Toxicologic Pathology,
Journal Year:
2019,
Volume and Issue:
48(2), P. 277 - 294
Published: Oct. 23, 2019
Toxicologic
pathology
is
transitioning
from
analog
to
digital
methods.
This
transition
seems
inevitable
due
a
host
of
ongoing
social
and
medical
technological
forces.
Of
these,
artificial
intelligence
(AI)
in
particular
machine
learning
(ML)
are
globally
disruptive,
rapidly
growing
sectors
technology
whose
impact
on
the
long-established
field
histopathology
quickly
being
realized.
The
development
increasing
numbers
algorithms,
peering
ever
deeper
into
histopathological
space,
has
demonstrated
scientific
community
that
AI
platforms
now
poised
truly
future
precision
personalized
medicine.
However,
as
with
all
great
advances,
there
implementation
adoption
challenges.
review
aims
define
common
relevant
ML
terminology,
describe
data
generation
interpretation,
outline
current
potential
business
cases,
discuss
validation
regulatory
hurdles,
most
importantly,
propose
how
overcoming
challenges
this
burgeoning
may
shape
toxicologic
for
years
come,
enabling
pathologists
contribute
even
more
effectively
answering
questions
solving
global
health
issues.
[Box:
see
text]
EBioMedicine,
Journal Year:
2021,
Volume and Issue:
65, P. 103269 - 103269
Published: March 1, 2021
The
development
of
a
reactive
tumour
stroma
is
hallmark
progression
and
pronounced
generally
considered
to
be
associated
with
clinical
aggressiveness.
variability
between
types
regarding
fraction,
its
prognosis
associations,
have
not
been
systematically
analysed.Using
an
objective
machine-learning
method
we
quantified
the
in
16
solid
cancer
from
2732
patients,
representing
retrospective
tissue
collections
surgically
resected
primary
tumours.
Image
analysis
performed
segmentation
into
stromal
epithelial
compartment
based
on
pan-cytokeratin
staining
autofluorescence
patterns.The
fraction
was
highly
variable
within
across
types,
kidney
showing
lowest
pancreato-biliary
type
periampullary
highest
proportion
(median
19%
73%
respectively).
Adjusted
Cox
regression
models
revealed
both
positive
(pancreato-biliary
oestrogen
negative
breast
cancer,
HR(95%CI)=0.56(0.34-0.92)
HR(95%CI)=0.41(0.17-0.98)
respectively)
(intestinal
HR(95%CI)=3.59(1.49-8.62))
associations
survival.Our
study
provides
quantification
major
cancer.
Findings
strongly
argue
against
commonly
promoted
view
general
high
abundance
poor
prognosis.
results
also
suggest
that
full
exploitation
prognostic
potential
requires
analyses
go
beyond
determination
abundance.The
Swedish
Cancer
Society,
Lions
Foundation
Uppsala,
Government
Grant
for
Clinical
Research,
Mrs
Berta
Kamprad
Foundation,
Sweden,
Sellanders
foundation,
P.O.Zetterling
Sjöberg
Sweden.
BMC Bioinformatics,
Journal Year:
2022,
Volume and Issue:
23(1)
Published: Sept. 24, 2022
Abstract
The
recent
global
focus
on
big
data
in
medicine
has
been
associated
with
the
rise
of
artificial
intelligence
(AI)
diagnosis
and
decision-making
following
advances
computer
technology.
Up
to
now,
AI
applied
various
aspects
medicine,
including
disease
diagnosis,
surveillance,
treatment,
predicting
future
risk,
targeted
interventions
understanding
disease.
There
have
plenty
successful
examples
using
data,
such
as
radiology
pathology,
ophthalmology
cardiology
surgery.
Combining
become
a
powerful
tool
change
health
care,
even
nature
screening
clinical
diagnosis.
As
all
we
know,
laboratories
produce
large
amounts
testing
every
day
laboratory
combined
may
establish
new
treatment
attracted
wide
attention.
At
present,
concept
radiomics
created
for
imaging
AI,
but
definition
lacked
so
that
many
studies
this
field
cannot
be
accurately
classified.
Therefore,
propose
omics
(Clinlabomics)
by
combining
AI.
Clinlabomics
can
use
high-throughput
methods
extract
feature
from
blood,
body
fluids,
secretions,
excreta,
cast
test
data.
