Plant Communications,
Journal Year:
2024,
Volume and Issue:
5(9), P. 100983 - 100983
Published: June 5, 2024
Whole-genome
genotyping
(WGG)
stands
as
a
pivotal
element
in
genomic-assisted
plant
breeding.
Nevertheless,
sequencing-based
approaches
for
WGG
continue
to
be
costly,
primarily
owing
the
high
expenses
associated
with
library
preparation
and
laborious
protocol.
During
prior
development
of
foreground
background
integrated
by
sequencing
(FBI-seq),
we
discovered
that
any
sequence-specific
primer
(SP)
inherently
possesses
capability
amplify
massive
array
stable
reproducible
non-specific
PCR
products
across
genome.
Here,
further
improved
FBI-seq
replacing
adapter
ligated
Tn5
transposase
an
arbitrary
degenerate
(AD)
primer.
The
protocol
enhanced
unexpectedly
mirrors
simplified
thermal
asymmetric
interlaced
(TAIL)-PCR,
technique
is
widely
used
isolation
flanking
sequences.
However,
TAIL-PCR
maximizes
primer-template
mismatched
annealing
capabilities
both
SP
AD
primers.
In
addition,
leveraging
next-generation
enhances
ability
this
assay
tens
thousands
genome-wide
loci
species.
This
cost-effective,
user-friendly,
powerful
tool,
which
have
named
(TAIL-peq),
holds
great
potential
widespread
application
breeding
programs,
thereby
facilitating
genome-assisted
crop
improvement.
Plant Biotechnology Journal,
Journal Year:
2022,
Volume and Issue:
20(9), P. 1807 - 1818
Published: June 1, 2022
Seed
size
is
one
of
the
most
important
agronomic
traits
determining
yield
crops.
Cloning
key
genes
controlling
seed
and
pyramiding
their
elite
alleles
will
facilitate
improvement.
To
date,
few
have
been
identified
in
soybean,
a
major
crop
that
provides
half
plant
oil
quarter
protein
globally.
Here,
through
genome-wide
association
study
over
1800
soybean
accessions,
we
determined
natural
allelic
variation
at
GmST05
(Seed
Thickness
05)
predominantly
controlled
thickness
germplasm.
Further
analyses
suggested
two
haplotypes
differed
significantly
transcriptional
level.
Transgenic
experiments
demonstrated
positively
regulated
influenced
contents,
possibly
by
regulating
transcription
GmSWEET10a.
Population
genetic
diversity
analysis
variations
were
selected
during
geographical
differentiation
but
not
fixed.
In
summary,
determines
levels
influences
quality
making
it
an
gene
resource
for
molecular
breeding.
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.
International Journal of Molecular Sciences,
Journal Year:
2022,
Volume and Issue:
23(19), P. 11156 - 11156
Published: Sept. 22, 2022
Recently,
Artificial
intelligence
(AI)
has
emerged
as
a
revolutionary
field,
providing
great
opportunity
in
shaping
modern
crop
breeding,
and
is
extensively
used
indoors
for
plant
science.
Advances
phenomics,
enviromics,
together
with
the
other
"omics"
approaches
are
paving
ways
elucidating
detailed
complex
biological
mechanisms
that
motivate
functions
response
to
environmental
trepidations.
These
have
provided
researchers
precise
tools
evaluate
important
agronomic
traits
larger-sized
germplasm
at
reduced
time
interval
early
growth
stages.
However,
big
data
relationships
within
impede
understanding
of
behind
genes
driving
agronomic-trait
formations.
AI
brings
huge
computational
power
many
new
strategies
future
breeding.
The
present
review
will
encompass
how
applications
technology,
utilized
current
breeding
practice,
assist
solve
problem
high-throughput
phenotyping
gene
functional
analysis,
advances
technologies
bring
opportunities
make
envirotyping
widely
Furthermore,
methods,
linking
genotype
phenotype
remains
massive
challenge
impedes
optimal
application
field
phenotyping,
genomics,
enviromics.
In
this
review,
we
elaborate
on
be
preferred
tool
increase
accuracy
genotyping,
data;
moreover,
explore
developing
challenges
multiomics
computing
integration.
Therefore,
integration
can
allow
rapid
identification
eventually
accelerate
crop-improvement
programs.
Frontiers in Plant Science,
Journal Year:
2022,
Volume and Issue:
13
Published: Dec. 8, 2022
Crop
production
is
the
primary
goal
of
agricultural
activities,
which
always
taken
into
consideration.
However,
global
systems
are
coming
under
increasing
pressure
from
rising
food
demand
rapidly
growing
world
population
and
changing
climate.
To
address
these
issues,
improving
high-yield
climate-resilient
related-traits
in
crop
breeding
an
effective
strategy.
In
recent
years,
advances
omics
techniques,
including
genomics,
transcriptomics,
proteomics,
metabolomics,
paved
way
for
accelerating
plant/crop
to
cope
with
climate
enhance
production.
Optimized
phenotypic
plasticity
platform
integration,
exploited
by
evolving
machine
learning
algorithms
will
aid
development
biological
interpretations
complex
traits.
The
precise
progressive
assembly
desire
alleles
using
genome
editing
approaches
enhanced
strategies
would
enable
future
crops
excel
combating
climates.
Furthermore,
plant
genetic
engineering
ensures
exclusive
approach
developing
nutrient
sufficient
crops,
productivity
can
sustainably
adequately
meet
world's
food,
nutrition,
energy
needs.
