Precision
plant
breeding
and
Crispr/cas
genome
editing
have
revolutionized
agricultural
biotechnology
opened
up
previously
unheard-of
opportunities
for
further
crop
improvement.
By
precisely
altering
genomes
through
the
use
of
cas/crispr
systems,
crops
with
beneficial
traits—like
increased
disease
resistance,
better
nutritional
value,
productivity—can
be
produced
more
quickly.
At
same
time,
improving
resilience
productivity
requires
an
understanding
how
microbes
or
plants
interact
one
another.
Plant
health
depends
on
microbial
populations,
which
influence
growth,
stress
tolerance,
resistance.
Gene
interactions
a
cooperative
relationship
that
has
potential
to
completely
transform
agriculture
by
enabling
innovative
sustainable
farming
practices.
Researchers
are
finding
new
strategies
grow
resilient,
resource-efficient,
high-performing
fusing
benefits
plant-microbe
crispr/cas
technology.
This
all-encompassing
strategy
seeks
solve
issues
posed
climate
change
growing
world
population
while
also
enhancing
food
security.
Trends in Plant Science,
Journal Year:
2023,
Volume and Issue:
28(10), P. 1144 - 1165
Published: June 16, 2023
The
discovery
of
the
CRISPR/Cas
genome-editing
system
has
revolutionized
our
understanding
plant
genome.
been
used
for
over
a
decade
to
modify
genomes
study
specific
genes
and
biosynthetic
pathways
as
well
speed
up
breeding
in
many
species,
including
both
model
non-model
crops.
Although
is
very
efficient
genome
editing,
bottlenecks
challenges
slow
down
further
improvement
applications.
In
this
review
we
discuss
that
can
occur
during
tissue
culture,
transformation,
regeneration,
mutant
detection.
We
also
opportunities
provided
by
new
CRISPR
platforms
applications
related
gene
regulation,
abiotic
biotic
stress
response
improvement,
de
novo
domestication
plants.
Molecular Plant,
Journal Year:
2023,
Volume and Issue:
16(10), P. 1590 - 1611
Published: Sept. 7, 2023
Climate
change
poses
daunting
challenges
to
agricultural
production
and
food
security.
Rising
temperatures,
shifting
weather
patterns,
more
frequent
extreme
events
have
already
demonstrated
their
effects
on
local,
regional,
global
systems.
Crop
varieties
that
withstand
climate-related
stresses
are
suitable
for
cultivation
in
innovative
cropping
systems
will
be
crucial
maximize
risk
avoidance,
productivity,
profitability
under
climate-changed
environments.
We
surveyed
588
expert
stakeholders
predict
current
novel
traits
may
essential
future
pearl
millet,
sorghum,
maize,
groundnut,
cowpea,
common
bean
varieties,
particularly
sub-Saharan
Africa.
then
review
the
progress
prospects
breeding
three
prioritized
future-essential
each
of
these
crops.
Experts
most
priorities
remain
important,
but
rates
genetic
gain
must
increase
keep
pace
with
climate
consumer
demands.
Importantly,
predicted
include
targets
also
prioritized;
example,
(1)
optimized
rhizosphere
microbiome,
benefits
P,
N,
water
use
efficiency,
(2)
performance
across
or
specific
systems,
(3)
lower
nighttime
respiration,
(4)
improved
stover
quality,
(5)
increased
early
vigor.
further
discuss
cutting-edge
tools
approaches
discover,
validate,
incorporate
diversity
from
exotic
germplasm
into
populations
unprecedented
precision,
accuracy,
speed.
conclude
greatest
challenge
developing
crop
win
race
between
security
might
our
innovativeness
defining
boldness
breed
tomorrow.
Biotechnology Advances,
Journal Year:
2023,
Volume and Issue:
69, P. 108248 - 108248
Published: Sept. 2, 2023
Cereal
crops,
including
triticeae
species
(barley,
wheat,
rye),
as
well
edible
cereals
(wheat,
corn,
rice,
oat,
rye,
sorghum),
are
significant
suppliers
for
human
consumption,
livestock
feed,
and
breweries.
