Developmental Cell,
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 1, 2025
The
shoot
apical
meristem
(SAM),
which
contains
pluripotent
stem
cells,
serves
as
the
source
of
entire
system
in
land
plants.
To
find
mechanisms
underlying
SAM
development
and
its
origin,
we
employed
single-nucleus
RNA
sequencing
technology
Physcomitrium
patens,
a
single
cell
known
gametophore
cell.
We
identified
distinct
clusters
representing
major
types
P.
patens
gametophyte,
including
cells.
showed
dynamic
gene
expression
changes
during
fate
progression
found
upregulation
cytokinin
biosynthesis
genes
this
also
ENHANCER
OF
SHOOT
REGENERATION
1
(ESR1)
orthologs
important
regulators
cells
downstream
cytokinin.
Given
that
ESRs
promote
formation
under
angiosperms,
propose
cytokinin-ESR
module
represents
conserved
mechanism
promoting
identity
evolved
common
ancestor
Nature Plants,
Journal Year:
2023,
Volume and Issue:
9(7), P. 1026 - 1033
Published: June 12, 2023
Abstract
Retrieving
the
complex
responses
of
individual
cells
in
native
three-dimensional
tissue
context
is
crucial
for
a
complete
understanding
functions.
Here,
we
present
PHYTOMap
(plant
hybridization-based
targeted
observation
gene
expression
map),
multiplexed
fluorescence
situ
hybridization
method
that
enables
single-cell
and
spatial
analysis
whole-mount
plant
transgene-free
manner
at
low
cost.
We
applied
to
simultaneously
analyse
28
cell-type
marker
genes
Arabidopsis
roots
successfully
identified
major
cell
types,
demonstrating
our
can
substantially
accelerate
mapping
defined
RNA-sequencing
datasets
tissue.
The Plant Cell,
Journal Year:
2024,
Volume and Issue:
36(4), P. 812 - 828
Published: Jan. 17, 2024
Abstract
Single-cell
and
single-nucleus
RNA-sequencing
technologies
capture
the
expression
of
plant
genes
at
an
unprecedented
resolution.
Therefore,
these
are
gaining
traction
in
molecular
developmental
biology
for
elucidating
transcriptional
changes
across
cell
types
a
specific
tissue
or
organ,
upon
treatments,
response
to
biotic
abiotic
stresses,
between
genotypes.
Despite
rapidly
accelerating
use
technologies,
collective
standardized
experimental
analytical
procedures
support
acquisition
high-quality
data
sets
still
missing.
In
this
commentary,
we
discuss
common
challenges
associated
with
single-cell
transcriptomics
plants
propose
general
guidelines
improve
reproducibility,
quality,
comparability,
interpretation
make
readily
available
community
fast-developing
field
research.
Nature Communications,
Journal Year:
2025,
Volume and Issue:
16(1)
Published: Jan. 2, 2025
Single-cell
RNA
sequencing
(scRNA-seq)
is
widely
used
in
plant
biology
and
a
powerful
tool
for
studying
cell
identity
differentiation.
However,
the
scarcity
of
known
cell-type
marker
genes
divergence
expression
patterns
limit
accuracy
identification
our
capacity
to
investigate
conservation
many
species.
To
tackle
this
challenge,
we
devise
novel
computational
strategy
called
Orthologous
Marker
Gene
Groups
(OMGs),
which
can
identify
types
both
model
non-model
species
allows
rapid
comparison
across
published
single-cell
maps.
Our
method
does
not
require
cross-species
data
integration,
while
still
accurately
determining
inter-species
cellular
similarities.
We
validate
by
analyzing
from
with
well-annotated
maps,
show
methods
capture
majority
manually
annotated
types.
The
robustness
further
demonstrated
its
ability
pertinently
map
clusters
1
million
cells,
268
15
diverse
reveal
14
dominant
groups
substantial
shared
markers
monocots
dicots.
facilitate
use
broad
research
community,
launch
user-friendly
web-based
OMG
browser,
simplifies
process
datasets
biologists.
A
Ortho-Marker
(OMGs)
was
developed
enable
single
data.
revealed
conserved
accessible
via
browser.
BioDesign Research,
Journal Year:
2024,
Volume and Issue:
6, P. 0029 - 0029
Published: Jan. 1, 2024
Plants
are
complex
systems
hierarchically
organized
and
composed
of
various
cell
types.
To
understand
the
molecular
underpinnings
plant
systems,
single-cell
RNA
sequencing
(scRNA-seq)
has
emerged
as
a
powerful
tool
for
revealing
high
resolution
gene
expression
patterns
at
cellular
level
investigating
cell-type
heterogeneity.
Furthermore,
scRNA-seq
analysis
biosystems
great
potential
generating
new
knowledge
to
inform
design
synthetic
biology,
which
aims
modify
plants
genetically/epigenetically
through
genome
editing,
engineering,
or
re-writing
based
on
rational
increasing
crop
yield
quality,
promoting
bioeconomy
enhancing
environmental
sustainability.
