Antioxidants,
Journal Year:
2025,
Volume and Issue:
14(4), P. 496 - 496
Published: April 20, 2025
Sulfate
transporters
(SULTRs)
are
key
players
that
regulate
sulfur
acquisition
and
distribution
within
plants,
thereby
influencing
cellular
redox
hemostasis
under
pathogen
attacks,
such
as
Alternaria
brassicicola
(Ab).
In
this
study,
a
total
of
23
BolSULTR
(Brassica
oleracea
SULTR)
genes
were
identified
from
the
Brassica
genome.
These
BolSULTRs
distributed
across
nine
chromosomes,
with
all
collinear
gene
pairs
undergoing
purifying
selections.
Phylogenetic
analysis
reveals
SULTR
family
is
evolutionarily
conserved
among
plant
kingdoms.
qRT-PCR
demonstrated
expression
varies
different
organs
modulated
by
hormonal
signals.
Furthermore,
transcriptome
several
whose
levels
depressed
in
Ab-challenged
leaves
broccoli.
Among
them,
BolSULTR2;1
emerged
player
plant’s
response
to
Ab.
Virus-induced
silencing
(VIGS)
BolSULTR2;1s
resulted
elevated
glutathione
(GSH)
enhanced
tolerance
Taken
together,
these
findings
underscore
role
maintaining
homeostasis
enhancing
disease
resistance,
suggesting
its
potential
target
for
genome
editing
develop
broccoli
varieties
improved
tolerance.
Horticulturae,
Journal Year:
2023,
Volume and Issue:
9(6), P. 647 - 647
Published: May 31, 2023
Gamma-aminobutyric
acid
(GABA)
is
a
non-protein
amino
known
for
its
role
in
the
nervous
system
of
animals.
However,
research
has
also
revealed
presence
and
function
plants
recently.
In
plants,
GABA
signal
molecule
involved
multiple
physiological
processes,
including
stress
response,
growth,
development.
This
review
aims
to
present
thorough
summary
current
knowledge
regarding
plants.
We
begin
by
discussing
biosynthesis
transport
followed
detailed
examination
signaling
mechanisms.
Additionally,
we
explore
GABA's
potential
roles
various
plant
such
as
abiotic
application
horticultural
Finally,
highlight
challenges
future
directions
this
area.
Overall,
offers
comprehensive
understanding
significance
implications
physiology
crop
improvement.
Horticulturae,
Journal Year:
2024,
Volume and Issue:
10(12), P. 1296 - 1296
Published: Dec. 5, 2024
Salinity
has
emerged
as
a
critical
abiotic
stress
factor,
significantly
limiting
the
growth,
productivity,
and
quality
of
many
crop
species.
As
global
salinization
agricultural
land
continues
to
intensify,
it
is
crucial
explore
effective
mitigation
strategies
sustain
yields.
γ-Aminobutyric
acid
(GABA),
non-protein
amino
acid,
present
in
variety
organisms,
including
plants,
where
fulfills
diverse
roles
under
both
optimal
conditions.
In
GABA
intricately
involved
nitrogen
metabolism,
biosynthesis,
regulation
primary
secondary
metabolic
pathways.
Functioning
through
shunt,
provides
carbon
skeletons
energy
required
for
biosynthetic
processes
vital
balance.
Under
conditions,
particularly
salinity,
rapidly
accumulates,
facilitating
several
protective
mechanisms
that
help
plants
cope
with
stress.
These
include
enhancing
osmotic
adjustment
accumulation
osmolytes,
protecting
cellular
structures
such
chloroplasts,
improving
chlorophyll
fluorescence
photosynthetic
efficiency.
Moreover,
been
shown
boost
antioxidant
enzyme
activity,
reducing
oxidative
mitigating
damage
caused
by
reactive
oxygen
species
(ROS)
salinity
This
study
explores
multifaceted
role
saline
environments,
focus
on
its
physiological,
biochemical,
molecular
plant
resilience.
By
elucidating
these
mechanisms,
we
aim
highlight
potential
natural
biostimulant
improve
performance
sustainability
soils.
Abstract
Experiments
were
conducted
to
evaluate
the
role
of
exogenously
applied
jasmonic
acid
(JA;
0.1
and
0.5
µM)
in
alleviating
toxic
effects
arsenic
(As;
5
10
stress
rice.
Plants
treated
with
As
showed
considerable
decline
growth
attributes
like
height,
fresh
dry
weight
plant.
