Agronomy,
Journal Year:
2023,
Volume and Issue:
14(1), P. 104 - 104
Published: Dec. 31, 2023
Legumes
have
important
nutritional
and
economic
values,
but
their
production
faces
continuous
cropping
obstacles
that
seriously
affect
yield
formation.
In
order
to
reduce
the
negative
impact
of
legumes,
it
is
necessary
understand
response
mechanisms
legumes
cropping,
causes
measures
alleviate
obstacles.
This
review
aimed
identify
current
knowledge
gap
in
field
provide
direction
focus
for
future
research.
The
start
with
soil
degradation,
leading
oxidative
stress
plants.
triggers
expression
plant-hormone-
signal-molecule-related
genes,
activating
defense
system
causing
Although
there
has
been
progress
researching
these
challenges
legume
crops,
many
questions
remain.
We
believe
exploration
molecular
crops
responding
rhizosphere
signal
exchange
environment
repair
after
long-term
soybean,
excavation
candidate
genes
functional
loci
related
are
breakthroughs
proposing
effective
obstacle
management
strategies
future.
Frontiers in Genetics,
Journal Year:
2022,
Volume and Issue:
13
Published: June 28, 2022
Legumes
are
rich
in
protein
and
phytochemicals
have
provided
a
healthy
diet
for
human
beings
thousands
of
years.
In
recognition
the
important
role
they
play
nutrition
agricultural
production,
researchers
made
great
efforts
to
gain
new
genetic
traits
legumes
such
as
yield,
stress
tolerance,
nutritional
quality.
recent
years,
significant
increase
genomic
resources
legume
plants
has
prepared
groundwork
applying
cutting-edge
breeding
technologies,
transgenic
genome
editing,
selection
crop
improvement.
addition
different
editing
technologies
including
CRISPR/Cas9-based
system,
this
review
article
discusses
advances
plant-specific
gene-editing
methods,
well
problems
potential
benefits
associated
with
improvement
crops
agronomic
properties.
The
been
effectively
used
model
like
alfalfa
lotus,
soybean,
cowpea,
chickpea.
We
also
discussed
methods
improvements
recalcitrant
legumes.
Despite
immense
opportunities
can
offer
legumes,
governmental
regulatory
restrictions
present
major
concern.
context,
comparison
framework
strategies
European
Union
United
States
America
was
discussed.
Gene-editing
opened
up
possibilities
breeding.
Agriculture,
Journal Year:
2023,
Volume and Issue:
13(9), P. 1721 - 1721
Published: Aug. 30, 2023
Although
chickpea
(Cicer
arietinum
L.)
has
high
yield
potential,
its
seed
is
often
low
and
unstable
due
to
the
impact
of
abiotic
stresses,
such
as
drought
heat.
As
a
result
global
warming,
both
heat
are
estimated
be
major
constraints
between
one-quarter
one-third
per
annum.
In
present
review,
genomic-mediated
breeding
strategies
increase
resilience
against
warming.
Exacerbated
stresses
have
been
examined
understand
latest
advancement
happening
for
better
management
these
challenges.
Resistance
mechanisms
consist
(i)
escape
via
earliness,
(ii)
avoidance
morphological
traits
root
traits,
compound
leaves,
or
multipinnate
leaves
double-/multiple-podded
(iii)
tolerance
molecular
physiological
special
tissue
cellular
abilities.
Both
in
chickpeas
quantitatively
governed
by
minor
genes
profoundly
influenced
edaphic
other
environmental
conditions.
High-yield
genotypes
traditionally
screened
resistance
target
selection
environment
under
stress
conditions
simulacrum
mediums
controlled
There
many
drought-
heat-tolerant
among
domestic
wild
Cicer
chickpeas,
especially
accessions
C.
reticulatum
Ladiz.,
echinospermum
P.H.
Davis,
turcicum
Toker,
J.
Berger,
Gokturk.
The
delineation
quantitative
trait
loci
(QTLs)
allied
heat-related
attributes
paved
way
designing
stress-tolerant
cultivars
chickpeas.
Transgenic
“omics”
technologies
hold
newer
avenues
basic
understanding
background
metabolic
exchanges
QTLs/candidate
their
further
utilization.
overview
effect
mechanisms/adaptive
strategies,
markers
linked
stress-related
with
genetics
sources
pre-requisites
framing
programs
intent
imparting
tolerance.
Ideotype
were,
therefore,
developed
directly
using
marker-aided
over
multiple
locations.
current
supported
functional
genomics
omics
developing
discussed
this
review.
