International Journal of Molecular Sciences,
Journal Year:
2022,
Volume and Issue:
23(13), P. 6929 - 6929
Published: June 22, 2022
Reproductive-stage
heat
stress
(RSHS)
poses
a
major
constraint
to
cereal
crop
production
by
damaging
main
plant
reproductive
structures
and
hampering
processes,
including
pollen
stigma
viability,
pollination,
fertilization,
grain
setting
filling.
Despite
this
well-recognized
fact,
research
on
(HS)
is
relatively
recent
compared
other
abiotic
stresses,
such
as
drought
salinity,
in
particular,
RSHS
studies
cereals
are
considerably
few
comparison
with
seedling-stage
vegetative-stage-centered
studies.
Meanwhile,
climate
change-exacerbated
HS,
independently
or
synergistically
drought,
will
have
huge
implications
performance
future
global
food
security.
Fortunately,
due
their
sedentary
nature,
plants
evolved
complex
diverse
transient
long-term
mechanisms
perceive,
transduce,
respond
adapt
HS
at
the
molecular,
cell,
physiological
whole
levels.
Therefore,
uncovering
molecular
governing
response
tolerance
facilitates
designing
of
effective
strategies
improve
crops.
In
review,
we
update
our
understanding
several
aspects
cereals,
particularly
impacts
processes
yield;
signal
perception
transduction;
transcriptional
regulation
shock
factors
stress-responsive
genes.
We
also
discuss
epigenetic,
post-translational
modification
memory
modulating
tolerance.
Moreover,
offer
critical
set
(encompassing
genomics
breeding,
transgenesis,
omics
agronomy)
that
could
accelerate
development
RSHS-resilient
cultivars.
underline
judicious
combination
all
these
offers
best
foot
forward
improvement
cereals.
Further,
highlight
shortcomings
investigations
propositions
for
circumvention,
well
some
knowledge
gaps,
which
should
guide
priorities.
Overall,
review
furthers
supports
rational
RSHS-tolerant
cultivars
warming
climate.
The Plant Genome,
Journal Year:
2022,
Volume and Issue:
16(1)
Published: Nov. 10, 2022
Breeding
crop
plants
with
increased
yield
potential
and
improved
tolerance
to
stressful
environments
is
critical
for
global
food
security.
Drought
stress
(DS)
adversely
affects
agricultural
productivity
worldwide
expected
rise
in
the
coming
years.
Therefore,
it
vital
understand
physiological,
biochemical,
molecular,
ecological
mechanisms
associated
DS.
This
review
examines
recent
advances
plant
responses
DS
expand
our
understanding
of
DS-associated
mechanisms.
Suboptimal
water
sources
affect
growth
yields
through
physical
impairments,
physiological
disturbances,
biochemical
modifications,
molecular
adjustments.
To
control
devastating
effect
plants,
important
its
consequences,
mechanisms,
agronomic
genetic
basis
sustainable
production.
In
addition
responses,
we
highlight
several
mitigation
options
such
as
omics
approaches,
transgenics
breeding,
genome
editing,
mechanical
methods
(foliar
treatments,
seed
priming,
conventional
practices).
Further,
have
also
presented
scope
speed
breeding
platforms
helping
develop
drought-smart
future
crops.
short,
recommend
incorporating
multi-omics,
traditional
strategies,
cultivars
achieve
'zero
hunger'
goal.
Frontiers in Plant Science,
Journal Year:
2022,
Volume and Issue:
13
Published: March 23, 2022
Sustainable
agricultural
production
is
critically
antagonistic
by
fluctuating
unfavorable
environmental
conditions.
The
introduction
of
mineral
elements
emerged
as
the
most
exciting
and
magical
aspect,
apart
from
novel
intervention
traditional
applied
strategies
to
defend
abiotic
stress
silicon
(Si)
has
ameliorating
impacts
regulating
diverse
functionalities
on
enhancing
growth
development
crop
plants.
Si
categorized
a
non-essential
element
since
plants
accumulate
less
during
normal
Studies
application
in
highlight
beneficial
role
extreme
stressful
conditions
through
modulation
several
metabolites
Phytohormones
are
primary
plant
positively
regulated
play
pivotal
plants'
broad-spectrum
biochemical
physiological
aspects
Frontline
phytohormones
include
auxin,
cytokinin,
ethylene,
gibberellin,
salicylic
acid,
abscisic
brassinosteroids,
jasmonic
acid.
These
internally
correlated
with
tolerance
mechanisms.
This
review
explores
insights
into
phytohormone
metabolism
its
maintaining
well-being
stresses.
Moreover,
in-depth
information
about
Si's
inducing
metabolic
molecular
modulations
elaborated.
Furthermore,
potential
various
high
throughput
technologies
also
been
discussed
improving
Si-induced
multiple
tolerance.
