International Journal of Science and Research (IJSR),
Journal Year:
2023,
Volume and Issue:
12(11), P. 2075 - 2082
Published: Nov. 5, 2023
Transformer
architectures
are
widely
used,
especially
in
computer
vision
and
natural
language
processing.
Transformers
have
been
used
recently
a
number
of
time-series
analysis
applications.
An
overview
the
architecture
its
uses
is
given
literature
review.
To
improve
performance,
Transformer's
primary
parts-the
encoder/decoder,
multi-head,
positional
encoding,
self-attention
mechanism-have
updated.
implement
analysis,
few
improvements
to
original
transformer
were
adopted.
Additionally,
optimal
hyperparameters
values
for
overcoming
difficulty
successfully
training
provided
this
work.
The
effectiveness
model
forecasting
PM2.5
concentrations
examined
paper.
dataset
pre-processed
as
first
step.
In
order
minimize
input
parameters
while
taking
into
account
their
statistical
significance,
multi-collinearity
among
independent
variables
found
using
Variance
Inflation
Factor
(VIF).
proposed
trained
forecast
up
one
day
ahead
time.
Frontiers in Artificial Intelligence,
Journal Year:
2024,
Volume and Issue:
7
Published: Nov. 19, 2024
Medical
vision-language
models
(VLMs)
combine
computer
vision
(CV)
and
natural
language
processing
(NLP)
to
analyze
visual
textual
medical
data.
Our
paper
reviews
recent
advancements
in
developing
VLMs
specialized
for
healthcare,
focusing
on
publicly
available
designed
report
generation
question
answering
(VQA).
We
provide
background
NLP
CV,
explaining
how
techniques
from
both
fields
are
integrated
into
VLMs,
with
data
often
fused
using
Transformer-based
architectures
enable
effective
learning
multimodal
Key
areas
we
address
include
the
exploration
of
18
public
datasets,
in-depth
analyses
pre-training
strategies
16
noteworthy
comprehensive
discussion
evaluation
metrics
assessing
VLMs'
performance
VQA.
also
highlight
current
challenges
facing
VLM
development,
including
limited
availability,
concerns
privacy,
lack
proper
metrics,
among
others,
while
proposing
future
directions
these
obstacles.
Overall,
our
review
summarizes
progress
harness
improved
healthcare
applications.
Sensors,
Journal Year:
2024,
Volume and Issue:
24(5), P. 1634 - 1634
Published: March 2, 2024
The
advancements
in
data
acquisition,
storage,
and
processing
techniques
have
resulted
the
rapid
growth
of
heterogeneous
medical
data.
Integrating
radiological
scans,
histopathology
images,
molecular
information
with
clinical
is
essential
for
developing
a
holistic
understanding
disease
optimizing
treatment.
need
integrating
from
multiple
sources
further
pronounced
complex
diseases
such
as
cancer
enabling
precision
medicine
personalized
treatments.
This
work
proposes
Multimodal
Integration
Oncology
Data
System
(MINDS)—a
flexible,
scalable,
cost-effective
metadata
framework
efficiently
fusing
disparate
public
Cancer
Research
Commons
(CRDC)
into
an
interconnected,
patient-centric
framework.
MINDS
consolidates
over
41,000
cases
across
repositories
while
achieving
high
compression
ratio
relative
to
3.78
PB
source
size.
It
offers
sub-5-s
query
response
times
interactive
exploration.
interface
exploring
relationships
types
building
cohorts
large-scale
multimodal
machine
learning
models.
By
harmonizing
data,
aims
potentially
empower
researchers
greater
analytical
ability
uncover
diagnostic
prognostic
insights
enable
evidence-based
care.
tracks
granular
end-to-end
provenance,
ensuring
reproducibility
transparency.
cloud-native
architecture
can
handle
exponential
secure,
cost-optimized
manner
substantial
storage
optimization,
replication
avoidance,
dynamic
access
capabilities.
Auto-scaling,
controls,
other
mechanisms
guarantee
pipelines’
scalability
security.
overcomes
limitations
existing
biomedical
silos
via
interoperable
metadata-driven
approach
that
represents
pivotal
step
toward
future
oncology
integration.
Biomolecules,
Journal Year:
2025,
Volume and Issue:
15(1), P. 81 - 81
Published: Jan. 8, 2025
Cancer's
heterogeneity
presents
significant
challenges
in
accurate
diagnosis
and
effective
treatment,
including
the
complexity
of
identifying
tumor
subtypes
their
diverse
biological
behaviors.
