Journal of Biomedical Nanotechnology,
Journal Year:
2024,
Volume and Issue:
20(12), P. 1804 - 1823
Published: Dec. 1, 2024
Predicting
Protein–Protein
Interactions
(PPIs)
is
essential
to
comprehending
biological
functions
and
pivotal
for
drug
discovery
disease
understanding.However,
accurately
predicting
these
interactions
remains
a
difficult
issue
because
of
the
intricate
multifaceted
nature
protein
networks.
Traditional
models
often
fail
fully
capture
relationships
between
proteins
their
interactions,
especially
when
diverse
datasets
are
involved.
To
address
challenges,
novel
approach,
named
Deep
Radial
Graph
Basis
Prism
Refraction
Search
Convolutional
Networks(DRGB-PRSCN)
model,
proposed
PPI
prediction
using
three
distinct
datasets:
Human
PPI,
STRING,
DIP.The
method
employs
Gradient
Domain
Guided
Filtering
effective
data
preprocessing,
ensuring
noise
reduction
while
preserving
features.
Feature
extraction
carried
out
an
Elastic
Decision
Transformer,
which
effectively
captures
key
Networks
(DGCNs)
leveraged
model
complex
dependencies
among
proteins.
The
DRGB-PRSCN
with
its
advanced
architecture,
employed
predict
high
precision.
achieves
performance
evaluation
score
99.9%,
demonstrating
efficacy
in
PPI.
This
approach
outperforms
traditional
methods
by
providing
superior
accuracy
robustness,
making
it
highly
beneficial
network
analysis
discovery.
model’s
primary
benefit
capacity
efficiently
handle
PPIs
exceptional
Biomimetics,
Journal Year:
2024,
Volume and Issue:
9(2), P. 65 - 65
Published: Jan. 23, 2024
A
new
bio-inspired
metaheuristic
algorithm
named
the
Pufferfish
Optimization
Algorithm
(POA),
that
imitates
natural
behavior
of
pufferfish
in
nature,
is
introduced
this
paper.
The
fundamental
inspiration
POA
adapted
from
defense
mechanism
against
predators.
In
mechanism,
by
filling
its
elastic
stomach
with
water,
becomes
a
spherical
ball
pointed
spines,
and
as
result,
hungry
predator
escapes
threat.
theory
stated
then
mathematically
modeled
two
phases:
(i)
exploration
based
on
simulation
predator’s
attack
(ii)
exploitation
escape
spiny
pufferfish.
performance
evaluated
handling
CEC
2017
test
suite
for
problem
dimensions
equal
to
10,
30,
50,
100.
optimization
results
show
has
achieved
an
effective
solution
appropriate
ability
exploration,
exploitation,
balance
between
them
during
search
process.
quality
process
compared
twelve
well-known
algorithms.
provides
superior
achieving
better
most
benchmark
functions
order
solve
competitor
Also,
effectiveness
handle
tasks
real-world
applications
twenty-two
constrained
problems
2011
four
engineering
design
problems.
Simulation
solutions
Applied Sciences,
Journal Year:
2025,
Volume and Issue:
15(2), P. 603 - 603
Published: Jan. 9, 2025
The
Material
Generation
Optimization
(MGO)
algorithm
is
an
innovative
approach
inspired
by
material
chemistry
which
emulates
the
processes
of
chemical
compound
formation
and
stabilization
to
thoroughly
explore
refine
parameter
space.
By
simulating
bonding
processes—such
as
ionic
covalent
bonds—MGO
generates
new
solution
candidates
evaluates
their
stability,
guiding
toward
convergence
on
optimal
values.
To
improve
its
search
efficiency,
this
paper
introduces
Enhanced
(IMGO)
algorithm,
integrates
a
Quadratic
Interpolated
Learner
Process
(QILP).
Unlike
conventional
random
selection,
QILP
strategically
selects
three
distinct
compounds,
resulting
in
increased
diversity,
more
thorough
exploration
space,
improved
resistance
local
optima.
adaptable
non-linear
adjustments
QILP’s
quadratic
function
allow
traverse
complex
landscapes
effectively.
This
IMGO,
along
with
original
MGO,
developed
support
applications
across
phases,
showcasing
versatility
enhanced
optimization
capabilities.
Initially,
both
MGO
algorithms
are
evaluated
using
several
mathematical
benchmarks
from
CEC
2017
test
suite
measure
Following
this,
applied
following
well-known
engineering
problems:
welded
beam
design,
rolling
element
bearing
pressure
vessel
design.
simulation
results
then
compared
various
established
bio-inspired
algorithms,
including
Artificial
Ecosystem
(AEO),
Fitness–Distance-Balance
AEO
(FAEO),
Chef-Based
Algorithm
(CBOA),
Beluga
Whale
(BWOA),
Arithmetic-Trigonometric
(ATOA),
Atomic
Orbital
Searching
(AOSA).
Moreover,
IMGO
tested
real
Egyptian
power
distribution
system
optimize
placement
PV
capacitor
units
aim
minimizing
energy
losses.
