Abstract
Nanoparticles
are
being
utilized
in
agriculture
as
fertilizers,
pesticides,
and
agrochemical‐carriers.
Designed
to
be
biocompatible
degradable,
biopolymer
nanoparticles
were
developed
an
alternative
metallic
nanoparticles,
though
safe‐by‐design,
polymeric
must
field‐tested
prior
largescale
use.
Several
field
studies
conducted
observe
detrimental
effects
of
on
plant
growth
yield
using
soybean,
Glycine
max
(L.)
Merr.,
a
model
system.
Biopolymer
made
from
lignin
or
zein
applied
seed
treatments
soybean
seeds
foliar
sprays
(zein
only)
plants.
Studies
nanoparticle
(nano‐STs)
measured
the
germination
rates
seedling
evaluated
laboratory,
while
stand
counts,
height,
stage,
yield,
hundred‐seed
weight
field.
Foliar
assessed
impact
flower
abortion
pod
production.
To
ensure
nano‐STs
would
not
compromise
plant's
defensive
capabilities,
herbivore
feeding
was
leaf
bioassay
for
defoliators
damage
index
feeders.
Growth
rate,
percent
germination,
root
length
impacted
by
nano‐STs.
In
field,
had
no
heights,
weights.
Leaf
assays
indices
indicate
susceptibility
attack
increased
due
applications
did
increase
decrease
set.
These
results
that
have
negative
growth,
should
suitable
use
agriculture.
Agrochemicals,
Journal Year:
2023,
Volume and Issue:
2(2), P. 296 - 336
Published: June 9, 2023
In
an
alarming
tale
of
agricultural
excess,
the
relentless
overuse
chemical
fertilizers
in
modern
farming
methods
have
wreaked
havoc
on
once-fertile
soil,
mercilessly
depleting
its
vital
nutrients
while
inflicting
irreparable
harm
delicate
balance
surrounding
ecosystem.
The
excessive
use
such
leaves
residue
products,
pollutes
environment,
upsets
agrarian
ecosystems,
and
lowers
soil
quality.
Furthermore,
a
significant
proportion
nutrient
content,
including
nitrogen,
phosphorus,
potassium,
is
lost
from
(50–70%)
before
being
utilized.
Nanofertilizers,
other
hand,
nanoparticles
to
control
release
nutrients,
making
them
more
efficient
cost-effective
than
traditional
fertilizers.
Nanofertilizers
comprise
one
or
plant
within
where
at
least
50%
particles
are
smaller
100
nanometers.
Carbon
nanotubes,
graphene,
quantum
dots
some
examples
types
nanomaterials
used
production
nanofertilizers.
new
generation
that
utilize
advanced
nanotechnology
provide
sustainable
method
fertilizing
crops.
They
designed
deliver
controlled
manner,
ensuring
gradually
released
over
extended
period,
thus
providing
steady
supply
essential
elements
plants.
controlled-release
system
fertilizers,
as
it
reduces
need
for
frequent
application
amount
fertilizer.
These
high
surface
area-to-volume
ratio,
ideal
holding
releasing
nutrients.
Naturally
occurring
found
various
sources,
volcanic
ash,
ocean,
biological
matter
viruses
dust.
However,
regarding
large-scale
production,
relying
solely
naturally
may
not
be
sufficient
practical.
agriculture,
has
been
primarily
increase
crop
minimizing
losses
activating
defense
mechanisms
against
pests,
insects,
environmental
challenges.
nanofertilizers
can
reduce
runoff
leaching
into
improving
sustainability.
also
improve
fertilizer
efficiency,
leading
higher
yields
reducing
overall
cost
application.
especially
beneficial
areas
inefficient
ineffective.
way
fertilize
crops
impact
product
promising
technology
help
meet
increasing
demand
food
Currently,
face
limitations,
costs
potential
safety
concerns
due
nanomaterials,
further
research
needed
fully
understand
their
long-term
effects
health,
growth,
environment.
