BJR|Open,
Journal Year:
2023,
Volume and Issue:
6(1)
Published: Dec. 12, 2023
Abstract
Objectives
To
apply
CT-based
foundational
artificial
intelligence
(AI)
and
radiomics
models
for
predicting
overall
survival
(OS)
patients
with
locally
advanced
non-small
cell
lung
cancer
(NSCLC).
Methods
Data
449
retrospectively
treated
on
the
NRG
Oncology/Radiation
Therapy
Oncology
Group
(RTOG)
0617
clinical
trial
were
analyzed.
Foundational
AI,
radiomics,
features
evaluated
using
univariate
cox
regression
correlational
analyses
to
determine
independent
predictors
of
survival.
Several
fit
these
model
performance
was
nested
cross-validation
unseen
test
datasets
via
area
under
receiver-operator-characteristic
curves,
AUCs.
Results
For
all
patients,
combined
AI
achieved
AUCs
0.67
Random
Forest
(RF)
model.
The
RF
0.66.
In
low-dose
arm,
alone
AUC
0.67,
while
ensemble
0.65
support
vector
machine
(SVM).
high-dose
values
0.66
Conclusions
This
study
demonstrated
encouraging
results
application
prediction
outcomes.
More
research
is
warranted
understand
value
toward
improving
complementary
information.
Advances
in
knowledge
Using
radiomics-based
we
able
identify
significant
signatures
outcomes
NSCLC
a
national
cooperative
group
trial.
Associated
will
be
important
prospective
patients.
Radiation Research,
Journal Year:
2024,
Volume and Issue:
202(2)
Published: July 18, 2024
In
this
article
we
review
the
history
of
key
epidemiological
studies
populations
exposed
to
ionizing
radiation.
We
highlight
historical
and
recent
findings
regarding
radiation-associated
risks
for
incidence
mortality
cancer
non-cancer
outcomes
with
emphasis
on
study
design
methods
exposure
assessment
dose
estimation
along
brief
consideration
sources
bias
a
few
more
important
studies.
examine
from
Japanese
atomic
bomb
survivors,
persons
radiation
diagnostic
or
therapeutic
purposes,
those
environmental
including
Chornobyl
other
reactor
accidents,
occupationally
cohorts.
also
summarize
results
pooled
These
summaries
are
necessarily
brief,
but
provide
references
detailed
information.
discuss
possible
future
directions
study,
include
susceptible
populations,
new
data
sources,
designs
analysis.
Biomedical Physics & Engineering Express,
Journal Year:
2023,
Volume and Issue:
10(1), P. 015017 - 015017
Published: Nov. 23, 2023
Abstract
Purpose.
This
study
aims
to
predict
radiotherapy-induced
rectal
and
bladder
toxicity
using
computed
tomography
(CT)
magnetic
resonance
imaging
(MRI)
radiomics
features
in
combination
with
clinical
dosimetric
cancer
patients.
Methods.
A
total
of
sixty-three
patients
locally
advanced
who
underwent
three-dimensional
conformal
radiation
therapy
(3D-CRT)
were
included
this
study.
Radiomics
extracted
from
the
rectum
walls
pretreatment
CT
MR-T2W-weighted
images.
Feature
selection
was
performed
various
methods,
including
Least
Absolute
Shrinkage
Selection
Operator
(Lasso),
Minimum
Redundancy
Maximum
Relevance
(MRMR),
Chi-square
(Chi2),
Analysis
Variance
(ANOVA),
Recursive
Elimination
(RFE),
SelectPercentile.
Predictive
modeling
carried
out
machine
learning
algorithms,
such
as
K-nearest
neighbor
(KNN),
Support
Vector
Machine
(SVM),
Logistic
Regression
(LR),
Decision
Tree
(DT),
Random
Forest
(RF),
Naive
Bayes
(NB),
Gradient
Boosting
(XGB),
Linear
Discriminant
(LDA).
The
impact
Laplacian
Gaussian
(LoG)
filter
investigated
sigma
values
ranging
0.5
2.
Model
performance
evaluated
terms
area
under
receiver
operating
characteristic
curve
(AUC),
accuracy,
precision,
sensitivity,
specificity.
Results.
479
extracted,
59
selected.
pre-MRI
T2W
model
exhibited
highest
predictive
an
AUC:
91.0/96.57%,
accuracy:
90.38/96.92%,
precision:
90.0/97.14%,
sensitivity:
93.33/96.50%,
specificity:
88.09/97.14%.
These
results
achieved
both
original
image
LoG
(sigma
=
0.5–1.5)
based
on
LDA/DT-RF
classifiers
for
proctitis
cystitis,
respectively.
Furthermore,
data,
90.71/96.0%,
90.0/96.92%,
88.14/97.14%,
93.0/96.0%,
88.09/97.14%
acquired.
XGB/DT-XGB
cystitis
2)/LoG
0.5–2),
MRMR/RFE-Chi2
feature
methods
demonstrated
best
model.
MRMR/MRMR-Lasso
yielded
CT.
Conclusion.
MR
images
can
effectively
radiation-induced
cystitis.
found
that
LDA,
DT,
RF,
XGB
classifiers,
combined
MRMR,
RFE,
Chi2,
Lasso
along
filter,
offer
strong
performance.
With
inclusion
a
larger
training
dataset,
these
models
be
valuable
tools
personalized
radiotherapy
decision-making.
Advances in bioinformatics and biomedical engineering book series,
Journal Year:
2023,
Volume and Issue:
unknown, P. 147 - 166
Published: Dec. 29, 2023
This
chapter
explores
the
transformative
intersection
of
quantum
computing
and
healthcare,
particularly
in
realm
personalized
medicine.
The
amalgamation
healthcare
has
ushered
a
new
era
where
unique
genetic
profile
individuals
can
be
leveraged
to
craft
highly
tailored
medical
treatments.
Traditional
methods
often
fall
short
managing
immense
complexity
data,
necessitating
paradigm
shift.
Quantum
computing,
with
its
unprecedented
computational
capabilities,
especially
machine
learning,
emerges
as
revolutionary
technology
decipher
intricate
patterns
streamline
development
treatment
approaches.
delineates
objectives
medicine,
emphasizing
pivotal
role
enhancing
efficacy,
minimizing
adverse
effects,
tailoring
preventive
strategies,
facilitating
drug
discovery,
harnessing
advantages.
BJR|Open,
Journal Year:
2023,
Volume and Issue:
6(1)
Published: Dec. 12, 2023
Abstract
This
review
presents
and
discusses
the
ways
in
which
artificial
intelligence
(AI)
tools
currently
intervene,
or
could
potentially
intervene
future,
to
enhance
diverse
tasks
involved
radiotherapy
workflow.
The
framework
is
presented
on
2
different
levels
for
personalization
of
treatment,
distinct
methodologies.
first
level
clinically
well-established
anatomy-based
workflow,
known
as
adaptive
radiation
therapy.
second
referred
biology-driven
explored
research
literature
recently
appearing
some
preliminary
clinical
trials
personalized
treatments.
A
2-fold
role
AI
defined
according
these
levels.
In
streamline
improve
terms
time
variability
reductions
compared
conventional
workflow
instead
fully
relies
AI,
introduces
decision-making
opening
uncharted
frontiers
that
were
past
deemed
challenging
explore.
These
methodologies
are
radiomics
dosiomics,
handling
imaging
dosimetric
information,
multiomics,
when
complemented
by
biological
parameters
(ie,
biomarkers).
explicitly
highlights
incorporated
into
practice
still
research,
with
aim
presenting
AI’s
growing
radiotherapy.