Over
the
past
half-century,
modern
varieties
of
cereal
crops
with
increased
yields
have
contributed
to
global
food
security.
However,
presently
cultivated
elite
crop
were
developed
mainly
optimal
environmental
conditions.
Thus,
it
has
become
evident
that
taking
into
account
ongoing
climate
changes,
currently
a
priority
should
be
given
developing
new
stress-tolerant
cultivars.
It
is
necessary
enhance
accuracy
methods
time
required
generate
cultivars
desired
features
adapt
change
keep
up
world
population
expansion.
The
CRISPR/Cas9
system
been
powerful
versatile
genome
editing
tool
achieve
desirable
traits,
such
high-yielding,
stress-tolerant,
disease-resistant
transgene-free
lines
in
major
cereals.
Despite
recent
advances,
application
faces
several
challenges,
amount
develop
lines,
laboriousness,
limited
number
genotypes
may
used
transformation
vitro
regeneration.
Additionally,
through
restricted
many
countries,
especially
Europe
New
Zealand,
due
lack
flexibility
GMO
regulations.
This
review
provides
comprehensive
update
researchers
interested
improving
using
gene-editing
technologies,
CRISPR/Cas9.
We
will
some
critical
studies
on
improvements
their
contributing
factors
superior
technologies.
Current Issues in Molecular Biology,
Journal Year:
2023,
Volume and Issue:
45(2), P. 918 - 935
Published: Jan. 19, 2023
The
clustered
regularly
interspaced
short
palindromic
repeats
(CRISPR)/associated
protein
9
system
(Cas9)
has
been
used
at
length
to
optimize
multiple
aspects
of
germplasm
resources.
However,
large-scale
genomic
research
indicated
that
novel
variations
in
crop
plants
are
attributed
single-nucleotide
polymorphisms
(SNPs).
Therefore,
substituting
single
bases
into
a
plant
genome
may
produce
desirable
traits.
Gene
editing
by
CRISPR/Cas9
techniques
frequently
results
insertions-deletions
(indels).
Base
allows
precise
changes
the
absence
double-strand
breaks
(DSBs)
and
donor
repair
templates
(DRTs).
BEs
have
provided
new
way
thinking
about
editing,
base
currently
being
utilized
edit
genomes
many
different
organisms.
As
traditional
breeding
modern
molecular
technologies
complement
each
other,
various
emerged.
How
realize
greater
potential
BE
applications
is
question
we
need
consider.
Here,
explain
editings
such
as
CBEs,
ABEs,
CGBEs.
In
addition,
latest
agriculture
summarized,
including
yield,
quality,
disease,
herbicide
resistance.
Finally,
challenges
future
prospects
presented.
aim
provide
comprehensive
overview
application
further
improve
make
most
its
value.
PLANT PHYSIOLOGY,
Journal Year:
2024,
Volume and Issue:
195(2), P. 1138 - 1142
Published: Feb. 22, 2024
Mutating
transcription
factor
genes
involved
in
growth,
development,
and
stress
response
rice
enhances
disease
resistance
to
microbial
pathogens
without
suffering
a
yield
penalty.
Plant Biotechnology Journal,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 12, 2025
Summary
The
integration
of
haploid
induction
and
genome
editing,
termed
HI‐Edit/IMGE,
is
a
promising
tool
for
generating
targeted
mutations
crop
breeding.
However,
the
technical
components
stacking
suitable
maize
seed
industry
have
yet
to
be
fully
characterised
tested.
Here,
we
developed
assessed
three
HI‐Edit/IMGE
lines:
Edit
Wx
,
Sh
&
using
inducer
CHOI3
lines
engineered
CRISPR‐Cas9
system
targeting
Waxy1
(
Wx1
)
Shrunken2
Sh2
genes.
We
meticulously
systems,
focusing
on
copy
numbers
mutant
alleles
mtl
dmp
which
facilitate
induction.
