International Dental Journal,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Sept. 1, 2024
Dental
caries
is
one
of
the
most
common
oral
chronic
infectious
diseases,
and
novel
antibacterial
materials
must
be
developed
to
control
plaque
inhibit
formation
dental
caries.
Combining
magnetic
nanomaterials
with
agents
decrease
bacterial
biofilm
has
been
a
hot
topic
in
biomedical
field.
The
present
study
nanomaterial
chemically
combined
dimethylaminododecyl
methacrylate
(DMADDM)
initially
investigated
its
inhibiting
effects
on
biofilms
by
using
traditional
caries-related
bacteria
saliva
flora
models.
successfully
loaded
DMADDM
according
thermogravimetric
analysis,
Fourier
transform
infrared
spectroscopy,
x-ray
diffraction,
vibrating
sample
magnetometry,
scanning
electron
microscopy,
transmission
microscopy
results.
Further,
nanoparticle
Fe
Advanced Materials,
Journal Year:
2023,
Volume and Issue:
unknown
Published: Aug. 11, 2023
Oral
biofilms,
which
are
also
known
as
dental
plaque,
the
culprit
of
a
wide
range
oral
diseases
and
systemic
diseases,
thus
contributing
to
serious
health
risks.
The
manner
how
achieve
good
control
biofilms
has
been
an
increasing
public
concern.
Novel
antimicrobial
biomaterials
with
highly
controllable
fabrication
functionalization
have
proven
be
promising
candidates.
However,
previous
reviews
generally
emphasized
physicochemical
properties,
action
mode,
application
effectiveness
those
biomaterials,
whereas
insufficient
attention
given
design
rationales
tailored
different
infection
types
scenarios.
To
offer
guidance
for
better
diversification
anti-oral-biofilm
this
review
details
up-to-date
in
three
aspects:
core
strategies
combating
biofilm,
well
advanced
antibiofilm
capacity
multiple
functions
based
on
improvement
or
combination
abovementioned
strategies.
Thereafter,
insights
existing
challenges
future
biomaterial-assisted
biofilm
treatments
proposed,
hoping
provide
theoretical
basis
reference
subsequent
biomaterials.
Frontiers in Microbiology,
Journal Year:
2024,
Volume and Issue:
15
Published: May 22, 2024
Persistent
infection
caused
by
biofilm
is
an
urgent
in
medicine
that
should
be
tackled
new
alternative
strategies.
Low
efficiency
of
classical
treatments
and
antibiotic
resistance
are
the
main
concerns
persistent
due
to
formation
which
increases
risk
morbidity
mortality.
The
gene
expression
patterns
cells
differed
from
those
planktonic
cells.
One
promising
approaches
against
biofilms
nanoparticle
(NP)-based
therapy
NPs
with
multiple
mechanisms
hinder
bacterial
or
forms.
For
instance,
such
as
silver
(Ag),
zinc
oxide
(ZnO),
titanium
dioxide
(TiO
2
),
copper
(Cu),
iron
(Fe
3
O
4
)
through
different
strategies
interfere
bacteria
associated
biofilm.
can
penetrate
into
structure
affect
efflux
pump,
quorum-sensing,
adhesion-related
genes,
lead
inhibit
development.
Therefore,
understanding
targeting
genes
molecular
basis
point
therapeutic
targets
make
possible
control
infections.
In
parallel,
impact
on
environment
their
cytotoxicity
avoided
controlled
exposure
safety
assessments.
This
study
focuses
biofilm-related
potential
for
inhibition
highly
effective
NPs,
especially
metal
NPs.
Nanoscale,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 1, 2025
Biofilms
play
a
pivotal
role
in
bacterial
pathogenicity
and
antibiotic
resistance,
representing
major
challenge
the
treatment
of
infections.
The
limited
diffusion
inactivation
efficacy
antibiotics
within
biofilms
hinder
their
clearance,
while
increasing
dosage
may
enhance
effectiveness,
it
also
promotes
resistance.
Nano-delivery
systems
that
target
antimicrobial
agents
directly
to
offer
promising
strategy
overcome
this
challenge.
