Convergence of evolving artificial intelligence and machine learning techniques in precision oncology
npj Digital Medicine,
Journal Year:
2025,
Volume and Issue:
8(1)
Published: Jan. 31, 2025
The
confluence
of
new
technologies
with
artificial
intelligence
(AI)
and
machine
learning
(ML)
analytical
techniques
is
rapidly
advancing
the
field
precision
oncology,
promising
to
improve
diagnostic
approaches
therapeutic
strategies
for
patients
cancer.
By
analyzing
multi-dimensional,
multiomic,
spatial
pathology,
radiomic
data,
these
enable
a
deeper
understanding
intricate
molecular
pathways,
aiding
in
identification
critical
nodes
within
tumor's
biology
optimize
treatment
selection.
applications
AI/ML
oncology
are
extensive
include
generation
synthetic
e.g.,
digital
twins,
order
provide
necessary
information
design
or
expedite
conduct
clinical
trials.
Currently,
many
operational
technical
challenges
exist
related
data
technology,
engineering,
storage;
algorithm
development
structures;
quality
quantity
pipeline;
sharing
generalizability;
incorporation
into
current
workflow
reimbursement
models.
Language: Английский
Integration of Deep Learning and Sub-regional Radiomics Improves the Prediction of Pathological Complete Response to Neoadjuvant Chemoradiotherapy in Locally Advanced Rectal Cancer Patients
Academic Radiology,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 1, 2025
The
precise
prediction
of
response
to
neoadjuvant
chemoradiotherapy
is
crucial
for
tailoring
perioperative
treatment
in
patients
diagnosed
with
locally
advanced
rectal
cancer
(LARC).
This
retrospective
study
aims
develop
and
validate
a
model
that
integrates
deep
learning
sub-regional
radiomics
from
MRI
imaging
predict
pathological
complete
(pCR)
LARC.
We
retrospectively
enrolled
768
eligible
participants
three
independent
hospitals
who
had
received
followed
by
radical
surgery.
Pretreatment
pelvic
scans
(T2-weighted),
were
collected
annotation
feature
extraction.
K-means
approach
was
used
segment
the
tumor
into
sub-regions.
Radiomics
features
extracted
Pyradiomics
3D
ResNet50,
respectively.
predictive
models
developed
using
radiomics,
machine
algorithm
training
cohort,
then
validated
external
tests.
models'
performance
assessed
various
metrics,
including
area
under
curve
(AUC),
decision
analysis,
Kaplan-Meier
survival
analysis.
constructed
combined
model,
named
SRADL,
which
includes
signatures,
enabling
pCR
LARC
patients.
SRADL
satisfactory
cohort
(AUC
0.925
[95%
CI
0.894
0.948]),
test
1
0.915
0.869
0.949])
2
0.902
0.846
0.945]).
By
employing
optimal
threshold
0.486,
predicted
group
longer
compared
non-pCR
across
cohorts.
also
outperformed
other
single-modality
models.
novel
showed
high
accuracy
robustness
predicting
pretreatment
images,
making
it
promising
tool
personalized
management
Language: Английский
Predicting the early therapeutic response to hepatic artery infusion chemotherapy in patients with unresectable HCC using a contrast-enhanced computed tomography-based habitat radiomics model: a multi-center retrospective study
Mingsong Wu,
No information about this author
Zenglong Que,
No information about this author
Shujie Lai
No information about this author
et al.
Cellular Oncology,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Feb. 4, 2025
Predicting
the
therapeutic
response
before
initiation
of
hepatic
artery
infusion
chemotherapy
(HAIC)
with
fluorouracil,
leucovorin,
and
oxaliplatin
(FOLFOX)
remains
challenging
for
patients
unresectable
hepatocellular
carcinoma
(HCC).
Herein,
we
investigated
potential
a
contrast-enhanced
CT-based
habitat
radiomics
model
as
novel
approach
predicting
early
to
HAIC-FOLFOX
in
HCC.
A
total
148
HCC
who
received
combined
targeted
therapy
or
immunotherapy
at
three
tertiary
care
medical
centers
were
enrolled
retrospectively.
Tumor
features
extracted
from
subregion
based
on
CECT
different
phases
using
k-means
clustering.
Logistic
regression
was
used
construct
model.
This
CECT-based
verified
by
bootstrapping
compared
clinical
variables.
Model
performance
evaluated
area
under
curve
(AUC)
calibration
curve.
Three
intratumoral
habitats
high,
moderate,
low
enhancement
identified
prediction.
Patients
greater
proportion
high-enhancement
showed
better
responses.
The
AUC
0.857
(95%
CI:
0.798–0.916),
bootstrap-corrected
concordance
index
0.842
0.785–0.907),
resulting
predictive
value
than
variable-based
model,
which
had
an
0.757
0.679–0.834).
is
effective,
visualized,
noninvasive
tool
treatment
could
guide
management
decision-making.
Language: Английский
From images to clinical insights: an educational review on radiomics in lung diseases
C. Magnin,
No information about this author
David Lauer,
No information about this author
Michael Ammeter
No information about this author
et al.
