A
análise
cromossômica,
uma
prática
clinicamente
crucial
realizada
tradicionalmente
por
geneticistas,
pode
ser
suscetível
à
fadiga
ao
longo
do
tempo,
afetando
a
qualidade
dos
diagnósticos.
Neste
artigo,
exploramos
classificação
automatizada
de
imagens
cromossomos
meio
diversas
arquiteturas
redes
neurais
profundas.
Avaliamos
23
pares
humanos
em
tarefa
multiclasse,
revelando
resultados
promissores.
Destacam-se
os
desempenhos
superiores
da
arquitetura
DenseNet169,
alcançando
acurácia,
precisão,
recall
e
F1-Score
98,77%.
O
índice
concordância
Kappa
atingiu
um
nível
”Excelente”(0,99),
enquanto
baixo
desvio
padrão
(0,002)
ressaltou
consistência
das
métricas,
conferindo
confiabilidade
previsibilidade
modelo
proposto.
Annals of GIS,
Journal Year:
2024,
Volume and Issue:
30(1), P. 1 - 14
Published: Jan. 2, 2024
The
Annual
Meeting
of
the
American
Association
Geographers
(AAG)
in
2023
marked
a
five-year
milestone
since
first
Geospatial
Artificial
Intelligence
(GeoAI)
Symposium
was
held
at
AAG
2018.
In
past
five
years,
progress
has
been
made
while
open
questions
remain.
this
context,
we
organized
an
panel
and
invited
panellists
to
discuss
advances
limitations
GeoAI
research.
commended
successes,
such
as
development
spatially
explicit
models,
production
large-scale
geographic
datasets,
use
address
real-world
problems.
also
shared
their
thoughts
on
current
research,
which
were
considered
opportunities
engage
theories
geography,
enhance
model
explainability,
quantify
uncertainty,
improve
generalizability.
This
article
summarizes
presentations
from
provides
after-panel
organizers.
We
hope
that
can
make
these
more
accessible
interested
readers
help
stimulate
new
ideas
for
future
breakthroughs.
Environment and Planning B Urban Analytics and City Science,
Journal Year:
2023,
Volume and Issue:
51(5), P. 1104 - 1123
Published: Sept. 29, 2023
Geospatial
artificial
intelligence
(GeoAI)
is
proliferating
in
urban
analytics,
where
graph
neural
networks
(GNNs)
have
become
one
of
the
most
popular
methods
recent
years.
However,
along
with
success
GNNs,
black
box
nature
AI
models
has
led
to
various
concerns
(e.g.
algorithmic
bias
and
model
misuse)
regarding
their
adoption
particularly
when
studying
socio-economics
high
transparency
a
crucial
component
social
justice.
Therefore,
desire
for
increased
explainability
interpretability
attracted
increasing
research
interest.
This
article
proposes
an
explainable
spatially
explicit
GeoAI-based
analytical
method
that
combines
convolutional
network
(GCN)
graph-based
(XAI)
method,
called
GNNExplainer.
Here,
we
showcase
ability
our
proposed
two
studies
within
analytics:
traffic
volume
prediction
population
estimation
tasks
node
classification
classification,
respectively.
For
these
tasks,
used
Street
View
Imagery
(SVI),
trending
data
source
analytics.
We
extracted
semantic
information
from
images
assigned
them
as
features
roads.
The
GCN
first
provided
reasonable
predictions
related
by
encoding
roads
nodes
connectivities
graphs.
GNNExplainer
then
offered
insights
into
how
certain
are
made.
Through
such
process,
practical
conclusions
can
be
derived
phenomena
studied
here.
In
this
paper
also
set
out
path
developing
XAI
future
studies.
Vision
foundation
models
are
a
new
frontier
in
Geospatial
Artificial
Intelligence
(GeoAI),
an
interdisciplinary
research
area
that
applies
and
extends
AI
for
geospatial
problem
solving
geographic
knowledge
discovery,
because
of
their
potential
to
enable
powerful
image
analysis
by
learning
extracting
important
features
from
vast
amounts
data.
This
paper
evaluates
the
performance
first-of-its-kind
model,
IBM-NASA's
Prithvi,
support
crucial
task:
flood
inundation
mapping.
model
is
compared
with
convolutional
neural
network
vision
transformer-based
architectures
terms
mapping
accuracy
flooded
areas.
A
benchmark
dataset,
Sen1Floods11,
used
experiments,
models'
predictability,
generalizability,
transferability
evaluated
based
on
both
test
dataset
completely
unseen
model.
Results
show
good
Prithvi
highlighting
its
advantages
segmenting
areas
previously
regions.
The
findings
also
indicate
improvement
adopting
multi-scale
representation
learning,
developing
more
end-to-end
pipelines
high-level
tasks,
offering
flexibility
input
data
bands.
IEEE Journal of Selected Topics in Applied Earth Observations and Remote Sensing,
Journal Year:
2024,
Volume and Issue:
17, P. 7386 - 7409
Published: Jan. 1, 2024
In
remote
sensing
(RS),
multiple
modalities
of
data
are
usually
available,
e.g.,
RGB,
Multispectral,
Hyperspectral,
LiDAR,
and
SAR.