Then
statistics,
machine
learning,
other
read
more
undiscovered
information.
In
review,
summarized
application
medical
fields.
Undeniable,
is
method
assist
fields
still
requires
further
validation
multi-center
environment
laboratory.
Modern Pathology,
Journal Year:
2022,
Volume and Issue:
35(11), P. 1540 - 1550
Published: Aug. 4, 2022
Abstract
Recent
progress
in
the
development
of
artificial
intelligence
(AI)
has
sparked
enthusiasm
for
its
potential
use
pathology.
As
pathology
labs
are
currently
starting
to
shift
their
focus
towards
AI
implementation,
a
better
understanding
how
tools
can
be
optimally
aligned
with
medical
and
social
context
daily
practice
is
urgently
needed.
Strikingly,
studies
often
fail
mention
ways
which
should
integrated
decision-making
processes
pathologists,
nor
do
they
address
this
achieved
an
ethically
sound
way.
Moreover,
perspectives
pathologists
other
professionals
within
concerning
integration
remains
underreported
topic.
This
article
aims
fill
gap
literature
presents
first
in-depth
interview
study
professionals'
on
possibilities,
conditions
prerequisites
explicated.
The
results
have
led
formulation
three
concrete
recommendations
support
integration,
namely:
(1)
foster
pragmatic
attitude
toward
development,
(2)
provide
task-sensitive
information
training
health
care
working
departments
(3)
take
time
reflect
upon
users'
changing
roles
responsibilities.
Oncogene,
Journal Year:
2023,
Volume and Issue:
42(48), P. 3545 - 3555
Published: Oct. 24, 2023
Abstract
Digital
pathology
(DP),
or
the
digitization
of
images,
has
transformed
oncology
research
and
cancer
diagnostics.
The
application
artificial
intelligence
(AI)
other
forms
machine
learning
(ML)
to
these
images
allows
for
better
interpretation
morphology,
improved
quantitation
biomarkers,
introduction
novel
concepts
discovery
diagnostics
(such
as
spatial
distribution
cellular
elements),
promise
a
new
paradigm
biomarkers.
AI
tissue
analysis
can
take
several
conceptual
approaches,
within
domains
language
modelling
image
analysis,
such
Deep
Learning
Convolutional
Neural
Networks,
Multiple
Instance
risk
scores
their
ML.
use
different
approaches
solves
problems
workflows,
including
assistive
applications
detection
grading
tumours,
quantification
delivery
established
image-based
biomarkers
treatment
prediction
prognostic
purposes.
All
formats,
applied
digital
are
also
beginning
transform
our
approach
clinical
trials.
In
parallel,
novelty
DP/AI
devices
related
computational
science
pipeline
introduces
requirements
manufacturers
build
into
design,
development,
regulatory
post-market
processes,
which
may
need
be
taken
account
when
using
tissues
in
discovery.
Finally,
represents
challenge
way
we
accredit
diagnostic
tools
with
applicability,
understanding
will
allow
patients
have
access
generation
complex
Toxicologic Pathology,
Journal Year:
2019,
Volume and Issue:
48(2), P. 277 - 294
Published: Oct. 23, 2019
Toxicologic
pathology
is
transitioning
from
analog
to
digital
methods.
This
transition
seems
inevitable
due
a
host
of
ongoing
social
and
medical
technological
forces.
Of
these,
artificial
intelligence
(AI)
in
particular
machine
learning
(ML)
are
globally
disruptive,
rapidly
growing
sectors
technology
whose
impact
on
the
long-established
field
histopathology
quickly
being
realized.
The
development
increasing
numbers
algorithms,
peering
ever
deeper
into
histopathological
space,
has
demonstrated
scientific
community
that
AI
platforms
now
poised
truly
future
precision
personalized
medicine.
However,
as
with
all
great
advances,
there
implementation
adoption
challenges.
review
aims
define
common
relevant
ML
terminology,
describe
data
generation
interpretation,
outline
current
potential
business
cases,
discuss
validation
regulatory
hurdles,
most
importantly,
propose
how
overcoming
challenges
this
burgeoning
may
shape
toxicologic
for
years
come,
enabling
pathologists
contribute
even
more
effectively
answering
questions
solving
global
health
issues.
[Box:
see
text]