In
particular,
data
from
studies
can
be
utilized
facilitate
development
high-precision
Build-Design-Test-Learn
capabilities
maximizing
targeted
performance
engineered
while
minimizing
unintended
side
effects.
date,
been
demonstrated
in
limited
number
species,
including
model
(e.g.,
Arabidopsis
thaliana),
agricultural
crops
Oryza
sativa),
bioenergy
Populus
spp.).
It
is
expected
that
future
technical
advancements
will
reduce
cost
consequently
accelerate
application
this
emerging
technology
plants.
review,
we
summarize
current
scRNA-seq,
sample
preparation,
sequencing,
analysis,
provide
guidance
how
choose
appropriate
methods
different
types
samples.
We
then
highlight
applications
both
biology
research.
Finally,
discuss
challenges
opportunities
Journal of Experimental Botany,
Journal Year:
2024,
Volume and Issue:
75(17), P. 5188 - 5203
Published: March 11, 2024
Biotic
and
abiotic
environmental
cues
are
major
factors
influencing
plant
growth
productivity.
Interactions
with
biotic
(e.g.
symbionts
pathogens)
changes
in
temperature,
water,
or
nutrient
availability)
trigger
signaling
downstream
transcriptome
adjustments
plants.
While
bulk
RNA-sequencing
technologies
have
traditionally
been
used
to
profile
these
transcriptional
changes,
tissue
homogenization
may
mask
heterogeneity
of
responses
resulting
from
the
cellular
complexity
organs.
Thus,
whether
different
cell
types
respond
equally
fluctuations,
subsets
cell-type
specific,
long-lasting
questions
biology.
The
recent
breakthrough
single-cell
transcriptomics
research
offers
an
unprecedented
view
under
changing
conditions.
In
this
review,
we
discuss
contribution
understanding
cell-type-specific
interactions.
Besides
biological
findings,
present
some
technical
challenges
coupled
studies
plant-environment
interactions,
proposing
possible
solutions
exciting
paths
for
future
research.
Trends in Plant Science,
Journal Year:
2024,
Volume and Issue:
29(9), P. 1018 - 1028
Published: April 2, 2024
Plant
scientists
are
rapidly
integrating
single-cell
RNA
sequencing
(scRNA-seq)
into
their
workflows.
Maximizing
the
potential
of
scRNA-seq
requires
a
proper
understanding
spatiotemporal
context
cells.
However,
positional
information
is
inherently
lost
during
scRNA-seq,
limiting
its
to
characterize
complex
biological
systems.
In
this
review
we
highlight
how
current
analysis
pipelines
cannot
completely
recover
spatial
information,
which
confounds
interpretation.
Various
strategies
exist
identify
location
RNA,
from
classical
in
situ
hybridization
transcriptomics.
Herein
discuss
possibility
utilizing
supervise
analyses.
An
integrative
approach
will
maximize
each
technology,
and
lead
insights
go
beyond
capability
individual
technology.
Crop Design,
Journal Year:
2023,
Volume and Issue:
2(2), P. 100041 - 100041
Published: Aug. 1, 2023
High-throughput
sequencing
technologies
at
single-cell
resolution
have
great
potential
to
reveal
a
new
landscape
of
plant
cells.
Single-cell/nucleus
RNA
(scRNA/snRNA),
single-cell/nucleus
assay
for
transposase
accessible
chromatin
(scATAC/snATAC)
and
spatial
transcriptome
been
applied
in
multiple
tissues.
Consequently,
significant
increase
publications
on
transcriptomics
was
seen
the
recent
two
years.
In
this
review,
we
will
summarize
advantages
weaknesses
these
approaches,
offer
glimpse
their
developments
cell
biology,
bioinformatic
tools
databases
latest
Frontiers in Plant Science,
Journal Year:
2023,
Volume and Issue:
14
Published: Aug. 11, 2023
Single-cell
and
spatial
transcriptomics
have
diverted
researchers’
attention
from
the
multicellular
level
to
single-cell
information.
transcriptomes
provide
insights
into
transcriptome
at
level,
whereas
help
preserve
Although
these
two
omics
technologies
are
helpful
mature,
further
research
is
needed
ensure
their
widespread
applicability
in
plant
studies.
Reviewing
recent
on
or
transcriptomics,
we
compared
different
experimental
methods
used
various
plants.
The
limitations
challenges
clear
for
both
transcriptomic
analyses,
such
as
lack
of
applicability,
information,
high
resolution.
Subsequently,
put
forth
applications,
cross-species
analysis
roots
idea
that
needs
be
combined
with
other
analyses
achieve
superiority
over
individual
analyses.
Overall,
results
this
review
suggest
combining
element
distribution
can
a
promising
direction,
particularly
research.