Horticulturae,
Год журнала:
2024,
Номер
10(11), С. 1139 - 1139
Опубликована: Окт. 25, 2024
C2H2-type
zinc
finger
protein
(C2H2-ZFP)
transcription
factors
play
evident
roles
in
regulating
plant
growth
and
development
abiotic
stress
responses.
However,
the
role
of
C2H2-ZFP
from
Mentha
canadensis
remains
uncertain.
We
identified
multifunctional
gene
McZFP1
M.
based
on
phylogenetic
analysis.
The
was
highly
expressed
stems,
responding
to
phytohormone
treatments.
localized
nucleus
showed
no
transcriptional
autoactivation
activity
yeast.
overexpression
Arabidopsis
thaliana
significantly
reduced
number
trichomes
root
hairs,
hair
length,
salt
tolerance.
Further
study
revealed
that
increased
expression
negative
regulator
genes
decreased
positive
inhibit
trichome
development.
Malondialdehyde
accumulation
promoted,
but
proline
content
catalase,
superoxide
dismutase,
peroxidase
activities
were
response
inhibited
lines
under
treatment,
thereby
compromising
Overall,
these
results
indicate
is
a
novel
factor
plays
Plant Stress,
Год журнала:
2024,
Номер
12, С. 100429 - 100429
Опубликована: Март 12, 2024
The
environmental
conditions
encompassing
plants
exert
a
significant
impact
on
their
appropriate
growth
and
development.
It
is
of
utmost
importance
to
investigate
the
mechanisms
signaling
cascades
underlying
tolerance
abiotic
stress
in
order
enhance
quality
crops.
Plant
development
processes
are
significantly
impacted
by
stresses,
which
intricately
linked
surroundings.
Plants
exhibit
prompt
genetic
metabolic
network
responses,
mostly
through
networks
involving
transcription
factors
that
respond
stress,
including
WRKY,
MYB,
bZIP,
AP2/EREBP,
NAC.
Among
these
WRKY
TFs
factors,
fulfill
pivotal
function
diverse
range
responses
developmental
mechanisms.
greatly
assist
coping
with
stress.
These
oversee
control
several
target
gene
categories
active
involvement
numerous
interaction
W-box
cis-acting
elements
located
promoters
genes.
This
research
provides
comprehensive
analysis
response
mechanism
In
addition,
we
have
explored
state
knowledge
TFs'
effects
plants'
such
as
drought,
salt,
high
temperatures,
cold.
elucidates
intricate
molecular
govern
pathways
modulate
expression,
thereby
conferring
upon
plants.
Moreover,
summarized
involved
biotic
TFs,
hormonal
routes
like
SA
JA,
aid
inducing
resistance
coordinating
defense
against
pathogens
challenges.
agricultural
sustainability
augment
crop
resilience
towards
strategies
manipulate
regulatory
need
be
established.
International Journal of Molecular Sciences,
Год журнала:
2024,
Номер
25(13), С. 6845 - 6845
Опубликована: Июнь 21, 2024
Plants
are
subjected
to
abiotic
stresses
throughout
their
developmental
period.
Abiotic
include
drought,
salt,
heat,
cold,
heavy
metals,
nutritional
elements,
and
oxidative
stresses.
Improving
plant
responses
various
environmental
is
critical
for
survival
perpetuation.
WRKY
transcription
factors
have
special
structures
(WRKY
structural
domains),
which
enable
the
different
transcriptional
regulatory
functions.
can
not
only
regulate
stress
growth
development
by
regulating
phytohormone
signalling
pathways
but
also
promote
or
suppress
expression
of
downstream
genes
binding
W-box
[TGACCA/TGACCT]
in
promoters
target
genes.
In
addition,
interact
with
other
families
defence
self-regulate
recognising
W-boxes
own
However,
recent
years,
research
reviews
on
roles
higher
plants
been
scarce
shallow.
this
review,
we
focus
structure
classification
factors,
as
well
identification
molecular
mechanisms
involved
response
stresses,
improve
tolerance
ability
under
stress,
look
forward
future
directions,
a
view
providing
theoretical
support
genetic
improvement
crop
tolerance.
Plants
are
subjected
to
abiotic
stresses
throughout
their
developmental
period.
Abiotic
include
drought,
salt,
heat,
cold,
heavy
metals,
nutritional
element
and
oxidative
stresses.
Improving
plant
response
various
environmental
is
critical
for
survival
perpetuation.
