Significant
and
rapid
advancements
in
cancer
research
have
been
attributed
to
Artificial
Intelligence
(AI).
However,
AI's
role
impact
on
the
clinical
side
has
limited.
This
discrepancy
manifests
due
overlooked,
yet
profound,
differences
practices
oncology.
Our
contribution
seeks
scrutinize
physicians'
engagement
with
AI
by
interviewing
7
medical-imaging
experts
disentangle
its
future
alignment
across
workflows,
diverging
from
existing
"one-size-fits-all"
paradigm
within
Human-Centered
discourses.
analysis
revealed
that
trust
is
less
dependent
their
general
acceptance
of
AI,
but
more
contestable
experiences
AI.
Contestability,
underpins
need
for
personal
supervision
outcomes
processes,
i.e.,
clinician-in-the-loop.
Finally,
we
discuss
tensions
desired
attributes
such
as
explainability
control,
contextualizing
them
divergent
intentionality
scope
workflows.
Radiology,
Journal Year:
2020,
Volume and Issue:
295(2), P. 328 - 338
Published: March 10, 2020
The
image
biomarker
standardisation
initiative
(IBSI)
is
an
independent
international
collaboration
which
works
towards
standardising
the
extraction
of
biomarkers
from
acquired
imaging
for
purpose
high-throughput
quantitative
analysis
(radiomics).
Lack
reproducibility
and
validation
studies
considered
to
be
a
major
challenge
field.
Part
this
lies
in
scantiness
consensus-based
guidelines
definitions
process
translating
into
biomarkers.
IBSI
therefore
seeks
provide
nomenclature
definitions,
benchmark
data
sets,
values
verify
processing
calculations,
as
well
reporting
guidelines,
analysis.
British Journal of Radiology,
Journal Year:
2020,
Volume and Issue:
93(1108)
Published: Feb. 26, 2020
Historically,
medical
imaging
has
been
a
qualitative
or
semi-quantitative
modality.
It
is
difficult
to
quantify
what
can
be
seen
in
an
image,
and
turn
it
into
valuable
predictive
outcomes.
As
result
of
advances
both
computational
hardware
machine
learning
algorithms,
computers
are
making
great
strides
obtaining
quantitative
information
from
correlating
with
Radiomics,
its
two
forms
“handcrafted
deep,”
emerging
field
that
translates
images
data
yield
biological
enable
radiologic
phenotypic
profiling
for
diagnosis,
theragnosis,
decision
support,
monitoring.
Handcrafted
radiomics
multistage
process
which
features
based
on
shape,
pixel
intensities,
texture
extracted
radiographs.
Within
this
review,
we
describe
the
steps:
starting
data,
how
extracted,
correlate
clinical
outcomes,
resulting
models
used
make
predictions,
such
as
survival,
detection
classification
diagnostics.
The
application
deep
learning,
second
arm
radiomics,
place
workflow
discussed,
along
advantages
disadvantages.
To
better
illustrate
technologies
being
used,
provide
real-world
applications
oncology,
showcasing
research
well
covering
limitations
future
direction.
European Radiology,
Journal Year:
2020,
Volume and Issue:
31(2), P. 1049 - 1058
Published: Aug. 18, 2020
Abstract
Objectives
Radiomics
is
the
extraction
of
quantitative
data
from
medical
imaging,
which
has
potential
to
characterise
tumour
phenotype.
The
radiomics
approach
capacity
construct
predictive
models
for
treatment
response,
essential
pursuit
personalised
medicine.
In
this
literature
review,
we
summarise
current
status
and
evaluate
scientific
reporting
quality
research
in
prediction
response
non-small-cell
lung
cancer
(NSCLC).
Methods
A
comprehensive
search
was
conducted
using
PubMed
database.
total
178
articles
were
screened
eligibility
14
peer-reviewed
included.
score
(RQS),
a
radiomics-specific
metric
emulating
TRIPOD
guidelines,
used
assess
quality.
Results
Included
studies
reported
several
markers
including
first-,
second-
high-order
features,
such
as
kurtosis,
grey-level
uniformity
wavelet
HLL
mean
respectively,
well
PET-based
metabolic
parameters.
Quality
assessment
demonstrated
low
median
+
2.5
(range
−
5
9),
mainly
reflecting
lack
reproducibility
clinical
evaluation.
There
extensive
heterogeneity
between
due
differences
patient
population,
stage,
modality,
follow-up
timescales
workflow
methodology.
Conclusions
not
yet
been
translated
into
use.
Efforts
towards
standardisation
collaboration
are
needed
identify
reproducible
radiomic
predictors
response.
Promising
must
be
externally
validated
their
impact
evaluated
within
pathway
before
they
can
implemented
decision-making
tool
facilitate
patients
with
NSCLC.
Key
Points
•
included
promising
cancer;
however,
there
studies.
(RQS)
9).
Future
should
focus
on
implementation
standardised
features
software,
together
external
validation
prospective
setting.
European Journal of Hybrid Imaging,
Journal Year:
2020,
Volume and Issue:
4(1)
Published: Sept. 22, 2020
Abstract
This
brief
review
summarizes
the
major
applications
of
artificial
intelligence
(AI),
in
particular
deep
learning
approaches,
molecular
imaging
and
radiation
therapy
research.
To
this
end,
five
generic
fields
therapy,
including
PET
instrumentation
design,
image
reconstruction
quantification
segmentation,
denoising
(low-dose
imaging),
dosimetry
computer-aided
diagnosis,
outcome
prediction
are
discussed.
sets
out
to
cover
briefly
fundamental
concepts
AI
followed
by
a
presentation
seminal
achievements
challenges
facing
their
adoption
clinical
setting.
