Current Opinion in Ophthalmology,
Год журнала:
2024,
Номер
unknown
Опубликована: Ноя. 28, 2024
Purpose
of
review
To
role
artificial
intelligence
in
medicine.
Recent
findings
Artificial
is
continuing
to
revolutionize
access,
diagnosis,
personalization
medicine,
and
treatment
healthcare.
As
a
matter
fact,
contributed
the
research
that
resulted
2024
Nobel
Prizes
physics,
chemistry,
economics.
We
are
only
at
tip
iceberg
utilizing
abilities
medicine
improve
accuracy
diagnoses
enhance
patient
outcomes.
has
allowed
better
image
analysis,
prediction
progression
disease,
personalized
plans,
incorporations
genomics,
improved
efficiency
care
follow-up
home
monitoring.
In
ocular
health
diagnosis
diabetic
retinopathy,
macular
degeneration,
glaucoma,
corneal
infections,
ectasia
few
examples
how
power
been
harnessed.
Even
though
there
still
challenges
need
more
work
areas
privacy,
Health
Insurance
Portability
Accountability
Act
(HIPAA)
compliance,
reliability,
development
regulatory
frameworks,
revolutionized
will
continue
Summary
enhancing
medical
treatment,
as
well
access
prevention.
Ocular
imaging,
visual
outcome,
optics,
intraocular
pressure,
data
points
see
growth
it
field
intelligence.
Frontiers in Medicine,
Год журнала:
2023,
Номер
10
Опубликована: Июнь 20, 2023
Keratoconus
is
the
most
common
corneal
ectatic
disorder.
It
characterized
by
progressive
thinning
with
resultant
irregular
astigmatism
and
myopia.
Its
prevalence
has
been
estimated
at
1:375
to
1:2,000
people
globally,
a
considerably
higher
rate
in
younger
populations.
Over
past
two
decades,
there
was
paradigm
shift
management
of
keratoconus.
The
treatment
expanded
significantly
from
conservative
(e.g.,
spectacles
contact
lenses
wear)
penetrating
keratoplasty
many
other
therapeutic
refractive
modalities,
including
cross-linking
(with
various
protocols/techniques),
combined
CXL-keratorefractive
surgeries,
intracorneal
ring
segments,
anterior
lamellar
keratoplasty,
more
recently,
Bowman's
layer
transplantation,
stromal
keratophakia,
regeneration.
Several
recent
large
genome-wide
association
studies
(GWAS)
have
identified
important
genetic
mutations
relevant
keratoconus,
facilitating
development
potential
gene
therapy
targeting
keratoconus
halting
disease
progression.
In
addition,
attempts
made
leverage
power
artificial
intelligence-assisted
algorithms
enabling
earlier
detection
progression
prediction
this
review,
we
provide
comprehensive
overview
current
emerging
propose
algorithm
for
systematically
guiding
clinical
entity.
American Journal of Ophthalmology,
Год журнала:
2022,
Номер
251, С. 126 - 142
Опубликована: Дек. 19, 2022
To
optimize
artificial
intelligence
(AI)
algorithms
to
integrate
Scheimpflug-based
corneal
tomography
and
biomechanics
enhance
ectasia
detection.Multicenter
cross-sectional
case-control
retrospective
study.A
total
of
3886
unoperated
eyes
from
3412
patients
had
Pentacam
Corvis
ST
(Oculus
Optikgeräte
GmbH)
examinations.
The
database
included
1
eye
randomly
selected
1680
normal
(N)
1181
"bilateral"
keratoconus
(KC)
patients,
along
with
551
topography
very
asymmetric
(VAE-NT),
their
474
ectatic
(VAE-E)
eyes.
current
TBIv1
(tomographic-biomechanical
index)
was
tested,
an
optimized
AI
algorithm
developed
for
augmenting
accuracy.The
area
under
the
receiver
operating
characteristic
curve
(AUC)
discriminating
clinical
(KC
VAE-E)
0.999
(98.5%
sensitivity;
98.6%
specificity
[cutoff:
0.5]),
VAE-NT,
0.899
(76%
89.1%
0.29]).
A
novel
random
forest
(TBIv2),
18
features
in
156
trees
using
10-fold
cross-validation,
a
significantly
higher
AUC
(0.945;
DeLong,
P
<
.0001)
detecting
VAE-NT
(84.4%
sensitivity
90.1%
specificity;
cutoff:
0.43;
similar
(0.999;
=
.818;
98.7%
99.2%
0.8]).
