Engineered Regeneration,
Journal Year:
2024,
Volume and Issue:
5(1), P. 111 - 123
Published: Jan. 14, 2024
The
use
of
antibacterial
dressings
is
crucial
in
the
prevention
and
treatment
wound
infection
emergency
situations.
However,
efficacy
compromised
by
long-term
storage
or
exposure
to
harsh
conditions.
Here,
an
ultrastable
in-situ
silver
nanoparticle
dressing
(AgSNP@CD)
was
prepared
for
effective
emergency.
fabrication
process
AgSNP@CD
simple,
suitable
large-scale
production.
Due
strong
interaction
between
synthesized
AgNPs
cotton
fabric,
owned
remarkable
stability,
thus
retaining
its
antimicrobial
even
after
(up
2
years)
under
extreme
conditions
(damp
heat,
low
temperatures,
low-oxygen,
water
immersion,
acid-alkali
erosion).
Both
vitro
vivo
results
demonstrated
extraordinary
stability
AgSNP@CD,
facilitating
healing
In
particular,
exhibited
a
superior
effect
on
severe
bacteria-infected
trauma
can
prevent
occurrence
sepsis
effectively.
exceptional
complex
make
it
well-suited
strategy
Advanced Healthcare Materials,
Journal Year:
2024,
Volume and Issue:
13(27)
Published: July 27, 2024
Abstract
The
threat
posed
by
antibiotic‐resistant
bacteria
and
the
challenge
of
biofilm
formation
has
highlighted
inadequacies
conventional
antibacterial
therapies,
leading
to
increased
interest
in
photodynamic
therapy
(aPDT)
recent
years.
This
approach
offers
advantages
such
as
minimal
invasiveness,
low
systemic
toxicity,
notable
effectiveness
against
drug‐resistant
bacterial
strains.
Porphyrins
their
derivatives,
known
for
high
molar
extinction
coefficients
singlet
oxygen
quantum
yields,
have
emerged
crucial
photosensitizers
aPDT.
However,
practical
application
is
hindered
challenges
poor
water
solubility
aggregation‐induced
quenching.
To
address
these
limitations,
extensive
research
focused
on
development
porphyrin‐based
nanomaterials
aPDT,
enhancing
efficacy
sterilization
broadening
range
antimicrobial
activity.
review
provides
an
overview
various
utilized
aPDT
eradication
years,
including
porphyrin‐loaded
inorganic
nanoparticles,
polymer
assemblies,
supramolecular
metal–organic
frameworks
(MOFs),
covalent
organic
(COFs).
Additionally,
insights
into
prospects
offered,
highlighting
its
potential
implementation.
Advanced Functional Materials,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Nov. 26, 2024
Abstract
Electrospinning
is
a
significant
manufacturing
strategy
to
create
micro/nanofiber
platforms
that
can
be
considered
biomedical
scaffold
for
tissue
engineering
repair
and
regeneration.
In
recent
years
researchers
have
continuously
broadened
the
equipment
design
materials
development
of
electrospinning
nanofiber
(ENPs),
which
evolved
from
single‐needle
multi‐needle
creating
3D
ENPs,
diversify
their
application
including
drugs/cell/growth
factors
release,
anti‐bacterial
anti‐inflammatory,
hemostasis,
wound
healing,
Herein,
multifunctional
ENPs
with
bioactive
polymer
fabricated
via
in
terms
novel
material
design,
construction
various
structures,
requirements
different
regeneration
are
reviewed.
Furthermore,
this
review
delves
into
advancements
facilitated
by
highlighting
effectiveness
versatility
across
types
such
as
bone,
cartilage,
tendons,
cardiac
tissue,
nerves.
The
discussion
comprehensively
addresses
ongoing
challenges
selection,
biodegradation
mechanisms,
bioactivation
strategies,
techniques
specific
applications.
Moreover,
outlines
potential
future
research
avenues
aimed
at
enhancing
ENPs‐based
approaches
engineering.
This
in‐depth
analysis
aims
provide
nuanced
insights
technical
recommendations
propel
field
forward
Advanced Materials,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Sept. 9, 2024
Abstract
Bacteria
share
a
longstanding
and
complex
relationship
with
humans,
playing
role
in
protecting
gut
health
sustaining
the
ecosystem
to
cause
infectious
diseases
antibiotic
resistance.
Luminogenic
materials
that
aggregation‐induced
emission
(AIE)
characteristics
have
emerged
as
versatile
toolbox
for
bacterial
studies
through
fluorescence
visualization.
Numerous
research
efforts
highlight
superiority
of
AIE
this
field.
Recent
advances
are
categorized
into
four
areas:
understanding
interactions,
antibacterial
strategies,
diverse
applications,
synergistic
applications
bacteria.
Initial
focuses
on
visualizing
unseen
bacteria
progresses
developing
strategies
involving
electrostatic
amphiphilic
luminogens
(AIEgens),
various
enhance
affinity.
progress
includes
using
photodynamic
photothermal
therapies,
toxicity
studies,
combined
therapies.
Diverse
from
environmental
disinfection
disease
treatment,
utilizing
coatings,
sensors,
wound
healing
materials,
etc.,
also
provided.
Finally,
combining
achieve
enhanced
outcomes
explored.
This
review
summarizes
developmental
trend
is
expected
provide
future
directions
advancing
methodologies.
Engineered Regeneration,
Journal Year:
2024,
Volume and Issue:
5(1), P. 111 - 123
Published: Jan. 14, 2024
The
use
of
antibacterial
dressings
is
crucial
in
the
prevention
and
treatment
wound
infection
emergency
situations.
However,
efficacy
compromised
by
long-term
storage
or
exposure
to
harsh
conditions.
Here,
an
ultrastable
in-situ
silver
nanoparticle
dressing
(AgSNP@CD)
was
prepared
for
effective
emergency.
fabrication
process
AgSNP@CD
simple,
suitable
large-scale
production.
Due
strong
interaction
between
synthesized
AgNPs
cotton
fabric,
owned
remarkable
stability,
thus
retaining
its
antimicrobial
even
after
(up
2
years)
under
extreme
conditions
(damp
heat,
low
temperatures,
low-oxygen,
water
immersion,
acid-alkali
erosion).
Both
vitro
vivo
results
demonstrated
extraordinary
stability
AgSNP@CD,
facilitating
healing
In
particular,
exhibited
a
superior
effect
on
severe
bacteria-infected
trauma
can
prevent
occurrence
sepsis
effectively.
exceptional
complex
make
it
well-suited
strategy