In
addition,
special
emphasis
engrossed
achieving
sustainable
global
food
security.
Abstract
Global
warming
causes
a
range
of
negative
impacts
on
plants
especially
due
to
rapid
changes
in
temperatures,
alterations
rainfall
patterns,
floods
or
drought
conditions,
and
outbreaks
pests
diseases.
These,
turn,
affect
crop
production
reducing
the
quality
quantity
agricultural
produce.
Climatic
extremes
high
population
growth
significantly
increase
world’s
food
demand.
Therefore,
fulfilling
goal
attaining
security
for
present
future
generations
is
prime
importance.
Biotechnology
enables
creating
dramatic
crops
withstand
stress
which
difficult
attain
using
conventional
breeding
approaches.
It
viable
tool
used
improve
production.
The
development
biotechnological
approaches
such
as
genetic
engineering,
genome
editing,
RNA-mediated
gene
silencing
armored
with
next-generation
sequencing,
mapping
have
paved
way
precise
faster
modifications
plants.
Such
intensive
efforts
are
currently
underway
desirable
cultivars
meet
demand
support
sustainable
productivity
climate
change
adaptation.
Biology,
Journal Year:
2022,
Volume and Issue:
11(2), P. 275 - 275
Published: Feb. 10, 2022
Breeding
crops
in
a
conventional
way
demands
considerable
time,
space,
inputs
for
selection,
and
the
subsequent
crossing
of
desirable
plants.
The
duration
seed-to-seed
cycle
is
one
crucial
bottlenecks
progress
plant
research
breeding.
In
this
context,
speed
breeding
(SB),
relying
mainly
on
photoperiod
extension,
temperature
control,
early
seed
harvest,
has
potential
to
accelerate
rate
improvement.
Well
demonstrated
case
long-day
plants,
SB
protocols
are
being
extended
short-day
plants
reduce
generation
interval
time.
Flexibility
allows
them
align
integrate
with
diverse
purposes
including
population
development,
genomic
phenotyping,
editing.
review,
we
discuss
different
methodologies
their
application
hasten
future
Though
been
extensively
used
phenotyping
pyramiding
multiple
traits
development
new
crop
varieties,
certain
challenges
limitations
hamper
its
widespread
across
crops.
However,
existing
constraints
can
be
resolved
by
further
optimization
critical
food
efficient
integration
pipelines.
Frontiers in Plant Science,
Journal Year:
2023,
Volume and Issue:
14
Published: April 18, 2023
Abiotic
stresses,
including
drought,
salinity,
cold,
heat,
and
heavy
metals,
extensively
reducing
global
agricultural
production.
Traditional
breeding
approaches
transgenic
technology
have
been
widely
used
to
mitigate
the
risks
of
these
environmental
stresses.
The
discovery
engineered
nucleases
as
genetic
scissors
carry
out
precise
manipulation
in
crop
stress-responsive
genes
associated
molecular
network
has
paved
way
for
sustainable
management
abiotic
stress
conditions.
In
this
context,
clustered
regularly
interspaced
short
palindromic
repeat-Cas
(CRISPR/Cas)-based
gene-editing
tool
revolutionized
due
its
simplicity,
accessibility,
adaptability,
flexibility,
wide
applicability.
This
system
great
potential
build
up
varieties
with
enhanced
tolerance
against
review,
we
summarize
latest
findings
on
understanding
mechanism
response
plants
application
CRISPR/Cas-mediated
towards
a
multitude
stresses
metals.
We
provide
mechanistic
insights
CRISPR/Cas9-based
genome
editing
technology.
also
discuss
applications
evolving
techniques
such
prime
base
editing,
mutant
library
production,
transgene
free
multiplexing
rapidly
deliver
modern
cultivars
adapted
Frontiers in Plant Science,
Journal Year:
2022,
Volume and Issue:
12
Published: Jan. 4, 2022
Food
safety
has
emerged
as
a
high-urgency
matter
for
sustainable
agricultural
production.
Toxic
metal
contamination
of
soil
and
water
significantly
affects
productivity,
which
is
further
aggravated
by
extreme
anthropogenic
activities
modern
practices,
leaving
food
human
health
at
risk.
In
addition
to
reducing
crop
production,
increased
metals/metalloids
toxicity
also
disturbs
plants'
demand
supply
equilibrium.
Counterbalancing
toxic
demands
better
understanding
the
complex
mechanisms
physiological,
biochemical,
molecular,
cellular,
plant
level
that
may
result
in
productivity.
Consequently,
plants
have
established
different
internal
defense
cope
with
adverse
effects
metals/metalloids.
Nevertheless,
these
are
not
adequate
overwhelm
toxicity.