Scientia Horticulturae,
Journal Year:
2023,
Volume and Issue:
323, P. 112512 - 112512
Published: Oct. 13, 2023
Horticultural
crop
quality
is
an
important
aspect
of
agricultural
production
because
it
directly
influences
customer
preference,
market
value,
and
overall
sustainability.
Micronutrients
are
for
plant
nutrition
they
affect
the
growth,
development,
horticultural
crops.
This
review
provides
in-depth
understanding
role
micronutrients
in
productivity.
study
investigated
characteristics
micronutrients,
their
functions
growth
most
prevalent
micronutrient
deficits
discusses
obstacles
issues
associated
with
each
treatment
technique,
including
soil,
foliar,
fertigation
application.
It
also
emphasizes
effects
on
quality,
such
as
increased
yield,
improvements
fruit
attributes
(size,
color,
flavor),
nutritional
value
bioactive
compounds,
reduced
postharvest
losses,
extended
shelf
life.
Micronutrient
plants
have
been
studied,
absorption,
transport,
accumulation,
well
interactions
other
nutrients
signaling
pathways.
Recent
research
breakthroughs,
studies
specific
synergies,
innovative
methods
application
formulation,
developing
technologies
assessment,
covered
this
review.
The
practical
consequences
recommendations
management
systems
were
investigated,
concerns
regarding
sustainable
efficient
utilization
future
goals.
Overall,
underlines
importance
increasing
productivity,
potential
influence
subject.
Nano-Micro Letters,
Journal Year:
2024,
Volume and Issue:
16(1)
Published: March 8, 2024
Abstract
Sustainable
agriculture
plays
a
crucial
role
in
meeting
the
growing
global
demand
for
food
while
minimizing
adverse
environmental
impacts
from
overuse
of
synthetic
pesticides
and
conventional
fertilizers.
In
this
context,
renewable
biopolymers
being
more
sustainable
offer
viable
solution
to
improve
agricultural
sustainability
production.
Nano/micro-structural
supramolecular
are
among
these
innovative
that
much
sought
after
their
unique
features.
These
biomaterials
have
complex
hierarchical
structures,
great
stability,
adjustable
mechanical
strength,
stimuli-responsiveness,
self-healing
attributes.
Functional
molecules
may
be
added
flexible
structure,
enabling
novel
uses.
This
overview
scrutinizes
how
nano/micro-structural
radically
alter
farming
practices
solve
lingering
problems
sector
namely
production,
soil
health,
resource
efficiency.
Controlled
bioactive
ingredient
released
allows
tailored
administration
agrochemicals,
agents,
biostimulators
as
they
enhance
nutrient
absorption,
moisture
retention,
root
growth.
protect
crops
by
appending
antimicrobials
biosensing
entities
eco-friendliness
supports
agriculture.
Despite
potential,
further
studies
warranted
understand
optimize
usage
domain.
effort
seeks
bridge
knowledge
gap
investigating
applications,
challenges,
future
prospects
sector.
Through
experimental
investigations
theoretical
modeling,
aims
provide
valuable
insights
into
practical
implementation
optimization
agriculture,
ultimately
contributing
development
eco-friendly
solutions
productivity
impact.
Frontiers in Nanotechnology,
Journal Year:
2024,
Volume and Issue:
6
Published: April 26, 2024
Agrochemicals
are
substances
used
to
promote
plant
growth
and
eradicate
pests;
essential
meeting
the
world
food
demand
both
qualitatively
quantitatively.
Unfortunately,
their
extensive
usage
has
resulted
in
certain
significant
problems,
i.e.,
soil
contamination,
bioaccumulation,
development
of
pest
resistance.
Consequently,
there
is
a
need
for
reduced
more
regulated
agrochemicals.
The
sustainable
nanomaterials
encouraged
agricultural
nanotechnology
minimize
conventional
fertilizers,
herbicides,
pesticides.
Metal-organic
Framework
(MOF)s
porous
materials
made
functional
organic
ligands
metal
nodes
or
clusters
connected
by
covalent
bonds.