Arsenic
reduced
content
δ-amino
livulenic
(δ-ALA),
glutamate
1-semialdehyde
(GSA),
total
chlorophylls
carotenoids,
more
reduction
evident
at
higher
(10
concentrations,
however
supplied
JA
alleviated
extent.
mediated
photosynthetic
gas
exchange
parameters,
Fv/Fm
(PSII
activity)
Rubisco
activity
was
by
exogenous
treatment
JA.
caused
oxidative
damage
which
as
increased
lipid
peroxidation,
lipoxygenase
hydrogen
peroxide
concentrations
however,
declined
these
parameters.
Treatment
improved
nitrate
reductase
synthase
under
unstressed
conditions
also
triggered
stress.
Activity
antioxidant
enzymes
assayed
due
stress,
supplementation
further
increase
their
activities.
Moreover,
proline,
free
amino
acids
phenols
significantly
application
stressed
conditions.
nitrogen
potassium
while
accumulation
significantly.
Scientific Reports,
Journal Year:
2024,
Volume and Issue:
14(1)
Published: June 3, 2024
The
distinctive
characteristics
of
nanoparticles
and
their
potential
applications
have
been
given
considerable
attention
by
scientists
across
different
fields,
particularly
agriculture.
However,
there
has
limited
effort
to
assess
the
impact
copper
(CuNPs)
in
modulating
physiological
biochemical
processes
response
salt-induced
stress.
This
study
aimed
synthesize
CuNPs
biologically
using
Solenostemma
argel
extract
determine
effects
on
morphophysiological
parameters
antioxidant
defense
system
barley
(Hordeum
vulgare)
under
salt
biosynthesized
were
characterized
(UV-vis
spectroscopy
with
Surface
Plasmon
Resonance
at
320
nm,
crystalline
nature
formed
NPs
was
verified
via
XRD,
FTIR
recorded
presence
functional
groups,
while
TEM
confirmed
shape
(spherical)
sizes
(9
18
nm)
CuNPs.
Seeds
plants
grown
plastic
pots
exposed
levels
(0,
100
200
mM
NaCl).
Our
findings
revealed
that
supplementation
25
50
mg/L)
salinized
significantly
mitigate
negative
impacts
stress
enhanced
plant
growth-related
parameters.
High
salinity
level
oxidative
damage
raising
concentrations
osmolytes
(soluble
protein,
soluble
sugar,
proline),
malondialdehyde
(MDA)
hydrogen
peroxide
(H2O2).
In
addition,
increasing
activities
enzymatic
antioxidants,
total
phenol,
flavonoids.
Interestingly,
exposing
salt-stressed
plant-growth
characteristics,
photosynthetic
pigments,
gas
exchange
Furthermore,
counteracted
lowering
accumulation
osmolytes,
H2O2,
MDA,
flavonoids,
simultaneously
enhancing
enzymes.
conclusion,
application
presents
a
promising
approach
sustainable
strategy
enhance
resistance
stress,
surpassing
conventional
methods
terms
environmental
balance.
Plant Nano Biology,
Journal Year:
2024,
Volume and Issue:
8, P. 100068 - 100068
Published: April 1, 2024
Lentil
(Lens
culinaris)
and
soybean
(Glycine
max)
are
proteinaceous
legumes
susceptible
to
salinity
stress.
This
study
aimed
evaluate
the
fertigating
potential
of
silica
nanoparticles
(SiNPs)
in
improving
physiochemical
status,
yield
parameters,
seed
nutritional
qualities
exposed
Characterization
synthesized
SiNPs
revealed
amorphous,
round-shaped
particles,
a
size
15-40
nm,
surface
charge
-6.18
mV.
Different
concentrations
(0,
1,
5,
10
g/L)
were
applied
plants
combination
with
four
different
NaCl
200,
400,
600
mM)
during
reproductive
phase
plants.
The
results
indicated
that
(especially
efficiently
reduced
negative
impacts
by
parameters
(growth,
pigments,
primary
metabolites,
antioxidant
enzymes).
Similarly,
improvement
(pods
per
plant,
pod
length,
seeds/10
pods,
etc.)
attributes
(protein,
sugar,
free
amino
acids,
fatty
acid,
polyphenol
contents,
observed
irrespective
concentrations.
Specifically,
applying
g/L
enhanced
total
numbers
1.70,
1.57
folds;
number
pods
1.44,
1.65
lentil
plants,
respectively,
compared
control
set
(600
mM
NaCl).
Moreover,
protein
content
was
augmented
3.29,
1.30
folds
stressed
(lentil
soybean,
respectively)
when
treated
SiNPs.
Therefore,
it
can
be
concluded
used
sustainably
improve
under
conditions.