Antioxidants,
Journal Year:
2022,
Volume and Issue:
11(10), P. 1962 - 1962
Published: Sept. 30, 2022
Nardostachys
jatamansi
is
a
critically
endangered
medicinal
plant
and
endemic
to
the
Himalayas,
having
high
commercial
demand
globally.
The
accumulation
of
various
secondary
metabolites
in
its
shoots
roots
with
antioxidant
potential
are
well-documented
traditional
as
well
modern
medicine
systems.
In
present
study,
we
first
attempted
investigate
impact
citrate
(-ve
charge,
11.1
±
1.9
nm)
CTAB
(+ve
19.5
3.2
coated
gold
nanoparticles
(AuNPs)
on
vitro
proliferation
activities
N.
jatamansi.
Both
differentially
affected
morphological
biochemical
parameters,
chlorophyll
content,
internal
hormone
concentration,
concentration-dependent
(10-100
µM)
manner.
Vigorous
shooting
was
observed
half
strength
MS
medium
supplemented
IAA
(1
mg/L)
60
µM
citrate-AuNPs
(46.4
3.7
mm)
40
CTAB-AuNPs
(42.2
mm).
Similarly,
maximum
number
(5.00
0.67
5.33
0.58)
root
length
(29.9
1.5
mm
27.3
4.8
reported
half-strength
CTAB-AuNPs,
respectively.
addition,
plants
growing
showed
significantly
enhanced
photosynthetic
pigments
(chlorophyll
b,
carotenoids,
total
chlorophyll),
concentration
(GA3,
IAA,
ABA),
(total
phenolics,
flavonoids,
DPPH,
SOD
enzyme
activity).
Moreover,
transcript
analysis
ANR1,
ARF18,
PLY9,
SAUR28,
GID1A,
GRF1,
SOD,
CAT
further
confirmed
role
improvement
growth
Bearing
mind
urgent
requirements
effective
conservation
measures
this
species,
findings
suggest
elicitation
would
improve
applications
plant-based
industry.
Frontiers in Plant Science,
Journal Year:
2023,
Volume and Issue:
13
Published: Jan. 6, 2023
Salt
stress
is
one
of
the
significant
environmental
stressors
that
severely
affects
plant
growth
and
development.
Plant
responses
to
salt
involve
a
series
biological
mechanisms,
including
osmoregulation,
redox
ionic
homeostasis
regulation,
as
well
hormone
or
light
signaling-mediated
adjustment,
which
are
regulated
by
different
functional
components.
Unraveling
these
adaptive
mechanisms
identifying
critical
genes
involved
in
response
adaption
crucial
for
developing
salt-tolerant
cultivars.
This
review
summarizes
current
research
progress
regulatory
networks
tolerance,
highlighting
perception,
signaling,
tolerance
response.
Finally,
we
also
discuss
possible
contribution
microbiota
nanobiotechnology
tolerance.
Agrochemicals,
Journal Year:
2023,
Volume and Issue:
2(2), P. 220 - 256
Published: May 31, 2023
This
review
article
provides
an
extensive
overview
of
the
emerging
frontiers
nanotechnology
in
precision
agriculture,
highlighting
recent
advancements,
hurdles,
and
prospects.
The
benefits
this
field
include
development
advanced
nanomaterials
for
enhanced
seed
germination
micronutrient
supply,
along
with
alleviation
biotic
abiotic
stress.
Further,
nanotechnology-based
fertilizers
pesticides
can
be
delivered
lower
dosages,
which
reduces
environmental
impacts
human
health
hazards.
Another
significant
advantage
lies
introducing
cutting-edge
nanodiagnostic
systems
nanobiosensors
that
monitor
soil
quality
parameters,
plant
diseases,
stress,
all
are
critical
agriculture.
Additionally,
technology
has
demonstrated
potential
reducing
agro-waste,
synthesizing
high-value
products,
using
methods
devices
tagging,
monitoring,
tracking
agroproducts.
Alongside
these
developments,
cloud
computing
smartphone-based
biosensors
have
emerged
as
crucial
data
collection
analysis
tools.
Finally,
delves
into
economic,
legal,
social,
risk
implications
must
thoroughly
examined
technology’s
widespread
adoption.
Plant Physiology and Biochemistry,
Journal Year:
2023,
Volume and Issue:
206, P. 108281 - 108281
Published: Dec. 24, 2023
The
study
evaluates
the
impact
of
two
metal
oxide
nanoparticles:
copper
(CuO)
and
zinc
(ZnO)
on
growth
physiology
Raphanus
sativus
L.
(radish)
under
salinity
stress.
Fifteen
days
old
seedlings
R.
were
subjected
to
different
concentrations
salt
stress
(0
mM,
150
300
mM
NaCl)
alone
in
interaction
with
100
mgL
Plant and Soil,
Journal Year:
2024,
Volume and Issue:
503(1-2), P. 313 - 330
Published: March 12, 2024
Abstract
Background
As
the
world
grapples
with
increasing
agricultural
demands
and
unpredictable
environmental
stressors,
there
is
a
pressing
need
to
improve
plant
resilience.
