MedComm – Biomaterials and Applications,
Год журнала:
2022,
Номер
1(2)
Опубликована: Сен. 1, 2022
Abstract
Photothermal
therapy
(PTT)
has
been
regarded
as
a
promising
strategy
considering
its
advantages
of
high
inherent
specificity
and
lower
invasive
burden.
Since
the
photothermal
killing
cells/bacteria
showed
different
patterns
death
depending
on
varying
temperature
in
PTT,
change
PTT
is
vital
to
cell/tissue
response
scientific
research
clinical
application.
On
one
hand,
mild
received
substantial
attention
treatment
cancer
soft/hard
tissue
repair.
other
induced
by
capable
antibacterial
capacity,
which
better
than
conventional
antibiotic
with
drug
resistance.
Herein,
we
summarize
recent
developments
application
temperature‐dependent
biomaterials,
mainly
covering
ranges
40–42°C,
43–50°C,
over
50°C.
We
highlight
biological
mechanism
latest
progress
diseases.
Finally,
conclude
discussing
challenges
perspectives
biomaterials
addressing
temperature‐orchestrated
PTT.
Given
deep
understanding
interaction
between
biology,
rationally
designed
sophisticated
responsiveness
will
benefit
outcomes
personalized
toward
various
Rapid
and
effective
repair
of
injured
or
diseased
bone
defects
remains
a
major
challenge
due
to
shortages
implants.
Smart
hydrogels
that
respond
internal
external
stimuli
achieve
therapeutic
actions
in
spatially
temporally
controlled
manner
have
recently
attracted
much
attention
for
therapy
regeneration.
These
can
be
modified
by
introducing
responsive
moieties
embedding
nanoparticles
increase
their
capacity
repair.
Under
specific
stimuli,
smart
variable,
programmable,
controllable
changes
on
demand
modulate
the
microenvironment
promoting
healing.
In
this
review,
we
highlight
advantages
summarize
materials,
gelation
methods,
properties.
Then,
overview
recent
advances
developing
biochemical
signals,
electromagnetic
energy,
physical
including
single,
dual,
multiple
types
enable
physiological
pathological
modulating
microenvironment.
discuss
current
challenges
future
perspectives
regarding
clinical
translation
hydrogels.
Biomacromolecules,
Год журнала:
2023,
Номер
25(4), С. 2075 - 2113
Опубликована: Июль 5, 2023
The
field
of
bone
tissue
engineering
has
seen
significant
advancements
in
recent
years.
Each
year,
over
two
million
transplants
are
performed
globally,
and
conventional
treatments,
such
as
grafts
metallic
implants,
have
their
limitations.
Tissue
offers
a
new
level
treatment,
allowing
for
the
creation
living
within
biomaterial
framework.
Recent
advances
biomaterials
provided
innovative
approaches
to
rebuilding
function
after
damage.
Among
them,
gelatin
methacryloyl
(GelMA)
hydrogel
is
emerging
promising
supporting
cell
proliferation
regeneration,
GelMA
exhibited
exceptional
physicochemical
biological
properties,
making
it
viable
option
clinical
translation.
Various
methods
classes
additives
been
used
application
with
incorporation
nanofillers
or
other
polymers
enhancing
its
resilience
functional
performance.
Despite
results,
fabrication
complex
structures
that
mimic
architecture
provision
balanced
physical
properties
both
vasculature
growth
proper
stiffness
load
bearing
remain
challenges.
In
terms
utilizing
osteogenic
additives,
priority
should
be
on
versatile
components
promote
angiogenesis
osteogenesis
while
reinforcing
structure
applications.
This
review
focuses
efforts
advantages
GelMA-based
composite
engineering,
covering
literature
from
last
five
Bioactive Materials,
Год журнала:
2024,
Номер
38, С. 346 - 373
Опубликована: Май 9, 2024
Gelatin
methacryloyl
(GelMA)
hydrogels
is
a
widely
used
bioink
because
of
its
good
biological
properties
and
tunable
physicochemical
properties,
which
has
been
in
variety
tissue
engineering
regeneration.
However,
pure
GelMA
limited
by
the
weak
mechanical
strength
lack
continuous
osteogenic
induction
environment,
difficult
to
meet
needs
bone
repair.
Moreover,
are
unable
respond
complex
stimuli
therefore
adapt
physiological
pathological
microenvironments.
This
review
focused
on
functionalization
strategies
hydrogel
based
bioinks
for
The
synthesis
process
was
described
details,
various
functional
methods
requirements
regeneration,
including
strength,
porosity,
vascularization,
differentiation,
immunoregulation
patient
specific
repair,
etc.
In
addition,
response
smart
GelMA-based
external
physical
stimulation
internal
microenvironment
stimulation,
as
well
achieve
both
disease
treatment
regeneration
presence
common
diseases
(such
inflammation,
infection,
tumor)
also
briefly
reviewed.
Finally,
we
emphasized
current
challenges
possible
exploration
directions
Frontiers in Bioengineering and Biotechnology,
Год журнала:
2022,
Номер
10
Опубликована: Ноя. 3, 2022
In
the
past
decades,
diseases
such
as
wound
infection,
cancer,
bone
defect
and
osteoarthritis
have
constantly
threatened
public
health.
