Genome-Wide Identification of GATA Transcription Factors in Acorus and Expression Patterns Under Abiotic Stress
Liang Ma,
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Cheng‐Yuan Zhou,
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C. S. Gong
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et al.
Horticulturae,
Journal Year:
2025,
Volume and Issue:
11(4), P. 410 - 410
Published: April 11, 2025
The
GATA
transcription
factors
are
a
class
of
DNA-binding
proteins
that
control
the
expression
target
genes
by
binding
to
promoter
regions
DNA,
thereby
affecting
growth
and
development
plants.
In
recent
years,
have
been
discovered
functionally
characterized
in
many
plant
species.
However,
there
is
limited
annotation
information
for
genus
Acorus.
This
study
identified
38
20
Acorus
calamus
A.
gramineus,
respectively.
Based
on
phylogenetic
tree,
they
were
classified
into
four
subfamilies
(I,
II,
III,
IV).
At
same
time,
an
analysis
domain
motifs
revealed
domains
relatively
conserved
across
all
subfamilies.
A
multiple
sequence
alignment
showed
almost
highly
at
LCNACG
site.
An
cis-elements,
collinearity,
protein–protein
interaction
networks
provided
insights
response
mechanisms
under
biotic
stress.
Additionally,
we
found
significant
changes
gramineus
drought
salt
These
results
provide
useful
future
functional
analyses
contribute
better
understanding
stress
molecular
breeding
directions
Language: Английский
Comparative analysis of amino acid sequence level in plant GATA transcription factors
Mangi Kim
No information about this author
Scientific Reports,
Journal Year:
2024,
Volume and Issue:
14(1)
Published: Nov. 30, 2024
Abstract
Transcription
factors
(TFs)
are
essential
regulators
of
gene
expression,
influencing
numerous
biological
processes
such
as
development,
growth,
and
cellular
responses
in
plants.
Among
these,
GATA
TFs
distinguished
by
their
highly
conserved
DNA-binding
domain,
characterized
a
class
IV
zinc
finger
motif
(CX
2
CX
18-20
C).
This
study
investigates
the
amino
acid
sequence
patterns
5,335
across
165
plant
species
sourced
from
PlantTFDB
database
(
http://planttfdb.gao-lab.org/
),
encompassing
diverse
taxonomic
groups.
Through
comparative
analysis,
I
identify
domains
structural
features
that
enhance
understanding
functional
roles,
evolutionary
conservation,
lineage-specific
adaptations
TFs.
These
findings
provide
valuable
insights
into
diversification
specialization
TFs,
with
implications
for
improving
stress
tolerance
adaptability
crops.
contributes
to
broader
knowledge
transcriptional
regulation
biology.
Language: Английский