International Journal of Molecular Sciences,
Год журнала:
2023,
Номер
24(5), С. 4312 - 4312
Опубликована: Фев. 21, 2023
Bone
defects
characterized
by
limited
regenerative
properties
are
considered
a
priority
in
surgical
practice,
as
they
associated
with
reduced
quality
of
life
and
high
costs.
In
bone
tissue
engineering,
different
types
scaffolds
used.
These
implants
represent
structures
well-established
that
play
an
important
role
delivery
vectors
or
cellular
systems
for
cells,
growth
factors,
bioactive
molecules,
chemical
compounds,
drugs.
The
scaffold
must
provide
microenvironment
increased
potential
at
the
damage
site.
Magnetic
nanoparticles
linked
to
intrinsic
magnetic
field,
when
incorporated
into
biomimetic
structures,
can
sustain
osteoconduction,
osteoinduction,
angiogenesis.
Some
studies
have
shown
combining
ferromagnetic
superparamagnetic
external
stimuli
such
electromagnetic
field
laser
light
enhance
osteogenesis
angiogenesis
even
lead
cancer
cell
death.
therapies
based
on
vitro
vivo
could
be
included
clinical
trials
large
defect
regeneration
treatments
near
future.
We
highlight
scaffolds'
main
attributes
focus
natural
synthetic
polymeric
biomaterials
combined
their
production
methods.
Then,
we
underline
structural
morphological
aspects
mechanical,
thermal,
properties.
Great
attention
is
devoted
effects
biocompatibility,
osteogenic
impact
reinforced
nanoparticles.
explain
biological
processes
activated
due
particles'
presence
possible
toxic
effects.
present
some
regarding
animal
tests
applications
scaffolds.
Metallic
materials
such
as
stainless
steel
(SS),
titanium
(Ti),
magnesium
(Mg)
alloys,
and
cobalt-chromium
(Co-Cr)
alloys
are
widely
used
biomaterials
for
implant
applications.
implants
sometimes
fail
in
surgeries
due
to
inadequate
biocompatibility,
faster
degradation
rate
(Mg-based
alloys),
inflammatory
response,
infections,
inertness
(SS,
Ti,
Co-Cr
lower
corrosion
resistance,
elastic
modulus
mismatch,
excessive
wear,
shielding
stress.
Therefore,
address
this
problem,
it
is
necessary
develop
a
method
improve
the
biofunctionalization
of
metallic
surfaces
by
changing
materials’
surface
morphology
without
altering
mechanical
properties
implants.
Among
various
methods,
modification
on
applying
coatings
an
effective
way
material
performance.
In
review,
we
discuss
recent
developments
ceramics,
polymers,
Their
biocompatibility
also
discussed.
The
trends
biomedical
implants,
applications,
their
future
directions
were
discussed
detail.
Bioactive Materials,
Год журнала:
2022,
Номер
23, С. 156 - 169
Опубликована: Ноя. 11, 2022
The
skeletal
system
is
responsible
for
weight-bearing,
organ
protection,
and
movement.
Bone
diseases
caused
by
trauma,
infection,
aging
can
seriously
affect
a
patient's
quality
of
life.
targeted
biomaterials
are
suitable
the
treatment
bone
diseases.
Biomaterials
with
bone-targeted
properties
improve
drug
utilization
reduce
side
effects.
A
large
number
micro-nano
materials
have
been
developed.
However,
only
few
studies
addressed
hydrogel.
size
hydrogel
makes
it
difficult
to
achieve
systematic
targeting.
local
still
has
significant
prospects.
Molecules
in
bone/cartilage
extracellular
matrix
cells
provide
binding
sites
Drug
delivery
systems
featuring
microgels
targeting
key
construction
strategy
Besides,
injectable
depot
carrying
drugs
another
strategy.
In
this
review,
we
summarize
through
application
environment,
strategies
disease
applications.
We
hope
article
will
reference
development
hydrogels.
also
could
increase
awareness
materials.
British Journal of Pharmacology,
Год журнала:
2021,
Номер
179(2), С. 201 - 217
Опубликована: Окт. 22, 2021
Osteosarcoma
is
one
of
the
most
common
primary
tumours
bone,
with
a
5-year
survival
rate
less
than
20%
after
development
metastases.
highly
predisposed
in
Paget's
disease
and
both
have
characteristic
skeletal
features
due
to
rapid
bone
remodelling.
prognosis
location
dependent,
which
further
emphasizes
likely
contribution
microenvironment
its
pathogenesis.
Mechanobiology
describes
processes
involved
when
mechanical
cues
from
changing
physical
are
transduced
biological
pathways
through
mechanosensitive
cellular
components.
Mechanobiology-driven
therapies
been
used
curb
tumour
progression
by
direct
alteration
or
inhibition
metastasis-associated
proteins.
This
review
mechanobiology
osteosarcoma
sheds
light
on
current
mechanobiology-based
potential
new
targets
for
improving
management.
Additionally,
many
different
3D
models
currently
study
summarized.
Polymers,
Год журнала:
2022,
Номер
14(4), С. 799 - 799
Опубликована: Фев. 18, 2022
In
recent
years,
biomaterials
development
and
characterization
for
new
applications
in
regenerative
medicine
or
controlled
release
represent
one
of
the
biggest
challenges.
Tissue
engineering
is
most
intensively
studied
domain
where
hydrogels
are
considered
optimum
biomedical
field.
The
delicate
nature
their
low
mechanical
strength
limit
exploitation
tissue
engineering.