However,
traditional
treatment
has
many
insufficiencies,
high
cost,
easy
recurrence
biological
toxicity.
Hydrogel
is
a
material
with
three-dimensional
network
structure,
which
series
of
advantages,
injectability,
self-heal
ability,
loading
controllability
drug
release,
excellent
biocompatibility.
Therefore,
it
extensively
used
in
delivery,
antibacterial,
anti-cancer
other
fields.
hydrogels
single
performance,
therapeutic
efficacy
often
rely
on
drugs
loaded
them
to
cure
diseases,
cannot
achieve
sustainable
effect.
order
solve
this
problem,
photothermal
nano
hydrogel
agent
(PTA)
become
an
ideal
due
its
physical
chemical
properties.
Photothermal
therapy
(PTT)
can
exploit
effect
increase
local
temperature
control
sol-gel
phase
transition
behavior
hydrogels,
so
they
are
widely
sterilization,
inhibition
cancer
cells
enhancement
repair.
To
sum
up,
paper
introduces
preparation
nanomaterials,
discusses
their
applications
fields
cell
enhanced
Advanced Functional Materials,
Год журнала:
2023,
Номер
34(1)
Опубликована: Сен. 15, 2023
Abstract
Physical
cues
like
morphology,
light,
electric
signal,
mechanic
magnetic
and
heat
can
be
used
as
alternative
regulators
for
expensive
but
short‐acting
growth
factors
in
bone
tissue
engineering
to
promote
osteogenic
differentiation
regeneration.
As
physical
stimulation
applied
directly
the
cannot
focused
on
defect
area
regulate
cell
behaviors
fate
situ,
this
limits
efficiency
of
precise
Biomaterials‐mediated
situ
cues,
an
effective
strategy
combining
synergistic
effect
materials
themselves,
are
put
forward
studied
widely
repair
efficiently
precisely.
Different
types
provide
different
choices
better
satisfy
requirements
targeted
repair.
In
review,
recent
research
about
biomaterials‐mediated
accelerating
osteogenesis
vitro
promoting
formation
vivo
is
introduced.
Meanwhile,
corresponding
possible
mechanisms
various
regulating
responses
also
discussed.
This
review
provides
useful
enlightening
guidance
utilization
intrinsically
properties
functional
achieve
efficient
regeneration,
leading
design
construction
smart
biomaterials
practical
applications,
eventually
clinical
translation.
Advanced Functional Materials,
Год журнала:
2023,
Номер
33(19)
Опубликована: Март 4, 2023
Abstract
The
treatment
of
irregular
bone
defects
remains
a
clinical
challenge
since
the
current
biomaterials
(e.g.,
calcium
phosphate
cement
(CPC))
mainly
act
as
inert
substitutes,
which
are
incapable
transforming
into
regenerated
host
(termed
functional
regeneration).
Ideally,
implant
degradation
rate
should
adapt
to
that
regeneration,
therefore
providing
sufficient
physicochemical
support
and
giving
space
for
growth.
This
study
aims
develop
an
injectable
biomaterial
with
regeneration‐adapted
degradability,
reconstruct
biomimetic
bone‐like
structure
can
timely
transform
new
bone,
facilitating
regeneration.
To
achieve
this
goal,
hybrid
(LP‐CPC@gelatin,
LC)
hydrogel
is
synthesized
via
one‐step
incorporation
laponite
(LP)
CPC
gelatin
hydrogel,
LC
gel
controlled
by
adjusting
LP/CPC
ratio
match
regeneration
rate.
Such
shows
good
osteoinduction,
osteoconduction,
angiogenesis
effects,
complete
implant‐to‐new
transformation
capacity.
2D
nanoclay‐based
bionic
induce
ectopic
promote
ligament
graft
osseointegration
in
vivo
inducing
Therefore,
provides
advanced
strategy
skeletal
muscle
repair
minimally
invasive
therapy.
Materials Today Bio,
Год журнала:
2023,
Номер
25, С. 100932 - 100932
Опубликована: Дек. 28, 2023
Bone
fractures
and
critical-size
bone
defects
are
significant
public
health
issues,
clinical
treatment
outcomes
closely
related
to
the
intrinsic
properties
of
utilized
implant
materials.
Zinc
(Zn)-based
biodegradable
metals
(BMs)
have
emerged
as
promising
bioactive
materials
because
their
exceptional
biocompatibility,
appropriate
mechanical
properties,
controllable
biodegradation.
This
review
summarizes
state
art
in
terms
Zn-based
for
repair
regeneration,
focusing
on
bridging
gap
between
biological
mechanism
required
bioactivity.
The
molecular
underlying
release
Zn
ions
from
BMs
improvement
regeneration
is
elucidated.
By
integrating
considerations
specific
bioactivity
materials,
this
current
research
status
internal
fixation
promoting
fracture
healing,
scaffolds
regenerating
defects,
barrier
membranes
reconstituting
alveolar
defects.
Considering
progress
made
potential
applications,
challenges
directions
proposed
discussed.