Multimodal
machine
learning
systems,
which
fuse
these
rich
multimodal
modalities,
have
shown
better
performance
compared
to
unimodal
systems.
Most
research
assumes
that
all
present,
aligned,
noiseless
during
training
testing
time.
However,
in
real-world
scenarios,
it
is
common
observe
one
or
more
missing,
noisy,
non-aligned,
either
both.
addition,
acquiring
large-scale,
noise-free
annotations
expensive,
as
a
result,
lacking
sufficient
annotated
datasets
having
deal
with
inconsistent
labels
open
challenges.
These
challenges
can
be
addressed
under
paradigm
called
co-learning.
This
paper
focuses
on
co-learning
techniques
for
data.
We
first
review
what
available
the
domain
key
benefits
combining
context.
then
tasks
would
benefit
from
processing
including
classification,
segmentation,
target
detection,
anomaly
temporal
change
detection.
dive
deeper
into
technical
details
by
reviewing
than
200
recent
efforts
this
area
provide
comprehensive
taxonomy
systematically
state-of-the-art
approaches
4
missing
noisy
limited
modality
annotations,
weakly-paired
modalities.
Based
insights,
we
propose
emerging
directions
inform
potential
future
sensing.
Environmental Science and Ecotechnology,
Journal Year:
2025,
Volume and Issue:
24, P. 100538 - 100538
Published: Feb. 3, 2025
Precise
identification
and
categorization
of
building
materials
are
essential
for
informing
strategies
related
to
embodied
carbon
reduction,
retrofitting,
circularity
in
urban
environments.
However,
existing
material
databases
typically
limited
individual
projects
or
specific
geographic
areas,
offering
only
approximate
assessments.
Acquiring
large-scale
precise
data
is
hindered
by
inadequate
records
financial
constraints.
Here,
we
introduce
a
novel
automated
framework
that
harnesses
recent
advances
sensing
technology
deep
learning
identify
roof
facade
using
remote
Google
Street
View
imagery.
The
model
was
initially
trained
validated
on
Odense's
comprehensive
dataset
then
extended
characterize
across
Danish
landscapes,
including
Copenhagen,
Aarhus,
Aalborg.
Our
approach
demonstrates
the
model's
scalability
adaptability
different
contexts
architectural
styles,
providing
high-resolution
insights
into
distribution
diverse
types
cities.
These
findings
pivotal
sustainable
planning,
revising
codes
lower
emissions,
optimizing
retrofitting
efforts
meet
contemporary
standards
energy
efficiency
emission
reductions.
Abstract.
The
revolutionary
advances
of
Artificial
Intelligence
(AI)
in
the
past
decade
have
brought
transformative
innovation
across
science
and
engineering
disciplines.
Also
field
Arctic
science,
we
witnessed
an
increasing
trend
adoption
AI,
especially
deep
learning,
to
support
analysis
big
data
facilitate
new
discoveries.
In
this
paper,
provide
a
comprehensive
review
applications
learning
sea
ice
remote
sensing
domains,
focusing
on
problems
such
as
lead
detection,
thickness
estimation,
concentration,
extent
forecasting
motion
detection
well
type
classification.
addition
discussing
these
applications,
also
summarize
technological
that
customized
solutions,
including
loss
functions
strategies
better
understand
dynamics.
To
promote
growth
exciting
interdisciplinary
field,
further
explore
several
research
areas
where
community
can
benefit
from
cutting-edge
AI
technology.
These
include
improving
multi-modal
capabilities,
enhancing
model
accuracy
measuring
prediction
uncertainty,
leveraging
foundation
models,
deepening
integration
with
physics-based
models.
We
hope
paper
serve
cornerstone
progress
using
inspire
field.
International Journal of Geographical Information Science,
Journal Year:
2024,
Volume and Issue:
38(10), P. 2061 - 2082
Published: June 20, 2024
Cartographic
map
generalization
involves
complex
rules,
and
a
full
automation
has
still
not
been
achieved,
despite
many
efforts
over
the
past
few
decades.
Pioneering
studies
show
that
some
tasks
can
be
partially
automated
by
deep
neural
networks
(DNNs).
However,
DNNs
are
used
as
black-box
models
in
previous
studies.
We
argue
integrating
explainable
AI
(XAI)
into
DL-based
process
give
more
insights
to
develop
refine
understanding
what
cartographic
knowledge
exactly
is
learned.
Following
an
XAI
framework
for
empirical
case
study,
visual
analytics
quantitative
experiments
were
applied
explain
importance
of
input
features
regarding
prediction
pre-trained
ResU-Net
model.
This
experimental
study
finds
XAI-based
visualization
results
easily
interpreted
human
experts.
With
proposed
workflow,
we
further
find
DNN
pays
attention
building
boundaries
than
interior
parts
buildings.
thus
suggest
boundary
intersection
union
better
evaluation
metric
commonly
qualifying
raster-based
results.
Overall,
this
shows
necessity
feasibility
part
future
development
frameworks.