Researchers
becoming
increasingly
interested
using
MOF
variety
sectors.
features
engineered
MOFs
have
potential
be
an
optimal
strategy
producing
impressively
unique
results
research.
They
also
advantages
terms
biocompatibility
biodegradability,
which
can
leveraged
boost
efficiency
traditional
agrochemicals
administration.
Controlled
release
offers
innovative
solution
decrease
nutrient
uptake
rates
contamination
environment.
application
nanoparticles
as
nanocarriers
modify
loading
properties
particularly
highlighted
this
review.
Frontiers in Plant Science,
Journal Year:
2024,
Volume and Issue:
15
Published: Nov. 13, 2024
With
the
growth
of
global
population
and
increasing
scarcity
resources,
sustainability
efficiency
improvement
agricultural
production
have
become
urgent
needs.
The
rapid
development
nanotechnology
provides
new
solutions
to
this
challenge,
especially
application
nanoparticles
in
agriculture,
which
is
gradually
demonstrating
its
unique
advantages
broad
prospects.
Nonetheless,
various
can
influence
plant
diverse
manners,
often
through
distinct
mechanisms
action.
Beyond
their
direct
effects
on
itself,
they
frequently
alter
physicochemical
properties
soil
modulate
structure
microbial
communities
rhizosphere.
This
review
focuses
intently
methods
growth,
delving
deeply
into
interactions
between
plants,
as
well
with
communities.
aim
offer
a
comprehensive
reference
for
utilization
functionalized
sector.
Chemical and Biological Technologies in Agriculture,
Journal Year:
2024,
Volume and Issue:
11(1)
Published: Jan. 22, 2024
Abstract
Pure
cellulose
nanofibers
(CNFs)
rapidly
degrade
in
soil,
limiting
their
prospective
applications
agriculture.
We
incorporated
lignin
into
CNFs
as
an
antimicrobial
and
crosslinking
agent
to
control
the
biodegradation
rate.
with
different
concentrations
were
prepared
by
mechanochemical
treatment
presence
of
choline
chloride-urea
deep
eutectic
solvent.
These
characterized
using
conductometric
titration,
scanning
electron
microscopy,
FT-IR.
The
fibers
applied
soil
determine
effect
on
respiration
nanocellulose
degradation,
used
a
substrate
for
radish
cress
seed
germination.
Modifying
content
successfully
modulated
rate
soil.
Fibers
containing
35%
degraded
5.7%
14
days,
while
20%
20.8%
days.
Nanofiber
suspensions
showed
low
chemical
inhibition
germination
seeds
but
higher
contents
reduced
imbibition
coating.
This
study
presents
first
use
one-pot,
scalable
sustainable
system,
allowing
advancement
lignocellulose
such
coatings,
mulches,
controlled
release
fertilizers.
Graphical
Journal of Agricultural and Food Chemistry,
Journal Year:
2024,
Volume and Issue:
72(31), P. 17295 - 17305
Published: July 29, 2024
Most
nitrogen
(N)
applied
to
plants
as
fertilizer
is
lost
through
leaching.
Here,
nanocellulose
was
used
in
mitigating
N
leaching
loss.
Lettuce-cropped
soil
treated
with
unmodified
or
Zn-modified
(1–2%
by
wt)
combination
NPK,
compared
urea
and
NPK-only
treatments.
Consecutive
leaching,
plant
growth,
uptake,
retention
were
assessed.
Nanocellulose
+
NPK
significantly
(p
≤
0.05)
reduced
NPK-only.
1-and-2
wt
%
nanocellulose,
well
45,
38,
39,
49%
43,
36,
37,
47%
NPK-only,
respectively.
Nitrogen
leached
mainly
NO3–
(98.4%).
Compared
lettuce
shoot
mass
increased
30–42%
44–57%,
respectively,
all
treatments,
except
for
the
1
nanocellulose.
Leached
negatively
correlated
biomass
yield.
Soil
enhanced
pristine
nanocelluloses
between
27
94%.
Demonstrably,
can
be
utilized
loss
supporting
crop
production,
resource
management,
environmental
sustainability.