Emirates Journal of Food and Agriculture,
Год журнала:
2024,
Номер
36, С. 1 - 8
Опубликована: Апрель 18, 2024
Inadequate
management
of
nitrogen
fertilization,
due
to
high
costs,
compromises
the
nutrition
and
productivity
winter
forage
plants,
highlighting
need
adopt
sustainable
alternatives,
such
as
using
nitrogen-fixing
bacteria.
This
research
evaluated
growth
promotion
black
oat
(
Avena
strigosa
)
ryegrass
Lolium
multiflorum
plants
inoculated
with
Azospirillum
brasilense
rhizobacteria.
The
experiments
were
carried
out
over
two
consecutive
harvests
in
Santa
Maria,
Brazil.
sowing
density
was
300
viable
seeds
per
square
meter
for
oats
100
ryegrass.
A
dose
5
ml
kg
from
consortium
used
an
inoculant.
Following
sowing,
incorporated
into
soil
through
light
harrowing.
At
beginning
tillering,
50
N
ha
-1
applied
create
treatments
without
nitrogen.
Plant
emergence,
plant
height,
number
leaves
tillers
evaluated.
In
first
year,
inoculation
response
observed
emerged
m
-2
.
second
year
(corn
residue),
height
oats.
Under
soybean
straw
leaf
tiller
number.
current
highlights
effectiveness
promoting
significant
improvements
morphological
components
crops.
corn,
increase
observed,
well
Similarly,
following
soybeans,
there
leaves.
results
emphasize
importance
effective
practice
enhance
crop
development
performance
agricultural
systems,
improving
sustainability
under
corn
residues.
Abstract
Micronutrient
application
has
a
crucial
role
in
mitigating
salinity
stress
crop
plants.
This
study
was
carried
out
to
investigate
the
effect
of
zinc
(Zn)
and
boron
(B)
as
foliar
applications
on
fenugreek
growth
physiology
under
salt
(0
120
mM).
After
35
days
treatments,
three
levels
(0,
50,
100
ppm)
two
2
were
applied
application.
Salinity
significantly
reduced
root
length
(72.7%)
shoot
(33.9%),
plant
height
(36%),
leaf
area
(37%),
fresh
weight
(48%)
(75%),
dry
(80%)
(67%),
photosynthetic
pigments
(78%),
number
branches
(50%),
seeds
per
pod
(56%).
Fenugreek’s
improved
by
spray
boron,
which
increased
(6%)
(2%),
(18%),
(8%),
chlorophyll
(1%),
b
(25%),
total
soluble
protein
content
(3%),
calcium
(9%)
potassium
(5%)
contents
decreasing
sodium
ion
(11%)
content.
Moreover,
ppm
Zn
B
enhanced
reducing
stress.
Overall,
is
suggested
for
improvement
This
study
investigates
the
differential
responses
of
two
maize
genotypes,
SC180
and
SC168,
to
salt
stress,
aiming
elucidate
mechanisms
underlying
salinity
tolerance
identify
traits
associated
with
improved
stress
resilience.
Salinity
imposed
by
150
mM
NaCl,
adversely
affected
various
growth
parameters
in
both
genotypes.
exhibited
a
more
pronounced
reduction
shoot
length
(13.6%)
root
compared
which
showed
minimal
reductions
(3.0%
2.3%,
respectively).
Additionally,
dry
weight
losses
SC180's
leaves,
stems,
roots
were
significantly
greater
than
those
SC168.
Under
genotypes
accumulated
Na
Plant Stress,
Год журнала:
2023,
Номер
11, С. 100321 - 100321
Опубликована: Дек. 10, 2023
Maintaining
soil
fertility
to
obtain
higher
crop
production
is
essential
for
food
security
and
sustainability.
Soil
amendments
not
only
improve
but
also
enhance
plant
growth.