This
review
examines
how
feature
selection
techniques
address
these
by
improving
interpretability
performance
machine
learning
(ML)
models
high-dimensional
datasets.
Feature
methods-such
as
filter,
wrapper,
embedded
techniques-play
a
critical
role
enhancing
precision
cancer
diagnostics
relevant
biomarkers.
The
integration
multi-omics
data
ML
algorithms
facilitates
more
comprehensive
understanding
heterogeneity,
advancing
both
personalized
therapies.
However,
such
ensuring
quality,
mitigating
overfitting,
addressing
scalability
remain
limitations
methods.
Artificial
intelligence
(AI)-powered
offers
promising
solutions
to
issues
automating
refining
extraction
process.
highlights
transformative
potential
approaches
while
emphasizing
future
directions,
incorporation
deep
(DL)
integrative
strategies
for
robust
reproducible
findings.
Current Oncology,
Journal Year:
2024,
Volume and Issue:
31(9), P. 5255 - 5290
Published: Sept. 6, 2024
Artificial
intelligence
(AI)
is
revolutionizing
head
and
neck
cancer
(HNC)
care
by
providing
innovative
tools
that
enhance
diagnostic
accuracy
personalize
treatment
strategies.
This
review
highlights
the
advancements
in
AI
technologies,
including
deep
learning
natural
language
processing,
their
applications
HNC.
The
integration
of
with
imaging
techniques,
genomics,
electronic
health
records
explored,
emphasizing
its
role
early
detection,
biomarker
discovery,
planning.
Despite
noticeable
progress,
challenges
such
as
data
quality,
algorithmic
bias,
need
for
interdisciplinary
collaboration
remain.
Emerging
innovations
like
explainable
AI,
AI-powered
robotics,
real-time
monitoring
systems
are
poised
to
further
advance
field.
Addressing
these
fostering
among
experts,
clinicians,
researchers
crucial
developing
equitable
effective
applications.
future
HNC
holds
significant
promise,
offering
potential
breakthroughs
diagnostics,
personalized
therapies,
improved
patient
outcomes.
IEEE Access,
Journal Year:
2024,
Volume and Issue:
12, P. 54816 - 54852
Published: Jan. 1, 2024
Raman
spectroscopy
(RS)
is
a
label-free
molecular
vibrational
technique
that
able
to
identify
the
fingerprint
of
various
samples
making
use
inelastic
scattering
monochromatic
light.
Because
its
advantages
non-destructive
and
accurate
detection,
RS
finding
more
for
benign
malignant
tissues,
tumor
differentiation,
subtype
classification,
section
pathology
diagnosis,
operating
either
in
vivo
or
vitro
.
However,
high
specificity
comes
at
cost.
The
acquisition
rate
low,
depth
information
cannot
be
directly
accessed,
sampling
area
limited.
Such
limitations
can
contained
if
data
pre-
post-processing
methods
are
combined
with
current
Artificial
Intelligence
(AI),
essentially,
Machine
Learning
(ML)
Deep
(DL).
latter
modifying
approach
cancer
diagnosis
currently
used
automate
many
analyses,
it
has
emerged
as
promising
option
improving
healthcare
accuracy
patient
outcomes
by
abiliting
prediction
diseases
tools.
In
very
broad
context,
applications
in
oncology
include
risk
assessment,
early
prognosis
estimation,
treatment
selection
based
on
deep
knowledge.
application
autonomous
datasets
generated
analysis
tissues
could
make
rapid
stand-alone
help
pathologists
diagnose
accuracy.
This
review
describes
milestones
achieved
applying
AI-based
algorithms
analysis,
grouped
according
seven
major
types
cancers
(Pancreatic,
Breast,
Skin,
Brain,
Prostate,
Ovarian
Oral
cavity).
Additionally,
provides
theoretical
foundation
tackle
both
present
forthcoming
challenges
this
domain.
By
exploring
achievements
discussing
relative
methodologies,
offers
recapitulative
insights
recent
ongoing
efforts
position
effective
screening
tool
pathologists.
Accordingly,
we
aim
encourage
future
research
endeavors
facilitate
realization
full
potential
AI
grading.
IP International Journal of Ocular Oncology and Oculoplasty,
Journal Year:
2025,
Volume and Issue:
10(4), P. 196 - 207
Published: Jan. 14, 2025
In
the
domains
of
ocular
oncology
and
oculoplasty,
machine
learning
(ML)
has
become
a
game-changing
technology,
providing
previously
unheard-of
levels
precision
in
diagnosis,
treatment
planning,
outcome
prediction.
