Journal of Chemical Information and Modeling,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 10, 2025
Antimicrobial
peptides
are
a
promising
strategy
to
combat
antimicrobial
resistance.
However,
the
experimental
discovery
of
is
both
time-consuming
and
laborious.
In
recent
years,
development
computational
technologies
(especially
deep
learning)
has
provided
new
opportunities
for
peptide
prediction.
Various
models
have
been
proposed
predict
peptide.
this
review,
we
focus
on
learning
We
first
collected
summarized
available
data
resources
peptides.
Subsequently,
existing
discussed
their
limitations
challenges.
This
study
aims
help
biologists
design
better
Computational and Structural Biotechnology Journal,
Journal Year:
2024,
Volume and Issue:
23, P. 972 - 981
Published: Feb. 12, 2024
Antimicrobial
peptides
(AMPs)
are
molecules
found
in
most
organisms,
playing
a
vital
role
innate
immune
defense
against
pathogens.
Their
mechanism
of
action
involves
the
disruption
bacterial
cell
membranes,
causing
leakage
cellular
contents
and
ultimately
leading
to
death.
While
AMPs
typically
lack
defined
structure
solution,
they
often
assume
conformation
when
interacting
with
membranes.
Given
this
structural
flexibility,
we
investigated
whether
intrinsically
disordered
regions
(IDRs)
AMP-like
properties
could
exhibit
antimicrobial
activity.
We
tested
14
from
different
IDRs
predicted
have
activity
that
nearly
all
them
did
not
display
anticipated
effects.
These
failed
adopt
secondary
had
compromised
membrane
interactions,
resulting
hypothesize
evolutionary
constraints
may
prevent
folding,
even
membrane-like
environments,
limiting
their
potential.
Moreover,
our
research
reveals
current
predictors
fail
accurately
capture
features
dealing
unstructured
sequences.
Hence,
results
presented
here
far-reaching
implications
for
designing
improving
strategies
therapies
infectious
diseases.
PeerJ,
Journal Year:
2024,
Volume and Issue:
12, P. e17729 - e17729
Published: July 19, 2024
Background
Global
public
health
is
seriously
threatened
by
the
escalating
issue
of
antimicrobial
resistance
(AMR).
Antimicrobial
peptides
(AMPs),
pivotal
components
innate
immune
system,
have
emerged
as
a
potent
solution
to
AMR
due
their
therapeutic
potential.
Employing
computational
methodologies
for
prompt
recognition
these
indeed
unlocks
fresh
perspectives,
thereby
potentially
revolutionizing
drug
development.
Methods
In
this
study,
we
developed
model
named
deepAMPNet.
This
model,
which
leverages
graph
neural
networks,
excels
at
swift
identification
AMPs.
It
employs
structures
predicted
AlphaFold2,
encodes
residue-level
features
through
bi-directional
long
short-term
memory
(Bi-LSTM)
protein
language
and
constructs
adjacency
matrices
anchored
on
amino
acids’
contact
maps.
Results
comparative
study
with
other
state-of-the-art
AMP
predictors
two
external
independent
test
datasets,
deepAMPNet
outperformed
in
accuracy.
Furthermore,
terms
commonly
accepted
evaluation
such
AUC,
Mcc,
sensitivity,
specificity,
achieved
highest
or
highly
comparable
performances
against
predictors.
Conclusion
interweaves
both
structural
sequence
information
AMPs,
stands
high-performance
that
propels
evolution
design
peptide
pharmaceuticals.
The
data
code
utilized
can
be
accessed
https://github.com/Iseeu233/deepAMPNet
.
Nucleic Acids Research,
Journal Year:
2024,
Volume and Issue:
53(D1), P. D364 - D376
Published: Nov. 14, 2024
Antimicrobial
resistance
is
one
of
the
most
urgent
global
health
threats,
especially
in
post-pandemic
era.
peptides
(AMPs)
offer
a
promising
alternative
to
traditional
antibiotics,
driving
growing
interest
recent
years.
dbAMP
comprehensive
database
offering
extensive
annotations
on
AMPs,
including
sequence
information,
functional
activity
data,
physicochemical
properties
and
structural
annotations.
In
this
update,
has
curated
data
from
over
5200
publications,
encompassing
33,065
AMPs
2453
antimicrobial
proteins
3534
organisms.
Additionally,
utilizes
ESMFold
determine
three-dimensional
structures
providing
30,000
that
facilitate
structure-based
insights
for
clinical
drug
development.
Furthermore,
employs
molecular
docking
techniques,
100
docked
complexes
contribute
useful
into
potential
mechanisms
AMPs.
The
toxicity
stability
are
critical
factors
assessing
their
as
drugs.
updated
introduced
an
efficient
tool
evaluating
hemolytic
half-life
alongside
AMP
optimization
platform
designing
with
high
activity,
reduced
increased
stability.
freely
accessible
at
https://awi.cuhk.edu.cn/dbAMP/.
Overall,
represents
essential
resource
analysis
design,
poised
advance
strategies
ACS Omega,
Journal Year:
2025,
Volume and Issue:
10(6), P. 5415 - 5429
Published: Feb. 3, 2025
Antigenicity
prediction
plays
a
crucial
role
in
vaccine
development,
antibody-based
therapies,
and
diagnostic
assays,
as
this
predictive
approach
helps
assess
the
potential
of
molecular
structures
to
induce
recruit
immune
cells
drive
antibody
production.
Several
existing
methods,
which
target
complete
proteins
epitopes
identified
through
reverse
vaccinology,
face
limitations
regarding
input
data
constraints,
feature
extraction
strategies,
insufficient
flexibility
for
model
evaluation
interpretation.
This
work
presents
PAPreC
(Pipeline
Prediction
Comparison),
an
open-source,
versatile
workflow
(available
at
https://github.com/YasCoMa/paprec_nx_workflow)
designed
address
these
challenges.
systematically
examines
three
key
factors:
selection
training
sets,
methods
(including
physicochemical
descriptors
ESM-2
encoder-derived
embeddings),
diverse
classifiers.
It
provides
automated
evaluation,
interpretability
SHapley
Additive
exPlanations
(SHAP)
analysis,
applicability
domain
assessments,
enabling
researchers
identify
optimal
configurations
their
specific
sets.
Applying
IEDB
reference,
we
demonstrate
its
effectiveness
across
ESKAPE
pathogen
group.
A
case
study
involving
Pseudomonas
aeruginosa
Staphylococcus
aureus
shows
that
are
more
suitable
different
sequence
types,
embeddings
enhance
performance.
Moreover,
our
results
indicate
separate
models
Gram-positive
Gram-negative
bacteria
not
required.
offers
comprehensive,
adaptable,
robust
framework
streamline
improve
antigenicity
bacterial
Journal of Chemical Information and Modeling,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 10, 2025
Antimicrobial
peptides
are
a
promising
strategy
to
combat
antimicrobial
resistance.
However,
the
experimental
discovery
of
is
both
time-consuming
and
laborious.
In
recent
years,
development
computational
technologies
(especially
deep
learning)
has
provided
new
opportunities
for
peptide
prediction.
Various
models
have
been
proposed
predict
peptide.
this
review,
we
focus
on
learning
We
first
collected
summarized
available
data
resources
peptides.
Subsequently,
existing
discussed
their
limitations
challenges.
This
study
aims
help
biologists
design
better