Cancer
treatments
always
face
challenging
problems,
particularly
drug
resistance
due
to
tumor
cell
heterogeneity.
The
existing
datasets
include
the
relationship
between
gene
expression
and
sensitivities;
however,
majority
are
based
on
tissue-level
studies.
Study
drugs
at
single-cell
level
perspective
overcome
minimal
residual
disease
caused
by
subclonal
resistant
cancer
cells
retained
after
initial
curative
therapy.
Fortunately,
machine
learning
techniques
can
help
us
understand
how
different
types
of
respond
from
expression.
Good
modeling
using
data
response
information
will
not
only
improve
for
cell–drug
outcome
prediction
but
also
facilitate
discovery
specific
subgroups
treatments.
In
this
paper,
we
review
deep
approaches
in
research.
By
analyzing
application
these
methods
lines
comparing
technical
gap
sequencing
analysis
sensitivity
analysis,
hope
explore
trends
potential
research
provide
more
inspiration
level.
We
anticipate
that
stimulate
innovative
use
address
new
challenges
precision
medicine
broadly.
Computational and Structural Biotechnology Journal,
Год журнала:
2021,
Номер
19, С. 3735 - 3746
Опубликована: Янв. 1, 2021
Increased
availability
of
high-throughput
technologies
has
generated
an
ever-growing
number
omics
data
that
seek
to
portray
many
different
but
complementary
biological
layers
including
genomics,
epigenomics,
transcriptomics,
proteomics,
and
metabolomics.
New
insight
from
these
have
been
obtained
by
machine
learning
algorithms
produced
diagnostic
classification
biomarkers.
Most
biomarkers
date
however
only
include
one
omic
measurement
at
a
time
thus
do
not
take
full
advantage
recent
multi-omics
experiments
now
capture
the
entire
complexity
systems.
Multi-omics
integration
strategies
are
needed
combine
knowledge
brought
each
layer.
We
summarized
most
methods/
frameworks
into
five
strategies:
early,
mixed,
intermediate,
late
hierarchical.
In
this
mini-review,
we
focus
on
challenges
existing
paying
special
attention
applications.
Briefings in Bioinformatics,
Год журнала:
2021,
Номер
23(2)
Опубликована: Дек. 14, 2021
Biomedical
data
are
becoming
increasingly
multimodal
and
thereby
capture
the
underlying
complex
relationships
among
biological
processes.
Deep
learning
(DL)-based
fusion
strategies
a
popular
approach
for
modeling
these
nonlinear
relationships.
Therefore,
we
review
current
state-of-the-art
of
such
methods
propose
detailed
taxonomy
that
facilitates
more
informed
choices
biomedical
applications,
as
well
research
on
novel
methods.
By
doing
so,
find
deep
often
outperform
unimodal
shallow
approaches.
Additionally,
proposed
subcategories
show
different
advantages
drawbacks.
The
has
shown
that,
especially
intermediate
strategies,
joint
representation
is
preferred
it
effectively
models
interactions
levels
organization.
Finally,
note
gradual
fusion,
based
prior
knowledge
or
search
promising
future
path.
Similarly,
utilizing
transfer
might
overcome
sample
size
limitations
sets.
As
sets
become
available,
DL
approaches
present
opportunity
to
train
holistic
can
learn
regulatory
dynamics
behind
health
disease.
Frontiers in Genetics,
Год журнала:
2020,
Номер
11
Опубликована: Дек. 10, 2020
Multi-omics,
variously
called
integrated
omics,
pan-omics,
and
trans-omics,
aims
to
combine
two
or
more
omics
data
sets
aid
in
analysis,
visualization
interpretation
determine
the
mechanism
of
a
biological
process.
Multi-omics
efforts
have
taken
center
stage
biomedical
research
leading
development
new
insights
into
events
processes.
However,
mushrooming
myriad
tools,
datasets,
approaches
tends
inundate
literature
overwhelm
researchers
field.
The
this
review
are
provide
an
overview
current
state
field,
inform
on
available
reliable
resources,
discuss
application
statistics
machine/deep
learning
multi-omics
analyses,
findable,
accessible,
interoperable,
reusable
(FAIR)
research,
point
best
practices
benchmarking.
Thus,
we
guidance
interested
users
domain
by
addressing
challenges
underlying
biology,
giving
toolset,
common
pitfalls,
acknowledging
methods’
limitations.
We
conclude
with
practical
advice
recommendations
software
engineering
reproducibility
share
comprehensive
awareness
for
end-to-end
workflow.
Medicinal Research Reviews,
Год журнала:
2020,
Номер
41(3), С. 1427 - 1473
Опубликована: Дек. 9, 2020
Abstract
Neurological
disorders
significantly
outnumber
diseases
in
other
therapeutic
areas.
However,
developing
drugs
for
central
nervous
system
(CNS)
remains
the
most
challenging
area
drug
discovery,
accompanied
with
long
timelines
and
high
attrition
rates.
With
rapid
growth
of
biomedical
data
enabled
by
advanced
experimental
technologies,
artificial
intelligence
(AI)
machine
learning
(ML)
have
emerged
as
an
indispensable
tool
to
draw
meaningful
insights
improve
decision
making
discovery.
