Artificial Intelligence Surgery,
Journal Year:
2024,
Volume and Issue:
4(3), P. 214 - 32
Published: Sept. 2, 2024
Artificial
intelligence
(AI)
is
currently
utilized
across
numerous
medical
disciplines.
Nevertheless,
despite
its
promising
advancements,
AI’s
integration
in
hand
surgery
remains
early
stages
and
has
not
yet
been
widely
implemented,
necessitating
continued
research
to
validate
efficacy
ensure
safety.
Therefore,
this
review
aims
provide
an
overview
of
the
utilization
AI
surgery,
emphasizing
current
application
clinical
practice,
along
with
potential
benefits
associated
challenges.
A
comprehensive
literature
search
was
conducted
PubMed,
Embase,
Medline,
Cochrane
libraries,
adhering
Preferred
reporting
items
for
systematic
reviews
meta-analyses
(PRISMA)
guidelines.
The
focused
on
identifying
articles
related
utilizing
multiple
relevant
keywords.
Each
identified
article
assessed
based
title,
abstract,
full
text.
primary
1,228
articles;
after
inclusion/exclusion
criteria
manual
bibliography
included
articles,
a
total
98
were
covered
review.
wrist
diagnostic,
which
includes
fracture
detection,
carpal
tunnel
syndrome
(CTS),
avascular
necrosis
(AVN),
osteoporosis
screening.
Other
applications
include
residents’
training,
patient-doctor
communication,
surgical
assistance,
outcome
prediction.
Consequently,
very
tool
that
though
further
necessary
fully
integrate
it
into
practice.
Cancers,
Journal Year:
2024,
Volume and Issue:
16(4), P. 700 - 700
Published: Feb. 7, 2024
In
the
evolving
landscape
of
medical
imaging,
escalating
need
for
deep-learningmethods
takes
center
stage,
offering
capability
to
autonomously
acquire
abstract
datarepresentations
crucial
early
detection
and
classification
cancer
treatment.
Thecomplexities
in
handling
diverse
inputs,
high-dimensional
features,
subtle
patternswithin
imaging
data
are
acknowledged
as
significant
challenges
this
technologicalpursuit.
This
Special
Issue,
“Recent
Advances
Deep
Learning
Medical
Imagingfor
Cancer
Treatment”,
has
attracted
19
high-quality
articles
that
cover
state-of-the-artapplications
technical
developments
deep
learning,
automaticdetection,
classification,
explainable
artificial
intelligence-enabled
diagnosis
cancertreatment.
ever-evolving
treatment,
five
pivotal
themes
haveemerged
beacons
transformative
change.
editorial
delves
into
realms
ofinnovation
shaping
future
focusing
on
interconnectedthemes:
use
intelligence
applications
AI
cancerdiagnosis
addressing
image
analysis,
advancementsin
techniques,
innovations
skin
classification.
BMC Infectious Diseases,
Journal Year:
2024,
Volume and Issue:
24(1)
Published: June 1, 2024
Abstract
Background
Leishmaniasis,
an
illness
caused
by
protozoa,
accounts
for
a
substantial
number
of
human
fatalities
globally,
thereby
emerging
as
one
the
most
fatal
parasitic
diseases.
The
conventional
methods
employed
detecting
Leishmania
parasite
through
microscopy
are
not
only
time-consuming
but
also
susceptible
to
errors.
Therefore,
main
objective
this
study
is
develop
model
based
on
deep
learning,
subfield
artificial
intelligence,
that
could
facilitate
automated
diagnosis
leishmaniasis.
Methods
In
research,
we
introduce
LeishFuNet,
learning
framework
designed
parasites
in
microscopic
images.
To
enhance
performance
our
same-domain
transfer
initially
train
four
distinct
models:
VGG19,
ResNet50,
MobileNetV2,
and
DenseNet
169
dataset
related
another
infectious
disease,
COVID-19.
These
trained
models
then
utilized
new
pre-trained
fine-tuned
set
292
self-collected
high-resolution
images,
consisting
138
positive
cases
154
negative
cases.
final
prediction
generated
fusion
information
analyzed
these
models.
Grad-CAM,
explainable
intelligence
technique,
implemented
demonstrate
model’s
interpretability.
Results
results
utilizing
amastigotes
images
follows:
accuracy
98.95
1.4%,
specificity
98
2.67%,
sensitivity
100%,
precision
97.91
2.77%,
F1-score
98.92
1.43%,
Area
Under
Receiver
Operating
Characteristic
Curve
99
1.33.
Conclusion
newly
devised
system
precise,
swift,
user-friendly,
economical,
thus
indicating
potential
substitute
prevailing
leishmanial
diagnostic
techniques.
