Intelligent
controlled-release
nanopesticides
have
been
a
crucial
tactic
in
advanced
precision
agriculture
during
the
past
few
years,
which
can
improve
pesticide
utilization
and
reduce
environmental
pollution.
Herein,
novel
hydroxypropyl
methylcellulose-based
nanopesticide
carrier
(PCH)
with
pH-/enzyme-/near-infrared
multiple
responses
was
constructed
by
initial
cross-linking
dimethyl
diallyl
ammonium
chloride
subsequent
copper
ion
chelation
polydopamine
coating.
Avermectin
(Av)
further
loaded
to
create
intelligent
release
system
(APCH)
antisolvent
precipitation.
The
of
APCH
increases
under
near-infrared
light
(NIR)
conditions,
an
accumulative
that
is
3.26
times
higher
than
without
NIR.
contact
angles
on
cabbage
leaves
are
33
29%
lower
those
water
technical
Av
(Av-tech),
respectively,
verifying
has
good
wettability
property.
Simultaneously,
displays
better
insecticidal
activity
formulations
because
its
outstanding
ultraviolet
(UV)
stability
Av.
degradation
rate
less
2%
50
h
UV
light,
considerably
Av-tech
(∼60%).
biosafety
assessments
manifest
PCH
remarkable
biological
safety
growth
nontarget
organisms
certain
range.
Overall,
bio-friendly
multiple-response
behaviors,
excellent
stability,
foliar
deposition
performance,
offer
new
strategy
for
sustainable
agricultural
development.
Nano-Micro Letters,
Journal Year:
2024,
Volume and Issue:
16(1)
Published: May 14, 2024
The
flourishing
progress
in
nanotechnology
offers
boundless
opportunities
for
agriculture,
particularly
the
realm
of
nanopesticides
research
and
development.
However,
concerns
have
been
raised
regarding
human
environmental
safety
issues
stemming
from
unrestrained
use
non-therapeutic
nanomaterials
nanopesticides.
It
is
also
important
to
consider
whether
current
development
strategy
based
on
nanocarriers
can
strike
a
balance
between
investment
return,
if
complex
material
composition
genuinely
improves
efficiency,
safety,
circularity
Herein,
we
introduced
concept
with
minimizing
carriers
(NMC)
prepared
through
prodrug
design
molecular
self-assembly
emerging
as
practical
tools
address
limitations,
compared
it
employing
(NNC).
We
further
summarized
NMC
examined
potential
challenges
its
preparation,
performance,
production.
Overall,
asserted
that
systems
serve
innovative
driving
force
catalyzing
green
efficient
revolution
nanopesticides,
offering
way
out
predicament.
Advanced Functional Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 28, 2025
Abstract
The
development
of
multi‐action
pesticides
presents
significant
advantages,
including
cost‐effectiveness,
reduced
application
frequency,
enhanced
resistance
management,
and
minimized
environmental
impact.
Despite
its
efficacy
in
targeting
chitin
synthase
both
fungi
insects,
the
insecticidal
performance
polyoxin
B
remains
limited.
To
overcome
this
limitation,
a
novel
nano‐formulation,
B@ZTS
is
developed,
utilizing
agricultural
byproducts,
tea
saponin,
zein.
This
formulation
features
small
particle
size,
high
leaf
deposition
efficiency,
excellent
dispersion
properties.
Leveraging
disulfide
bond
system,
designed
to
respond
intracellular
reducing
environment,
enabling
controlled
release
B.
Remarkably,
nano‐formulation
facilitates
penetration
physiological
barriers,
achieving
equivalent
fungicidal
at
only
one‐fifth
dosage.
work
highlights
potential
eco‐friendly,
cost‐effective,
multifunctional
nano‐pesticides,
providing
compelling
solution
for
sustainable
practices
demonstrating
broad
applicability
integrated
pest
disease
management.