Scientific Reports,
Journal Year:
2022,
Volume and Issue:
12(1)
Published: Aug. 11, 2022
In
wheat,
a
meta-analysis
was
performed
using
previously
identified
QTLs
associated
with
drought
stress
(DS),
heat
(HS),
salinity
(SS),
water-logging
(WS),
pre-harvest
sprouting
(PHS),
and
aluminium
(AS)
which
predicted
total
of
134
meta-QTLs
(MQTLs)
that
involved
at
least
28
consistent
stable
MQTLs
conferring
tolerance
to
five
or
all
six
abiotic
stresses
under
study.
Seventy-six
out
the
132
physically
anchored
were
also
verified
genome-wide
association
studies.
Around
43%
had
genetic
physical
confidence
intervals
less
than
1
cM
5
Mb,
respectively.
Consequently,
539
genes
in
some
selected
providing
6
stresses.
Comparative
analysis
underlying
four
RNA-seq
based
transcriptomic
datasets
unravelled
189
differentially
expressed
included
11
most
promising
candidate
common
among
different
datasets.
The
promoter
showed
promoters
these
include
many
responsiveness
cis-regulatory
elements,
such
as
ARE,
MBS,
TC-rich
repeats,
As-1
element,
STRE,
LTR,
WRE3,
WUN-motif
others.
Further,
overlapped
34
known
genes.
addition,
numerous
ortho-MQTLs
maize,
rice
genomes
discovered.
These
findings
could
help
fine
mapping
gene
cloning,
well
marker-assisted
breeding
for
multiple
tolerances
wheat.
BMC Genomics,
Journal Year:
2023,
Volume and Issue:
24(1)
Published: May 12, 2023
Yellow
or
stripe
rust,
caused
by
the
fungus
Puccinia
striiformis
f.
sp.
tritici
(Pst)
is
an
important
disease
of
wheat
that
threatens
production.
Since
developing
resistant
cultivars
offers
a
viable
solution
for
management,
it
essential
to
understand
genetic
basis
rust
resistance.
In
recent
years,
meta-QTL
analysis
identified
QTLs
has
gained
popularity
as
way
dissect
architecture
underpinning
quantitative
traits,
including
resistance.Systematic
involving
505
from
101
linkage-based
interval
mapping
studies
was
conducted
resistance
in
wheat.
For
this
purpose,
publicly
available
high-quality
maps
were
used
create
consensus
linkage
map
138,574
markers.
This
project
and
conduct
analysis.
A
total
67
meta-QTLs
(MQTLs)
which
refined
29
high-confidence
MQTLs.
The
confidence
(CI)
MQTLs
ranged
0
11.68
cM
with
mean
1.97
cM.
physical
CI
24.01
Mb,
ranging
0.0749
216.23
Mb
per
MQTL.
As
many
44
colocalized
marker-trait
associations
SNP
peaks
associated
Some
also
included
following
major
genes-
Yr5,
Yr7,
Yr16,
Yr26,
Yr30,
Yr43,
Yr44,
Yr64,
YrCH52,
YrH52.
Candidate
gene
mining
1,562
models.
Examining
these
models
differential
expressions
yielded
123
differentially
expressed
genes,
59
most
promising
CGs.
We
studied
how
genes
tissues
at
different
phases
development.The
study
may
facilitate
marker-assisted
breeding
Information
on
markers
flanking
can
be
utilized
genomic
selection
increase
prediction
accuracy
candidate
enhancing
against
after
vivo
confirmation/validation
using
one
more
methods:
cloning,
reverse
methods,
omics
approaches.
Plant Stress,
Journal Year:
2023,
Volume and Issue:
11, P. 100301 - 100301
Published: Nov. 21, 2023
Plants
being
sessile
organisms,
face
environmental
challenges
and
climate
change
scenarios,
that
often
occur
simultaneously
(as
dual
or
multifactorial)
rather
than
as
a
single
stress
factor.
Combined
stresses
may
exert
additive
impacts
on
plant
growth
yields.
The
prime
challenge
to
safely
feed
the
burgeoning
population,
in
light
of
issues,
demands
precise
agriculture
systems.
Though
traditional
breeding
methods
have
been
utilised
but
with
limited
success
owing
time,
cost,
infrastructure
constraints.