Journal of Materials Informatics,
Journal Year:
2025,
Volume and Issue:
5(2)
Published: March 19, 2025
In
this
study,
we
innovatively
proposed
a
deep
learning
model
architecture
to
address
the
industry
challenges
in
detection
of
porosity
magnesium
alloys.
Magnesium
alloys,
known
for
their
lightweight
and
high-strength
characteristics,
are
extensively
utilized
aerospace,
automotive,
biomedical
fields.
However,
absorption
hydrogen
during
production
process
leads
formation
pores,
which
not
only
reduce
material’s
strength
durability
but
may
also
cause
premature
failure
material.
The
pores
typically
occurs
solidification
stage
where
dissolved
molten
metal
is
released
upon
cooling,
forming
tiny
gas
pores.
presence
these
significantly
affects
mechanical
properties
material,
potentially
leading
crack
initiation
propagation
under
high
stress.
Therefore,
accurate
quantification
crucial
enhancing
quality
control
Our
developed
integrates
window-shaped
perception
blocks
with
convolutional
neural
networks,
enhanced
by
aggregated
sensing
layers
(ASLs)
on
long-range
connections.
Extensive
training
real
samples
demonstrated
that
our
outperforms
mainstream
algorithms
such
as
U-Net
TransUNet
across
various
evaluation
metrics,
particularly
fine
target
tasks
complex
scenarios.
Specifically,
achieved
Dice
coefficient
74.77%
an
Intersection
over
Union
index
71.00%,
surpassing
other
models.
Moreover,
method
superior
accuracy
pore
edge
prediction,
effectively
mitigating
issues
oversegmentation
undersegmentation,
especially
small
irregular
An
ablation
study
further
confirmed
effectiveness
each
component,
ASL
module
showing
particular
feature
extraction
reducing
upsampling
loss.
summary,
research
highlights
significant
potential
technology
material
defect
provides
efficient,
automated
solution
practical
production,
contributing
advancements
materials
science
industrial
control.
Intelligent Systems with Applications,
Journal Year:
2024,
Volume and Issue:
23, P. 200415 - 200415
Published: July 10, 2024
Generalisation
across
multiple
tasks
is
a
major
challenge
in
deep
learning
for
medical
imaging
applications,
as
it
can
cause
catastrophic
forgetting
problem.
One
commonly
adopted
approach
to
address
these
challenges
train
the
model
from
scratch,
incorporating
old
and
new
data,
classes,
tasks.
However,
this
solution
comes
with
its
downsides,
time-consuming,
requires
high
computational
resources,
susceptible
bias,
lacks
flexibility.
To
effectively
issues,
paper
introduces
generalisable
DL
framework
that
consists
of
three
key
components:
self-supervised
learning,
feature
fusion
single
task,
classes
or
Using
proposed
framework,
models
SVM
classifier
accurately
detect
abnormalities
X-ray
tasks,
including
humerus
wrist,
achieving
an
accuracy
92.71%
90.74%,
respectively.
These
results
were
achieved
using
minimal
training
requirements
when
introduced.
Another
experiment
was
performed
on
chest
X-rays,
where
added
pre-existing
ones.
Without
requiring
retraining
both
our
combined
class
98.18%.
This
demonstrates
has
not
forgotten
data.
The
enhances
performance
brings
flexibility
efficiency
process,
saving
time
resources.
International Journal of Cognitive Computing in Engineering,
Journal Year:
2024,
Volume and Issue:
5, P. 221 - 236
Published: Jan. 1, 2024
High
dropout
rates
globally
perpetuate
educational
disparities
with
various
underlying
causes.
Despite
numerous
strategies
to
address
this
issue,
more
attention
should
be
given
understanding
and
addressing
student
emotions
during
classes.
This
lack
of
focus
adversely
affects
learner
engagement
retention
rates.
While
previous
studies
on
online
learning
have
primarily
emphasized
the
effectiveness
technology,
infrastructure,
cognition,
motivation,
economic
benefits,
there
is
still
a
gap
in
emotional
aspects
distance
learning.
First,
study
addresses
by
employing
thematic
modeling
utilizing
non-negative
matrix
factorization
(NMF)
for
emotion
recognition
through
students'
deep
techniques
facial
(FER).
Second,
statistical
analysis
these
findings
further
augments
depth
study.
Finally,
research
proposes
mathematical
model
based
random
walk
state
transitions.
The
underscore
importance
considering
environments
their
significant
impact
student's
academic
performance
satisfaction.
By
acknowledging
factors,
educators
can
enhance
engagement,
promote
positive
emotions,
mitigate
negative
learning,
ultimately
improve
courses.
This
work
overcomes
the
limitations
of
sparsely
labeled
data
by
optimizing
ResNet
transfer
learning
methods
in
medical
classification
images.
