Computational and Structural Biotechnology Journal,
Journal Year:
2020,
Volume and Issue:
18, P. 417 - 426
Published: Jan. 1, 2020
Proteins
participate
in
various
essential
processes
vivo
via
interactions
with
other
molecules.
Identifying
the
residues
participating
these
not
only
provides
biological
insights
for
protein
function
studies
but
also
has
great
significance
drug
discoveries.
Therefore,
predicting
protein–ligand
binding
sites
long
been
under
intense
research
fields
of
bioinformatics
and
computer
aided
discovery.
In
this
review,
we
first
introduce
background
then
classify
methods
into
four
categories,
namely,
3D
structure-based,
template
similarity-based,
traditional
machine
learning-based
deep
methods.
We
describe
representative
algorithms
each
category
elaborate
on
learning
prediction
more
detail.
Finally,
discuss
trends
challenges
current
such
as
molecular
dynamics
simulation
based
cryptic
prediction,
highlight
prospective
directions
near
future.
Molecular Diversity,
Journal Year:
2021,
Volume and Issue:
25(3), P. 1315 - 1360
Published: April 12, 2021
Drug
designing
and
development
is
an
important
area
of
research
for
pharmaceutical
companies
chemical
scientists.
However,
low
efficacy,
off-target
delivery,
time
consumption,
high
cost
impose
a
hurdle
challenges
that
impact
drug
design
discovery.
Further,
complex
big
data
from
genomics,
proteomics,
microarray
data,
clinical
trials
also
obstacle
in
the
discovery
pipeline.
Artificial
intelligence
machine
learning
technology
play
crucial
role
development.
In
other
words,
artificial
neural
networks
deep
algorithms
have
modernized
area.
Machine
been
implemented
several
processes
such
as
peptide
synthesis,
structure-based
virtual
screening,
ligand-based
toxicity
prediction,
monitoring
release,
pharmacophore
modeling,
quantitative
structure-activity
relationship,
repositioning,
polypharmacology,
physiochemical
activity.
Evidence
past
strengthens
implementation
this
field.
Moreover,
novel
mining,
curation,
management
techniques
provided
critical
support
to
recently
developed
modeling
algorithms.
summary,
advancements
provide
excellent
opportunity
rational
process,
which
will
eventually
mankind.
The
primary
concern
associated
with
consumption
production
cost.
inefficiency,
inaccurate
target
inappropriate
dosage
are
hurdles
inhibit
process
delivery
With
technology,
computer-aided
integrating
can
eliminate
traditional
referred
superset
comprising
learning,
whereas
comprises
supervised
unsupervised
reinforcement
learning.
subset
has
extensively
network,
vector
machines,
classification
regression,
generative
adversarial
networks,
symbolic
meta-learning
examples
applied
process.
different
areas
synthesis
molecule
design,
screening
molecular
docking,
relationship
protein
misfolding
protein-protein
interactions,
pathway
identification
polypharmacology.
principles
active
inactive,
pre-clinical
development,
secondary
biomarker
manufacturing,
bioactivity
properties,
prediction
toxicity,
mode
action.
Computational and Structural Biotechnology Journal,
Journal Year:
2020,
Volume and Issue:
18, P. 784 - 790
Published: Jan. 1, 2020
The
infection
of
a
novel
coronavirus
found
in
Wuhan
China
(SARS-CoV-2)
is
rapidly
spreading,
and
the
incidence
rate
increasing
worldwide.
Due
to
lack
effective
treatment
options
for
SARS-CoV-2,
various
strategies
are
being
tested
China,
including
drug
repurposing.
In
this
study,
we
used
our
pre-trained
deep
learning-based
drug-target
interaction
model
called
Molecule
Transformer-Drug
Target
Interaction
(MT-DTI)
identify
commercially
available
drugs
that
could
act
on
viral
proteins
SARS-CoV-2.
result
showed
atazanavir,
an
antiretroviral
medication
treat
prevent
human
immunodeficiency
virus
(HIV),
best
chemical
compound,
showing
inhibitory
potency
with
Kd
94.94
nM
against
SARS-CoV-2
3C-like
proteinase,
followed
by
remdesivir
(113.13
nM),
efavirenz
(199.17
ritonavir
(204.05
dolutegravir
(336.91
nM).
Interestingly,
lopinavir,
ritonavir,
darunavir
all
designed
target
proteinases.
However,
prediction,
they
may
also
bind
replication
complex
components
<
1000
nM.
addition,
several
antiviral
agents,
such
as
Kaletra
(lopinavir/ritonavir),
be
Overall,
suggest
list
identified
MT-DTI
should
considered,
when
establishing
Bioinformatics,
Journal Year:
2020,
Volume and Issue:
37(8), P. 1140 - 1147
Published: Oct. 15, 2020
Abstract
Summary
The
development
of
new
drugs
is
costly,
time
consuming
and
often
accompanied
with
safety
issues.
Drug
repurposing
can
avoid
the
expensive
lengthy
process
drug
by
finding
uses
for
already
approved
drugs.