Modern
biotechnological
tools,
especially
high-throughput
omics
including
genomics,
transcriptomics,
miRNAomics,
metabolomics,
lipidomics
beside
others
are
advocated
revolutionize
science
biology
develop
stress-smart
crops.
Omics
databases,
pipelines
coupled
machine
learning,
artificial
intelligence,
mathematical
modelling
proving
highly
effective
not
only
deciphering
mechanistic
insights
responses
also
enhancing
stress-tolerance.
This
review
presents
current
knowledge
updates
recent
developments
abiotic
adaptive
strategies
against
combined
sequential
stresses.
Latest
toolbox
how
they
explored
via
genetic
genomic
engineering,
RNA-interference,
microRNAs
target
mimicry
discussed
detail.
Recent
deployment
biotechnological/omics
technologies
modern
practices
for
producing
multi-abiotic
tolerant
crops,
key
questions
futuristic
trends
discussed.
Plant Stress,
Journal Year:
2024,
Volume and Issue:
11, P. 100366 - 100366
Published: Jan. 17, 2024
African
agricultural
systems
are
now
in
crucial
need
to
assure
food
for
the
overgrowing
population.
To
meet
this
challenges,
we
better
way
identify
and
modify
key
proteins
genes
involved
yield
potential,
nutrient
value,
stress
tolerance
crops
like
maize,
sorghum,
soybeans,
cassava,
rice,
etc.
The
deep
understanding
of
metabolomics,
transcriptomics,
proteomics,
genomics
has
proven
be
a
useful
tool
increasing
crop
resilience
Africa.
However,
there
is
very
little
information
available
regarding
recent
use
omics
technology
increase
yields
This
review
provided
advances
plants
molecular
profiling
techniques
enhance
our
breeding
strategies
grown
study
will
plant
technologies
inform
strategies.
Plants,
Journal Year:
2024,
Volume and Issue:
13(12), P. 1656 - 1656
Published: June 14, 2024
As
a
type
of
cell-wall-relaxing
protein
that
is
widely
present
in
plants,
expansins
have
been
shown
to
actively
participate
the
regulation
plant
growth
and
responses
environmental
stress.
Wild
soybeans
long
existed
wild
environment
possess
abundant
resistance
gene
resources,
which
hold
significant
value
for
improvement
cultivated
soybean
germplasm.
In
our
previous
study,
we
found
expansin
GsEXLB14
specifically
transcribed
roots,
its
transcription
level
significantly
increases
under
salt
drought
To
further
identify
function
GsEXLB14,
this
cloned
CDS
sequence
gene.
The
pattern
roots
stress
was
analyzed
by
qRT-PCR.
Using
an
Agrobacterium
rhizogenes-mediated
genetic
transformation,
obtained
hairy
overexpressing
GsEXLB14.
Under
150
mM
NaCl-
100
mannitol-simulated
stress,
relative
values
number,
length,
weight
transgenic
were
higher
than
those
control
group.
We
transcriptomes
wild-type
normal
conditions
through
RNA
sequencing.
A
transcriptomic
analysis
showed
genes
encoding
(EXPB
family),
peroxidase,
H+-transporting
ATPase,
other
upregulated
(EXPB/LB
family)
increased
roots.
addition,
peroxidases,
calcium/calmodulin-dependent
kinases,
dehydration-responsive
proteins
significantly.
results
qRT-PCR
also
confirmed
above
consistent
with
transcriptome.
differences
transcript
levels
may
be
potential
reason
strong
tolerance
conclusion,
can
used
as
valuable
candidate
molecular
breeding
soybeans.
BMC Plant Biology,
Journal Year:
2025,
Volume and Issue:
25(1)
Published: Jan. 14, 2025
Zinc
finger
homeodomain
(ZF-HD)
belongs
to
the
plant-specific
transcription
factor
(TF)
family
and
is
widely
involved
in
plant
growth,
development
stress
responses.
Despite
their
importance,
a
comprehensive
identification
analysis
of
ZF-HD
genes
soybean
(Glycine
max)
genome
possible
roles
under
abiotic
remain
unexplored.
In
this
study,
51
were
identified
that
unevenly
distributed
on
17
chromosomes.
