Utility of Artificial Intelligence in Antibiotic Development: Accelerating Discovery in the Age of Resistance
Cureus,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 31, 2025
Antimicrobial
resistance
(AMR)
is
a
growing
public
health
issue,
complicating
the
treatment
of
bacterial
infections
and
increasing
morbidity
mortality
globally.
This
phenomenon,
which
occurs
as
result
ability
bacteria
to
adapt
evade
conventional
treatments,
requires
innovative
strategies
address
it.
Artificial
intelligence
(AI)
emerges
transformative
tool
in
this
context,
helping
accelerate
identification
molecules
with
antimicrobial
potential
optimize
design
new
drugs.
article
analyzes
usefulness
AI
antibiotic
development,
highlighting
its
benefits
terms
time,
cost,
efficiency
fight
against
resistant
bacteria,
well
challenges
associated
implementation
biomedical
field.
Language: Английский
Automated drug design for druggable target identification using integrated stacked autoencoder and hierarchically self-adaptive optimization
Seyed Saeed Masoomkhah,
No information about this author
Khosro Rezaee,
No information about this author
Mojtaba Ansari
No information about this author
et al.
Research Square (Research Square),
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 27, 2025
Abstract
Drug
classification
and
target
identification
are
crucial
yet
challenging
steps
in
drug
discovery.
Existing
methods
often
suffer
from
inefficiencies,
overfitting,
limited
scalability.
Traditional
approaches
like
support
vector
machines
XGBoost
struggle
to
handle
large,
complex
pharmaceutical
datasets
effectively.
Deep
learning
models,
while
powerful,
face
challenges
with
interpretability,
computational
complexity,
generalization
unseen
data.
This
study
addresses
these
limitations
by
introducing
a
novel
framework:
optSAE+HSAPSO.
framework
integrates
stacked
autoencoder
(SAE)
for
robust
feature
extraction
hierarchically
self-adaptive
particle
swarm
optimization
(HSAPSO)
algorithm
adaptive
parameter
optimization.
combination
delivers
superior
performance
across
various
metrics.
Experimental
evaluations
on
DrugBank
Swiss-Prot
demonstrate
that
optSAE+HSAPSO
achieves
high
accuracy
of
95.52%.
Notably,
it
exhibits
significantly
reduced
complexity
(0.010
seconds
per
sample)
exceptional
stability
(±0.003).
Compared
state-of-the-art
methods,
the
offers
higher
accuracy,
faster
convergence,
greater
resilience
variability.
Furthermore,
ROC
convergence
analyses
confirm
its
robustness
capability,
maintaining
consistent
both
validation
datasets.
By
leveraging
advanced
techniques,
efficiently
handles
large
sets
diverse
data,
making
scalable
adaptable
solution
real-world
discovery
applications.
However,
method's
is
dependent
quality
training
fine-tuning
may
be
necessary
high-dimensional
Despite
limitations,
demonstrates
transformative
potential,
reducing
overhead
improving
reliability.
work
advances
field
informatics
presenting
reliable
efficient
identification.
These
findings
open
promising
avenues
future
research,
including
extending
other
domains
such
as
disease
diagnostics
or
genetic
data
classification,
ultimately
accelerating
development
process.
Language: Английский