Journal of Ultrasound in Medicine,
Journal Year:
2022,
Volume and Issue:
42(4), P. 869 - 879
Published: Aug. 16, 2022
To
explore
the
potential
value
of
ultrasound
radiomics
in
differentiating
between
benign
and
malignant
breast
nodules
by
extracting
radiomic
features
two-dimensional
(2D)
grayscale
images
establishing
a
logistic
regression
model.The
clinical
data
1000
female
patients
(500
pathologically
patients,
500
patients)
who
underwent
examinations
at
our
hospital
were
retrospectively
analyzed.
The
cases
randomly
divided
into
training
validation
sets
ratio
7:3.
Once
region
interest
(ROI)
lesion
was
manually
contoured,
Spearman's
rank
correlation,
least
absolute
shrinkage
selection
operator
(LASSO)
regression,
Boruta
algorithm
adopted
to
determine
optimal
establish
classification
model.
performance
model
assessed
using
area
under
receiver
operating
characteristic
curve
(AUC),
calibration
decision
curves
(DCA).Eight
selected
AUC
values
0.979
0.977
sets,
respectively
(P
=
.0029),
indicating
good
discriminative
ability
both
datasets.
Additionally,
DCA
suggested
that
model's
efficiency
application
superior.The
proposed
based
on
2D
could
facilitate
differential
diagnosis
nodules.
model,
which
constructed
identified
this
study,
demonstrated
diagnostic
be
useful
helping
clinicians
formulate
individualized
treatment
plans
for
patients.
Diagnostics,
Journal Year:
2023,
Volume and Issue:
13(17), P. 2760 - 2760
Published: Aug. 25, 2023
This
comprehensive
review
unfolds
a
detailed
narrative
of
Artificial
Intelligence
(AI)
making
its
foray
into
radiology,
move
that
is
catalysing
transformational
shifts
in
the
healthcare
landscape.
It
traces
evolution
from
initial
discovery
X-rays
to
application
machine
learning
and
deep
modern
medical
image
analysis.
The
primary
focus
this
shed
light
on
AI
applications
elucidating
their
seminal
roles
segmentation,
computer-aided
diagnosis,
predictive
analytics,
workflow
optimisation.
A
spotlight
cast
profound
impact
diagnostic
processes,
personalised
medicine,
clinical
workflows,
with
empirical
evidence
derived
series
case
studies
across
multiple
disciplines.
However,
integration
radiology
not
devoid
challenges.
ventures
labyrinth
obstacles
are
inherent
AI-driven
radiology—data
quality,
’black
box’
enigma,
infrastructural
technical
complexities,
as
well
ethical
implications.
Peering
future,
contends
road
ahead
for
paved
promising
opportunities.
advocates
continuous
research,
embracing
avant-garde
imaging
technologies,
fostering
robust
collaborations
between
radiologists
developers.
conclusion
underlines
role
catalyst
change
stance
firmly
rooted
sustained
innovation,
dynamic
partnerships,
steadfast
commitment
responsibility.
This
comprehensive
review
unfolds
a
detailed
narrative
of
Artificial
Intelligence
(AI)
making
its
foray
into
radiology,
move
that
is
catalysing
transformational
shifts
in
the
healthcare
landscape.
It
sheds
light
on
journey
from
pioneering
discovery
X-rays
to
today’s
intricate
imaging
technologies,
infused
with
machine
learning
and
deep
medical
image
analysis.
At
crux
this
lies
an
in-depth
study
AI
applications
elucidating
seminal
roles
segmentation,
computer-aided
diagnosis,
predictive
analytics,
workflow
optimisation.
A
spotlight
cast
profound
impact
diagnostic
processes,
personalised
medicine,
clinical
workflows,
empirical
evidence
derived
series
case
studies
across
multiple
disciplines.
However,
integration
radiology
not
devoid
challenges.
The
ventures
labyrinth
obstacles
are
inherent
AI-driven
—
data
quality,
’black
box’
enigma,
infrastructural
technical
complexities,
as
well
ethical
implications.
Peering
future,
contends
road
ahead
for
paved
promising
opportunities.
advocates
continuous
research,
embracing
avant-garde
fostering
robust
collaborations
between
radiologists
developers.
concludes
by
firmly
cementing
role
catalyst
change
stance
rooted
sustained
innovation,
dynamic
partnerships,
steadfast
commitment
responsibility.
Journal of Clinical Medicine,
Journal Year:
2023,
Volume and Issue:
12(4), P. 1372 - 1372
Published: Feb. 9, 2023
Recent
technological
advances
in
the
field
of
artificial
intelligence
hold
promise
addressing
medical
challenges
breast
cancer
care,
such
as
early
diagnosis,
subtype
determination
and
molecular
profiling,
prediction
lymph
node
metastases,
prognostication
treatment
response
probability
recurrence.
Radiomics
is
a
quantitative
approach
to
imaging,
which
aims
enhance
existing
data
available
clinicians
by
means
advanced
mathematical
analysis
using
intelligence.
Various
published
studies
from
different
fields
imaging
have
highlighted
potential
radiomics
clinical
decision
making.
In
this
review,
we
describe
evolution
AI
its
frontiers,
focusing
on
handcrafted
deep
learning
radiomics.
We
present
typical
workflow
practical
"how-to"
guide.
Finally,
summarize
methodology
implementation
cancer,
based
most
recent
scientific
literature
help
researchers
gain
fundamental
knowledge
emerging
technology.
