Artificial Intelligence in Natural Product Drug Discovery: Current Applications and Future Perspectives
Amit Gangwal,
No information about this author
Antonio Lavecchia
No information about this author
Journal of Medicinal Chemistry,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 6, 2025
Drug
discovery,
a
multifaceted
process
from
compound
identification
to
regulatory
approval,
historically
plagued
by
inefficiencies
and
time
lags
due
limited
data
utilization,
now
faces
urgent
demands
for
accelerated
lead
identification.
Innovations
in
biological
computational
chemistry
have
spurred
shift
trial-and-error
methods
holistic
approaches
medicinal
chemistry.
Computational
techniques,
particularly
artificial
intelligence
(AI),
notably
machine
learning
(ML)
deep
(DL),
revolutionized
drug
development,
enhancing
analysis
predictive
modeling.
Natural
products
(NPs)
long
served
as
rich
sources
of
biologically
active
compounds,
with
many
successful
drugs
originating
them.
Advances
information
science
expanded
NP-related
databases,
enabling
deeper
exploration
AI.
Integrating
AI
into
NP
discovery
promises
discoveries,
leveraging
AI's
analytical
prowess,
including
generative
synthesis.
This
perspective
illuminates
current
landscape
addressing
strengths,
limitations,
future
trajectories
advance
this
vital
research
domain.
Language: Английский
Future prospective of AI in drug discovery
Advances in pharmacology,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 1, 2025
Language: Английский
Boosting engineering strategies for plastic hydrocracking applications: a machine learning-based multi-objective optimization framework
Green Chemistry,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 1, 2025
A
novel
waste
plastic
pyrolysis
oil
hydrocracking
process
uniquely
integrating
simulation
with
advanced
deep
learning
models
for
multi-objective
optimization.
Language: Английский
Healthcare Security Challenges Leveraging Generative AI to Transform Cybersecurity
Ghalib Nadeem,
No information about this author
Ab Dulmalik Khaliq,
No information about this author
J. Ahmed
No information about this author
et al.
IGI Global eBooks,
Journal Year:
2025,
Volume and Issue:
unknown, P. 205 - 250
Published: Feb. 28, 2025
Generative
AI
technologies,
such
as
GANs
and
Transformer-based
models,
are
transforming
healthcare
cybersecurity.
In
healthcare,
they
improve
medical
imaging,
diagnostics,
personalized
treatments,
enhancing
patient
outcomes
operational
efficiency.
cybersecurity,
generative
strengthens
defenses
through
real-time
threat
detection,
anomaly
identification,
synthetic
data
generation
for
secure
testing,
tackling
modern
cyber
threats.
Both
fields,
however,
face
challenges
in
quality,
ethics,
transparency,
regulation.
Addressing
these
requires
domain-specific
frameworks
like
the
Technology
Acceptance
Model
(TAM)
Zero
Trust
Architecture
(ZTA)
This
chapter
explores
AI's
impact,
highlighting
challenges,
tailored
solutions,
strategic
to
ensure
ethical
effectiveness.
As
evolves,
it
stands
a
cornerstone
progress
both
balancing
innovation
with
responsibility.
Language: Английский
Utilizing machine learning and molecular dynamics for enhanced drug delivery in nanoparticle systems
Alireza Jahandoost,
No information about this author
Razieh Dashti,
No information about this author
Mahboobeh Houshmand
No information about this author
et al.
Scientific Reports,
Journal Year:
2024,
Volume and Issue:
14(1)
Published: Nov. 4, 2024
Materials
data
science
and
machine
learning
(ML)
are
pivotal
in
advancing
cancer
treatment
strategies
beyond
traditional
methods
like
chemotherapy.
Nanotherapeutics,
which
merge
nanotechnology
with
targeted
drug
delivery,
exemplify
this
advancement
by
offering
improved
precision
reduced
side
effects
therapy.
The
development
of
these
nanotherapeutic
agents
depends
critically
on
understanding
nanoparticle
(NP)
properties
their
biological
interactions,
often
analyzed
through
molecular
dynamics
(MD)
simulations.
This
study
enhances
analyses
integrating
ML
MD
simulations,
significantly
improving
both
prediction
accuracy
computational
efficiency.
We
introduce
a
comprehensive
three-stage
methodology
for
predicting
the
solvent-accessible
surface
area
(SASA)
NPs,
is
crucial
therapeutic
efficacy.
process
involves
training
an
model
to
forecast
many-body
tensor
representation
(MBTR)
future
time
steps,
applying
augmentation
increase
dataset
realism,
refining
SASA
predictor
augmented
original
data.
Results
demonstrate
that
our
can
predict
values
299
steps
ahead
40-fold
speed
improvement
25%
over
existing
methods.
Importantly,
it
provides
300-fold
compared
simulation
techniques,
substantial
cost
savings
research
development.
Language: Английский
Advancements in Virtual Bioequivalence: A Systematic Review of Computational Methods and Regulatory Perspectives in the Pharmaceutical Industry
Pharmaceutics,
Journal Year:
2024,
Volume and Issue:
16(11), P. 1414 - 1414
Published: Nov. 3, 2024
Background/Objectives:
The
rise
of
virtual
bioequivalence
studies
has
transformed
the
pharmaceutical
landscape,
enabling
more
efficient
drug
development
processes.
This
systematic
review
aims
to
explore
advancements
in
physiologically
based
pharmacokinetic
(PBPK)
modeling,
its
regulatory
implications,
and
role
achieving
bioequivalence,
particularly
for
complex
formulations.