Using
B73
six
other
parental
major
commercial
varieties
as
recipients,
demonstrated
maternal
efficiencies
ranging
from
8.55%
20.89%
mutation
rates
between
0.38%
1.46%.
Comprehensive
assessment
verified
identification,
target
gene
editing
accuracy,
background
integrity,
related
agronomic
traits.
Notably,
successfully
combined
distinct
systems
induce
multiple
desired
mutations,
highlighting
potential
in
accelerating
edited
traits
into
varieties.
Our
findings
underscore
importance
meticulous
Cas9
number
characterisation
highlight
challenges
somatic
chimerism.
also
validated
performance
single‐cross
haploids
derived
process.
results
confirm
industrial
applicability
through
pollination
provide
critical
insights
further
optimising
this
technology.
Plant Biotechnology Journal,
Journal Year:
2023,
Volume and Issue:
22(1), P. 19 - 36
Published: Oct. 4, 2023
Summary
Prime
editing
(PE)
technology
utilizes
an
extended
prime
guide
RNA
(pegRNA)
to
direct
a
fusion
peptide
consisting
of
nCas9
(H840)
and
reverse
transcriptase
(RT)
specific
location
in
the
genome.
This
enables
installation
base
changes
at
targeted
site
using
portion
pegRNA
through
RT
activity.
The
resulting
product
reaction
forms
3′
flap,
which
can
be
incorporated
into
genomic
series
biochemical
steps
involving
DNA
repair
synthesis
pathways.
PE
has
demonstrated
its
effectiveness
achieving
almost
all
precise
gene
editing,
such
as
conversions
(all
types),
sequence
insertions
deletions,
chromosomal
translocation
inversion
long
insertion
safe
harbour
sites
within
In
plant
science,
could
serve
groundbreaking
tool
for
allowing
creation
desired
alleles
improve
crop
varieties.
Nevertheless,
application
encountered
limitations
due
efficiency
constraints,
particularly
dicotyledonous
plants.
this
review,
we
discuss
step‐by‐step
mechanism
PE,
shedding
light
on
critical
aspects
each
step
while
suggesting
possible
solutions
enhance
efficiency.
Additionally,
present
overview
recent
advancements
future
perspectives
research
specifically
focused
plants,
examining
key
technical
considerations
applications.
The Plant Journal,
Journal Year:
2024,
Volume and Issue:
119(4), P. 2116 - 2132
Published: June 23, 2024
SUMMARY
Maize
(
Zea
mays
L.)
is
an
important
crop
that
has
been
widely
studied
for
its
agronomic
and
industrial
applications
one
of
the
main
classical
model
organisms
genetic
research.
Agrobacterium
‐mediated
transformation
immature
maize
embryos
a
commonly
used
method
to
introduce
transgenes,
but
low
frequency
remains
bottleneck
many
gene‐editing
applications.
Previous
approaches
enhance
included
improvement
tissue
culture
media
use
morphogenic
regulators
such
as
BABY
BOOM
WUSCHEL2
.
Here,
we
show
can
be
increased
using
pVS1‐VIR2
virulence
helper
plasmid
improve
T‐DNA
delivery,
and/or
expressing
fusion
protein
between
GROWTH‐REGULATING
FACTOR
GRF
)
GRF‐INTERACTING
GIF
regeneration.
Using
hygromycin
selection
agent
avoid
escapes,
in
inbred
line
B104
significantly
improved
from
2.3
8.1%
when
vector
with
no
effect
on
event
quality
regarding
copy
number.
Combined
novel
ZmGRF1
ZmGIF1,
frequencies
further
another
3.5‐
6.5‐fold
obvious
impact
plant
growth,
while
simultaneously
allowing
efficient
CRISPR‐/Cas9‐mediated
gene
editing.
Our
results
demonstrate
how
GRF‐GIF
chimera
conjunction
ternary
system
potential
efficiency
molecular
biology
studies
maize.