Azospirillum
brasilense
an
important
growth-promoting
rhizobacteria
participating
in
the
progression
of
wheat
(Triticum
aestivum)
yield;
however,
how
it
works
bentonite
enhancing
clear
yet.
To
investigate
combined
applications
bentonite,
a
planned
experiment
was
performed
wirehouse.
Through
studying
various
agronomic,
physiological,
soil-related
parameters,
found
that
sole
application
more
beneficial
as
compared
ben-tonite.
Bentonite
at
10
g
kg−1
growth
status
5
soil.
Co-application
increases
grain
yield
by
42%,
LAI
20.2%,
Stomatal
conductance
up
13.88%.
The
resulting
increase
due
organic
matter
contents,
microbial
activities,
hormones
production,
availability
water
Scientific Reports,
Год журнала:
2023,
Номер
13(1)
Опубликована: Дек. 7, 2023
Abstract
Pakistan
is
the
8th
most
climate-affected
country
in
globe
along
with
a
semi-arid
to
arid
climate,
thereby
crops
require
higher
irrigation
from
underground
water.
Moreover,
~
70%
of
pumped
groundwater
irrigated
agriculture
brackish
and
major
cause
secondary
salinization.
Cucumber
(
Cucumis
sativus
L.)
an
important
vegetable
crop
annual
growth
rate
about
3.3%
Pakistan.
However,
it
relatively
salt-sensitive
crop.
Therefore,
dire
need
for
alternate
environment-friendly
technology
like
grafting
managing
salinity
stress
cucumber
by
utilizing
indigenous
cucurbit
landraces.
In
this
regard,
non-perforated
pot-based
study
was
carried
out
lath
house
explore
landraces;
bottle
gourd
Lagenaria
siceraria
)
(cv.
Faisalabad
Round),
pumpkin
Cucurbit
pepo.
L)
Local
Desi
Special),
sponge
Luffa
aegyptiaca
Local)
ridge
acutangula
Special)
as
rootstocks
inducing
tolerance
Yahla
F1).
Four
different
salts
(NaCl)
treatments;
T
0
Control
(2.4
dSm
–1
),
1
(4
2
(6
3
(8
were
applied.
The
grafted
plants
transplanted
into
already-induced
pots
(12-inch).
Different
morpho-physio-biochemical,
antioxidants,
ionic,
yield
attributes
recorded.
results
illustrate
that
increasing
negatively
affected
growing
plants.
showed
salt
relative
non-grafted
ones.
Indigenous
landrace
Round)
exhibited
compared
due
up-regulation
also
confirmed
principal
component
analysis
(PCA).
Shoot
root
biomass,
chlorophylls
contents
(a
b),
activities
superoxide
dismutase
(SOD),
catalase
(CAT)
peroxidase
(POX)
enzymes,
antioxidants
scavenging
activity
(ASA),
ionic
(↑
K
Ca,
↓
Na),
yield-related
found
maximum
onto
landrace.
Hence,
‘cv.
round’
may
be
utilized
rootstock
under
mild
saline
environment.
further
evaluated
moderate
field
conditions
possible
developing
hybrid
and,
subsequently,
sustainable
production.
ACS Omega,
Год журнала:
2023,
Номер
8(37), С. 33266 - 33279
Опубликована: Сен. 7, 2023
Climatic
changes
have
a
direct
negative
impact
on
the
growth,
development,
and
productivity
of
crops.
The
water
potential
(ψ)
temperature
(T)
are
important
limiting
factors
that
influence
rate
seed
germination
growth
indices.
To
examine
how
responds
to
in
temperature,
hydrotime
model
hydrothermal
(HTT)
been
employed.
HTT
calculates
concept
time
across
temperatures,
between
Tb-To,
with
alteration,
Tb-Tc,
supra-optimal
ranges.
seeds
Cucumis
melo
L.
were
germinated
laboratory
for
hydro-thermal
experiment.