Considering
all
cases,
TBIv2
(0.985)
than
(0.974;
.0001).AI
optimization
biomechanical
assessments
augments
accuracy
detection,
characterizing
susceptibility
diverse
group.
Some
VAE
may
have
true
unilateral
ectasia.
Machine
learning
considering
additional
data,
including
epithelial
thickness
or
other
parameters
multimodal
refractive
imaging,
will
continuously
accuracy.
NOTE:
Publication
this
article
is
sponsored
by
American
Ophthalmological
Society.
Diagnostics,
Год журнала:
2023,
Номер
13(10), С. 1689 - 1689
Опубликована: Май 10, 2023
Detection
of
early
clinical
keratoconus
(KCN)
is
a
challenging
task,
even
for
expert
clinicians.
In
this
study,
we
propose
deep
learning
(DL)
model
to
address
challenge.
We
first
used
Xception
and
InceptionResNetV2
DL
architectures
extract
features
from
three
different
corneal
maps
collected
1371
eyes
examined
in
an
eye
clinic
Egypt.
then
fused
using
detect
subclinical
forms
KCN
more
accurately
robustly.
obtained
area
under
the
receiver
operating
characteristic
curves
(AUC)
0.99
accuracy
range
97-100%
distinguish
normal
with
established
KCN.
further
validated
based
on
independent
dataset
213
Iraq
AUCs
0.91-0.92
88-92%.
The
proposed
step
toward
improving
detection
Expert Review of Pharmacoeconomics & Outcomes Research,
Год журнала:
2023,
Номер
24(1), С. 63 - 115
Опубликована: Ноя. 13, 2023
The
increasing
availability
of
data
and
computing
power
has
made
machine
learning
(ML)
a
viable
approach
to
faster,
more
efficient
healthcare
delivery.
Current Opinion in Ophthalmology,
Год журнала:
2022,
Номер
33(5), С. 407 - 417
Опубликована: Июль 12, 2022
Purpose
of
review
Artificial
intelligence
has
advanced
rapidly
in
recent
years
and
provided
powerful
tools
to
aid
with
the
diagnosis,
management,
treatment
ophthalmic
diseases.
This
article
aims
most
current
clinical
artificial
applications
anterior
segment
diseases,
an
emphasis
on
microbial
keratitis,
keratoconus,
dry
eye
syndrome,
Fuchs
endothelial
dystrophy.
Recent
findings
Most
approaches
have
focused
developing
deep
learning
algorithms
based
various
imaging
modalities.
Algorithms
been
developed
detect
differentiate
keratitis
classes
quantify
features.
may
early
detection
staging
keratoconus.
Many
advances
made
detect,
segment,
features
syndrome
Fuchs.
There
is
significant
variability
reporting
methodology,
patient
population,
outcome
metrics.
Summary
shows
great
promise
detecting,
diagnosing,
grading,
measuring
a
need
for
standardization
improve
transparency,
validity,
comparability
algorithms.
Investigative Ophthalmology & Visual Science,
Год журнала:
2024,
Номер
65(1), С. 41 - 41
Опубликована: Янв. 24, 2024
Purpose:
To
characterize
the
clinical
effects
of
two
RP1L1
hotspots
in
patients
with
East
Asian
occult
macular
dystrophy
(OMD).
Methods:
Fifty-one
diagnosed
OMD
harboring
monoallelic
pathogenic
variants
(Miyake
disease)
from
Japan,
South
Korea,
and
China
were
enrolled.
Patients
classified
into
genotype
groups:
group
A,
p.R45W,
B,
missense
located
between
amino
acids
(aa)
1196
1201.
The
parameters
genotypes
compared,
deep
learning
based
on
spectral-domain
optical
coherence
tomographic
(SD-OCT)
images
was
used
to
distinguish
morphologic
differences.
Results:
Groups
A
B
included
29
22
patients,
respectively.
median
age
onset
groups
14.0
40.0
years,
logMAR
visual
acuity
0.70
0.51,
respectively,
survival
curve
analysis
revealed
a
15-year
difference
vision
loss
(logMAR
0.22).
statistically
significant
observed
field
classification,
but
no
found
multifocal
electroretinographic
classification.