Breathe,
Journal Year:
2025,
Volume and Issue:
21(1), P. 230225 - 230225
Published: Jan. 1, 2025
Radiological
imaging
is
a
cornerstone
in
the
clinical
workup
of
lung
diseases.
Radiomics
represents
significant
advancement
imaging,
offering
powerful
tool
to
complement
traditional
qualitative
image
analysis.
Radiomic
features
are
quantitative
and
computationally
describe
shape,
intensity,
texture
wavelet
characteristics
from
medical
images
that
can
uncover
detailed
often
subtle
information
goes
beyond
visual
capabilities
radiological
examiners.
By
extracting
this
information,
radiomics
provide
deep
insights
into
pathophysiology
diseases
support
decision-making
as
well
personalised
medicine
approaches.
In
educational
review,
we
step-by-step
guide
radiomics-based
analysis,
discussing
technical
challenges
pitfalls,
outline
potential
applications
diagnosing,
prognosticating
evaluating
treatment
responses
respiratory
medicine.
Language: Английский
Quantification of Intratumoral Heterogeneity Based on Habitat Analysis for Preoperative Assessment of Lymphovascular Invasion in Colorectal Cancer
Yexin Su,
No information about this author
Hongyue Zhao,
No information about this author
Zhehao Lyu
No information about this author
et al.
Academic Radiology,
Journal Year:
2025,
Volume and Issue:
unknown
Published: April 1, 2025
Preoperative
knowledge
of
the
status
lymphovascular
invasion
(LVI)
in
colorectal
cancer
(CRC)
patients
can
provide
valuable
information
for
choosing
appropriate
treatment
strategies.
This
study
aimed
to
explore
value
heterogeneity
features
derived
from
habitat
analysis
18F-fluorodeoxyglucose
(FDG)
positron
emission
tomography
(PET)
images
predicting
LVI.
Pretreatment
18F-FDG
PET/computed
(CT)
177
diagnosed
with
CRC
were
retrospectively
obtained
(training
cohort,
n=106;
validation
n=71).
Conventional
radiomics
and
habitat-derived
tumor
extracted
PET
scans.
The
output
probabilities
imaging-based
random
forest
model
used
generate
a
score
(Radscore)
intratumoral
(ITHscore).
Multivariate
logistic
regression
was
determine
independent
risk
factors
On
this
basis,
four
LVI
classification
models
developed
using
(a)
clinical
variables
(Clinical
model),
(b)
(ITHscore
(c)
(Radscore
(d)
variables,
features,
(Combined
model).
area
under
curve
(AUC)
decision
evaluate
performance.
Among
all
PET/CT-reported
lymph
node
status,
ITHscore,
Radscore
retained
as
predictors
related
(P<0.05).
predictive
effect
ITHscore
(AUC:
0.712)
better
than
that
0.650)
Clinical
0.652)
cohort.
Combined
achieved
effects
usefulness,
AUCs
training
cohorts
0.857
0.798,
respectively.
A
nomogram
established,
calibration
plot
well
fitted
(P>0.05).
In
addition,
results
Spearman's
rank
correlation
tests
showed
there
no
significant
between
(R=0.044,
P=0.655
cohort;
R=0.067,
P=0.580
cohort).
Our
is
novel
stable
quantitative
indicator
helpful
effectively
facilitating
stratification
after
integrating
features.
Language: Английский
From Images to Genes: Radiogenomics Based on Artificial Intelligence to Achieve Non‐Invasive Precision Medicine in Cancer Patients
Yusheng Guo,
No information about this author
Tianxiang Li,
No information about this author
Bingxin Gong
No information about this author
et al.
Advanced Science,
Journal Year:
2024,
Volume and Issue:
12(2)
Published: Nov. 13, 2024
Abstract
With
the
increasing
demand
for
precision
medicine
in
cancer
patients,
radiogenomics
emerges
as
a
promising
frontier.
Radiogenomics
is
originally
defined
methodology
associating
gene
expression
information
from
high‐throughput
technologies
with
imaging
phenotypes.
However,
advancements
medical
imaging,
omics
technologies,
and
artificial
intelligence,
both
concept
application
of
have
significantly
broadened.
In
this
review,
history
enumerated,
related
five
basic
workflows
their
applications
across
tumors,
role
AI
radiogenomics,
opportunities
challenges
tumor
heterogeneity,
immune
microenvironment.
The
positron
emission
tomography
multi‐omics
studies
also
discussed.
Finally,
faced
by
clinical
transformation,
along
future
trends
field
Language: Английский
Sub-regional CT Radiomics for the Prediction of Ki-67 Proliferation Index in Gastrointestinal Stromal Tumors: A Multi-center Study
Wemin Cai,
No information about this author
Kun Guo,
No information about this author
Yongxian Chen
No information about this author
et al.
Academic Radiology,
Journal Year:
2024,
Volume and Issue:
31(12), P. 4974 - 4984
Published: July 20, 2024
Language: Английский
[Advancements in Radiomics for Immunotherapy of Non-small Cell Lung Cancer].