The
WRKY
transcription
factors
have
special
structure
(WRKY
structural
domains),
which
enable
different
transcriptional
regulatory
functions.
can
not
only
regulate
growth
development
by
regulating
phytohormone
signalling
pathways,
but
also
promote
or
suppress
the
expression
of
downstream
genes
binding
W-box
[TGACCA/TGACCT]
in
promoters
target
genes.
In
addition,
interact
with
other
families
defence
responses
stresses,
self-regulate
recognizing
W-boxes
own
However,
recent
years,
research
reviews
on
roles
higher
plants
scarce
shallow.
this
review,
we
focus
classification
factors,
as
well
identification
molecular
mechanisms
involved
improve
tolerance
ability
stress
look
forward
future
directions,
a
view
providing
theoretical
support
genetic
improvement
crop
tolerance.
Plant Stress,
Год журнала:
2024,
Номер
13, С. 100526 - 100526
Опубликована: Июнь 28, 2024
The
WRKY
gene
family
consists
of
unique
transcription
factors
(TFs)
found
exclusively
in
plants.
These
TFs
play
a
crucial
role
regulating
how
plants
respond
to
various
abiotic
stresses,
such
as
saline-alkaline
conditions,
temperature
fluctuations,
drought,
UV
radiation
and
others.
Scientists
have
been
progressively
studying
the
roles
mechanisms
several
plant
species,
including
both
model
essential
agricultural
crops.
This
study
focus
has
emerged
due
understanding
that
alkaline
saline
soil
stressors
considerably
impede
global
productivity.
Multiple
research
efforts
underscored
significant
biological
functions
assisting
coping
with
challenges,
particularly
enhancing
their
ability
withstand
alkaline-salt
stress.
review
aims
investigate
structural
capabilities
impact
on
responses
salt
stresses.
Additionally,
it
seeks
elucidate
these
alleviating
diverse
biotic
stressors.
objective
this
is
provide
comprehensive
insights
into
current
state
field
importance
International Journal of Molecular Sciences,
Год журнала:
2024,
Номер
25(6), С. 3551 - 3551
Опубликована: Март 21, 2024
The
transcription
factor
is
an
essential
for
regulating
the
responses
of
plants
to
external
stimuli.
WRKY
protein
a
superfamily
plant
factors
involved
in
response
various
stresses
(e.g.,
cold,
heat,
salt,
drought,
ions,
pathogens,
and
insects).
During
angiosperm
evolution,
number
function
constantly
change.
After
suffering
from
long-term
environmental
battering,
different
evolutionary
statuses
ultimately
retained
numbers
family
members.
proteins
generally
divided
into
three
large
categories
angiosperms,
owing
their
conserved
domain
three-dimensional
structures.
mediate
adaptation
environments
via
participating
biological
pathways,
such
as
ROS
(reactive
oxygen
species)
hormone
signaling
further
enzyme
systems,
stomatal
closure,
leaf
shrinkage
physiological
responses.
This
article
analyzed
evolution
angiosperms
its
functions
responding
environments,
especially
Magnoliaceae
plants.
It
helps
gain
deeper
understanding
functional
diversity
provides
theoretical
experimental
references
studying
molecular
mechanisms
stress.
Nature Communications,
Год журнала:
2025,
Номер
16(1)
Опубликована: Фев. 6, 2025
Between
the
two
major
rice
subspecies,
indica
varieties
generally
exhibit
higher
nitrate
(NO3‒)
uptake
and
nitrogen
(N)-use
efficiency
(NUE)
than
japonica
varieties.
Introducing
efficient
NO3‒
utilization
alleles
from
into
could
improve
NUE,
at
same
time
uncover
unknown
regulators
of
metabolism.
Here,
we
identify
OsWRKY23
as
a
key
regulator
NUE
differences
between
rice.
The
OsWRKY23indica
allele
exhibits
reduced
transcriptional
activation
negative
auxin
accumulation,
DULL
NITROGEN
RESPONSE1
(DNR1).
resultant
increase
in
level
improves
assimilation,
which
ultimately
enhances
grain
yield.
Geographical
evolutionary
analyses
reveal
overlapping
distribution
DNR1indica,
particularly
low-fertility
soils,
suggesting
their
involvement
adaptation
to
low
N
conditions
Incorporating
OsWRKY23-DNR1
module
represents
promising
strategy
enhance
is
crucial
for
sustainable
agriculture.
Rice
have
use
that
authors
show
natural
variation
its
interaction
with
(DNR1)-mediated
accumulation
play
role
divergence
subspecies.