Plants,
Journal Year:
2024,
Volume and Issue:
13(3), P. 406 - 406
Published: Jan. 30, 2024
Sugars
act
as
the
main
energy
sources
in
many
fruit
and
vegetable
crops.
The
biosynthesis
transportation
of
sugars
are
crucial
especially
contribute
to
growth
development.
SWEET
is
an
important
gene
family
that
plays
a
vital
role
plants’
growth,
development,
adaptation
various
types
stresses
(biotic
abiotic).
Although
genes
have
been
identified
numerous
plant
species,
there
no
information
on
SWEETs
Potentilla
anserina.
In
present
study,
we
performed
comprehensive
genome-wide
bioinformatics
analysis
total
23
candidate
PaSWEETs
anserina
genome,
which
were
randomly
distributed
ten
different
chromosomes.
phylogenetic
analysis,
chromosomal
location,
structure,
specific
cis-elements,
protein
interaction
network,
physiological
characteristics
these
systematically
examined.
results
relationship
with
Arabidopsis
thaliana
revealed
PaSWEET
divided
into
four
clades
(I,
II,
III,
IV).
Moreover,
tissue-specific
expression
through
quantitative
real-time
polymerase
chain
reaction
(qRT-PCR)
validation
exposed
differentially
expressed
tissues
(roots,
stems,
leaves,
flowers).
Mainly,
relative
fold
swollen
unswollen
tubers
effectively
(7,
9,
12)
highly
(300-,
120-,
100-fold)
tubers.
To
further
elucidate
function
12),
their
subcellular
location
was
confirmed
by
inserting
them
tobacco
it
noted
cell
membrane.
On
basis
overall
results,
suggested
involved
tuber
formation
P.
crux,
speculated
our
study
provides
valuable
theoretical
base
for
in-depth
development
enhancing
molecular
breeding
New Phytologist,
Journal Year:
2024,
Volume and Issue:
243(2), P. 688 - 704
Published: May 20, 2024
Summary
Potato
(
Solanum
tuberosum
)
is
the
fourth
largest
food
crop
in
world.
Late
blight,
caused
by
oomycete
Phytophthora
infestans
,
most
devastating
disease
threatening
potato
production.
Previous
research
has
shown
that
StRFP1,
a
Arabidopsis
Tóxicos
en
Levadura
(ATL)
family
protein,
positively
regulates
late
blight
resistance
via
its
E3
ligase
activity.
However,
underlying
mechanism
unknown.
Here,
we
reveal
StRFP1
associated
with
plasma
membrane
(PM)
and
undergoes
constitutive
endocytic
trafficking.
Its
PM
localization
essential
for
inhibiting
P.
colonization.
Through
vivo
vitro
assays,
investigated
interacts
two
sugar
transporters
StSWEET10c
StSWEET11
at
PM.
Overexpression
(OE)
of
or
enhances
Both
exhibit
sucrose
transport
ability
yeast,
OE
leads
to
an
increased
content
apoplastic
fluid
leaves.
ubiquitinates
promote
their
degradation.
We
illustrate
novel
which
ATL
protein
degrading
susceptibility
(S)
factors,
such
as
Sugars
Will
Eventually
be
Exported
Transporters
(SWEETs).
This
offers
potential
strategy
improving
utilizing
host
positive
immune
regulators
neutralize
S
factors.
International Journal of Molecular Sciences,
Journal Year:
2025,
Volume and Issue:
26(3), P. 879 - 879
Published: Jan. 21, 2025
Symbiotic
nitrogen
fixation,
recognized
as
the
most
efficient
assimilation
system
in
ecosystems,
is
essential
for
soybean
growth,
nodulation
provides
critical
to
host
cells.
Soybeans
thrive
warm
and
moist
environments.
However,
they
are
highly
susceptible
low
temperatures,
which
impede
formation
development
of
root
nodules.
The
genetic
basis
molecular
mechanism
underlying
inhibition
induced
by
temperatures
remain
unclear.
In
this
study,
we
conducted
a
comparative
transcriptomic
analysis
roots
inoculated
with
rhizobium
at
1
DPI
(Day
Post
Inoculation)
under
normal
or
cold
treatments.
We
identified
39
up-regulated
35
down-regulated
genes
associated
fixation.
Notably,
cold-responsive
including
three
FRI
(Frigida)
family
were
among
differentially
expressed
(DEGs).
Further
expression
pattern
GmFRI-1
demonstrated
it
being
significantly
responsive
inoculation
its
highest
investigation
revealed
that
overexpression
led
an
increase
nodule
number,
while
RNA
interference
(RNAi)-mediated
gene
editing
suppressed
formation.
