The
special
pathological
microenvironment
of
infected
wounds
(pathology
weakly
acidic,
hypoxic,
and
overexpressed
H2O2)
provides
fertile
soil
for
the
development
disease.
Tailoring
treatment
based
on
specific
characteristics
infectious
(IME)
has
emerged
as
a
novel
direction
in
antimicrobial
therapies.
Here,
polyoxovanadate
(POV)-based
covalent
organic
polymer
(POV-Fc-COP)
with
inherent
photothermal
activity
was
facilely
prepared
via
copolymerization
1,1′-bi(3-dimethylamino-1-oxo-2-enyl-ferrocene)
(BDOEF)
tris-NH2-modified
POV
(tris-V6O9),
which
nanovanadium
oxide
(V2O3
V2O5)
core
shell
were
generated
directly
during
Michael
addition–elimination
reaction.
unique
structure
composition
impart
pH-responsive
peroxidase-like
(POD-like)
catalase-like
(CAT-like)
activities,
concurrently,
to
POV-Fc-COP.
Specifically,
acid-activated
mimicking-POD
could
consume
H2O2
microenvironment,
producing
toxic
•OH
combat
bacteria
biofilms.
vanadium
consumes
excessive
acid,
resulting
an
increase
pH.
Meanwhile,
CAT-like
transform
excess
expression
into
O2
relieve
hypoxia
induced
by
damage
blood
vessels
facilitate
wound
healing.
Additionally,
synergistic
amplified
therapeutic
effect
triggered
application
laser
irradiation
facilitates
rapid
eradication
biofilm,
minimizing
detrimental
impacts
bacterial
proliferation
IME,
thereby
accelerating
restoration
IME
return
normal
state.
Therefore,
POV-Fc-COP
dual-enzyme
functionality
not
only
utilize
but
also
regulate
significantly
expediting
healing
bacteria-infected
wounds.
This
study
demonstrates
simple
method
preparation
intelligent
platform
programmed
antibacterial
antibiofilm
formation,
thus
promoting
while
utilizing
improving
IME.
Environmental Science Nano,
Journal Year:
2024,
Volume and Issue:
11(3), P. 766 - 796
Published: Jan. 1, 2024
Here
we
made
a
critical
review
on
nanozyme-involved
detection
and
degradation
of
environmental
pollutants,
the
research
progress
achieved
in
last
five
years
was
emphatically
concluded.
Small Structures,
Journal Year:
2024,
Volume and Issue:
5(7)
Published: April 26, 2024
Nanozymes,
nanomaterials
exhibiting
enzyme‐mimicking
activities,
have
gained
considerable
interest
in
biomedicine
due
to
their
stability,
adjustability,
and
cost‐efficiency.
Among
these,
metal–organic
framework
(MOF)‐based
nanozymes
distinguish
themselves
by
distinct
structure
customizable
characteristics.
Researchers
explored
MOF‐based
as
a
platform
for
developing
stimuli‐responsive
behaviors.
This
work
first
presents
the
categorization
of
nanozymes,
which
are
designed
mimic
catalytic
functions
oxidases,
peroxidases,
catalase,
superoxide
dismutase,
hydrolases,
multifunctional
enzymes.
Crafting
includes
customizing
reactions
particular
stimuli,
including
pH,
temperature,
light,
or
biomolecular
triggers,
ensuring
enhanced
specificity
potency
performance
amid
environmental
changes.
Moreover,
these
exhibit
immense
potential
biomedical
applications,
playing
crucial
roles
therapeutic
interventions
like
cancer
therapy
tissue
regeneration.
Finally,
article
delves
into
future
opportunities
challenges
within
emerging
research
frontiers.
These
offer
novel
avenues
advanced
strategies,
providing
prospects
innovative
applications.