Using
imaging
modalities,
genomic
data,
clinical
characteristics,
this
chapter
investigates
integration
algorithms
detection
tumours,
including
retinoblastoma
uveal
melanoma.
Through
predictive
modelling
real-time
decision-making,
it
also
emphasises
how
ML
might
improve
surgical
outcomes
orbital
reconstruction
eyelid
correction.
Automated
examination
fundus
photographs,
histological
slides,
3D
been
made
possible
by
methods
like
deep
natural
language
processing,
which
have
improved
individualised
therapeutic
approaches
decreased
diagnostic
errors.
Additionally,
use
augmented
reality
robotics
surgery
is
significant
development
oculoplasty.
Notwithstanding
its
potential,
issues
data
heterogeneity,
algorithm
interpretability,
ethical
considerations
are
roadblocks
that
need
to
be
addressed.
This
explores
cutting-edge
developments,
real-world
uses,
potential
future
paths,
offering
researchers
doctors
thorough
resource.
Dipali
Vikas
Mane,
Associate
Professor,
Shriram
Shikshan
Sanstha’s
College
Pharmacy,
Paniv-413113
bioRxiv (Cold Spring Harbor Laboratory),
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 15, 2025
Abstract
While
computational
pathology
has
transformed
cancer
diagnosis
and
prognosis
prediction,
existing
methods
remain
limited
in
their
ability
to
decipher
the
complex
molecular
characteristics
within
tumors.
We
present
CLOVER
(Contrastive
Learning
for
Omics-guided
whole-slide
Visual
Embedding
Representation),
a
novel
deep
learning
framework
that
leverages
self-supervised
contrastive
integrate
multi-omics
data
(genomics,
epigenomics,
transcriptomics)
with
slide
representations,
connecting
morphological
features
of
Using
breast
cohorts
comprising
diagnostic
slides
paired
from
610
patients,
we
validated
CLOVER’s
excellence
by
demonstrating
its
generate
effective
slide-level
representations
consider
states
cancer.
outperforms
few-shot
scenarios,
particularly
subtype
classification
clinical
biomarker
prediction
tasks
(ER,
PR,
HER2
status).
Through
comprehensive
interpretability
analysis,
identified
tumor
microenvironment
components
revealed
associated
Our
results
demonstrate
enables
detailed
characterization
single
suggesting
potential
utilization
future
studies.
Frontiers in Immunology,
Journal Year:
2025,
Volume and Issue:
16
Published: Jan. 22, 2025
Molecular
imaging
technologies
have
significantly
transformed
cancer
research
and
clinical
practice,
offering
valuable
tools
for
visualizing
understanding
the
complex
tumor
immune
microenvironment.
These
allow
non-invasive
examination
of
key
components
within
microenvironment,
including
cells,
cytokines,
stromal
providing
crucial
insights
into
biology
treatment
responses.
This
paper
reviews
latest
advancements
in
molecular
imaging,
with
a
focus
on
its
applications
assessing
interactions
Additionally,
challenges
faced
by
are
discussed,
such
as
need
highly
sensitive
specific
agents,
issues
data
integration,
difficulties
translation.
The
future
outlook
emphasizes
potential
to
enhance
personalized
through
integration
artificial
intelligence
development
novel
probes.
Addressing
these
is
essential
fully
realizing
improving
diagnosis,
treatment,
patient
outcomes.
Information,
Journal Year:
2025,
Volume and Issue:
16(2), P. 136 - 136
Published: Feb. 12, 2025
Large
language
models
(LLMs)
and
large
vision
(LVMs)
have
driven
significant
advancements
in
natural
processing
(NLP)
computer
(CV),
establishing
a
foundation
for
multimodal
(MLLMs)
to
integrate
diverse
data
types
real-world
applications.
This
survey
explores
the
evolution
of
MLLMs
radiology,
focusing
on
radiology
report
generation
(RRG)
visual
question
answering
(RVQA),
where
leverage
combined
capabilities
LLMs
LVMs
improve
clinical
efficiency.
We
begin
by
tracing
history
development
MLLMs,
followed
an
overview
MLLM
applications
RRG
RVQA,
detailing
core
datasets,
evaluation
metrics,
leading
that
demonstrate
their
potential
generating
reports
image-based
questions.
then
discuss
challenges
face
including
dataset
scarcity,
privacy
security,
issues
within
such
as
bias,
toxicity,
hallucinations,
catastrophic
forgetting,
limitations
traditional
metrics.
Finally,
this
paper
proposes
future
research
directions
address
these
challenges,
aiming
help
AI
researchers
radiologists
overcome
obstacles
advance
study
radiology.