The
increasing
global
population
and
decline
in
the
availability
of
new
arable
land
water
resources,
along
with
environmental
change,
have
created
many
challenges
for
food
industry.
As
per
estimates,
nearly
8%
world
may
get
affected
by
malnutrition
starvation
2030.
faced
industry
require
effective
production
crops
vegetables
enhanced
nutritional
values
a
higher
shelf
life.
Traditional
methods
including
breeding
hybridization
are
now
being
replaced
genetically
modified
crops.
Advanced
such
as
CRISPR-Cas
derived
from
bacterial
immune
system
been
widely
used
genome
editing
creation
varieties
their
straightforward
design,
high
efficiency,
good
reproducibility,
quick
cycle.
CRISPR
differs
classical
GM
crop
technique,
which
inserts
exogenous
or
foreign
DNA
vector
into
plant
genome;
instead,
it
can
be
to
remove
any
undesired
gene
using
its
precise
mechanism
cut
DNA;
therefore,
produced
this
method
more
ethically
acceptable.
In
chapter,
we
described
basic
aspects
related
biology,
genomic
organization,
mechanism,
merits.
Furthermore,
application
technology
yield
quality
enhancing
resistance
against
viruses,
bacteria,
fungi,
bioactive
compound
rice,
wheat,
soybeans,
fruits,
potato
tomato
is
also
discussed.
safety
regulations
pertaining
use
CRISPR-modified
products
highlighted
discussing
several
regions
across
globe.
International Journal of Molecular Sciences,
Год журнала:
2022,
Номер
23(17), С. 9809 - 9809
Опубликована: Авг. 29, 2022
Precise
editing
of
the
plant
genome
has
long
been
desired
for
functional
genomic
research
and
crop
breeding.
Prime
is
a
newly
developed
precise
technology
based
on
CRISPR-Cas9,
which
uses
an
engineered
reverse
transcriptase
(RT),
catalytically
impaired
Cas9
endonuclease
(nCas9),
prime
guide
RNA
(pegRNA).
In
addition,
wider
range
types
than
base
can
produce
nearly
all
edits.
Although
was
first
established
in
human
cells,
it
recently
applied
to
plants.
As
relatively
new
technique,
optimization
will
be
needed
increase
efficiency
different
crops.
this
study,
we
successfully
edited
mutant
GFP
rice,
peanut,
chickpea,
cowpea
protoplasts.
up
16
times
higher
achieved
with
dual
pegRNA
single
containing
vectors.
Edited-mutant
protoplasts
have
also
obtained
after
transformation
vectors,
albeit
much
lower
ranging
from
0.2%
0.5%.
These
initial
results
promise
expedite
application
legume
breeding
programs
accelerate
improvement.
Agronomy,
Год журнала:
2024,
Номер
14(3), С. 513 - 513
Опубликована: Март 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,
Год журнала:
2022,
Номер
13
Опубликована: Сен. 26, 2022
The
soybean
is
a
significant
legume
crop,
providing
several
vital
dietary
components.
Extreme
heat
stress
negatively
affects
yield
and
quality,
especially
at
the
germination
stage.
Continuous
change
in
climatic
conditions
threatening
global
food
supply
security.
Therefore,
it
critical
need
of
time
to
develop
heat-tolerant
genotypes.
Different
molecular
techniques
have
been
developed
improve
tolerance
soybean,
but
until
now
complete
genetic
mechanism
not
fully
understood.
Various
methods,
like
quantitative
trait
loci
(QTL)
mapping,
engineering,
transcription
factors
(TFs),
transcriptome,
clustered
regularly
interspaced
short
palindromic
repeats
(CRISPR),
are
employed
incorporate
under
extreme
stress.
These
significantly
improved
soybean.
Besides
this,
we
can
also
use
specific
classical
breeding
approaches
different
hormones
reduce
harmful
consequences
waves
on
In
future,
integrated
these
tools
would
bring
results
developing
current
review,
presented
detailed
overview
improvement
highlighted
future
prospective.
Further
studies
required
investigate
governing
response
This
information
be
helpful
for
focusing
improving
AgroEnvironmental Sustainability,
Год журнала:
2024,
Номер
2(1), С. 34 - 50
Опубликована: Март 25, 2024
Seed
storage
innovation
assumes
an
essential
part
in
guaranteeing
worldwide
food
security
by
safeguarding
genetic
variety
and
preserving
seed
feasibility
over
time.
This
review
article
gives
a
complete
outline
of
ongoing
patterns
advances
supportable
stockpiling
strategies.
Starting
with
investigation
the
significance
about
challenges,
audit
digs
into
conventional
storing
strategies
their
obstacles.
Additionally
also
provides
comprehensive
analysis
maintainable
methodologies
like
controlled
air
capacity,
cryopreservation,
preparing,
featuring
adequacy
dragging
out
suitability
while
diminishing
energy
utilization
natural
effect.
Moreover,
discusses
incorporation
digital
technologies,
for
example,
artificial
intelligence
blockchain,
management
to
enhance
traceability
convenience
collections.
Additionally,
role
community-based
banks
participatory
plant
breeding
promoting
resilience
against
climate
change
is
explored.
By
discussing
current
research
findings
practical
applications,
this
aims
inform
policymakers,
researchers,
practitioners
diverse
range
sustainable
solutions
available
safeguard
global
agricultural
biodiversity
ensure
face
evolving
ecological
challenges.
