Benchmarking pathology foundation models for non-neoplastic pathology in the placenta
Zhongyuan Peng,
No information about this author
Marina A. Ayad,
No information about this author
Jing You
No information about this author
et al.
medRxiv (Cold Spring Harbor Laboratory),
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 20, 2025
Machine
learning
(ML)
applications
within
diagnostic
histopathology
have
been
extremely
successful.
While
many
successful
models
built
using
general-purpose
trained
largely
on
everyday
objects,
there
is
a
recent
trend
toward
pathology-specific
foundation
models,
images.
Pathology
show
strong
performance
cancer
detection
and
subtyping,
grading,
predicting
molecular
diagnoses.
However,
we
noticed
lacunae
in
the
testing
of
models.
Nearly
all
benchmarks
used
to
test
them
are
focused
cancer.
Neoplasia
an
important
pathologic
mechanism
key
concern
much
clinical
pathology,
but
it
represents
one
bases
disease.
Non-neoplastic
pathology
dominates
findings
placenta,
critical
organ
human
development,
as
well
specimen
commonly
encountered
practice.
Very
little
none
data
training
placenta.
Thus,
placental
doubly
out
distribution,
representing
useful
challenge
for
We
developed
estimation
gestational
age,
classifying
normal
tissue,
identifying
inflammation
umbilical
cord
membranes,
classification
macroscopic
lesions
including
villous
infarction,
intervillous
thrombus,
perivillous
fibrin
deposition.
tested
5
4
non-pathology
each
benchmark
tasks
zero-shot
K-nearest
neighbor
regression,
content-based
image
retrieval,
supervised
whole-slide
attention-based
multiple
instance
learning.
In
task,
best
performing
model
was
model.
gap
between
diminished
related
or
those
which
task
performed
embeddings.
Performance
comparable
among
Among
ResNet
consistently
worse,
while
from
present
decade
showed
better
performance.
Future
work
could
examine
impact
incorporating
into
training.
Language: Английский
Artificial Intelligence in Placental Pathology: New Diagnostic Imaging Tools in Evolution and in Perspective
Journal of Imaging,
Journal Year:
2025,
Volume and Issue:
11(4), P. 110 - 110
Published: April 3, 2025
Artificial
intelligence
(AI)
has
emerged
as
a
transformative
tool
in
placental
pathology,
offering
novel
diagnostic
methods
that
promise
to
improve
accuracy,
reduce
inter-observer
variability,
and
positively
impact
pregnancy
outcomes.
The
primary
objective
of
this
review
is
summarize
recent
developments
AI
applications
tailored
specifically
histopathology.
Current
AI-driven
approaches
include
advanced
digital
image
analysis,
three-dimensional
reconstruction,
deep
learning
models
such
GestAltNet
for
precise
gestational
age
estimation
automated
identification
histological
lesions,
including
decidual
vasculopathy
maternal
vascular
malperfusion.
Despite
these
advancements,
significant
challenges
remain,
notably
dataset
heterogeneity,
interpretative
limitations
current
algorithms,
issues
regarding
model
transparency.
We
critically
address
by
proposing
targeted
solutions,
augmenting
training
datasets
with
annotated
artifacts,
promoting
explainable
methods,
enhancing
cross-institutional
collaborations.
Finally,
we
outline
future
research
directions,
emphasizing
the
refinement
algorithms
routine
clinical
integration
fostering
interdisciplinary
cooperation
among
pathologists,
computational
researchers,
specialists.
Language: Английский
Deep Learning for Fetal Inflammatory Response Diagnosis in the Umbilical Cord
Marina A. Ayad,
No information about this author
Ramin Nateghi,
No information about this author
Abhishek Sharma
No information about this author
et al.
Placenta,
Journal Year:
2025,
Volume and Issue:
167, P. 1 - 10
Published: April 24, 2025
Language: Английский
Trends and Challenges of the Modern Pathology Laboratory for Biopharmaceutical Research Excellence
Toxicologic Pathology,
Journal Year:
2024,
Volume and Issue:
unknown
Published: Dec. 13, 2024
Pathology,
a
fundamental
discipline
that
bridges
basic
scientific
discovery
to
the
clinic,
is
integral
successful
drug
development.
Intrinsically
multimodal
and
multidimensional,
anatomic
pathology
continues
be
empowered
by
advancements
in
molecular
digital
technologies
enabling
spatial
tissue
detection
of
biomolecules
such
as
genes,
transcripts,
proteins.
Over
past
two
decades,
breakthroughs
biology
automation
digitization
laboratory
processes
have
enabled
implementation
higher
throughput
assays
generation
extensive
data
sets
from
sections
biopharmaceutical
research
development
units.
It
our
goal
provide
readers
with
some
rationale,
advice,
ideas
help
establish
modern
meet
emerging
needs
research.
This
manuscript
provides
(1)
high-level
overview
current
state
future
vision
for
excellence
practice
(2)
shared
perspectives
on
how
optimally
leverage
expertise
discovery,
toxicologic,
translational
pathologists
effective
spatial,
molecular,
support
discovery.
captures
insights
experiences,
challenges,
solutions
laboratories
various
organizations,
including
their
approaches
troubleshooting
adopting
new
technologies.
Language: Английский
Semi-quantitative scoring criteria based on multiple staining methods combined with machine learning to evaluate residual nuclei in decellularized matrix
Meng Zhong,
No information about this author
Hongwei He,
No information about this author
Panxianzhi Ni
No information about this author
et al.
Regenerative Biomaterials,
Journal Year:
2024,
Volume and Issue:
12
Published: Dec. 18, 2024
Abstract
The
detection
of
residual
nuclei
in
decellularized
extracellular
matrix
(dECM)
biomaterials
is
critical
for
ensuring
their
quality
and
biocompatibility.
However,
current
evaluation
methods
have
limitations
addressing
impurity
interference
providing
intelligent
analysis.
In
this
study,
we
utilized
four
staining
techniques—hematoxylin-eosin
staining,
acetocarmine
the
Feulgen
reaction
4’,6-diamidino-2-phenylindole
staining—to
detect
dECM
biomaterials.
Each
method
was
quantitatively
evaluated
across
multiple
parameters,
including
area,
perimeter
grayscale
values,
to
establish
a
semi-quantitative
scoring
system
nuclei.
These
quantitative
data
were
further
employed
as
learning
indicators
machine
models
designed
automatically
identify
experimental
results
demonstrated
that
no
single
alone
could
accurately
differentiate
between
impurities.
table
developed.
With
table,
accuracy
determining
whether
suspicious
point
cell
nucleus
has
reached
over
98%.
By
combining
methods,
false
positives
caused
by
contamination
eliminated.
automatic
recognition
model
trained
based
on
nuclear
parameter
features
optimal
index
after
several
iterations
training
172
epochs.
artificial
intelligence
achieved
90%
detecting
use
multidimensional
integrated
with
learning,
significantly
improved
identifying
residues
slices.
This
approach
provides
more
reliable
objective
evaluating
biomaterials,
while
also
increasing
efficiency.
Language: Английский