Frontiers in Plant Science,
Journal Year:
2023,
Volume and Issue:
14
Published: May 9, 2023
Grain
legumes
play
a
crucial
role
in
human
nutrition
and
as
staple
crop
for
low-income
farmers
developing
underdeveloped
nations,
contributing
to
overall
food
security
agroecosystem
services.
Viral
diseases
are
major
biotic
stresses
that
severely
challenge
global
grain
legume
production.
In
this
review,
we
discuss
how
exploring
naturally
resistant
genotypes
within
germplasm,
landraces,
wild
relatives
could
be
used
promising,
economically
viable,
eco-environmentally
friendly
solution
reduce
yield
losses.
Studies
based
on
Mendelian
classical
genetics
have
enhanced
our
understanding
of
key
genetic
determinants
govern
resistance
various
viral
legumes.
Recent
advances
molecular
marker
technology
genomic
resources
enabled
us
identify
regions
controlling
disease
using
techniques
such
QTL
mapping,
genome-wide
association
studies,
whole-genome
resequencing,
pangenome
‘omics’
approaches.
These
comprehensive
expedited
the
adoption
genomics-assisted
breeding
virus-resistant
Concurrently,
progress
functional
genomics,
especially
transcriptomics,
has
helped
unravel
underlying
candidate
gene(s)
their
roles
This
review
also
examines
engineering-based
strategies,
including
RNA
interference,
potential
synthetic
biology
techniques,
promoters
transcription
factors,
creating
viral-resistant
It
elaborates
prospects
limitations
cutting-edge
technologies
emerging
biotechnological
tools
(e.g.,
selection,
rapid
generation
advances,
CRISPR/Cas9-based
genome
editing
tool)
virus-disease-resistant
ensure
security.
Agriculture,
Journal Year:
2023,
Volume and Issue:
13(9), P. 1825 - 1825
Published: Sept. 18, 2023
Pea
(Pisum
sativum)
stands
out
as
one
of
the
most
significant
and
productive
cool-season
pulse
crops
cultivated
worldwide.
Dealing
with
biotic
stresses
remains
a
critical
challenge
in
fully
harnessing
pea’s
potential
productivity.
As
such,
dedicated
research
developmental
efforts
are
necessary
to
make
use
omic
resources
advanced
breeding
techniques.
These
approaches
crucial
facilitating
rapid
timely
development
high-yielding
varieties
that
can
tolerate
resist
multiple
stresses.
The
availability
genomic
tools,
such
comprehensive
genetic
maps
reliable
DNA
markers,
holds
immense
promise
for
integrating
resistance
genes
from
diverse
sources.
This
integration
helps
accelerate
gains
pea
crops.
review
provides
an
overview
recent
accomplishments
resource
peas.
It
also
covers
inheritance
controlling
various
stress
responses,
control
pathogenesis
disease-causing
organisms,
mapping
genes/QTLs,
well
transcriptomic
proteomic
advancements.
By
combining
conventional
modern
omics-enabled
strategies,
be
significantly
enhanced.
Agronomy,
Journal Year:
2024,
Volume and Issue:
14(3), P. 513 - 513
Published: March 1, 2024
Despite
its
ability
to
thrive
in
high-temperature
environments,
cowpea
productivity
can
be
hampered
by
heat
stress,
particularly
when
night
air
temperatures
exceed
17
°C.
The
crop’s
germplasm
pool
potentially
possesses
significant
genetic
variability
that
harnessed
breed
for
heat-tolerant
varieties.
Progress
improving
the
crop
tolerance
has
been
limited,
especially
under
hot,
short-day
environments
typical
of
sub-Saharan
Africa.
Only
a
few
varieties
have
released,
partly
due
limited
understanding
stress
mechanisms
and
environmental
interaction
effects
on
genotypes,
as
well
imprecise
phenotyping.
This
review
contributes
literature
highlighting
key
achievements,
challenges,
future
directions
breeding
genotypes
providing
additional
information
from
recent
literature.
We
opine
tolerance-related
traits
not
sufficiently
exploited
developing
adapted
target
production
environments.
Therefore,
attention
should
given
assessing
repository
targeting
adaptive,
morphological,
physiological
enhance
tolerance.
propose
programs
integrate
phenotyping
whole-plant
molecular
identify
breeder-friendly
markers
routine
selection.
followed
introgression
favourable
alleles
susceptible
using
rapid
precise
approaches
take
advantage
modern
genomic
resources
such
innovative
resources,
selection,
speed
breeding,
genome
editing
technologies.
These
tools
hold
great
promise
fast-tracking
development
improved
incorporating
must-have
preferred
farmers
consumers.
In
view
likely
increase
atmospheric
temperature
occasioned
climate
change,
there
is
an
urgent
need
develop
ensure
sustainability
current
cropping
agri-food
systems.