High
accuracy
(75.4%)
achieved
classifying
SD-OCT
using
machine
learning.
Conclusions:
Distinct
severities
phenotypes
supported
by
artificial
intelligence–based
classification
derived
investigated
hotspots:
more
severe
phenotype
(p.R45W)
milder
(1196–1201
aa).
This
newly
identified
genotype–phenotype
association
will
be
valuable
for
medical
care
design
therapeutic
trials.
Medical Hypothesis Discovery & Innovation in Ophthalmology,
Год журнала:
2024,
Номер
13(1), С. 44 - 54
Опубликована: Июль 1, 2024
Keratoconus
(KCN)
is
characterized
by
gradual
thinning
and
steepening
of
the
cornea,
which
can
lead
to
significant
vision
problems
owing
high
astigmatism,
corneal
scarring,
or
even
perforation.
The
detection
KCN
in
its
early
stages
crucial
for
effective
treatment.
In
this
review,
we
describe
current
advances
diagnosis
treatment
KCN.
Scientific Reports,
Год журнала:
2023,
Номер
13(1)
Опубликована: Апрель 21, 2023
Abstract
Cornea
topography
maps
allow
ophthalmologists
to
screen
and
diagnose
cornea
pathologies.
We
aim
automatically
identify
any
abnormalities
based
on
such
maps,
with
focus
diagnosing
keratoconus.
To
do
so,
we
represent
the
OCT
scans
as
images
apply
Convolutional
Neural
Networks
(CNNs)
for
automatic
analysis.
The
model
is
a
state-of-the-art
ConvNeXt
CNN
architecture
weights
fine-tuned
given
specific
application
using
dataset.
A
set
of
1940
consecutive
screening
from
Saarland
University
Hospital
Clinic
Ophthalmology
was
annotated
used
training
validation.
All
were
recorded
CASIA2
anterior
segment
Optical
Coherence
Tomography
(OCT)
scanner.
proposed
achieves
sensitivity
98.46%
specificity
91.96%
when
distinguishing
between
healthy
pathological
corneas.
Our
approach
enables
pathologies
classification
common
like
keratoconus
.
Furthermore,
independent
scanner
visualization
those
scan
regions
which
drive
model’s
decisions.
Journal of Taibah University Medical Sciences,
Год журнала:
2024,
Номер
19(2), С. 296 - 303
Опубликована: Янв. 1, 2024
The
challenges
in
diagnosing
keratoconus
(KC)
have
led
researchers
to
explore
the
use
of
artificial
intelligence
(AI)
as
a
diagnostic
tool.
AI
has
emerged
new
way
improve
efficiency
KC
diagnosis.
This
study
analyzed
modality
for
KC.
Journal of Clinical Medicine,
Год журнала:
2025,
Номер
14(2), С. 460 - 460
Опубликована: Янв. 13, 2025
Keratoconus
is
a
progressive
corneal
disorder
that
can
lead
to
irreversible
visual
impairment
if
not
detected
early.
Despite
its
high
prevalence,
early
diagnosis
often
delayed,
especially
in
low-to-middle-income
countries
due
limited
awareness
and
restricted
access
advanced
diagnostic
tools
such
as
topography,
tomography,
optical
coherence
biomechanical
assessments.
These
technologies
are
essential
for
identifying
early-stage
keratoconus,
yet
their
cost
limits
accessibility
resource-limited
settings.
While
portability
important
accessibility,
the
sensitivity
specificity
of
must
be
considered
primary
metrics
ensure
accurate
effective
detection
keratoconus.
This
review
examines
both
traditional
techniques,
including
use
machine
learning
artificial
intelligence,
enhance
diagnosis.
Artificial
intelligence-based
approaches
show
significant
potential
transforming
keratoconus
by
improving
accuracy
diagnosis,
when
combined
with
imaging
devices.
Notable
innovations
include
SmartKC,
smartphone-based
machine-learning
application,
mobile
topography
through
null-screen
test,
Smartphone-based
Keratograph,
providing
affordable
portable
solutions.
Additionally,
contrast
testing
demonstrates
detection,
although
precise
platform
routine
clinical
has
established.
The
emphasizes
need
increased
among
clinicians,
particularly
underserved
regions,
advocates
development
accessible,
low-cost
tools.
Further
research
needed
validate
effectiveness
these
emerging
detecting