bioRxiv (Cold Spring Harbor Laboratory),
Год журнала:
2024,
Номер
unknown
Опубликована: Авг. 26, 2024
Abstract
The
rapid
growth
of
multi-omics
datasets,
in
addition
to
the
wealth
existing
biological
prior
knowledge,
necessitates
development
effective
methods
for
their
integration.
Such
are
essential
building
predictive
models
and
identifying
disease-related
molecular
markers.
We
propose
a
framework
supervised
integration
data
with
priors
represented
as
knowledge
graphs.
Our
leverages
graph
neural
networks
(GNNs)
model
relationships
among
features
from
high-dimensional
‘omics
set
transformers
integrate
low-dimensional
representations
features.
Furthermore,
our
incorporates
explainability
elucidate
important
biomarkers
extract
interaction
between
quantities
interest.
demonstrate
effectiveness
approach
by
applying
it
Alzheimer’s
disease
(AD)
ROSMAP
cohort,
showing
that
transcriptomics
proteomics
AD
domain
network
improves
prediction
accuracy
status
highlights
functional
biomarkers.
bioRxiv (Cold Spring Harbor Laboratory),
Год журнала:
2023,
Номер
unknown
Опубликована: Июль 29, 2023
RNA
sequencing
and
genetic
data
support
spleen
tyrosine
kinase
(SYK)
high
affinity
immunoglobulin
epsilon
receptor
subunit
gamma
(FCER1G)
as
putative
targets
to
be
modulated
for
Alzheimer's
disease
(AD)
therapy.
FCER1G
is
a
component
of
Fc
complexes
that
contain
an
immunoreceptor
tyrosine-based
activation
motif
(ITAM).
SYK
interacts
with
the
by
binding
doubly
phosphorylated
ITAM
(p-ITAM)
via
its
two
tandem
SH2
domains
(SYK-tSH2).
Interaction
p-ITAM
SYK-tSH2
enables
phosphorylation.
Since
reported
exacerbate
AD
pathology,
we
hypothesized
disruption
this
interaction
would
beneficial
patients.
Herein,
developed
biochemical
biophysical
assays
enable
discovery
small
molecules
perturb
between
SYK-tSH2.
We
identified
distinct
chemotypes
using
high-throughput
screen
(HTS)
orthogonally
assessed
their
binding.
Both
covalently
modify
inhibit
p-ITAM.
bioRxiv (Cold Spring Harbor Laboratory),
Год журнала:
2024,
Номер
unknown
Опубликована: Авг. 26, 2024
Abstract
The
rapid
growth
of
multi-omics
datasets,
in
addition
to
the
wealth
existing
biological
prior
knowledge,
necessitates
development
effective
methods
for
their
integration.
Such
are
essential
building
predictive
models
and
identifying
disease-related
molecular
markers.
We
propose
a
framework
supervised
integration
data
with
priors
represented
as
knowledge
graphs.
Our
leverages
graph
neural
networks
(GNNs)
model
relationships
among
features
from
high-dimensional
‘omics
set
transformers
integrate
low-dimensional
representations
features.
Furthermore,
our
incorporates
explainability
elucidate
important
biomarkers
extract
interaction
between
quantities
interest.
demonstrate
effectiveness
approach
by
applying
it
Alzheimer’s
disease
(AD)
ROSMAP
cohort,
showing
that
transcriptomics
proteomics
AD
domain
network
improves
prediction
accuracy
status
highlights
functional
biomarkers.