacting
implantable
devices,
antibacterial
coatings,
wound
dressings,
drug-targeted
carriers,
smart
wearable
biosensors,
especially
clinical
uses.
New
discoveries,
existing
challenges,
commercial
status
are
also
outlined,
future
opportunities
development
perspectives
new
biomaterials
demonstrated.
Language: Английский
Molecular Dynamics Investigation of the Shearing Behavior of Short-Chain Additives at Nanoscale Rough Ceramic/Polymer Interfaces: Implications for Biomedical Applications
Linhui Hu,
No information about this author
Guang Ma,
No information about this author
Shuai Wang
No information about this author
et al.
ACS Applied Nano Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 3, 2025
The
shearing
behavior
between
ceramics
and
polymers
is
crucial
for
the
performance
of
composite
materials,
especially
in
applications
like
total
knee
replacement,
where
it
significantly
impacts
wear
durability
artificial
joints.
However,
atomic
evolution
mechanism
at
interface
during
shear
key
influencing
factors
nanoscale
are
not
fully
understood.
To
address
this,
we
use
a
molecular
dynamics
approach
to
model
short
PP
chain
additives
SiO2/PP
interface,
focusing
on
underlying
mechanisms
under
both
smooth
rough
conditions.
results
show
that
with
its
roughness,
induces
significant
deformation
due
hindering
effect
SiO2,
whereas
exhibits
minimal
deformation.
As
result,
higher
interfacial
stress.
study
further
examines
impact
finding
increased
roughness
(larger
amplitude
or
smaller
wavelength)
intensifies
obstructive
chain,
leading
larger
Additionally,
loading
velocity
considered.
Within
typical
velocity,
negligible,
effects
only
occurring
when
exceeds
several
hundred
meters
per
second.
Finally,
propose
forming
cross-linked
network
from
short-chain
can
serve
as
an
approximation
long-chain
discuss
cross-linking.
findings
provide
valuable
insights
into
interfaces
contribute
understanding
friction
wear,
particularly
such
replacement
field
biomedical
applications.
Language: Английский