Lastly,
parameters
estimation
problem
successfully
solved
via
considering
commercial
RTC
France
cell.
Comparative
studies
demonstrate
that
not
only
achieves
significant
loss
reduction
but
also
contributes
environmental
sustainability
reducing
emissions,
overall
effectiveness
practical
applications.
outcomes
23
benchmark
models
average
accuracy
enhancement
65.22%
consistency
69.57%
method.
Also,
application
achieved
computational
errors
27.8%
while
maintaining
superior
stability
alternative
methods.
This
article
introduces
a
novel
nature-inspired
metaheuristic
algorithm
called
Frilled
Lizard
Optimization
(FLO),
which
emulates
the
hunting
behavior
of
frilled
lizards
in
their
natural
habitat.
FLO
draws
in-spiration
from
sit-and-wait
strategy
observed
during
hunting.
The
underlying
theory
is
presented
and
mathematically
formulated
two
phases:
(i)
an
exploration
phase,
simulating
lizard's
attack
towards
prey,
(ii)
exploitation
retreat
to
top
tree
after
feeding.
To
assess
FLO's
efficacy
solving
optimization
problems,
algorithm's
performance
evaluated
across
fifty-two
standard
benchmark
functions,
encompassing
unimodal,
high-dimensional
multimodal,
fixed-dimensional
CEC
2017
test
suite.
Comparative
analyses
with
twelve
existing
algorithms
are
conducted.
simulation
results
reveal
that
FLO,
distinguished
by
its
adeptness
exploration,
exploitation,
balancing
them
search
process,
outperforms
competing
algorithms.
Additionally,
implemented
on
twenty-two
constrained
problems
2011
suite
four
engineering
design
demonstrating
effectiveness
addressing
real-world
applications.
Scientific Reports,
Journal Year:
2024,
Volume and Issue:
14(1)
Published: Aug. 29, 2024
Supply
chain
efficiency
is
a
major
challenge
in
today's
business
environment,
where
efficient
resource
allocation
and
coordination
of
activities
are
essential
for
competitive
advantage.
Traditional
strategies
often
struggle
resources
the
complex
dynamic
network.
In
response,
bio-inspired
metaheuristic
algorithms
have
emerged
as
powerful
tools
to
solve
these
optimization
problems.
Referring
random
search
nature
emphasizing
that
no
algorithm
best
optimizer
all
applications,
No
Free
Lunch
(NFL)
theorem
encourages
researchers
design
newer
be
able
provide
more
effective
solutions
Motivated
by
NFL
theorem,
innovation
novelty
this
paper
designing
new
meta-heuristic
called
Bobcat
Optimization
Algorithm
(BOA)
imitates
natural
behavior
bobcats
wild.
The
basic
inspiration
BOA
derived
from
hunting
strategy
during
attack
towards
prey
chase
process
between
them.
theory
stated
then
mathematically
modeled
two
phases
(i)
exploration
based
on
simulation
bobcat's
position
change
while
moving
(ii)
exploitation
simulating
catch
prey.
performance
evaluated
handle
CEC
2017
test
suite
problem
dimensions
equal
10,
30,
50,
100,
well
address
2020.
results
show
has
high
ability
exploration,
exploitation,
balance
them
order
achieve
suitable
solution
obtained
compared
with
twelve
well-known
algorithms.
findings
been
successful
handling
89.65,
79.31,
93.10,
89.65%
functions
dimension
respectively.
Also,
2020
suite,
100%
suite.
statistical
analysis
confirms
significant
superiority
competition
analyze
dealing
real
world
twenty-two
constrained
problems
2011
four
engineering
selected.
90.90%
CEC2011
addition,
SCM
applications
challenged
ten
case
studies
field
sustainable
lot
size
optimization.
successfully
provided
superior
competitor
Engineering Reports,
Journal Year:
2025,
Volume and Issue:
7(5)
Published: April 30, 2025
ABSTRACT
The
proposed
Random
Walk‐based
Improved
GOOSE
(IGOOSE)
search
algorithm
is
a
novel
population‐based
meta‐heuristic
inspired
by
the
collective
movement
patterns
of
geese
and
stochastic
nature
random
walks.
This
includes
inherent
balance
between
exploration
exploitation
integrating
walk
behavior
with
local
strategies.
In
this
paper,
IGOOSE
has
been
rigorously
tested
across
23
benchmark
functions
where
13
benchmarks
are
varying
dimensions
(10,
30,
50,
100
dimensions).
These
provide
diverse
range
optimization
landscapes,
enabling
comprehensive
evaluation
performance
under
different
problem
complexities.
various
parameters
such
as
convergence
speed,
magnitude
solution,
robustness
for
dimensions.
Further,
applied
to
optimize
eight
distinct
engineering
problems,
showcasing
its
versatility
effectiveness
in
real‐world
scenarios.
results
these
evaluations
highlight
competitive
tool,
offering
promising
both
standard
complex
structural
problems.
Its
ability
effectively,
combined
deal
positions
valuable
tool.