Communications Medicine,
Journal Year:
2024,
Volume and Issue:
4(1)
Published: Nov. 21, 2024
In
radiotherapy,
2D
orthogonally
projected
kV
images
are
used
for
patient
alignment
when
3D-on-board
imaging
(OBI)
is
unavailable.
However,
tumor
visibility
constrained
due
to
the
projection
of
patient's
anatomy
onto
a
plane,
potentially
leading
substantial
setup
errors.
treatment
room
with
3D-OBI
such
as
cone
beam
CT
(CBCT),
field
view
(FOV)
CBCT
limited
unnecessarily
high
dose.
A
solution
this
dilemma
reconstruct
3D
from
obtained
at
position.
We
propose
dual-models
framework
built
hierarchical
ViT
blocks.
Unlike
proof-of-concept
approach,
our
considers
acquired
by
devices
in
solo
input
and
can
synthesize
accurate,
full-size
within
milliseconds.
demonstrate
feasibility
proposed
approach
on
10
patients
head
neck
(H&N)
cancer
using
image
quality
(MAE:
<
45HU),
dosimetric
accuracy
(Gamma
passing
rate
((2%/2
mm/10%):
>
97%)
position
uncertainty
(shift
error:
0.4
mm).
The
generate
accurate
faithfully
mirroring
effectively,
thus
substantially
improving
accuracy,
keeping
dose
minimal,
maintaining
veracity.
Effective
guidance
critical
precise
alignment,
tracking,
delivery
radiation
therapy
protect
organs
that
should
not
be
irradiated.
high-quality
usually
only
provided
following
detailed
large
amount
radiation.
computational
method
full
size
required
X-Ray
images.
demonstrated
its
utility
data
people
cancer.
Our
existing
machines
improve
hence
ensure
more
patients.
Ding
et
al.
deep
learning-based
model
fast
reconstruction
given
(X-Ray)
inputs.
experimental
results
analysis
indicate
robust
minimum
Medicine Plus,
Journal Year:
2024,
Volume and Issue:
1(2), P. 100030 - 100030
Published: May 17, 2024
With
the
rapid
development
of
artificial
intelligence,
large
language
models
(LLMs)
have
shown
promising
capabilities
in
mimicking
human-level
comprehension
and
reasoning.
This
has
sparked
significant
interest
applying
LLMs
to
enhance
various
aspects
healthcare,
ranging
from
medical
education
clinical
decision
support.
However,
medicine
involves
multifaceted
data
modalities
nuanced
reasoning
skills,
presenting
challenges
for
integrating
LLMs.
review
introduces
fundamental
applications
general-purpose
specialized
LLMs,
demonstrating
their
utilities
knowledge
retrieval,
research
support,
workflow
automation,
diagnostic
assistance.
Recognizing
inherent
multimodality
medicine,
emphasizes
multimodal
discusses
ability
process
diverse
types
like
imaging
electronic
health
records
augment
accuracy.
To
address
LLMs'
limitations
regarding
personalization
complex
reasoning,
further
explores
emerging
LLM-powered
autonomous
agents
healthcare.
Moreover,
it
summarizes
evaluation
methodologies
assessing
reliability
safety
contexts.
transformative
potential
medicine;
however,
there
is
a
pivotal
need
continuous
optimizations
ethical
oversight
before
these
can
be
effectively
integrated
into
practice.
Nature Communications,
Journal Year:
2024,
Volume and Issue:
15(1)
Published: Oct. 24, 2024
Target
volume
contouring
for
radiation
therapy
is
considered
significantly
more
challenging
than
the
normal
organ
segmentation
tasks
as
it
necessitates
utilization
of
both
image
and
text-based
clinical
information.Inspired
by
recent
advancement
large
language
models
(LLMs)
that
can
facilitate
integration
textural
information
images,
here
we
present
an
LLM-driven
multimodal
artificial
intelligence
(AI),
namely
LLMSeg,
utilizes
applicable
to
task
3-dimensional
context-aware
target
delineation
oncology.We
validate
our
proposed
LLMSeg
within
context
breast
cancer
radiotherapy
using
external
validation
data-insufficient
environments,
which
attributes
highly
conducive
real-world
applications.We
demonstrate
exhibits
markedly
improved
performance
compared
conventional
unimodal
AI
models,
particularly
exhibiting
robust
generalization
data-efficiency.
Medical Teacher,
Journal Year:
2024,
Volume and Issue:
46(10), P. 1258 - 1271
Published: Aug. 8, 2024
Generative
Artificial
Intelligence
(GenAI)
caught
Health
Professions
Education
(HPE)
institutions
off-guard,
and
they
are
currently
adjusting
to
a
changed
educational
environment.
On
the
horizon,
however,
is
Meta-Radiology,
Journal Year:
2024,
Volume and Issue:
2(1), P. 100068 - 100068
Published: Feb. 22, 2024
Neurodegenerative
diseases
refer
to
degenerative
of
the
nervous
system
caused
by
neuronal
degeneration
and
apoptosis.
Usually,
onset
disease
is
insidious,
progression
slow,
which
can
last
for
several
years
decades.
Clinical
symptoms
only
appear
in
later
stages
pathological
changes
when
degree
nerve
cell
loss
reaches
or
exceeds
a
certain
threshold.
Traditional
electrophysiological
medical
imaging
techniques
lack
valuable
indicators
markers.
Therefore,
early
diagnosis
differentiation
are
very
difficult.
Radiomics
new
technology
merged
recent
years,
extract
large
number
invisible
features
from
raw
image
data
with
high
throughput,
quantitatively
analyze
physiological
changes.
It
demonstrates
important
potential
value
diagnosis,
grading,
prognosis
evaluation
NDs.
This
review
provides
an
overview
research
progress
radiomics
neurodegenerative
diseases,
emphasizing
process
principles
its
application
classification,
prediction
these
diseases.
helps
deepen
understanding
promote
treatment
clinical
practice.
Clinical Medicine Insights Oncology,
Journal Year:
2024,
Volume and Issue:
18
Published: Jan. 1, 2024
The
promise
of
novel
technologies
to
increase
access
radiotherapy
in
low-
and
middle-income
countries
(LMICs)
is
crucial,
given
that
the
cost
equipping
new
centres
or
upgrading
existing
machinery
remains
a
major
obstacle
expanding
cancer
treatment.
study
aims
provide
thorough
analysis
overview
how
technological
advancement
may
revolutionize
(RT)
improve
level
care
provided
patients.
A
comprehensive
literature
review
following
some
steps
systematic
(SLR)
was
performed
using
Web
Science
(WoS),
PubMed,
Scopus
databases.
findings
are
classified
into
different
technologies.
Artificial
intelligence
(AI),
knowledge-based
planning,
remote
radiotherapy,
scripting
all
ways
patient
flow
across
radiation
oncology,
including
initial
consultation,
treatment
delivery,
verification,
follow-up.
This
found
these
delineation
organ
at
risks
(OARs)
considerably
reduce
waiting
times
when
compared
with
conventional
planning
RT.
In
this
review,
AI,
reduced
improved
at-risk
RT
planning.
combination
lower
patients’
risk
disease
progression
due
workload,
quality
therapy,
individualized
Efficiency
tools,
such
as
application
scripting,
urgently
needed
OAR
accuracy
traditional
methods.
study’s
contribution
present
potential
optimize
process,
thereby
improving
resource
utilization.
be
extended
future
include
digital
integration
technology’s
impact
on
safety,
outcomes,
risk.
Therefore,
research
more
efficient
tools
pioneers
development
implementation
high-precision
for