Plants
produce
several
secondary
messengers
trigger
cell
signaling,
activating
numerous
transcriptional
responses
correlated
defense.
Therefore,
recent
advances
omics
approaches
such
genomics,
transcriptomics,
proteomics,
metabolomics,
ionomics,
miRNAomics,
phenomics
enabled
characterization
molecular
regulators
associated
tolerance,
can
be
deployed
developing
tolerant
plants.
This
review
highlights
various
response
strategies
adopted
tolerate
toxicity,
including
responses.
A
seven-(omics)-based
design
summarized
scientific
clues
reveal
stress-responsive
genes,
proteins,
metabolites,
miRNAs,
trace
elements,
stress-inducible
phenotypes,
metabolic
pathways
could
potentially
help
up
face
fluctuating
environmental
conditions.
Finally,
some
bottlenecks
future
directions
been
highlighted,
enable
Climate
change
seriously
impacts
global
agriculture,
with
rising
temperatures
directly
affecting
the
yield.
Vegetables
are
an
essential
part
of
daily
human
consumption
and
thus
have
importance
among
all
agricultural
crops.
The
population
is
increasing
daily,
so
there
a
need
for
alternative
ways
which
can
be
helpful
in
maximizing
harvestable
yield
vegetables.
increase
temperature
affects
plants'
biochemical
molecular
processes;
having
significant
impact
on
quality
Breeding
climate-resilient
crops
good
yields
takes
long
time
lots
breeding
efforts.
However,
advent
new
omics
technologies,
such
as
genomics,
transcriptomics,
proteomics,
metabolomics,
efficiency
efficacy
unearthing
information
pathways
associated
high-temperature
stress
resilience
has
improved
many
vegetable
Besides
omics,
use
genomics-assisted
approaches
gene
editing
speed
allow
creation
modern
cultivars
that
more
resilient
to
high
temperatures.
Collectively,
these
will
shorten
create
release
novel
varieties
meet
growing
demands
productivity
quality.
This
review
discusses
effects
heat
vegetables
highlights
recent
research
focus
how
genome
produce
temperature-resilient
efficiently
faster.
Physiologia Plantarum,
Journal Year:
2024,
Volume and Issue:
176(1)
Published: Jan. 1, 2024
Abstract
The
adverse
effects
of
mounting
environmental
challenges,
including
extreme
temperatures,
threaten
the
global
food
supply
due
to
their
impact
on
plant
growth
and
productivity.
Temperature
extremes
disrupt
genetics,
leading
significant
issues
eventually
damaging
phenotypes.
Plants
have
developed
complex
signaling
networks
respond
tolerate
temperature
stimuli,
genetic,
physiological,
biochemical,
molecular
adaptations.
In
recent
decades,
omics
tools
other
strategies
rapidly
advanced,
offering
crucial
insights
a
wealth
information
about
how
plants
adapt
stress.
This
review
explores
potential
an
integrated
omics‐driven
approach
understanding
temperatures.
By
leveraging
cutting‐edge
methods,
genomics,
transcriptomics,
proteomics,
metabolomics,
miRNAomics,
epigenomics,
phenomics,
ionomics,
alongside
power
machine
learning
speed
breeding
data,
we
can
revolutionize
practices.
These
advanced
techniques
offer
promising
pathway
developing
climate‐proof
varieties
that
withstand
fluctuations,
addressing
increasing
demand
for
high‐quality
in
face
changing
climate.
Frontiers in Genome Editing,
Journal Year:
2025,
Volume and Issue:
6
Published: Jan. 7, 2025
Plant-derived
oils
provide
20%-35%
of
dietary
calories
and
are
a
primary
source
essential
omega-6
(linoleic)
omega-3
(α-linolenic)
fatty
acids.
While
traditional
breeding
has
significantly
increased
yields
in
key
oilseed
crops
like
soybean,
sunflower,
canola,
peanut,
cottonseed,
overall
gains
have
plateaued
over
the
past
few
decades.
Oilseed
also
experience
substantial
yield
losses
both
prime
marginal
agricultural
areas
due
to
biotic
abiotic
stresses
shifting
agro-climates.
Recent
genomic,
transcriptomic,
metabolomics
research
expanded
our
understanding
genetic
physiological
control
acid
biosynthesis
composition.
Many
species
inherent
stress-combating
mechanisms,
including
transcription
factor
regulation.
Advances
genome
editing
tools
CRISPR/Cas9
offer
precise
modifications,
targeting
factors
binding
sites
enhance
desirable
traits,
such
as
nutritional
profile
chemical
composition
This
review
explores
application
improvement,
covering
recent
progress,
challenges,
future
potential
boost
oil
content.
These
advancements
could
play
transformative
role
developing
resilient,
nutritious
crop
varieties
for
sustainable
food
security
changing
climate.