bioRxiv (Cold Spring Harbor Laboratory),
Journal Year:
2024,
Volume and Issue:
unknown
Published: Sept. 28, 2024
5-methylcytosine
(5mC)
is
the
most
common
chemical
modification
occurring
on
CpG
sites
across
human
genome.
Bisulfite
conversion
combined
with
short-read
whole
genome
sequencing
can
capture
and
quantify
at
single
nucleotide
resolution.
However,
PCR
amplification
process
could
lead
to
duplicative
methylation
patterns
introduce
5mC
detection
bias.
Additionally,
limited
read
length
also
restricts
co-methylation
analysis
between
distant
sites.
The
bisulfite
presents
a
significant
challenge
for
detecting
variant-specific
due
destruction
of
allele
information
in
reads.
To
address
these
issues,
we
sought
characterize
profiling
nanopore
long-read
sequencing,
aiming
demonstrate
its
potential
long-range
native
call
intact
retained.
In
this
regard,
first
analyzed
demo
data
adaptive
sampling
run
targeting
all
islands.
We
applied
linkage
disequilibrium
(LD)
R
Genome biology,
Journal Year:
2025,
Volume and Issue:
26(1)
Published: Jan. 21, 2025
Abstract
Multiplexed
assays
of
variant
effect
(MAVEs)
are
a
critical
tool
for
researchers
and
clinicians
to
understand
genetic
variants.
Here
we
describe
the
2024
update
MaveDB
(
https://www.mavedb.org/
)
with
four
key
improvements
MAVE
community’s
database
record:
more
available
data
including
over
7
million
measurements,
an
improved
model
supporting
such
as
saturation
genome
editing,
new
built-in
exploration
visualization
tools,
powerful
APIs
federation
streamlined
submission
access.
Together
these
changes
support
MaveDB’s
role
hub
analysis
dissemination
MAVEs
now
into
future.
bioRxiv (Cold Spring Harbor Laboratory),
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 19, 2025
Abstract
Whole
genome
sequencing
has
identified
over
a
billion
non-coding
variants
in
humans,
while
GWAS
revealed
the
as
significant
contributor
to
disease.
However,
prioritizing
causal
common
and
rare
human
disease,
understanding
how
selective
pressures
have
shaped
genome,
remains
challenge.
Here,
we
predicted
effects
of
15
million
with
deep
learning
models
trained
on
single-cell
ATAC-seq
across
132
cellular
contexts
adult
fetal
brain
heart,
producing
nearly
two
context-specific
predictions.
Using
these
predictions,
distinguish
candidate
underlying
traits
diseases
their
effects.
While
variant
are
more
cell-type-specific,
exert
cell-type-shared
regulatory
effects,
particularly
targeting
affecting
neurons.
To
prioritize
de
novo
mutations
extreme
developed
FLARE,
functional
genomic
model
constraint.
FLARE
outperformed
other
methods
case
from
autism-affected
families
near
syndromic
autism-associated
genes;
for
example,
identifying
mutation
outliers
CNTNAP2
that
would
be
missed
by
alternative
approaches.
Overall,
our
findings
demonstrate
potential
integrating
maps
population
genetics
learning-based
effect
prediction
elucidate
mechanisms
development
disease–ultimately,
supporting
notion
genetic
contributions
neurodevelopmental
disorders
predominantly
rare.
ABSTRACT
Purpose
We
previously
developed
an
approach
to
calibrate
computational
tools
for
clinical
variant
classification,
updating
recommendations
the
reliable
use
of
impact
predictors
provide
evidence
strength
up
Strong
.
A
new
generation
using
distinctive
approaches
have
since
been
released,
and
these
methods
must
be
independently
calibrated
application.
Method
Using
our
local
posterior
probability-based
calibration
established
data
set
ClinVar
pathogenic
benign
variants,
we
determined
provided
by
three
(AlphaMissense,
ESM1b,
VARITY)
scores
meeting
each
strength.
Results
All
reached
level
pathogenicity
Moderate
benignity,
though
sometimes
few
variants.
Compared
recommended
tools,
yielded
at
best
only
modest
improvements
in
tradeoffs
false
positive
predictions.
Conclusion
At
thresholds,
similar
four
(and
comparable
with
functional
assays
some
variants).
This
broadens
scope
application
classification.
Their
offer
promise
future
advancement
field.
In
recent
years,
advancements
in
gene
structure
prediction
have
been
significantly
driven
by
the
integration
of
deep
learning
technologies
into
bioinformatics.
Transitioning
from
traditional
thermodynamics
and
comparative
genomics
methods
to
modern
learning-based
models
such
as
CDSBERT,
DNABERT,
RNA-FM,
PlantRNA-FM
accuracy
generalization
seen
remarkable
improvements.
These
models,
leveraging
genome
sequence
data
along
with
secondary
tertiary
information,
facilitated
diverse
applications
studying
functions
across
animals,
plants,
humans.
They
also
hold
substantial
potential
for
multi-application
early
disease
diagnosis,
personalized
treatment,
genomic
evolution
research.
This
review
combines
learning,
showcasing
functional
region
annotation,
protein-RNA
interactions,
cross-species
analysis.
It
highlights
their
contributions
animal,
plant,
human
research
while
exploring
future
opportunities
cancer
mutation
prediction,
RNA
vaccine
design,
CRISPR
editing
optimization.
The
emphasizes
directions,
model
refinement,
multimodal
integration,
global
collaboration.
By
offering
a
concise
overview
forward-looking
insights,
this
article
aims
provide
foundational
resource
practical
guidance
advancing
nucleic
acid