Yue Hou,
No information about this author
Tianming Zhang,
No information about this author
Hong Wang
No information about this author
et al.
PubMed,
Journal Year:
2024,
Volume and Issue:
27(8), P. 637 - 644
Published: Aug. 20, 2024
Lung
cancer
is
the
main
cause
of
cancer-related
deaths,
with
non-small
cell
lung
(NSCLC)
being
predominant
subtype.
At
present,
immunotherapy
represented
by
immune
checkpoint
inhibitors
(ICIs)
programmed
death
receptor
1
or
its
ligand
has
been
widely
used
in
clinical
diagnosis
and
treatment
patients
NSCLC.
However,
only
a
few
can
benefit
from
it,
reliable
predictive
markers
for
are
lacking.
Radiomics
tool
that
uses
computer
software
algorithms
to
extract
large
amount
quantitative
information
biomedical
images.
A
number
studies
have
confirmed
radiomic
model
predicts
efficacy
NSCLC
be
as
new
type
marker,
which
expected
guide
individualized
decisions
bright
application
prospect.
This
article
reviews
research
progress
radiomics
predicting
therapy
response
NSCLC,
identifying
pseudo-progression
hyperprogression,
ICIs-related
pneumonia,
cachexia
risk,
combining
other
genomics.
.
Language: Английский
Computed tomography radiomics reveals prognostic value of immunophenotyping in laryngeal squamous cell carcinoma: a comparison of whole tumor- versus habitats-based approaches
Meng Qi,
No information about this author
Weiding Zhou,
No information about this author
Ying Yuan
No information about this author
et al.
BMC Medical Imaging,
Journal Year:
2024,
Volume and Issue:
24(1)
Published: Nov. 11, 2024
To
compare
the
performance
of
whole
tumor
and
habitats-based
computed
tomography
(CT)
radiomics
for
predicting
immunophenotyping
in
laryngeal
squamous
cell
carcinomas
(LSCC)
further
evaluate
stratified
effect
model
on
disease-free
survival
(DFS)
overall
(OS)
LSCC
patients.
Language: Английский
Development and validation of a prediction model based on two-dimensional dose distribution maps fused with computed tomography images for noninvasive prediction of radiochemotherapy resistance in non-small cell lung cancer
Translational Cancer Research,
Journal Year:
2023,
Volume and Issue:
0(0), P. 0 - 0
Published: Jan. 1, 2023
There
are
individualized
differences
in
the
prognosis
of
radiochemotherapy
for
non-small
cell
lung
cancer
(NSCLC),
and
accurate
prediction
is
essential
treatment.
This
study
proposes
to
explore
potential
multiregional
two-dimensional
(2D)
dosiomics
combined
with
radiomics
as
a
new
imaging
marker
prognostic
risk
stratification
NSCLC
patients
receiving
radiochemotherapy.
In
this
study,
365
histologically
confirmed
NSCLC,
who
had
computed
tomography
(CT)
scans
before
treatment,
received
standard
radiochemotherapy,
Karnofsky
Performance
Scale
(KPS)
scores
≥70
were
included
three
medical
institutions,
145
cases
excluded
due
surgery,
data
accuracy,
poor
image
quality,
presence
other
tumors.
Finally,
220
study.
Efficacy
evaluation
criteria
solid
tumors
used
evaluate
efficacy.
Complete
partial
remission
indicate
radiochemotherapy-sensitive
group,
disease
stability
progression
radiochemotherapy-resistant
group.
We
all
then
randomised
them
into
training
cohort
(154
cases)
validation
(66
7:3
ratio.
Radiomics
features
extracted
gross
tumor
volume
(GTV),
GTV-heat,
50
Gy-heat
screened.
2D
model
(DMGTV
DM50Gy),
(RMGTV),
radiomics-dosiomics
(RDM),
models
constructed,
predictive
performances
resistance
compared.
Subsequently,
performance
various
was
compared
by
receiver
operating
characteristic
(ROC)
curves
calculating
sensitivity
specificity.
The
multi-omics
clinical
integrated
patient
stratification.
DM50Gy
better
than
RMGTV
DMGTV,
area
under
curve
(AUC)
ROC
cohorts
0.764
[95%
confidence
interval
(CI):
0.687-0.841]
0.729
(95%
CI:
0.568-0.889).
And
RDM
performed
significantly
single
models,
AUC
0.836
0.773-0.899)
0.748
0.617-0.879),
respectively.
Hemoglobin
level
T
stage
independent
predictors
model.
containing
further
improved
both
cohorts,
0.844
0.781-0.907)
0.753
0.618-0.887).
Grouping
according
critical
value
revealed
significant
progression-free
survival
(PFS)
overall
(OS)
between
high-risk
low-risk
groups
(P<0.05).
Compared
traditional
model,
demonstrates
superior
performance.
based
on
data,
radiomics,
has
effectively
Through
precise
assessment,
doctors
can
understand
which
may
develop
treatment
optimize
plans
accordingly.
Language: Английский