Alongside
this,
discuss
current
limitations
integration
into
practice
with
conceptual
consistency,
curation,
technical
reproducibility,
adequate
accuracy,
translation.
The
incorporation
clinical,
histopathological,
genomic
information
will
enable
physicians
move
forward
higher
level
personalized
management
patients
cancer.
Journal of Magnetic Resonance Imaging,
Journal Year:
2023,
Volume and Issue:
59(2), P. 613 - 625
Published: May 18, 2023
Background
Radiomics
has
been
applied
for
assessing
lymphovascular
invasion
(LVI)
in
patients
with
breast
cancer.
However,
associations
between
features
from
peritumoral
regions
and
the
LVI
status
were
not
investigated.
Purpose
To
investigate
value
of
intra‐
radiomics
LVI,
to
develop
a
nomogram
assist
making
treatment
decisions.
Study
Type
Retrospective.
Population
Three
hundred
sixteen
enrolled
two
centers
divided
into
training
(
N
=
165),
internal
validation
83),
external
68)
cohorts.
Field
Strength/Sequence
1.5
T
3.0
T/dynamic
contrast‐enhanced
(DCE)
diffusion‐weighted
imaging
(DWI).
Assessment
extracted
selected
based
on
magnetic
resonance
(MRI)
sequences
create
multiparametric
MRI
combined
signature
(RS‐DCE
plus
DWI).
The
clinical
model
was
built
MRI‐axillary
lymph
nodes
(MRI
ALN),
MRI‐reported
edema
(MPE),
apparent
diffusion
coefficient
(ADC).
constructed
RS‐DCE
DWI,
ALN,
MPE,
ADC.
Statistical
Tests
Intra‐
interclass
correlation
analysis,
Mann–Whitney
U
test,
least
absolute
shrinkage
selection
operator
regression
used
feature
selection.
Receiver
operating
characteristic
decision
curve
analyses
compare
performance
model,
nomogram.
Results
A
total
10
found
be
associated
3
7
areas.
showed
good
(AUCs,
vs.
0.884
0.695
0.870),
0.813
0.794),
0.862
0.601
0.849)
Data
Conclusion
preoperative
might
effectively
assess
LVI.
Level
Evidence
Technical
Efficacy
Stage
2
Current Oncology,
Journal Year:
2024,
Volume and Issue:
31(1), P. 403 - 424
Published: Jan. 10, 2024
The
aim
of
this
informative
review
was
to
investigate
the
application
radiomics
in
cancer
imaging
and
summarize
results
recent
studies
support
oncological
with
particular
attention
breast
cancer,
rectal
primitive
secondary
liver
cancer.
This
also
aims
provide
main
findings,
challenges
limitations
current
methodologies.
Clinical
published
last
four
years
(2019–2022)
were
included
review.
Among
19
analyzed,
none
assessed
differences
between
scanners
vendor-dependent
characteristics,
collected
images
individuals
at
additional
points
time,
performed
calibration
statistics,
represented
a
prospective
study
registered
database,
conducted
cost-effectiveness
analysis,
reported
on
clinical
application,
or
multivariable
analysis
non-radiomics
features.
Seven
reached
high
radiomic
quality
score
(RQS),
seventeen
earned
by
using
validation
steps
considering
two
datasets
from
distinct
institutes
open
science
data
domains
(radiomics
features
calculated
set
representative
ROIs
are
source).
potential
is
increasingly
establishing
itself,
even
if
there
still
several
aspects
be
evaluated
before
passage
into
routine
practice.
There
challenges,
including
need
for
standardization
across
all
stages
workflow
cross-site
real-world
heterogeneous
datasets.
Moreover,
multiple
centers
more
samples
that
add
inter-scanner
characteristics
will
needed
future,
as
well
collecting
time
points,
reporting
statistics
performing
database.
European Radiology Experimental,
Journal Year:
2023,
Volume and Issue:
7(1)
Published: Nov. 7, 2023
Breast
cancer
screening
through
mammography
is
crucial
for
early
detection,
yet
the
demand
services
surpasses
capacity
of
radiologists.
Artificial
intelligence
(AI)
can
assist
in
evaluating
microcalcifications
on
mammography.
We
developed
and
tested
an
AI
model
localizing
characterizing
microcalcifications.Three
expert
radiologists
annotated
a
dataset
mammograms
using
histology-based
ground
truth.
The
was
partitioned
training,
validation,
testing.
Three
neural
networks
(AlexNet,
ResNet18,
ResNet34)
were
trained
evaluated
specific
metrics
including
receiver
operating
characteristics
area
under
curve
(AUC),
sensitivity,
specificity.
reported
computed
test
set
(10%
whole
dataset).The
included
1,000
patients
aged
21-73
years
1,986
(180
density
A,
220
B,
380
C,
D),
with
389
malignant
611
benign
groups
microcalcifications.
AlexNet
achieved
best
performance
0.98
0.89
specificity
of,
AUC
detection
0.85
specificity,
0.94
classification.
For
ResNet18
ResNet34
0.96
0.97
0.91
0.90
AUC,
retrospectively.
classification,
exhibited
0.75
0.84
0.88
0.92
respectively.The
models
accurately
detect
characterize
mammography.AI-based
systems
have
potential
to
interpreting
mammograms.
study
highlights
importance
developing
reliable
deep
learning
possibly
applied
breast
screening.•
A
novel
tool
aid
interpretation
by
detecting
•
trained,
validated,
demonstrated
high
accuracy
detecting/localizing
mammography,
highlighting
AI-based