Thanks
advancements
AI
ML
algorithms,
now
AI/ML‐driven
solutions
unprecedented
potential
accelerate
process
CNS
discovery
better
success
rate.
In
this
review,
we
comprehensively
summarize
AI/ML‐powered
pharmaceutical
efforts
their
implementations
area.
After
introducing
AI/ML
models
well
conceptualization
preparation,
outline
applications
technologies
several
key
procedures
including
target
identification,
compound
screening,
hit/lead
generation
optimization,
response
synergy
prediction,
de
novo
design,
repurposing.
We
review
current
state‐of‐the‐art
AI/ML‐guided
focusing
on
blood–brain
barrier
permeability
prediction
implementation
into
neurological
diseases.
Finally,
discuss
major
challenges
limitations
approaches
possible
future
directions
that
may
provide
resolutions
these
difficulties.
Nature Communications,
Год журнала:
2022,
Номер
13(1)
Опубликована: Апрель 1, 2022
Deep
Learning
(DL)
has
recently
enabled
unprecedented
advances
in
one
of
the
grand
challenges
computational
biology:
half-century-old
problem
protein
structure
prediction.
In
this
paper
we
discuss
recent
advances,
limitations,
and
future
perspectives
DL
on
five
broad
areas:
prediction,
function
genome
engineering,
systems
biology
data
integration,
phylogenetic
inference.
We
each
application
area
cover
main
bottlenecks
approaches,
such
as
training
data,
scope,
ability
to
leverage
existing
architectures
new
contexts.
To
conclude,
provide
a
summary
subject-specific
general
for
across
biosciences.
Frontiers in Oncology,
Год журнала:
2020,
Номер
10
Опубликована: Июнь 30, 2020
In
recent
years,
high-throughput
sequencing
technologies
provide
unprecedented
opportunity
to
depict
cancer
samples
at
multiple
molecular
levels.
The
integration
and
analysis
of
these
multi-omics
datasets
is
a
crucial
critical
step
gain
actionable
knowledge
in
precision
medicine
framework.
This
paper
explores
data-driven
methodologies
that
have
been
developed
applied
respond
major
challenges
stratified
oncology,
including
patients’
phenotyping,
biomarker
discovery
drug
repurposing.
We
systematically
retrieved
peer-reviewed
journals
published
from
2014
2019,
select
thoroughly
describe
the
tools
presenting
most
promising
innovations
regarding
heterogeneous
data,
machine
learning
successfully
tackled
complexity
frameworks
deliver
results
for
clinical
practice.
review
organized
according
methods:
Deep
learning,
Network-based
methods,
Clustering,
Features
Extraction
Transformation,
Factorization.
an
overview
available
each
methodological
group
underline
relationship
among
different
categories.
Our
revealed
how
could
be
exploited
drive
but
also
current
limitations
development
data
integration.
Briefings in Bioinformatics,
Год журнала:
2021,
Номер
23(1)
Опубликована: Окт. 7, 2021
Abstract
High-throughput
next-generation
sequencing
now
makes
it
possible
to
generate
a
vast
amount
of
multi-omics
data
for
various
applications.
These
have
revolutionized
biomedical
research
by
providing
more
comprehensive
understanding
the
biological
systems
and
molecular
mechanisms
disease
development.
Recently,
deep
learning
(DL)
algorithms
become
one
most
promising
methods
in
analysis,
due
their
predictive
performance
capability
capturing
nonlinear
hierarchical
features.
While
integrating
translating
into
useful
functional
insights
remain
biggest
bottleneck,
there
is
clear
trend
towards
incorporating
analysis
help
explain
complex
relationships
between
layers.
Multi-omics
role
improve
prevention,
early
detection
prediction;
monitor
progression;
interpret
patterns
endotyping;
design
personalized
treatments.
In
this
review,
we
outline
roadmap
integration
using
DL
offer
practical
perspective
advantages,
challenges
barriers
implementation
data.
Artificial Intelligence Review,
Год журнала:
2022,
Номер
56(7), С. 5975 - 6037
Опубликована: Ноя. 17, 2022
Recently,
using
artificial
intelligence
(AI)
in
drug
discovery
has
received
much
attention
since
it
significantly
shortens
the
time
and
cost
of
developing
new
drugs.
Deep
learning
(DL)-based
approaches
are
increasingly
being
used
all
stages
development
as
DL
technology
advances,
drug-related
data
grows.
Therefore,
this
paper
presents
a
systematic
Literature
review
(SLR)
that
integrates
recent
technologies
applications
Including,
drug-target
interactions
(DTIs),
drug-drug
similarity
(DDIs),
sensitivity
responsiveness,
drug-side
effect
predictions.
We
present
more
than
300
articles
between
2000
2022.
The
benchmark
sets,
databases,
evaluation
measures
also
presented.
In
addition,
provides
an
overview
how
explainable
AI
(XAI)
supports
problems.
dosing
optimization
success
stories
discussed
well.
Finally,
digital
twining
(DT)
open
issues
suggested
future
research
challenges
for
Challenges
to
be
addressed,
directions
identified,
extensive
bibliography
is
included.