The Journal of Animal and Plant Sciences,
Journal Year:
2023,
Volume and Issue:
34(2), P. 454 - 464
Published: March 24, 2023
Differential
response
of
bread
wheat
seedlings
to
contrasting
water
regimes
can
be
used
determine
traits
related
drought
tolerance.
The
F1
offspring
from
eight
crosses
and
11
selected
parental
genotypes
were
simultaneously
grown
in
hydroponic
cultivation-polyethylene
glycol
(PEG)
induced
stress
vs.
control
conditions.
Criteria
for
selection
maternal
paternal
desirable
terms
increased
tolerance
drought:
longer
stem
length,
primary
root,
large
number
seminal
roots,
root
dry
mass
mass,
beginning
branching
at
the
greatest
possible
distance
angle
roots.
measured
on
14
day
old
seedlings:
length
(PRL),
first
branch
(DFBR),
roots
(NSR),
total
(TSRL),
(ASR),
(SL),
(RDM),
(SDM),
ratio
(RDM/SDM).
Drought
led
a
decrease
mean
values
all
by
11%
average,
except
RDM/SDM
which
was
increased.
most
sensitive
trait
DFBR
(25%
reduction),
causing
systems
shallower
depth.
In
conditions
stress,
strongest
statistically
significant
correlation
found
among
RDM
(r
=
0.794),
SL
ASR
0.708),
TSRL
0.673).
index
had
positive
with
SDM,
PRL,
TSRL,
SL,
susceptibility
NSR.
highest
heterosis
value
observed
PRL
(24.6%)
(15.6%)
under
stress.
different
directions
average
DFBR,
RDM,
indicating
differential
account
when
planning
breeding
Selected
as
criteria
favorable
combinations
incorporated
into
pre-breeding
schemes,
directly
or
indirectly,
aiming
achieve
Keywords:
wheat;
stress;
heterosis;
hydroponics;
system
architecture.
Agriculture Ecosystems & Environment,
Journal Year:
2024,
Volume and Issue:
365, P. 108893 - 108893
Published: Feb. 7, 2024
Supplementing
plants
with
silicon
(Si)
often
improves
plant
productivity
and
resilience
to
biotic
abiotic
stresses,
but
this
is
mostly
reported
in
highly
controlled
experimental
environments.
The
ecological
consequences
of
Si
supplementation,
including
environmental
benefits
potential
risks,
are
therefore
poorly
understood
require
field-scale
evaluation
how
supplementation
affects
the
wider
ecosystem,
such
as
invertebrate
communities
soil
physicochemical
properties.
We
conducted
first
field
assessment
a
legume
(lucerne;
Medicago
sativa)
agroecosystem
its
associated
responded
two
levels
(calcium
silicate
slag),
over
years.
quantified
seasonal
changes
abundance
diversity
aboveground
arthropod
communities,
crop
yield,
elemental
nutritional
chemistry,
pH
well
chemistry.
highest
rate
increased
bioavailable
by
181%
from
5.2
6.3,
relative
untreated
plots,
significant
positive
correlation
between
pH.
led
an
increase
yield
up
52%;
however,
magnitude
varied
season.
Foliar
concentrations
tended
was
marginally
significant,
potentially
due
dilution
effect
higher
shoot
biomass.
did
not
affect
most
elements
we
or
forage
quality
lucerne.
recorded
13,600
arthropods;
shift
community
structure
overall
functional
groups.
Notably,
saprophytic
fly
family,
Lauxaniidae
more
abundant
on
Si-supplemented
plots
compared
turnover.
These
results
indicate
that
agroecosystem,
using
by-product
steel
production,
provides
outweigh
some
possible
detrimental
impacts
ecosystem
(i.e.
decreased
abundances,
toxic
metal
contamination
reduced
quality),
which
detect
our
current
study.
This
management
intervention
enhances
so
could
reduce
need
for
conventional
fertilisers
changing
be
beneficial
crops
npj Sustainable Agriculture,
Journal Year:
2024,
Volume and Issue:
2(1)
Published: Dec. 5, 2024
Abstract
Sustainable
and
resilient
crop
production
is
facing
many
challenges.
The
restoration
of
natural
reactive
silicon
cycles
offers
an
opportunity
to
improve
sustainability
through
reducing
phosphorus
fertilizer
use
increase
crops’
resilience
drought
stress
pests.
We
therefore
call
upon
farmers,
agri-food-researchers,
policymakers
pave
the
road
for
transforming
agriculture
a
silicon-improved
sustainable
production,
which
represents
promising
approach
achieve
food
security
under
global
change.
Deleted Journal,
Journal Year:
2025,
Volume and Issue:
77(1)
Published: Jan. 13, 2025
Chromium
(Cr)
toxicity
adversely
affects
crop
productivity
and
poses
significantly
health
risks.
However,
silicon
(Si),
an
inorganic
amendment,
has
potential
to
mitigate
these
effects
in
wheat
crop.
A
pot
study
was
conducted
examine
the
ameliorative
role
of
Si
enhancing
grain
yield,
reducing
metal
accumulation
improving
overall
performance
by
influencing
morphological,
physiological
biochemical
parameters
under
Cr
stress.
