International Journal of Molecular Sciences,
Год журнала:
2025,
Номер
26(4), С. 1466 - 1466
Опубликована: Фев. 10, 2025
The
advancement
of
multi-omics
tools
has
revolutionized
the
study
complex
biological
systems,
providing
comprehensive
insights
into
molecular
mechanisms
underlying
critical
traits
across
various
organisms.
By
integrating
data
from
genomics,
transcriptomics,
metabolomics,
and
other
omics
platforms,
researchers
can
systematically
identify
characterize
elements
that
contribute
to
phenotypic
traits.
This
review
delves
recent
progress
in
applying
approaches
elucidate
genetic,
epigenetic,
metabolic
networks
associated
with
key
plants.
We
emphasize
potential
these
integrative
strategies
enhance
crop
improvement,
optimize
agricultural
practices,
promote
sustainable
environmental
management.
Furthermore,
we
explore
future
prospects
field,
underscoring
importance
cutting-edge
technological
advancements
need
for
interdisciplinary
collaboration
address
ongoing
challenges.
bridging
this
aims
provide
a
holistic
framework
advancing
research
plant
biology
agriculture.
Nature Methods,
Год журнала:
2024,
Номер
21(7), С. 1196 - 1205
Опубликована: Июнь 13, 2024
Abstract
Single-cell
RNA
sequencing
allows
us
to
model
cellular
state
dynamics
and
fate
decisions
using
expression
similarity
or
velocity
reconstruct
state-change
trajectories;
however,
trajectory
inference
does
not
incorporate
valuable
time
point
information
utilize
additional
modalities,
whereas
methods
that
address
these
different
data
views
cannot
be
combined
do
scale.
Here
we
present
CellRank
2,
a
versatile
scalable
framework
study
multiview
single-cell
of
up
millions
cells
in
unified
fashion.
2
consistently
recovers
terminal
states
probabilities
across
modalities
human
hematopoiesis
endodermal
development.
Our
also
combining
transitions
within
experimental
points,
feature
use
recover
genes
promoting
medullary
thymic
epithelial
cell
formation
during
pharyngeal
endoderm
Moreover,
enable
estimating
cell-specific
transcription
degradation
rates
from
metabolic-labeling
data,
which
apply
an
intestinal
organoid
system
delineate
differentiation
trajectories
pinpoint
regulatory
strategies.
Abstract
Single-cell
genomic
technologies
enable
the
multimodal
profiling
of
millions
cells
across
temporal
and
spatial
dimensions.
However,
experimental
limitations
hinder
comprehensive
measurement
under
native
dynamics
in
their
tissue
niche.
Optimal
transport
has
emerged
as
a
powerful
tool
to
address
these
constraints
facilitated
recovery
original
cellular
context
1–4
.
Yet,
most
optimal
applications
are
unable
incorporate
information
or
scale
single-cell
atlases.
Here
we
introduce
multi-omics
(moscot),
scalable
framework
for
genomics
that
supports
multimodality
all
applications.
We
demonstrate
capability
moscot
efficiently
reconstruct
developmental
trajectories
1.7
million
from
mouse
embryos
20
time
points.
To
illustrate
space,
enrich
transcriptomic
datasets
by
mapping
profiles
liver
sample
align
multiple
coronal
sections
brain.
present
moscot.spatiotemporal,
an
approach
leverages
gene-expression
data
both
dimensions
uncover
spatiotemporal
embryogenesis.
also
resolve
endocrine-lineage
relationships
delta
epsilon
previously
unpublished
mouse,
time-resolved
pancreas
development
dataset
using
paired
measurements
gene
expression
chromatin
accessibility.
Our
findings
confirmed
through
validation
NEUROD2
regulator
progenitor
model
human
induced
pluripotent
stem
cell
islet
differentiation.
Moscot
is
available
open-source
software,
accompanied
extensive
documentation.
Plant Communications,
Год журнала:
2022,
Номер
4(3), С. 100508 - 100508
Опубликована: Дек. 20, 2022
Plants
contain
a
large
number
of
cell
types
and
exhibit
complex
regulatory
mechanisms.
Studies
at
the
single-cell
level
have
gradually
become
more
common
in
plant
science.
Single-cell
transcriptomics,
spatial
metabolomics
techniques
been
combined
to
analyze
development.
These
used
study
transcriptomes
metabolomes
tissues
level,
enabling
systematic
investigation
gene
expression
metabolism
specific
during
defined
developmental
stages.
In
this
review,
we
present
an
overview
significant
breakthroughs
multi-omics
plants,
discuss
how
these
approaches
may
soon
play
essential
roles
research.
Computational and Structural Biotechnology Journal,
Год журнала:
2023,
Номер
21, С. 940 - 955
Опубликована: Янв. 1, 2023
Advances
in
transcriptomic
technologies
have
deepened
our
understanding
of
the
cellular
gene
expression
programs
multicellular
organisms
and
provided
a
theoretical
basis
for
disease
diagnosis
therapy.
However,
both
bulk
single-cell
RNA
sequencing
approaches
lose
spatial
context
cells
within
tissue
microenvironment,
development
transcriptomics
has
made
overall
bias-free
access
to
transcriptional
information
possible.
Here,
we
elaborate
help
researchers
select
best-suited
technology
their
goals
integrate
vast
amounts
data
facilitate
accessibility
availability.
Then,
marshal
various
computational
analyze
purposes
describe
multimodal
omics
its
potential
application
tumor
tissue.
Finally,
provide
detailed
discussion
outlook
technologies,
resources
analysis
guide
current
future
research
on
transcriptomics.