This
review
summarizes
resistance
mechanisms
therapeutic
challenges
associated
with
biofilms,
focus
on
recent
advances
nano-delivery
such
as
liposomes,
nanoemulsions,
cell
membrane
vesicles
(CMVs),
polymers,
dendrimers,
nanogels,
inorganic
nanoparticles,
metal-organic
frameworks
(MOFs).
Furthermore,
explores
potential
applications
biofilm
provides
recommendations
guide
future
research
development
field.
Theranostics,
Journal Year:
2023,
Volume and Issue:
13(5), P. 1545 - 1570
Published: Jan. 1, 2023
Pathogenic
bacterial
infections
represent
an
ever-growing
crisis,
now
significantly
threatening
life
expectancy
across
the
worldwide
population
and
thus
novel
approaches
to
tackle
this
issue
are
urgently
needed.The
application
of
nanotechnology
in
recent
years
has
opened
up
new
horizons
selective
or
specific
delivery
drugs
imaging
agents
infectious
sites.In
particular,
development
nanoparticles
for
both
active
substances
infection
sites
is
gathering
much
interest.Although
still
its
infancy,
field
antibacterial
nanomedicines
provides
exciting
possibilities
combat
multi-resistant
shows
great
promise
personalized
medicine
stewardship.This
review
examines
nanoparticle-based
formulations
used
therapeutic
delivery,
pathogen
tracking
diagnosis,
combined
"theranostic"
more
effectively
treating
infections.
Frontiers in Microbiology,
Journal Year:
2023,
Volume and Issue:
14
Published: Feb. 17, 2023
The
rapid
evolution
of
antibiotic
resistance
and
the
complicated
bacterial
infection
microenvironments
are
serious
obstacles
to
traditional
therapy.
Developing
novel
antibacterial
agents
or
strategy
prevent
occurrence
enhance
efficiency
is
utmost
importance.
Cell
membrane-coated
nanoparticles
(CM-NPs)
combine
characteristics
naturally
occurring
membranes
with
those
synthetic
core
materials.
CM-NPs
have
shown
considerable
promise
in
neutralizing
toxins,
evading
clearance
by
immune
system,
targeting
specific
bacteria,
delivering
antibiotics,
achieving
responsive
released
microenvironments,
eradicating
biofilms.
Additionally,
can
be
utilized
conjunction
photodynamic,
sonodynamic,
photothermal
therapies.
In
this
review,
process
for
preparing
briefly
described.
We
focus
on
functions
recent
advances
applications
several
types
infection,
including
derived
from
red
blood
cells,
white
platelet,
bacteria.
other
such
as
dendritic
genetically
engineered
gastric
epithelial
cells
plant-derived
extracellular
vesicles
introduced
well.
Finally,
we
place
a
perspective
CM-NPs’
list
challenges
encountered
field
preparation
application
standpoint.
believe
that
technology
will
reduce
threats
posed
bacteria
save
lives
infectious
diseases
future.
Bioactive Materials,
Journal Year:
2023,
Volume and Issue:
29, P. 72 - 84
Published: June 29, 2023
Caries
is
considered
to
be
the
most
prevalent
non-communicable
disease
in
humans,
mainly
deriving
from
acidogenic
bacterial
biofilm
and
resulting
demineralization
decomposition
of
hard
dental
tissue.
Herein,
a
composite
responsive
foam
brace
loaded
with
magnesium
organic
framework
(MPC)
designed
for
caries
prevention
tooth
remineralization.
MPC
can
intelligently
release
antibacterial
molecules
(gallic
acid)
mineralized
ions
(Mg2+,
Ca2+
PO43-)
under
acidic
conditions
(pH
<
5.5)
infection,
regulating
pH
killing
bacteria.
Additionally,
due
excellent
photothermal
conversion
efficiency,
further
enhance
destruction
by
inhibiting
virulence
genes
destroying
adhesion
near-infrared
light
irradiation
(808
nm).
More
importantly,
not
only
reverse
cariogenic
environment
at
both
microbial
levels,
but
also
promote
self-healing
demineralized
teeth
terms
micro-structure
mechanical
properties.