Therefore,
understanding
pioneering
role
of
nanoparticles
in
alleviating
stress
crucial
for
developing
stress-resilient
varieties
enhance
food
secure
world.
Nanoparticles
have
unique
physical
chemical
properties,
demonstrate
their
potential
growth,
nutrient
utilization,
tolerance.
This
review
delves
into
mechanistic
insights
nanoparticle-plant
interactions,
highlighting
how
these
tiny
particles
can
mitigate
diverse
stressors
such
as
drought,
salinity,
heavy
metal
toxicity.
The
action
different
types
nanoparticles,
including
metal,
carbon-based,
biogenic
are
discussed
context
interaction
physiology
responses.
Aims
article
also
explores
drawbacks
implications
nanoparticle
use,
emphasizing
responsible
sustainable
applications.
this
study
aimed
offer
exciting
possibilities
managing
both
biotic
abiotic
species,
from
improving
water-use
efficiency
resilience
via
nanotechnology.
Conclusions
Future
research
directions
suggested,
focusing
on
nano-bioengineering
precision
agriculture
create
crops
security.
Through
lens
interdisciplinary
research,
paper
underscores
significance
innovative
tools
realm
agriculture,
catalyzing
paradigm
shift
towards
farming
systems.
Stresses,
Journal Year:
2022,
Volume and Issue:
3(1), P. 33 - 46
Published: Dec. 26, 2022
The
morphological
plasticity
of
plant
roots
is
a
key
factor
in
their
ability
to
tolerate
wide
range
edaphic
stresses.
There
are
many
unanswered
questions
relating
nanotechnology
and
its
potential
uses
for
sustainable
agriculture.
main
purpose
this
study
was
examine
the
effects
salinity-induced
morphogenic
responses
zinc
oxide
nanoparticles
(ZnO-NPs)
on
root
characteristics,
growth,
MDA
content,
antioxidant
enzymatic
activity,
ion
accumulation
rice
(Oryza
sativa
L.).
experiment
conducted
hydroponic
culture
containing
50
mg/L
ZnO-NPs
different
concentrations
(60,
80,
100
mM)
NaCl
14
days.
results
indicated
decrease
growth
due
exposure
salinity
(length,
fresh,
dry
weight).
showed
that
caused
reduction
Higher
sodium
(Na+)
accumulation,
potassium
level
decreased
with
increasing
salinity.
Root
length,
fresh
weight,
K+
activity
were
all
enhanced
by
applying
often
SEM
analysis
revealed
treatments
significantly
improved
morphology.
notable
Na+
content
as
result,
which
K+/Na+
ratio
rice’s
system.
These
findings
suggest
O.
sativa,
when
treated
ZnO-NPs,
can
thrive
under
salt-stress
conditions,
opening
up
possibility
cultivating
extreme
climates.
Frontiers in Bioscience-Landmark,
Journal Year:
2023,
Volume and Issue:
28(8)
Published: Aug. 7, 2023
Deficits
in
the
mineral
Zn
are
responsible
for
a
sizable
proportion
of
world’s
disease
burden
and
child
mortality.
With
increasing
success
rate
biofortification
major
crops,
development
genotype
with
enhanced
bioavailability
will
be
an
efficient
sustainable
solution
to
nutrient
deficiency-related
problems.
Due
complex
chemistry
human
system,
absorption
from
cereals
is
lower.
This
complexity
alleviated
by
phytate,
phosphorus-storing
compound
cereal
legume
seeds,
which
negatively
affects
binding.
The
results
recent
studies
on
distribution
elements
micronutrient
speciation
seeds
provide
strong
evidence
presence
distinct
pools.
observation
supported
data
biofortified
transgenic
plant
research.
Several
identify
nicotinamide,
metal
chelator,
as
pivotal
molecule.
loading
into
grains
has
been
reported
increase
nicotinamide
levels,
crucial
finding.
Intestinal
can
greatly
improved
nicotinamide.
Furthermore,
tests
suggest
that
use
nano
Zn-enabled
devices
could
effective
strategy
enable
biofortification,
may
significantly
boost
content
various
crops.
review
comprehensively
evaluated
scientific
publications
indexed
WoS,
Scopus,
other
reliable
databases
explored
insights
how
nano-enabled
technology
enhancing
crops
combating
malnutrition
humans.
Journal of Ecological Engineering,
Journal Year:
2023,
Volume and Issue:
25(2), P. 1 - 9
Published: Dec. 30, 2023
The
purpose
of
this
experiment
was
to
investigate
the
effects
salinity
(NaCl)
on
mineral
composition
and
macro-and
micronutrient
contents
rice
plants.The
conducted
at
Department
Biotechnology's
experimental
area
in
SVPUAT
Meerut.Various
treatments
were
applied,
including
T0
(Control),
T1
(60
mM
NaCl),
T2
(80
T3
(100
T4
(ZnO
NPs
50
mg/L
+
60
T5
80
T6
100
NaCl).The
results
analysis
revealed
that
microand
micronutrients
genotypes
decreased
compared
control
treatment.However,
when
ZnO-NPs
concentrations
both
plants
found
increase.This
is
most
significant
finding
research.