Biomedicine,
Journal Year:
2024,
Volume and Issue:
14(4)
Published: Dec. 1, 2024
Background:
One
of
the
most
challenging
cancers
is
triple-negative
breast
cancer,
which
subdivided
into
many
molecular
subtypes.
Due
to
high
degree
heterogeneity,
role
precision
medicine
remains
challenging.
With
use
machine
learning
(ML)-guided
gene
selection,
differential
expression
analysis
can
be
optimized,
and
eventually,
process
see
great
advancement
through
biomarker
discovery.
Journal of Oncology Research,
Journal Year:
2022,
Volume and Issue:
5(1)
Published: Nov. 2, 2022
Early
diagnosis
of
breast
cancer
does
not
only
increase
the
chances
survival
but
also
control
diffusion
cancerous
cells
in
body.
Previously,
researchers
have
developed
machine
learning
algorithms
such
as
Support
Vector
Machine,
K-Nearest
Neighbor,
Convolutional
Neural
Network,
K-means,
Fuzzy
C-means,
Principle
Component
Analysis
(PCA)
and
Naive
Bayes.
Unfortunately
these
fall
short
one
way
or
another
due
to
high
levels
computational
complexities.
For
instance,
support
vector
employs
feature
elimination
scheme
for
eradicating
data
ambiguity
detecting
tumors
at
initial
stage.
However
this
is
expensive
terms
execution
time.
On
its
part,
k-means
algorithm
Euclidean
distance
determine
between
cluster
centers
points.
guarantee
accuracy
when
executed
different
iterations.
Although
K-nearest
Neighbor
reduction,
principle
component
analysis
10
fold
cross
validation
methods
enhancing
classification
accuracy,
it
efficient
processing
other
hand,
fuzzy
c-means
fuzziness
value
termination
criteria
time
on
datasets.
However,
proves
be
extensive
several
iterations
measure
calculations
involved.
Similarly,
convolutional
neural
network
employed
back
propagation
method
slow
frequent
retraining.
In
addition,
achieves
low
predictions.
Since
all
seem
consuming,
necessary
integrate
quantum
computing
principles
with
conventional
algorithms.
This
because
has
potential
accelerate
computations
by
simultaneously
carrying
out
calculation
many
inputs.
paper,
a
review
current
prediction
provided.
Based
observed
shortcomings,
based
classifier
recommended.
The
proposed
working
mechanisms
are
elaborated
towards
end
paper.
Abstract
Cancer
patient
care
classically
represents
proper
diagnosis,
designing
appropriate
therapeutics
and
clinical
management
protocols.
Concept
of
precision
medicine
emerged
in
conjuncture
to
personalized
when
subpopulations
reasonably
differ
disease
risks,
prognosis,
treatment
response
due
interpersonal
differences
biology.
Precision
oncology
aims
tailor
medical
decisions
interventions
optimize
guidance
on
survival
benefits
or
quality
life
for
each
by
utilizing
person’s
characteristics
such
as
clinicopathology,
mutational
load,
biochemical
test
profiles,
specific
protein
expressions,
pharmacogenomics,
pharmacokinetics–pharmacodynamics
determine
risk
prediction,
planning,
best
efficacy.
Artificial
intelligence
(AI),
i.e.,
the
ability
a
machine
learn
recognizing
patterns
from
multidimensional
large
datasets,
has
vast
use
health
care,
most
recently
been
generate
algorithms
complex
inputs
improvise
traditional
approach
cancer
diagnostics
therapy.
AI
superseding
classical
genetic
marker
panels,
enabling
analysis
large-scale
multiomic
data
development
sophisticated
predictive
models,
extending
its
applicability
several
aspects
screening,
stratification,
well
managements.
The
integration
genomic
profile
with
becomes
crucial
tool
analyze
how
an
individual’s
unique
makeup
influences
susceptibility
outcomes.
Convergence
multimodal
driven
genomics
revolutionized
oncology,
ultimately
reshaping
landscape
horizon
uncovering
new
opportunities
better
understanding
Electronics,
Journal Year:
2022,
Volume and Issue:
11(15), P. 2435 - 2435
Published: Aug. 4, 2022
In
this
paper,
we
proposed
an
effective
and
efficient
approach
to
the
classification
of
breast
cancer
microcalcifications
evaluated
mathematical
model
for
calcification
on
mammography
with
a
large
medical
dataset.
We
employed
several
semi-automatic
segmentation
algorithms
extract
51
features
from
mammograms,
including
morphologic
textural
features.
adopted
extreme
gradient
boosting
(XGBoost)
classify
microcalcifications.
Then,
compared
other
machine
learning
techniques,
k-nearest
neighbor
(kNN),
adaboostM1,
decision
tree,
random
forest
(RDF),
tree
(GBDT),
XGBoost.
XGBoost
showed
highest
accuracy
(90.24%)
classifying
microcalcifications,
kNN
demonstrated
lowest
accuracy.
This
result
demonstrates
that
it
is
essential
microcalcification
use
feature
engineering
method
selection
best
composition
One
contributions
study
present
cancers.
paper
finds
way
select
discriminative
as
collection
improve
AUC
=
0.89.
Moreover,
highlighted
performance
various
dataset
found
ideal
parameters
Furthermore,
suitable
both
in
theory
practice
calcifications
mammography.
Biomedicine,
Journal Year:
2024,
Volume and Issue:
14(4)
Published: Dec. 1, 2024
Background:
One
of
the
most
challenging
cancers
is
triple-negative
breast
cancer,
which
subdivided
into
many
molecular
subtypes.
Due
to
high
degree
heterogeneity,
role
precision
medicine
remains
challenging.
With
use
machine
learning
(ML)-guided
gene
selection,
differential
expression
analysis
can
be
optimized,
and
eventually,
process
see
great
advancement
through
biomarker
discovery.