Additionally,
may
regulate
modulating
GmNIN
(NODULE
INCEPTION),
GmNSP1
(nodulation
signaling
pathway
1),
GmHAP2-2
(histone-
haem-associated
protein
domain)
nod
factor
pathway.
This
study
offers
new
insights
into
regulation
stress
legumes
indicates
serve
key
regulator
stress.
Plant Physiology and Biochemistry,
Journal Year:
2025,
Volume and Issue:
222, P. 109699 - 109699
Published: Feb. 26, 2025
Heat
stress,
exacerbated
by
global
warming,
threatens
food
security
disrupting
plant
growth
and
productivity
across
many
regions.
The
present
study
compared
the
transcriptome
changes
of
heat-tolerant
wild
(Hordeum
vulgare
ssp.
spontaneum
L.)
genotype
heat-sensitive
cultivated
Hordeum
('Mona'
cultivar)
barley
subjected
to
control
(24
±
2
°C)
heat
stress
(40
°C,
3
h)
conditions
via
RNA
sequencing
with
Illumina
Hiseq2500
platform.
exhibited
less
impact
from
on
physiology
than
'Mona'
cultivar.
led
2141
differentially
expressed
genes
(DEGs)
in
1456
Gene
ontology
enrichment
analysis
DEGs
revealed
that
biological
processes
such
as
defense
response
proline
polyamine
biosynthesis,
oxidative
scavenging
were
predominantly
involved
thermo-tolerance
barley.
Moreover,
shock
proteins,
osmoprotectants,
catalytic
activity
identified
most
critical
molecular
functions
high
temperatures
significant
alterations
expression
levels
candidate
highlight
these
genes'
pivotal
role
Comparing
evolved
mechanisms
between
helps
identify
effective
tolerance
thermo-tolerant
genotype.
International Journal of Molecular Sciences,
Journal Year:
2025,
Volume and Issue:
26(7), P. 3160 - 3160
Published: March 29, 2025
Enhanced
abiotic
stresses
such
as
increased
drought,
elevated
temperatures,
salinity,
and
extreme
weather
phenomena
severely
affect
major
crops
in
the
Mediterranean
area,
a
‘hot
spot’
of
climate
change.
Plants
have
evolved
mechanisms
to
face
stressful
conditions
adapt
environmental
pressures.
Intricate
molecular
processes
involving
genetic
epigenetic
factors
plant–microbe
interactions
been
implicated
response
tolerance
stress.
Deciphering
whereby
plants
perceive
respond
stress
is
crucial
for
developing
strategies
counteract
challenges.
Progress
determining
genes,
complex
gene
networks,
biochemical
pathways,
well
plant–microbiota
crosstalk,
involved
has
achieved
through
application
tools
diverse
resources.
This
knowledge
could
be
particularly
useful
accelerating
plant
improvement
generating
resilient
varieties,
especially
concerning
woody
perennial
crops,
where
classical
breeding
lengthy
labor-intensive
process.
Similarly,
understanding
provide
insights
into
innovative
approaches
facing
conditions.
In
this
review,
we
comprehensive
overview
discuss
recent
findings
genetic,
epigenetic,
microbial
aspects
shaping
responses,
context
enhancing
resilience
important
fruit
crops.
BMC Plant Biology,
Journal Year:
2025,
Volume and Issue:
25(1)
Published: April 2, 2025
Abstract
Orchid
mycorrhizal
(OM)
fungi
form
mutualistic
relationships
with
orchids,
facilitating
the
uptake
of
minerals
from
soil
in
exchange
for
sugars
and
lipids
provided
by
plant.
In
this
study,
we
explored
role
DoSWEET14
sugar
transporter
Dendrobium
officinale
during
OM
symbiosis.
Transcriptome
sequencing
revealed
significant
changes
gene
expression
roots,
particularly
upregulation
.
Subcellular
localization
studies
confirmed
that
is
localized
to
plasma
membrane,
suggesting
its
involvement
nutrient
between
orchid
fungi.
Complementation
assays
using
a
yeast
strain
deficient
hexose
transport
demonstrated
has
broad
substrate
specificity,
efficiently
transporting
multiple
monosaccharides.
Additionally,
overexpression
Arabidopsis
increased
content
without
affecting
biomass,
supporting
carbohydrate
storage
These
findings
suggest
plays
key
regulating
carbon
allocation
stabilizing
relationship