Using
a
deductive
approach
along
with
interpretive
philosophy,
we
optimize
for
better
diagnostic
performance
on
healthcare
sets.
Our
team
technical
includes
preprocessing
datasets,
configuring
model
architectures,
and
fine-tuning
hyperparameters
using
secondary
data.
The
improved
as
demonstrated
results
is
confirmed
metrics
such
precision,
reliability,
recall.
Analyses
comparisons
demonstrate
superiority
over
basic
models.
Upcoming
tasks
include
working
together
to
create
standardized
benchmarks,
improving
interpretability
scalability,
verifying
actual
clinical
settings.
International Journal of Advanced Computer Science and Applications,
Journal Year:
2024,
Volume and Issue:
15(6)
Published: Jan. 1, 2024
In
this
paper,
we
propose
the
FEC-IGE
framework
includes
data
preprocessing,
augmentation,
transfer
learning,
and
fine-tuning
of
pre-trained
model
convolutional
neural
network
(CNN)
architecture
for
problem
bone
fracture
classification.
Bone
fractures
are
a
widespread
medical
issue
globally,
with
significant
prevalence
imposing
substantial
burdens
on
individuals
healthcare
systems.
The
impact
extends
beyond
physical
injury,
often
leading
to
pain,
reduced
mobility,
decreased
quality
life
affected
individuals.
Moreover,
can
incur
economic
costs
due
expenses,
rehabilitation,
lost
productivity.
recent
years,
progress
in
machine
learning
methodologies
has
exhibited
potential
tackling
issues
pertaining
diagnosis
By
harnessing
capabilities
deep
frameworks,
scholars
aspire
design
precise
effective
mechanisms
automatically
detecting
classifying
from
imaging
data.
study,
demonstrated
its
strength
when
applied
models
CNN
task
X-ray
images
accuracies
98.48%,
96.92%,
97.24%
three
experimental
scenarios.
These
outcomes
consequence
model's
procedures
an
enhanced
dataset
including
1129
pictures
classified
into
ten
different
kinds
fractures:
avulsion
fracture,
comminuted
dislocation,
greenstick
hairline
impacted
longitudinal
oblique
pathological
spiral
fracture.
To
increase
transparency
understanding
model,
Integrated
Gradients
explanation
was
also
study.
Finally,
metrics
precision,
recall,
F1
score,
confusion
matrix
were
evaluate
performance
other
in-depth
analysis.
2022 IEEE 7th International conference for Convergence in Technology (I2CT),
Journal Year:
2024,
Volume and Issue:
unknown
Published: April 5, 2024
Combining
the
strengths
of
GoogleNet
and
Capsule
Neural
Network
(CNN)
models
represents
a
novel
approach
to
enhance
categorization
bone
cancers,
critical
aspect
for
accurate
diagnosis
effective
therapy
planning.
Current
classification
techniques
often
encounter
challenges
in
achieving
both
resilience
high
accuracy.
In
this
study,
we
address
these
issues
by
leveraging
distinct
features
extracted
from
tumor
images
using
model.
These
are
subsequently
fed
into
CNN
model,
known
its
proficiency
capturing
complex
spatial
correlations
within
data.
The
proposed
fusion
strategy
aims
improve
precision
synergistically
utilizing
two
models.
efficacy
is
evaluated
on
publicly
available
dataset,
revealing
notable
accuracy
96.7%.
Comparative
analysis
against
state-of-the-art
underscores
superior
performance
integrated
conclusion,
amalgamation
presents
promising
avenue
advancing
classification,
potentially
leading
more
diagnoses
treatment
plans
individuals
with
conditions.
Information,
Journal Year:
2023,
Volume and Issue:
14(10), P. 582 - 582
Published: Oct. 23, 2023
In
this
paper,
we
present
a
new
method
for
multitask
learning
applied
to
ultrasound
beamforming.
Beamforming
is
critical
component
in
the
image
formation
pipeline.
Ultrasound
images
are
constructed
using
sensor
readings
from
multiple
transducer
elements,
with
each
element
typically
capturing
acquisitions
per
frame.
Hence,
beamformer
crucial
framerate
performance
and
overall
quality.
Furthermore,
post-processing,
such
as
denoising,
usually
beamformed
achieve
high
clarity
diagnosis.
This
work
shows
fully
convolutional
neural
network
that
can
learn
different
tasks
by
applying
weight
normalization
scheme.
We
adapt
our
model
both
frame
rate
requirements
fitting
parameters
sub-sampling
task
denoising
optimizing
speckle
reduction
task.
Our
outperforms
single-angle
delay
sum
on
pixel-level
measures
noise
reduction,
subsampling,
reconstruction.