Sensors,
Journal Year:
2022,
Volume and Issue:
22(5), P. 1960 - 1960
Published: March 2, 2022
Advances
in
technology
have
been
able
to
affect
all
aspects
of
human
life.
For
example,
the
use
medicine
has
made
significant
contributions
society.
In
this
article,
we
focus
on
assistance
for
one
most
common
and
deadly
diseases
exist,
which
is
brain
tumors.
Every
year,
many
people
die
due
tumors;
based
"braintumor"
website
estimation
U.S.,
about
700,000
primary
tumors,
85,000
are
added
every
year.
To
solve
problem,
artificial
intelligence
come
aid
humans.
Magnetic
resonance
imaging
(MRI)
method
diagnose
Additionally,
MRI
commonly
used
medical
image
processing
dissimilarity
different
parts
body.
study,
conducted
a
comprehensive
review
existing
efforts
applying
types
deep
learning
methods
data
determined
challenges
domain
followed
by
potential
future
directions.
One
branches
that
very
successful
images
CNN.
Therefore,
survey,
various
architectures
CNN
were
reviewed
with
images,
especially
images.
BMC Cancer,
Journal Year:
2021,
Volume and Issue:
21(1)
Published: Sept. 26, 2021
Abstract
Background
Artificial
intelligence
(AI)
is
increasingly
being
used
in
medical
imaging
analysis.
We
aimed
to
evaluate
the
diagnostic
accuracy
of
AI
models
for
detection
lymph
node
metastasis
on
pre-operative
staging
colorectal
cancer.
Methods
A
systematic
review
was
conducted
according
PRISMA
guidelines
using
a
literature
search
PubMed
(MEDLINE),
EMBASE,
IEEE
Xplore
and
Cochrane
Library
studies
published
from
January
2010
October
2020.
Studies
reporting
radiomics
and/or
deep
learning
cancer
by
CT/MRI
were
included.
Conference
abstracts
image
segmentation
rather
than
nodal
classification
excluded.
The
quality
assessed
modified
questionnaire
QUADAS-2
criteria.
Characteristics
measures
each
study
extracted.
Pooling
area
under
receiver
operating
characteristic
curve
(AUROC)
calculated
meta-analysis.
Results
Seventeen
eligible
identified
inclusion
review,
which
12
five
models.
High
risk
bias
found
two
there
significant
heterogeneity
among
papers
(73.0%).
In
rectal
cancer,
per-patient
AUROC
0.808
(0.739–0.876)
0.917
(0.882–0.952)
models,
respectively.
Both
performed
better
radiologists
who
had
an
0.688
(0.603
0.772).
Similarly
with
0.727
(0.633–0.821)
outperformed
radiologist
0.676
(0.627–0.725).
Conclusion
have
potential
predict
more
accurately
however,
are
heterogeneous
scarce.
Trial
registration
PROSPERO
CRD42020218004
.
European Journal of Nuclear Medicine and Molecular Imaging,
Journal Year:
2022,
Volume and Issue:
50(2), P. 352 - 375
Published: Nov. 3, 2022
The
purpose
of
this
guideline
is
to
provide
comprehensive
information
on
best
practices
for
robust
radiomics
analyses
both
hand-crafted
and
deep
learning-based
approaches.
Clinical Radiology,
Journal Year:
2023,
Volume and Issue:
78(2), P. 83 - 98
Published: Jan. 11, 2023
Radiomics
is
a
rapidly
developing
field
of
research
focused
on
the
extraction
quantitative
features
from
medical
images,
thus
converting
these
digital
images
into
minable,
high-dimensional
data,
which
offer
unique
biological
information
that
can
enhance
our
understanding
disease
processes
and
provide
clinical
decision
support.
To
date,
most
radiomics
has
been
oncological
applications;
however,
it
increasingly
being
used
in
raft
other
diseases.
This
review
gives
an
overview
for
audience,
including
pipeline
common
pitfalls
associated
with
each
stage.
Key
studies
oncology
are
presented
focus
both
those
use
analysis
alone
integrate
its
multimodal
data
streams.
Importantly,
applications
outside
also
presented.
Finally,
we
conclude
by
offering
vision
future,
how
might
impact
practice
as
radiologists.
La radiologia medica,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 28, 2025
Abstract
Purpose
Build
machine
learning
(ML)
models
able
to
predict
pathological
complete
response
(pCR)
after
neoadjuvant
chemotherapy
(NAC)
in
breast
cancer
(BC)
patients
based
on
conventional
and
radiomic
signatures
extracted
from
baseline
[
18
F]FDG
PET/CT.
Material
methods
Primary
tumor
the
most
significant
lymph
node
metastasis
were
manually
segmented
PET/CT
of
52
newly
diagnosed
BC
patients.
Clinical
parameters,
NAC
semiquantitative
PET
parameters
collected.
The
standard
reference
considered
was
surgical
pCR
(ypT0;ypN0).
Eight-hundred-fifty-four
features
(RFts)
both
CT
datasets,
according
IBSI;
robust
RFTs
selected.
cohort
split
training
(70%)
validation
(30%)
sets.
Four
ML
Models
(Clinical
Model,
Model_T
+
N)
each
one
with
3
learners
(Random
Forest
(RF),
Neural
Network
Stochastic
Gradient
Descendent)
trained
tested
using
RFts
clinical
signatures.
built
considering
either
primary
alone
(PET
Model_T)
or
also
including
N).
Results
72
uptakes
(52
20
metastasis)
at
segmented.
occurred
44.2%
cases.
Twelve,
46
141
selected
N,
respectively.
showed
better
performance
than
Models.
best
performances
obtained
by
RF
algorithm
N
(AUC
=
0.83;CA
0.74;TP
78%;TN
72%).
Conclusion
could
concur
prediction
improve
management.