Hence,
developing
new,
stronger,
more
stable
with
increased
biocompatibility,
essential.
However,
both
natural
synthetic
polymers
possess
many
limitations.
Hydrogels
based
on
offer
particularly
high
biocompatibility
biodegradability,
immunogenicity,
excellent
cytocompatibility,
variable,
controllable
solubility.
At
same
time,
they
have
poor
properties,
production
costs,
reproducibility.
Synthetic
come
to
aid
through
superior
strength,
reproducibility,
reduced
ability
regulate
composition
improve
processes
such
as
hydrolysis
biodegradation
over
variable
periods.
mixtures
can
lead
optimization
properties
obtain
ideal
scaffolds.
Also,
incorporating
different
nanoparticles
hydrogel's
stability
several
biological
effects.
this
regard,
essential
oils
drug
molecules
facilitate
desired
effect
even
produce
a
synergistic
effect.
This
study's
main
purpose
establish
needed
develop
sustainable
polymeric
These
scaffolds
be
applied
regeneration
process
without
producing
other
side
effects
environment.
Signal Transduction and Targeted Therapy,
Год журнала:
2024,
Номер
9(1)
Опубликована: Июль 1, 2024
The
applications
of
hydrogels
have
expanded
significantly
due
to
their
versatile,
highly
tunable
properties
and
breakthroughs
in
biomaterial
technologies.
In
this
review,
we
cover
the
major
achievements
potential
therapeutic
applications,
focusing
primarily
on
two
areas:
emerging
cell-based
therapies
promising
non-cell
modalities.
Within
context
cell
therapy,
discuss
capacity
overcome
existing
translational
challenges
faced
by
mainstream
therapy
paradigms,
provide
a
detailed
discussion
advantages
principal
design
considerations
for
boosting
efficacy
as
well
list
specific
examples
different
disease
scenarios.
We
then
explore
drug
delivery,
physical
intervention
therapies,
other
areas
(e.g.,
bioadhesives,
artificial
tissues,
biosensors),
emphasizing
utility
beyond
mere
delivery
vehicles.
Additionally,
complement
our
latest
progress
clinical
application
outline
future
research
directions,
particularly
terms
integration
with
advanced
biomanufacturing
This
review
aims
present
comprehensive
view
critical
insights
into
selection
both
tailored
meet
requirements
diverse
diseases
situations.
Materials Science and Engineering C,
Год журнала:
2021,
Номер
131, С. 112525 - 112525
Опубликована: Окт. 28, 2021
3D-printing
technology
allows
the
automated
and
reproducible
manufacturing
of
functional
structures
for
tissue
engineering
with
customized
geometries
compositions
by
depositing
materials
layer-by-layer
high
precision.
For
these
purposes,
production
bioactive
gel-based
3D-scaffolds
made
biocompatible
well-defined
internal
structure
comprising
a
dual
(mesoporous
macroporous)
highly
interconnected
porosity
is
essential.
In
this
work,
aerogel
scaffolds
bone
regeneration
purposes
were
obtained
an
innovative
strategy
that
combines
alginate-hydroxyapatite
(HA)
hydrogels
supercritical
CO2
drying
gels.
BET
SEM
analyses
performed
to
assess
textural
parameters
dimensional
accuracy
original
computer-aided
design
(CAD)
was
also
evaluated.
The
biological
characterization
carried
out
regarding
cell
viability,
adhesion
migration
capacity.
alginate-HA
porous,
biocompatible,
fidelity
CAD-pattern
allowed
attachment
proliferation
mesenchymal
stem
cells
(MSCs).
An
enhancement
fibroblast
toward
damaged
area
observed
in
presence
formulations
tested,
which
positive
terms
regeneration.
Materials Horizons,
Год журнала:
2023,
Номер
10(9), С. 3325 - 3350
Опубликована: Янв. 1, 2023
This
review
provides
a
brief
overview
of
the
recent
developments
in
hydrogel
systems
that
respond
dynamically
to
various
stimuli,
including
some
interesting
fabrication
strategies,
and
their
application
cardiac,
bone,
neural
tissue
regeneration.
Carbon,
Год журнала:
2024,
Номер
223, С. 118970 - 118970
Опубликована: Фев. 26, 2024
Hydrogel-integrated
graphene
superstructures
(GSSs)
represent
a
promising
platform
for
applications
in
tissue
engineering
and
regenerative
medicine.
Graphene,
two-dimensional
carbon-based
material,
possesses
remarkable
mechanical,
thermal,
electrical
characteristics,
making
it
strong
candidate
application
biomedicine.
Researchers
have
pursued
the
integration
of
with
hydrogels,
known
their
biocompatibility
ability
to
provide
conducive
environment
cellular
growth,
craft
sophisticated
scaffolds
tailored
needs.
The
hydrogels
enables
construction
3D
frameworks
that
closely
mimic
natural
extracellular
matrix
(ECM)
found
biological
tissues.
Hydrogels
furnish
biocompatible,
well-hydrated
environment,
while
component
bolsters
scaffold's
mechanical
integrity
conductivity.
This
amalgamation
enhances
adhesion,
differentiation,
proliferation,
thereby
facilitating
regeneration.
A
notable
advantage
hydrogel-integrated
GSSs
lies
capacity
support
growth
differentiation
variety
cell
types
such
as
PC12,
MG-63,
U-87,
MC3T3-E1
lines.
Overall,
exhibit
great
potential
advancing
biomimetic
combination
unique
properties
development
advanced
scaffold
systems
Further
research
this
domain
will
play
crucial
role
medicine
treatment
various
diseases
injuries.