The
experiment
followed
a
completely
randomized
design
with
four
replications.
pots
were
irrigated
weekly
contaminated
water
after
germination,
two
levels
(Si
at
50
mg
kg−1
100
kg−1)
applied.
stress
reduced
growth;
however,
application
both
silica
stressed
plants
improved
growth
attributes.
addition
led
significant
increase
plant
height
(up
11%),
root
shoot
biomass,
fresh
biomass
increased
60
70%,
dry
47
162%,
respectively.
Root
morphological
up
100%,
membrane
stability
67%.
Additionally,
modulated
antioxidant
enzymatic
activity,
which
provided
protection
against
Silicon
also
concentration
tissues
35%.
Daily
intake
Health
Risk
Index
lowered
application.
Overall,
exogenous
phytoaccumulation,
thereby
lowering
risks
promoting
development.
Plants People Planet,
Journal Year:
2025,
Volume and Issue:
unknown
Published: April 21, 2025
Societal
Impact
Statement
Intervention
strategies
that
involve
supplementing
crop‐lands
with
silicon
have
significant
scope
for
carbon
capture
and
drought
mitigation,
offering
wide‐ranging
societal
impacts.
These
include
contributing
to
decarbonisation
goals,
enhancing
food
security,
providing
economic
benefits
reducing
environmental
damage
associated
intensive
agronomic
practices.
This
article
highlights
emerging
evidence
suggests
elevated
atmospheric
CO
2
water
limitation
may
impair
accumulation
in
plants.
While
this
does
not
negate
the
outlined
benefits,
we
argue
these
limitations
must
be
thoroughly
quantified
incorporated
into
large‐scale
implementation
plans
ensure
reliability
effectiveness
of
intervention
strategies.
Summary
Silicon
plants
is
increasingly
recognised
as
playing
an
important
functional
role
alleviating
stresses.
Most
research
date
has
focussed
on
relieving
stresses
crops,
including
pest
pathogen
damage,
soil
salinity
drought.
Recently,
attention
turned
application
agricultural
landscapes
a
potential
anthropogenic
climate
change
mitigation
strategy.
includes
fertilisation
enhance
storage
through
advanced
weathering
silicates,
or
by
incorporating
phytoliths
plant
tissues.
geoengineering
approaches
potential,
they
could
also
present
challenges.
explores
opportunities
silicon‐based
interventions
mitigating
impacts
rising
dioxide
levels
increased
incidences
We
despite
promise
supplementation
stress
under
change,
paradoxically
shows
very
conditions
can
significantly
impede
propose
framework
guide
development
mitigate
questions
should
addressed
their
future
conditions.
Frontiers in Plant Science,
Journal Year:
2024,
Volume and Issue:
15
Published: Feb. 2, 2024
With
environmental
problems
such
as
climate
global
warming,
drought
has
become
one
of
the
major
stress
factors,
because
it
severely
affects
plant
growth
and
development.
Silicon
dioxide
nanoparticles
(SiO
2
NPs)
are
crucial
for
mitigating
abiotic
stresses
suffered
by
plants
in
unfavorable
conditions
further
promoting
growth,
drought.
This
study
aimed
to
investigate
effect
different
concentrations
SiO
NPs
on
Ehretia
macrophylla
Wall.
seedlings
under
severe
(water
content
soil,
30–35%).
The
treatment
was
started
starting
spraying
SiO2
macrophyla,
which
were
consistently
normal
(soil
moisture
30-35%),
respectively,
at
seedling
stage,
followed
physiological
biochemical
measurements,
transcriptomics
metabolomics
analyses.
(100
mg·L
−1
)
reduced
malondialdehyde
hydrogen
peroxide
enhanced
activity
antioxidant
enzymes
stress.
Transcriptomic
analysis
showed
that
1451
differentially
expressed
genes
(DEGs)
leaves
E
.
regulated
stress,
these
mainly
participate
auxin
signal
transduction
mitogen-activated
protein
kinase
signaling
pathways.
also
found
metabolism
fatty
acids
α-linolenic
may
play
a
key
role
enhancement
tolerance
NP-treated
E.
seedlings.
Metabolomics
studies
indicated
accumulation
level
secondary
metabolites
related
higher
after
treatment.
revealed
insights
into
mechanisms
induced
enhancing
plants.
Biology Letters,
Journal Year:
2024,
Volume and Issue:
20(3)
Published: March 1, 2024
Elevated
leaf
silicon
(Si)
concentrations
improve
drought
resistance
in
cultivated
plants,
suggesting
Si
might
also
performance
of
wild
species.
Tropical
tree
species,
for
instance,
take
up
substantial
amounts
Si,
and
varies
markedly
at
local
regional
scales,
consequences
seedling
resistance.
Yet,
whether
elevated
improves
tropical
forests
is
unknown.
To
manipulate
concentrations,
seedlings
seven
species
were
grown
Si-rich
-poor
soil,
before
exposing
them
to
the
forest
understorey.
Survival,
growth
wilting
monitored.
did
not
survival
any
In
one
was
reduced
previously
contrary
our
expectation.
Our
results
suggest
that
does
may
even
reduce
performance,
differences
soil
conditions
influencing
contribute
soil-related
variation
performance.
Furthermore,
are
odds
with
most
studies
on
show
alleviative
effects
crops
cannot
be
generalized
plants
natural
systems.