Seeds
sown
Petri
dishes
containing
double-layered
filter
paper
at
different
osmotic
potentials
(0,
-0.2,
-0.4,
-0.6,
-0.8
MPa)
by
providing
PEG
6000
(drought
stress
enhancer)
temperatures
(15,
20,
25,
30,
35
°C).
controlled
replicate
was
treated
10
mL
distilled
rest
solution.
Results
indicated
vigor
index
(SVI-II)
highest
15
°C
0
MPa
lowest
30
-0.2
MPa.
However,
activity
shown
catalase
(CAT)
guaiacol
peroxidase
(GPX)
(-0.6
MPa),
while
values
CAT
GPX
recorded
control
°C,
respectively.
Germination
energy
positively
correlated
(GI),
percentage
(G%),
index,
index-I
(SVI-I),
mean
moisture
content
(MMC),
root
shoot
ratio
(RSR)
had
correlation
rate,
percent
root,
CAT,
superoxide
dismutase,
ascorbate
peroxidase,
GPX.
In
conclusion,
thermal
models
correctly
predicted
muskmelon
response
varying
temperature.
agronomic
attributes
found
be
maximum
minimum
°C.
Beneficial
microbes
are
crucial
for
improving
crop
adaptation
and
growth
under
vari-ous
stresses.
They
enhance
nutrient
uptake,
improve
plant
immune
responses,
help
plants
tolerate
stresses
like
drought,
salinity,
heat.
The
yield
potential
of
any
is
significantly
influenced
by
its
associated
microbiomes
their
to
im-prove
different
stressful
environments.
Therefore,
it’s
excit-ing
understand
the
mechanisms
plant-microbe
interactions.
Maize
(Zea
mays
L.)
one
primary
staple
foods
worldwide,
in
addition
wheat
rice.
also
an
industrial
globally,
contributing
83%
production
use
feed,
starch,
biofuel
industries.
requires
significant
nitrogen
fertilization
achieve
opti-mal
yield.
highly
susceptible
heat,
drought
require
innovative
methods
mitigate
harmful
effects
environmental
reduce
chemical
fertilizers.
This
review
summarizes
our
current
understanding
beneficial
interactions
between
maize
specific
microbes.
These
resilience
stress
in-crease
productivity.
For
example,
they
regulate
electron
transport,
downregulate
cata-ase,
upregulate
antioxidants.
We
roles
promoting
rhizobacteria
(PGPR)
enhancing
tolerance
maize.
Additionally,
we
explore
application
these
identify
major
knowledge
gaps
that
need
be
addressed
utilize
fully.
Frontiers in Plant Science,
Год журнала:
2024,
Номер
15
Опубликована: Ноя. 15, 2024
Climatic
change
and
extreme
weather
events
have
become
a
major
threat
to
global
agricultural
productivity.
Plants
coexist
with
microorganisms,
which
play
significant
role
in
influencing
their
growth
functional
traits.
The
rhizosphere
serves
as
an
ecological
niche
encompassing
plant
roots
is
chemically
complex
environment
that
supports
the
development
of
diverse
plant-interactive
microbes.
Although
plant-microbe
interactions
been
extensively
investigated
however,
limited
exploration
made
how
abiotic
stresses
affect
structure
assembly
microbial
communities
rhizosphere.
This
review
highlights
climate
influence
on
growth,
traits,
communities.
It
explores
mechanisms
for
mitigating
stress,
such
removing
reactive
oxygen
species
(ROS),
regulating
antioxidant
activity
indole-3-acetic
acid
(IAA)
production,
controlling
growth-inhibitory
ethylene
levels
through
colonization
by
bacteria
producing
ACC
deaminase.
Additionally,
we
elaborated
systematic
communicatory
network
steered
hormonal
crosstalk
root
exudation,
can
modulate
initiate
dialogues
between
plants
surrounding
ultimately
promotes
chemotactic
movement
microbes
towards
rhizosphere,
facilitating
early
colonization.
Finally,
reviewed
recent
advancements
understanding
foster
resilience
under
stress.