Frontiers in Plant Science,
Год журнала:
2023,
Номер
14
Опубликована: Окт. 20, 2023
The
stable
transformation
of
common
bean
is
a
challenging
and
time-consuming
process.
Although
CRISPR/Cas9
has
revolutionized
gene
editing
with
its
high
efficiency
specificity,
the
performance
system
can
be
affected
by
multiple
factors,
such
as
sgRNA
specificity
effectiveness,
choice
promoter
used
to
drive
Cas9
expression.
use
hairy
root
initially
check
sgRNAs
impact
different
promoters
could
speed
up
this
process
increase
chances
success.
We
tested
three
methods
induce
roots
selected
preferred
method
suitable
for
variety
genotypes.
This
involved
inoculating
severed
radicle
Rhizobium
rhizogenes
K599
was
fast,
had
frequency
42-48%,
resulted
in
numerous
roots.
further
explants
using
R.
harboring
constructs
evaluated
on-target
activity
targeting
raffinose
family
oligosaccharides
biosynthetic
genes
driving
on
efficiency.
Additionally,
we
reliability
silico
tools,
CRISPOR,
CRISPR
RGEN,
inDelphi
predict
efficiencies
resulting
mutations.
Our
results
showed
that
allows
rapid
evaluation
promoters.
also
identified
several
highly
efficient
induced
frameshift
mutations
at
rates
70%
when
parsley
ubiquitin
expression,
providing
valuable
information
selection
most
effective
future
experiments.
computational
models
did
not
match
planta
results,
Lindel
model
proved
reliable
P.
vulgaris,
accurately
predicting
type
mutation
Furthermore,
algorithm
correctly
deletions
single
nucleotide
insertions
from
DNA
double-strand
breaks
bean.
These
offer
promising
implications
enhancing
precise
plants
because
they
provide
possibility
repair
outcomes.
Frontiers in Genetics,
Год журнала:
2022,
Номер
13
Опубликована: Июль 22, 2022
Domestication
is
a
dynamic
and
ongoing
process
of
transforming
wild
species
into
cultivated
by
selecting
desirable
agricultural
plant
features
to
meet
human
needs
such
as
taste,
yield,
storage,
cultivation
practices.
Human
domestication
began
in
the
Fertile
Crescent
around
12,000
years
ago
spread
throughout
world,
including
China,
Mesoamerica,
Andes
Near
Oceania,
Sub-Saharan
Africa,
eastern
North
America.
Indus
valley
civilizations
have
played
great
role
grain
legumes.
Crops,
pigeon
pea,
black
gram,
green
lablab
bean,
moth
horse
originated
Indian
subcontinent,
Neolithic
archaeological
records
indicate
that
these
crops
were
first
domesticated
early
region.
The
evolution
ancestors
today’s
elite
cultivars
are
important
contributors
global
food
supply
crop
improvement.
In
addition,
legumes
contribute
security
protecting
health
minimize
climate
change
impacts.
During
process,
legume
undergone
severe
genetic
diversity
loss,
only
very
narrow
range
variability
retained
cultivars.
Further
reduction
occurred
during
seed
dispersal
movement
across
continents.
general,
few
traits,
shattering
resistance,
dormancy
stem
growth
behavior,
flowering–maturity
period,
yield
prominence
species.
Thus,
identification
knowledge
responsive
loci
often
useful
accelerating
new
species’
domestication.
genes
metabolic
pathways
responsible
for
significant
alterations
an
outcome
might
aid
quick
novel
crops.
Further,
recent
advances
“omics”
sciences,
gene-editing
technologies,
functional
analysis
will
accelerate
improvement
without
losing
much
diversity.
this
review,
we
discussed
about
origin,
center
diversity,
major
legumes,
which
be
exploration
utilization
genes/QTLs
associated
with
syndrome
pulse
future
strategies
improve
Horticulturae,
Год журнала:
2023,
Номер
9(8), С. 884 - 884
Опубликована: Авг. 3, 2023
Genome
editing
has
emerged
as
a
powerful
tool
for
accelerating
crop
improvement
in
horticultural
crops
by
enabling
precise
modifications
to
their
genetic
makeup.
This
review
provides
an
in-depth
exploration
of
the
applications,
methodologies,
and
potential
impacts
genome
horticulture.
The
focuses
on
three
major
tools
horticulture,
CRISPR-Cas9,
TALENs,
ZFNs.
underlying
mechanisms,
challenges
associated
with
each
are
discussed
detail.
being
versatile
widely
used
system,
enhance
traits
such
disease
resistance,
abiotic
stress
tolerance,
nutritional
content,
yield
crops.
TALENs
ZFNs,
although
less
commonly
used,
offer
alternative
options
targeted
DNA
modifications,
have
demonstrated
success
specific
applications.
We
emphasize
benefits
including
improved
productivity,
quality,
value.
However,
off-target
effects,
delivery
methods,
regulatory
frameworks
need
be
addressed
full
realization
this
technology’s
potential.
serves
valuable
resource
researchers,
policymakers,
stakeholders,
providing
insights
into
opportunities
complexities
harnessing
enhanced
By
navigating
these
challenges,
can
contribute
sustainable
advancements
benefiting
both
producers
consumers
worldwide.