All
GmZF-HD
contained
conserved
ZF-HD_dimer
domain
had
diverse
physicochemical
features.
Furthermore,
gene
structures
exhibited
3
10
motifs,
most
them
showed
intronless
structures.
Phylogenetic
categorized
into
eight
major
groups
with
highest
closeness
dicots
including
Brassica
rapa
Malus
domestica.
The
cis-element
recognized
growth
(10%),
phytohormones
(31%)
stress-responsive
(59%)
elements.
Synteny
73
segmental
1
tandem
duplicated
underwent
purifying
selection.
collinearity
revealed
higher
homology
dicot
species,
indicating
common
ancestors
close
evolutionary
relationships.
A
total
94
gma-miRNAs
from
41
miRNA
families
identified,
targeting
40
genes,
GmZF-HD6
being
targeted
by
7
miRNAs,
gma-miR4993
emerging
as
dominant
family.
Different
TFs
ERF,
LBD,
BBR-BPC
MYB,
etc.,
predicted
all
upstream
regions
visualized
network.
Expression
profiling
through
RNA-Seq
expressions
different
tissues
seeds,
roots,
shoots
leaves
conditions.
Further,
qRT-PCR
demonstrated
tested
significantly
induced
leaves,
mainly
GmZF-HD5/6/13/39
GmZF-HD45
upregulated
(2.5
8.8
folds)
treatments
compared
control,
highlighting
potential
response
stresses
soybean.
Overall,
study
reveals
insights
soybeans
provides
valuable
contribution
towards
functional
studies
for
improvement
Plants,
Journal Year:
2025,
Volume and Issue:
14(5), P. 671 - 671
Published: Feb. 21, 2025
Soybean
is
a
vital
crop
globally
and
key
source
of
food,
feed,
biofuel.
With
advancements
in
high-throughput
technologies,
soybeans
have
become
target
for
genetic
improvement.
This
comprehensive
review
explores
advances
multi-omics,
artificial
intelligence,
economic
sustainability
to
enhance
soybean
resilience
productivity.
Genomics
revolution,
including
marker-assisted
selection
(MAS),
genomic
(GS),
genome-wide
association
studies
(GWAS),
QTL
mapping,
GBS,
CRISPR-Cas9,
metagenomics,
metabolomics
boosted
the
growth
development
by
creating
stress-resilient
varieties.
The
intelligence
(AI)
machine
learning
approaches
are
improving
trait
discovery
associated
with
nutritional
quality,
stresses,
adaptation
soybeans.
Additionally,
AI-driven
technologies
like
IoT-based
disease
detection
deep
revolutionizing
monitoring,
early
identification,
yield
prediction,
prevention,
precision
farming.
viability
environmental
soybean-derived
biofuels
critically
evaluated,
focusing
on
trade-offs
policy
implications.
Finally,
potential
impact
climate
change
productivity
explored
through
predictive
modeling
adaptive
strategies.
Thus,
this
study
highlights
transformative
multidisciplinary
advancing
global
utility.
Crop and Pasture Science,
Journal Year:
2025,
Volume and Issue:
76(4)
Published: April 10, 2025
Soybean
(Glycine
max)
is
one
of
the
most
prominent
legume
crops,
primarily
being
cultivated
as
a
substitute
for
high-protein
meat
and
source
vegetable
oil.
has
always
been
in
demand
worldwide
due
to
its
nutritional
economic
value.
similar
higher
market-value
products
are
used
either
directly
or
component
various
soy-based
items.
Conventional
breeding
techniques
have
increased
soybean
yields
past
few
years
but
not
able
meet
demands
world’s
rapidly
growing
population.
Therefore,
new
genomic
required
overcome
those
challenges.
The
role
novel
molecular
such
speed
breeding,
modifications
genome
editing,
genome-wide
association
studies,
selection,
‘breeding
by
design’,
RNA-directed
DNA
methylation
summarised
this
review
highlighting
their
future
potential
improvement.
These
opened
up
opportunities
introduce
greater
genetic
diversity
into
germplasm.
Different
yield,
quality,
other
agricultural
traits
including
abiotic
biotic
stresses
improved
using
these
research
underway
revolutionize
field.