Multi-Omics Approaches Against Abiotic and Biotic Stress—A Review
Venkatramanan Varadharajan,
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R. Radhika,
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Pandiyan Muthuramalingam
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et al.
Plants,
Journal Year:
2025,
Volume and Issue:
14(6), P. 865 - 865
Published: March 10, 2025
Plants
face
an
array
of
environmental
stresses,
including
both
abiotic
and
biotic
stresses.
These
stresses
significantly
impact
plant
lifespan
reduce
agricultural
crop
productivity.
Abiotic
such
as
ultraviolet
(UV)
radiation,
high
low
temperatures,
salinity,
drought,
floods,
heavy
metal
toxicity,
etc.,
contribute
to
widespread
losses
globally.
On
the
other
hand,
those
caused
by
insects,
fungi,
weeds,
further
exacerbate
these
challenges.
stressors
can
hinder
systems
at
various
levels,
molecular,
cellular,
development
processes.
To
overcome
challenges,
multi-omics
computational
approaches
offer
a
significant
tool
for
characterizing
plant’s
biomolecular
pool,
which
is
crucial
maintaining
homeostasis
signaling
response
changes.
Integrating
multiple
layers
omics
data,
proteomics,
metabolomics,
ionomics,
interactomics,
phenomics,
simplifies
study
resistance
mechanisms.
This
comprehensive
approach
enables
regulatory
networks
pathway
maps,
identifying
potential
targets
improving
through
genetic
engineering
or
breeding
strategies.
review
highlights
valuable
insights
from
integrating
unravel
stress
responses
factors.
By
decoding
gene
regulation
transcriptional
networks,
techniques
reveal
critical
mechanisms
underlying
tolerance.
Furthermore,
role
secondary
metabolites
in
bio-based
products
enhancing
mitigation
discussed.
Genome
editing
tools
promising
strategies
resilience,
evidenced
successful
case
studies
combating
stressors.
whole,
this
extensively
discusses
advanced
that
aids
understanding
molecular
basis
developing
novel
improve
crops’
organisms’
resilience
Language: Английский
Multi-Omic Advances in Olive Tree (Olea europaea subsp. europaea L.) Under Salinity: Stepping Towards ‘Smart Oliviculture’
Biology,
Journal Year:
2025,
Volume and Issue:
14(3), P. 287 - 287
Published: March 11, 2025
Soil
salinisation
is
threatening
crop
sustainability
worldwide,
mainly
due
to
anthropogenic
climate
change.
Molecular
mechanisms
developed
counteract
salinity
have
been
intensely
studied
in
model
plants.
Nevertheless,
the
economically
relevant
olive
tree
(Olea
europaea
subsp.
L.),
being
highly
exposed
soil
salinisation,
deserves
a
specific
review
extract
recent
genomic
advances
that
support
known
morphological
and
biochemical
make
it
relative
salt-tolerant
crop.
A
comprehensive
list
of
98
cultivars
classified
by
salt
tolerance
provided,
together
with
available
genomes
genes
be
involved
response.
Na+
Cl–
exclusion
leaves
retention
roots
seem
most
prominent
adaptations,
but
cell
wall
thickening
antioxidant
changes
are
also
required
for
tolerant
Several
post-translational
modifications
proteins
emerging
as
key
factors,
microbiota
amendments,
making
treatments
biostimulants
chemical
compounds
promising
approach
enable
cultivation
already
salinised
soils.
Low
high-throughput
transcriptomics
metagenomics
results
obtained
from
salt-sensitive
-tolerant
cultivars,
future
advantages
engineering
metacaspases
programmed
death
autophagy
pathways
rapidly
raise
or
rootstocks
discussed.
The
overview
bioinformatic
tools
focused
on
tree,
combined
machine
learning
approaches
studying
plant
stress
multi-omics
perspective,
indicates
development
adapted
progressing.
This
could
pave
way
‘smart
oliviculture’,
promoting
more
productive
sustainable
practices
under
stress.
Language: Английский
Harnessing the Power of Plants and Microbes: Strategies to Enhance Crop Performance Under Heat and Salt Stress
Deleted Journal,
Journal Year:
2025,
Volume and Issue:
77(2)
Published: March 11, 2025
Language: Английский
Leveraging multi-omics tools to comprehend responses and tolerance mechanisms of heavy metals in crop plants
Sidra Charagh,
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Hong Wang,
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Jingxin Wang
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et al.
Functional & Integrative Genomics,
Journal Year:
2024,
Volume and Issue:
24(6)
Published: Oct. 23, 2024
Language: Английский
Modern Plant Breeding for Achieving Global Food Security
Physiologia Plantarum,
Journal Year:
2024,
Volume and Issue:
176(6)
Published: Nov. 1, 2024
Abstract
Modern
plant
breeding
technologies
have
played
a
central
role
in
addressing
global
food
security
challenges.
These
technologies,
including
next‐generation
sequencing
(NGS)
and
multi‐omics
analysis,
genome‐wide
association
analysis
(GWAS),
genome
editing
transgenics,
machine
learning,
speed
breeding,
been
improving
crop
yield
quality
as
well
adaptability
under
climate
change
conditions,
such
tolerance
to
both
biotic
abiotic
stresses.
Furthermore,
identification,
searching,
assessment,
combining
desirable
integrated
(morphological,
physiological,
biochemical)
attributes
achieved
with
greater
accuracy,
efficiency,
time,
cost‐effectiveness,
all
of
which
are
essential
meeting
demands.
advancements
hold
promises
for
increasing
the
face
population
growth
change,
ensuring
more
resilient
sustainable
production
system.
Therefore,
this
topical
collection
was
developed
feature
latest
developments
modern
approaches
understand
improve
production.
Language: Английский