In
order
to
repurpose
effectively,
it
useful
know
which
proteins
are
targeted
Computational
models
that
estimate
interaction
strength
drug–target
pairs
have
potential
expedite
repurposing.
Several
been
proposed
this
task.
However,
these
represent
as
strings,
not
a
natural
way
molecules.
We
propose
model
called
GraphDTA
represents
graphs
graph
neural
networks
predict
affinity.
show
only
affinity
better
than
non-deep
learning
models,
but
also
outperform
competing
deep
methods.
Our
results
confirm
appropriate
binding
prediction,
representing
lead
further
improvements.
Availability
implementation
implemented
in
Python.
Related
data,
pre-trained
source
code
publicly
available
at
https://github.com/thinng/GraphDTA.
All
scripts
data
needed
reproduce
post
hoc
statistical
analysis
from
https://doi.org/10.5281/zenodo.3603523.
Supplementary
information
Bioinformatics
online.
PLoS Computational Biology,
Journal Year:
2019,
Volume and Issue:
15(6), P. e1007129 - e1007129
Published: June 14, 2019
Identification
of
drug-target
interactions
(DTIs)
plays
a
key
role
in
drug
discovery.
The
high
cost
and
labor-intensive
nature
vitro
vivo
experiments
have
highlighted
the
importance
silico-based
DTI
prediction
approaches.
In
several
computational
models,
conventional
protein
descriptors
been
shown
to
not
be
sufficiently
informative
predict
accurate
DTIs.
Thus,
this
study,
we
propose
deep
learning
based
model
capturing
local
residue
patterns
proteins
participating
When
employ
convolutional
neural
network
(CNN)
on
raw
sequences,
perform
convolution
various
lengths
amino
acids
subsequences
capture
generalized
classes.
We
train
our
with
large-scale
information
demonstrate
performance
proposed
using
an
independent
dataset
that
is
seen
during
training
phase.
As
result,
performs
better
than
previous
descriptor-based
models.
Also,
recently
developed
models
for
massive
By
examining
pooled
results,
confirmed
can
detect
binding
sites
conclusion,
detecting
target
successfully
enriches
features
sequence,
yielding
results
Our
code
available
at
https://github.com/GIST-CSBL/DeepConv-DTI.
Journal of Chemical Information and Modeling,
Journal Year:
2019,
Volume and Issue:
59(9), P. 3981 - 3988
Published: Aug. 23, 2019
We
propose
a
novel
deep
learning
approach
for
predicting
drug-target
interaction
using
graph
neural
network.
introduce
distance-aware
attention
algorithm
to
differentiate
various
types
of
intermolecular
interactions.
Furthermore,
we
extract
the
feature
interactions
directly
from
3D
structural
information
on
protein-ligand
binding
pose.
Thus,
model
can
learn
key
features
accurate
predictions
rather
than
just
memorize
certain
patterns
ligand
molecules.
As
result,
our
shows
better
performance
docking
and
other
methods
both
virtual
screening
(AUROC
0.968
DUD-E
test
set)
pose
prediction
0.935
PDBbind
set).
In
addition,
it
reproduce
natural
population
distribution
active
molecules
inactive
Briefings in Bioinformatics,
Journal Year:
2019,
Volume and Issue:
22(1), P. 247 - 269
Published: Nov. 8, 2019
Abstract
The
task
of
predicting
the
interactions
between
drugs
and
targets
plays
a
key
role
in
process
drug
discovery.
There
is
need
to
develop
novel
efficient
prediction
approaches
order
avoid
costly
laborious
yet
not-always-deterministic
experiments
determine
drug–target
(DTIs)
by
alone.
These
should
be
capable
identifying
potential
DTIs
timely
manner.
In
this
article,
we
describe
data
required
for
DTI
followed
comprehensive
catalog
consisting
machine
learning
methods
databases,
which
have
been
proposed
utilized
predict
DTIs.
advantages
disadvantages
each
set
are
also
briefly
discussed.
Lastly,
challenges
one
may
face
using
highlighted
conclude
shedding
some
lights
on
important
future
research
directions.
Bioinformatics,
Journal Year:
2020,
Volume and Issue:
36(22-23), P. 5545 - 5547
Published: Nov. 20, 2020
Abstract
Summary
Accurate
prediction
of
drug–target
interactions
(DTI)
is
crucial
for
drug
discovery.
Recently,
deep
learning
(DL)
models
show
promising
performance
DTI
prediction.
However,
these
can
be
difficult
to
use
both
computer
scientists
entering
the
biomedical
field
and
bioinformaticians
with
limited
DL
experience.
We
present
DeepPurpose,
a
comprehensive
easy-to-use
library
DeepPurpose
supports
training
customized
by
implementing
15
compound
protein
encoders
over
50
neural
architectures,
along
providing
many
other
useful
features.
demonstrate
state-of-the-art
on
several
benchmark
datasets.
Availability
implementation
https://github.com/kexinhuang12345/DeepPurpose.
Supplementary
information
data
are
available
at
Bioinformatics
online.