This
review
provides
overview
how
integration
could
be
select
varieties
desired
International Journal of Molecular Sciences,
Journal Year:
2022,
Volume and Issue:
23(19), P. 12053 - 12053
Published: Oct. 10, 2022
The
major
challenges
that
agriculture
is
facing
in
the
twenty-first
century
are
increasing
droughts,
water
scarcity,
flooding,
poorer
soils,
and
extreme
temperatures
due
to
climate
change.
However,
most
crops
not
tolerant
climatic
environments.
aim
near
future,
a
world
with
hunger
an
population,
breed
and/or
engineer
tolerate
abiotic
stress
higher
yield.
Some
crop
varieties
display
certain
degree
of
tolerance,
which
has
been
exploited
by
plant
breeders
develop
thrive
under
conditions.
Moreover,
long
list
genes
involved
tolerance
have
identified
characterized
molecular
techniques
overexpressed
individually
transformation
experiments.
Nevertheless,
phenotypes
polygenetic
traits,
current
genomic
tools
dissecting
exploit
their
use
accelerating
genetic
introgression
using
markers
or
site-directed
mutagenesis
such
as
CRISPR-Cas9.
In
this
review,
we
describe
mechanisms
sense
adverse
conditions
examine
discuss
classic
new
select
improve
crops.
International Journal of Molecular Sciences,
Journal Year:
2022,
Volume and Issue:
23(9), P. 5236 - 5236
Published: May 7, 2022
Salt
stress
is
one
of
the
major
constraints
to
rice
cultivation
worldwide.
Thus,
development
salt-tolerant
cultivars
becomes
a
hotspot
current
breeding.
Achieving
this
goal
depends
in
part
on
understanding
how
responds
salt
and
uncovering
molecular
mechanism
underlying
trait.
Over
past
decade,
great
efforts
have
been
made
understand
tolerance
through
genomics,
transcriptomics,
proteomics,
metabolomics,
epigenetics.
However,
there
are
few
reviews
aspect.
Therefore,
we
review
research
progress
omics
related
discuss
these
advances
will
promote
innovations
In
future,
expect
that
integration
multi-omics
data
can
accelerate
solution
response
stress,
lay
foundation
for
precise
breeding
tolerance.
Frontiers in Plant Science,
Journal Year:
2023,
Volume and Issue:
14
Published: March 7, 2023
As
a
leading
oilseed
crop
that
supplies
plant
oil
and
protein
for
daily
human
life,
increasing
yield
improving
nutritional
quality
(high
or
protein)
are
the
top
two
fundamental
goals
of
soybean
breeding.
Seed
size
is
one
most
critical
factors
determining
yield.
size,
contents
complex
quantitative
traits
governed
by
genetic
environmental
during
seed
development.
The
composition
quantity
storage
reserves
directly
affect
size.
In
general,
make
up
almost
60%
total
seed.
Therefore,
soybean's
oil,
content
highly
correlated
agronomical
traits.
Increasing
helps
increase
probably
improves
quality.
Similarly,
rising
will
likely
Due
to
importance
these
three
in
breeding,
extensive
studies
have
been
conducted
on
their
underlying
trait
locus
(QTLs)
genes
dissection
molecular
regulatory
pathways.
This
review
summarized
progress
functional
genome
controlling
recent
decades,
presented
challenges
prospects
developing
high-yield
cultivars
with
high
content.
end,
we
hope
this
be
helpful
improvement
future
breeding
process.
Plants,
Journal Year:
2024,
Volume and Issue:
13(19), P. 2676 - 2676
Published: Sept. 24, 2024
With
the
development
of
new
technologies
in
recent
years,
researchers
have
made
significant
progress
crop
breeding.
Modern
breeding
differs
from
traditional
because
great
changes
technical
means
and
concepts.
Whereas
initially
focused
on
high
yields,
modern
focuses
orientations
based
different
crops’
audiences
or
by-products.
The
process
starts
creation
material
populations,
which
can
be
constructed
by
natural
mutagenesis,
chemical
physical
mutagenesis
transfer
DNA
(T-DNA),
Tos17
(endogenous
retrotransposon),
etc.
Then,
gene
function
mined
through
QTL
mapping,
Bulked-segregant
analysis
(BSA),
Genome-wide
association
studies
(GWASs),
RNA
interference
(RNAi),
editing.
at
transcriptional,
post-transcriptional,
translational
levels,
functions
genes
are
described
terms
post-translational
aspects.
This
article
mainly
discusses
application
above
scientific
technological
methods
advantages
limitations
diversity.
In
particular,
editing
technology
has
contributed
to
research.
Frontiers in Plant Science,
Journal Year:
2024,
Volume and Issue:
15
Published: March 8, 2024
Sugarcane
is
the
most
important
sugar
and
energy
crop
in
world.
During
sugarcane
breeding,
technology
requirement
methods
are
means.
As
we
know,
seed
cornerstone
of
development
industry.
Over
past
century,
with
advancement
expansion
methods,
breeding
has
continued
to
improve,
production
realized
a
leaping
growth,
providing
large
amount
essential
clean
for
long-term
mankind
development,
especially
face
future
threats
world
population
explosion,
reduction
available
arable
land,
various
biotic
abiotic
stresses.
Moreover,
due
narrow
genetic
foundation,
serious
varietal
degradation,
lack
breakthrough
varieties,
as
well
long
cycle
low
probability
gene
polymerization,
it
particularly
realize
leapfrog
by
seizing
opportunity
emerging
Breeding
4.0,
making
full
use
modern
biotechnology
including
but
not
limited
whole
genome
selection,
transgene,
editing,
synthetic
biology,
combined
information
such
remote
sensing
deep
learning.
In
view
this,
focus
on
from
perspective
reviewing
main
history,
pointing
out
current
status
challenges,
reasonable
outlook
prospects
smart
breeding.