Scientific Reports,
Journal Year:
2024,
Volume and Issue:
14(1)
Published: Nov. 13, 2024
Brain
tumor
diagnosis
is
an
important
task
in
prognosing
and
treatment
planning
of
the
patients
with
brain
cancer.
meantime,
using
Magnetic
Resonance
Imaging
(MRI)
as
a
commonly
used
non-invasive
imaging
technique
provide
experts
helpful
view
for
detecting
tumors.
While
deep
learning
methods
have
shown
significant
success
analyzing
medical
images,
they
often
require
careful
design
architecture
tuning
hyperparameters
to
achieve
optimal
results.
This
study
presents
new
approach
diagnosing
tumors
MRI
scans
learning,
focusing
on
Residual/Shuffle
Networks.
The
designed
network
structures
offer
efficient
results
when
compared
traditional
models.
To
enhance
proposed
classification,
modified
metaheuristic
algorithm
named
Augmented
Falcon
Finch
Optimization
(AFFO)
introduced.
AFFO
utilizes
bio-inspired
principles
effectively
search
best
hyperparameter
configurations,
thereby
enhancing
reliability
accuracy
model.
performance
method
evaluated
standard
dataset
existing
techniques,
including
ResNet,
AlexNet,
VGG-16,
Inception
V3,
U-Net
illustrate
effectiveness
combining
Networks
diagnosis.
ACS Nano,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Sept. 16, 2024
Increasing
accumulation
of
nanoplastics
across
ecosystems
poses
a
significant
threat
to
both
terrestrial
and
aquatic
life.
Surface-enhanced
Raman
scattering
(SERS)
is
an
emerging
technique
used
for
detection.
However,
the
identification
classification
using
SERS
faces
challenges
regarding
sensitivity
accuracy
as
are
sparsely
dispersed
in
environment.
Metal-phenolic
networks
(MPNs)
have
potential
rapidly
concentrate
separate
various
types
sizes
nanoplastics.
combined
with
machine
learning
may
improve
prediction
accuracy.
Herein,
we
report
integration
MPNs-mediated
separation
learning-aided
methods
accurate
high-precision
quantification
nanoplastics,
which
tailored
include
complete
region
characteristic
peaks
diverse
contrast
traditional
manual
analysis
spectra
on
singular
peak.
Our
customized
system
(e.g.,
outlier
detection,
classification,
quantification)
allows
detectable
(accuracy
81.84%),
>
97%),
sensitive
(polystyrene
(PS),
poly(methyl
methacrylate)
(PMMA),
polyethylene
(PE),
poly(lactic
acid)
(PLA))
down
ultralow
concentrations
(0.1
ppm)
well
92%)
nanoplastic
mixtures
at
subppm
level.
The
effectiveness
this
approach
substantiated
by
its
ability
discern
between
different
detect
samples
natural
water
systems.
Scientific Reports,
Journal Year:
2025,
Volume and Issue:
15(1)
Published: April 11, 2025
Abstract
To
address
the
public
health
issue
of
renal
failure
and
global
shortage
nephrologists,
an
AI-based
system
has
been
developed
to
automatically
identify
kidney
diseases.
Recent
advancements
in
machine
learning,
deep
learning
(DL),
artificial
intelligence
(AI)
have
unlocked
new
possibilities
healthcare.
By
harnessing
these
technologies,
we
can
analyze
data
gain
insights
into
symptoms
patterns,
ultimately
facilitating
remote
patient
care.
create
diagnosis
for
disease,
this
paper
focused
on
three
major
categories
diseases:
stones,
cysts,
tumors,
which
were
collected
annotated
12,446
computed
tomography
(CT)
whole
abdomen
urogram
images.
effectively
aid
automatic
identification
diseases,
a
novel
DL
model
built
transfer-learning
(TL)
technology
is
implemented
work.
models
are
designed
focus
problems,
whereas
TL
uses
knowledge
acquired
while
resolving
one
another
pertinent
issue.
The
proposed
combines
multiple
improve
overall
performance
by
leveraging
strengths
different
architectures,
ensembles
enhance
accuracy,
robustness,
generalization.
It
enhances
features
extracted
from
MobileNet-V2,
ResNet50,
EfficientNet-B0
networks
using
metaheuristic
algorithms
bidirectional
long-short-term
memory
(Bi-LSTM)
CT
image.
MobileNetV2,
hyperparameters
optimized
modified
grey
wolf
optimization
(GWO)
approach
better
performance.
suggested
model’s
measured
five
assessment
metrics:
sensitivity,
specificity,
precision,
area
under
ROC
curve
(AUC)
achieved
99.85%
99.8%
99.3%
98.1%
1.0
AUC.
Advances in computational intelligence and robotics book series,
Journal Year:
2025,
Volume and Issue:
unknown, P. 379 - 404
Published: March 28, 2025
The
convergence
of
Artificial
Intelligence
(AI)
and
Cloud
Computing
has
ushered
in
a
new
era
innovation
across
various
industries,
including
healthcare.
AI,
with
its
ability
to
analyze
vast
datasets,
identify
patterns,
make
intelligent
decisions,
offers
transformative
potential
for
improving
patient
outcomes
enhancing
healthcare
efficiency.
Computing,
on
the
other
hand,
provides
scalable
flexible
infrastructure
storing,
processing,
accessing
data,
enabling
seamless
collaboration
among
professionals
development
innovative
applications.
This
overview
presents
comprehensive
intersection
AI
healthcare,
exploring
their
applications,
benefits,
challenges,
ethical
considerations.
survey
will
delve
into
aspects
cloud
computing
adoption
usage,
challenges
opportunities,
future
trends,
expectations.
Advances in computational intelligence and robotics book series,
Journal Year:
2025,
Volume and Issue:
unknown, P. 49 - 86
Published: March 28, 2025
This
chapter
explores
the
transformative
impact
of
Artificial
Intelligence
(AI)
on
applied
life
sciences,
with
a
focus
environmental
science.
It
begins
by
tracing
theoretical
foundations
AI
from
early
pioneers
like
Alan
Turing
and
John
McCarthy,
then
discusses
its
evolution
through
development
expert
systems
machine
learning
techniques.
The
highlights
AI's
significant
contributions
to
monitoring,
climate
change
prediction,
biodiversity
conservation,
showcasing
how
enhances
our
understanding
management
complex
systems.
also
examines
integration
satellite
data
sensor
networks
address
challenges.
Concluding
future
directions,
addresses
emerging
trends
ethical
considerations,
emphasizing
role
in
supporting
sustainable
goals.
overview
provides
foundational
context
for
sciences
sets
stage
exploring
broader
applications
subsequent
chapters.
Advances in computational intelligence and robotics book series,
Journal Year:
2025,
Volume and Issue:
unknown, P. 361 - 378
Published: March 28, 2025
The
integration
of
artificial
intelligence
(AI)
into
laboratory
automation
systems
is
revolutionizing
the
drug
discovery
process
by
enhancing
efficiency
and
accuracy
in
experimental
phases.
By
leveraging
machine
learning
algorithms
robotic
systems,
researchers
can
achieve
higher
throughput
compound
screening,
optimize
designs,
reduce
human
error.
A
case
study
was
discussed
that
demonstrated
successful
applications
AI
settings,
highlighting
advancements
high-throughput
data
analysis,
predictive
modeling.
Additionally,
we
address
challenges
associated
with
implementing
automation,
including
integration,
system
interoperability,
need
for
skilled
personnel.