Frontiers in Plant Science,
Journal Year:
2021,
Volume and Issue:
12
Published: Oct. 13, 2021
Faba
bean
is
a
cool-season
grain
legume
crop,
which
grown
worldwide
for
food
and
feed.
Despite
decrease
in
area
under
faba
the
past,
interest
growing
increasing
globally
due
to
its
high
seed
protein
content
excellent
ecological
service.
The
crop
is,
however,
exposed
diverse
biotic
abiotic
stresses
causing
unstable,
low
yield.
Although,
sources
of
resistance
main
diseases,
such
as
ascochyta
blight
(
Ascochyta
fabae
Speg.),
rust
Uromyces
viciae-fabae
(Pers.)
Schroet.),
chocolate
spot
Botrytis
Sard.)
gall
disease
Physioderma
viciae
),
have
been
identified,
their
only
partial
cannot
prevent
yield
losses
without
agronomical
practices.
Tightly
associated
DNA
markers
host
plant
genes
are
needed
enhance
level
resistance.
Less
progress
has
made
stresses.
Different
breeding
methods
proposed,
but
until
now
line
breeding,
based
on
pedigree
method,
dominant
practice
programs.
Nonetheless,
multiplication
coefficient
requirement
insect-proof
enclosures
avoid
outcrossing
hampers
along
with
lack
tools
double
haploid
system
cytoplasmic
male
sterility.
This
reduces
population
size
speed
hence
chances
capturing
rare
combinations
favorable
alleles.
Availability
use
vicine-convicine
vc
−
)
herbicide
tolerance
programs
encouraged
breeders
given
confidence
marker
assisted
selection.
Closely
linked
QTL
several
stress
available
verification
conversion
breeder
friendly
platform
will
selection
process.
Recently,
genomic
techniques
together
genomics
come
within
reach
accelerate
genetic
gains
bean.
Advancements
resources
other
tools,
platforms
enable
process
enhancing
gain
this
species.
Food and Energy Security,
Journal Year:
2022,
Volume and Issue:
12(2)
Published: June 30, 2022
Micronutrient
deficiencies
(hidden
hunger),
particularly
in
iron
(Fe)
and
zinc
(Zn),
remain
one
of
the
most
serious
public
health
challenges,
affecting
more
than
three
billion
people
globally.
A
number
strategies
are
used
to
ameliorate
problem
micronutrient
improve
nutritional
profile
food
products.
These
include
(i)
dietary
diversification,
(ii)
industrial
fortification
supplements,
(iii)
agronomic
approaches
including
soil
mineral
fertilisation,
bioinoculants
crop
rotations,
(iv)
biofortification
through
implementation
biotechnology
gene
editing
plant
breeding.
efforts
must
consider
patterns
culinary
preferences
consumer
stakeholder
acceptance
new
biofortified
varieties.
Deficiencies
Zn
Fe
often
linked
poor
status
agricultural
soils,
resulting
low
amounts
and/or
availability
these
nutrients
staple
crops
such
as
common
bean.
This
review
describes
genes
processes
associated
with
accumulation
bean,
a
significant
source
Africa
that
plays
an
important
role
security.
We
discuss
conventional
breeding,
transgenic
being
deployed
beans.
also
requirements
successful
bean
programmes,
highlighting
gaps
current
knowledge,
possible
solutions
future
perspectives.
Horticulturae,
Journal Year:
2022,
Volume and Issue:
9(1), P. 1 - 1
Published: Dec. 20, 2022
Lentil
plays
an
important
role
for
food
and
nutritional
security.
It
is
a
sustainable
source
of
protein,
zinc,
iron,
prebiotic
carbohydrates,
diverse
health-promoting
nutrients.
This
crop
widely
cultivated
in
semi-arid
marginal
areas
exposed
to
various
environmental
stressors.
Drought
stress
the
major
abiotic
that
causes
serious
effects
on
lentil
growth
development.
Thus,
it
imperative
set
up
innovative
solutions
reduce
adverse
drought
crop.
In
this
review,
agro-morphological,
physiological,
biochemical
were
highlighted.
Furthermore,
breeding
agronomic
interventions
improve
performance
drought-prone
environments
also
discussed.
Overall,
disturbs
germination,
photosynthesis,
water
relations,
shoot
root
growth,
thereby
reducing
final
yield.
Conventional
programs
have
identified
several
sources
tolerance;
however,
modern
biotechnological
tools
could
be
adopted
decipher
genetic
architecture
tolerance
accelerate
progress.
Cost-affordable
eco-friendly
practices
may
contribute
minimize
negative
consequences
stress.
Smart
exploitation
approaches
help
overcome
drought,
productivity,
increase
profitability
farmers
dry
areas.