Cells,
Год журнала:
2023,
Номер
12(16), С. 2042 - 2042
Опубликована: Авг. 10, 2023
Spatial
transcriptomic
technologies
enable
measurement
of
expression
levels
genes
systematically
throughout
tissue
space,
deepening
our
understanding
cellular
organizations
and
interactions
within
tissues
as
well
illuminating
biological
insights
in
neuroscience,
developmental
biology
a
range
diseases,
including
cancer.
A
variety
spatial
have
been
developed
and/or
commercialized,
differing
resolution,
sensitivity,
multiplexing
capability,
throughput
coverage.
In
this
paper,
we
review
key
enabling
their
applications
the
perspective
techniques
new
emerging
that
are
to
address
current
limitations
methodologies.
addition,
describe
how
transcriptomics
data
can
be
integrated
with
other
omics
modalities,
complementing
methods
deciphering
cellar
phenotypes
providing
novel
insight
into
organization.
Biomolecules,
Год журнала:
2023,
Номер
13(1), С. 156 - 156
Опубликована: Янв. 12, 2023
Development
from
single
cells
to
multicellular
tissues
and
organs
involves
more
than
just
the
exact
replication
of
cells,
which
is
known
as
differentiation.
The
primary
focus
research
into
mechanism
differentiation
has
been
differences
in
gene
expression
profiles
between
individual
cells.
However,
it
predominantly
conducted
at
low
throughput
bulk
levels,
challenging
efforts
understand
molecular
mechanisms
during
developmental
process
animals
humans.
During
last
decades,
rapid
methodological
advancements
genomics
facilitated
ability
study
processes
a
genome-wide
level
finer
resolution.
Particularly,
sequencing
transcriptomes
single-cell
resolution,
enabled
by
RNA-sequencing
(scRNA-seq),
was
breath-taking
innovation,
allowing
scientists
gain
better
understanding
cell
lineage
process.
isolation
scRNA-seq
results
loss
spatial
information
consequently
limits
our
specific
functions
performed
different
regions
or
organs.
This
greatly
encourages
emergence
transcriptomic
discipline
tools.
Here,
we
summarize
recent
application
tools
for
biology.
We
also
discuss
limitations
current
approaches,
well
possible
solutions
future
prospects.
Molecular Biomedicine,
Год журнала:
2023,
Номер
4(1)
Опубликована: Окт. 9, 2023
Abstract
The
proper
functioning
of
diverse
biological
systems
depends
on
the
spatial
organization
their
cells,
a
critical
factor
for
processes
like
shaping
intricate
tissue
functions
and
precisely
determining
cell
fate.
Nonetheless,
conventional
bulk
or
single-cell
RNA
sequencing
methods
were
incapable
simultaneously
capturing
both
gene
expression
profiles
locations
cells.
Hence,
multitude
spatially
resolved
technologies
have
emerged,
offering
novel
dimension
investigating
regional
expression,
domains,
interactions
between
Spatial
transcriptomics
(ST)
is
method
that
maps
in
while
preserving
information.
It
can
reveal
cellular
heterogeneity,
functional
complex
systems.
ST
also
complement
integrate
with
other
omics
to
provide
more
comprehensive
holistic
view
at
multiple
levels
resolution.
Since
advent
ST,
new
higher
throughput
resolution
become
available,
holding
significant
potential
expedite
fresh
insights
into
comprehending
complexity.
Consequently,
rapid
increase
associated
research
has
occurred,
using
these
unravel
complexity
during
developmental
disease
conditions.
In
this
review,
we
summarize
recent
advancement
historical,
technical,
application
contexts.
We
compare
different
types
based
principles
workflows,
present
bioinformatics
tools
analyzing
integrating
data
modalities.
highlight
applications
various
domains
biomedical
research,
especially
development
diseases.
Finally,
discuss
current
limitations
challenges
field,
propose
future
directions
ST.
bioRxiv (Cold Spring Harbor Laboratory),
Год журнала:
2023,
Номер
unknown
Опубликована: Апрель 28, 2023
To
simultaneously
detect
whole
transcriptomes
and
protein
markers
on
the
same
tissue
section,
we
combined
Cellular
Indexing
of
Transcriptomes
Epitopes
by
Sequencing
(CITE-seq)
Stereo-seq
to
develop
Stereo-CITE-seq
workflow.
Here,
demonstrated
that
can
co-detect
mRNAs
proteins
in
immune
organs
with
high
spatial
resolution,
reproducibility
accuracy.
Glomerular Diseases,
Год журнала:
2024,
Номер
4(1), С. 49 - 63
Опубликована: Март 13, 2024
Background:
The
first
spatially
resolved
transcriptomics
platforms,
GeoMx
(Nanostring)
and
Visium
(10x
Genomics)
were
launched
in
2019
recognized
as
the
method
of
year
by
Nature
Methods
2020.
subsequent
refinement
expansion
these
other
technologies
to
increase
-plex,
work
with
formalin-fixed
paraffin-embedded
tissue,
analyze
protein
addition
gene
expression
have
only
added
their
significance
impact
on
biomedical
sciences.
In
this
perspective,
we
focus
two
platforms
for
spatial
transcriptomics,
Visium,
how
been
used
provide
novel
insight
into
kidney
disease.
choice
platform
will
depend
largely
experimental
questions
design.
application
clinically
sourced
biopsies
presents
opportunity
identify
specific
tissue
biomarkers
that
help
define
disease
etiology
more
precisely
target
therapeutic
interventions
future.
Summary:
review,
a
description
existing
emerging
can
be
capture
data
from
tissue.
These
provided
new
heterogeneity
diseases,
reactions
are
distributed
within
which
cells
affected,
molecular
pathways
predict
response
therapy.
Key
Message:
upcoming
years
see
intense
use
better
pathophysiology
diseases
develop
diagnostic
tests
guide
personalized
treatments
patients.