Methods:
We
conducted
a
clinical
trials
using
computational
methods,
PBPK
carry
out
assessments.
Eligibility
criteria
are
emphasized
during
silico
modeling
simulations.
Comprehensive
literature
searches
were
performed
across
databases
such
as
PubMed,
Scopus,
Cochrane
Library.
A
search
strategy
key
terms
Boolean
operators
ensured
that
extensive
coverage
was
achieved.
adhered
PRISMA
guidelines
regard
study
selection,
data
extraction,
quality
assessment,
focusing
on
characteristics,
methodologies,
outcomes,
perspectives
from
FDA
EMA.
Results:
Our
findings
indicate
significantly
enhances
prediction
profiles,
optimizing
dosing
regimens,
while
minimizing
need
trials.
Regulatory
agencies
have
recognized
this
utility,
with
EMA
developing
frameworks
integrate
methods
into
evaluations.
However,
challenges
heterogeneity
publication
bias
may
limit
generalizability
results.
Conclusions:
highlights
critical
standardized
protocols
robust
facilitate
integration
methodologies
practices.
By
embracing
these
advancements,
industry
can
improve
efficiency
patient
paving
way
innovative
therapeutic
solutions.
Continued
research
adaptive
will
be
essential
navigating
evolving
field.
Language: Английский
AI-Enhanced Multi-Algorithm R Shiny App for Predictive Modeling and Analytics- A Case study of Alzheimer’s Disease Diagnostics (Preprint)
Published: Dec. 18, 2024
BACKGROUND
Recent
studies
have
demonstrated
that
AI
can
surpass
medical
practitioners
in
diagnostic
accuracy,
underscoring
the
increasing
importance
of
AI-assisted
diagnosis
healthcare.
This
research
introduces
SMART-Pred
(Shiny
Multi-Algorithm
R
Tool
for
Predictive
Modeling),
an
innovative
AI-based
application
Alzheimer's
disease
(AD)
prediction
utilizing
handwriting
analysis
OBJECTIVE
Our
objective
is
to
develop
and
evaluate
a
non-invasive,
cost-effective,
efficient
tool
early
AD
detection,
addressing
need
accessible
accurate
screening
methods.
METHODS
methodology
employs
comprehensive
approach
AI-driven
prediction.
We
begin
with
Principal
Component
Analysis
dimensionality
reduction,
ensuring
processing
complex
data.
followed
by
training
evaluation
ten
diverse,
highly
optimized
models,
including
logistic
regression,
Naïve
Bayes,
random
forest,
AdaBoost,
Support
Vector
Machine,
neural
networks.
multi-model
allows
robust
comparison
different
machine
learning
techniques
To
rigorously
assess
model
performance,
we
utilize
range
metrics
sensitivity,
specificity,
F1-score,
ROC-AUC.
These
provide
holistic
view
each
model's
predictive
capabilities.
For
validation,
leveraged
DARWIN
dataset,
which
comprises
samples
from
174
participants
(89
patients
85
healthy
controls).
balanced
dataset
ensures
fair
our
models'
ability
distinguish
between
individuals
based
on
characteristics.
RESULTS
The
forest
strong
achieving
accuracy
88.68%
test
set
during
analysis.
Meanwhile,
AdaBoost
algorithm
exhibited
even
higher
reaching
92.00%
after
leveraging
models
identify
most
significant
variables
predicting
disease.
results
current
clinical
tools,
typically
achieve
around
81.00%
accuracy.
SMART-Pred's
performance
aligns
recent
advancements
prediction,
such
as
Cambridge
scientists'
82.00%
identifying
progression
within
three
years
using
cognitive
tests
MRI
scans.
Furthermore,
revealed
consistent
pattern
across
all
employed.
"air_time"
"paper_time"
consistently
stood
out
critical
predictors
(AD).
two
factors
were
repeatedly
identified
influential
assessing
probability
onset,
their
potential
detection
risk
assessment
CONCLUSIONS
Even
though
some
limitations
exist
SMART-Pred,
it
offers
several
advantages,
being
efficient,
customizable
datasets
diagnostics.
study
demonstrates
transformative
healthcare,
particularly
may
contribute
improved
patient
outcomes
through
intervention.
Clinical
validation
necessary
confirm
whether
key
this
are
sufficient
accurately
real-world
settings.
step
crucial
ensure
practical
applicability
reliability
these
findings
practice.
Language: Английский
Synergizing Human and Machine
Advances in environmental engineering and green technologies book series,
Journal Year:
2024,
Volume and Issue:
unknown, P. 249 - 282
Published: Nov. 1, 2024
Rapid
technological
breakthroughs
in
the
21st
century
have
changed
knowledge
discovery
and
management,
especially
with
AI.
AI
is
great
at
processing
massive
datasets
quickly
accurately
but
lacks
contextual
awareness,
ethical
judgment,
creative
problem-solving.
The
mismatch
highlights
a
key
gap:
present
systems
often
function
silos,
analyzing
data
humans
interpreting
results,
missing
potential
for
deeper
insights.
We
propose
new
framework
combining
AI's
computing
power
human
cognition.
show
that
hybrid
strategy
can
improve
complex
multidisciplinary
environments
using
these
complementary
forces.
According
to
our
findings,
this
integration
enhances
efficiency
generates
more
meaningful
human-valued
This
research
significant
because
it
promotes
dynamic
iterative
process,
which
healthcare
education
decision-making.
Language: Английский