Physics of Fluids,
Journal Year:
2025,
Volume and Issue:
37(2)
Published: Feb. 1, 2025
Pipeline
hydraulic
transportation
is
the
primary
method
for
transporting
deep-sea
mineral
resources
and
fossil
fuels.
blockage
often
causes
excessive
pressure
in
pipeline,
leading
to
pipeline
breakage
or
even
cargo
leakage,
which
severely
impacts
safety
can
easily
trigger
secondary
disasters.
Therefore,
clarifying
global
flow
field
within
pipelines,
such
as
particle
distribution,
crucial
monitoring
controlling
systems.
This
study
uses
a
limited
number
of
measurable
wall
sensor
values
inputs
deep
learning
models
reconstruction,
with
solid–liquid
two-phase
three-dimensional
output.
Three
model
frameworks
from
existing
studies
are
summarized,
their
reconstruction
effects
compared.
Based
on
this,
new
framework
proposed.
It
expands
low-dimensional
same
size
using
pseudo-decoder
then
processes
them
through
an
autoencoder.
The
results
indicate
that
achieves
further
accuracy
improvements
compared
previous
three
frameworks,
R2
mean
squared
error
reaching
0.933
5.13
×10−4,
respectively.
Additionally,
skip
connection
configuration
model,
dataset
size,
rate,
well
arrangement
sensors
accuracy,
investigated.
Finally,
transferability
demonstrated
by
reconstructing
fluid
velocity
fields
flow.
Physics of Fluids,
Journal Year:
2025,
Volume and Issue:
37(2)
Published: Feb. 1, 2025
Pipeline
hydraulic
transportation
is
the
primary
method
for
transporting
deep-sea
mineral
resources
and
fossil
fuels.
blockage
often
causes
excessive
pressure
in
pipeline,
leading
to
pipeline
breakage
or
even
cargo
leakage,
which
severely
impacts
safety
can
easily
trigger
secondary
disasters.
Therefore,
clarifying
global
flow
field
within
pipelines,
such
as
particle
distribution,
crucial
monitoring
controlling
systems.
This
study
uses
a
limited
number
of
measurable
wall
sensor
values
inputs
deep
learning
models
reconstruction,
with
solid–liquid
two-phase
three-dimensional
output.
Three
model
frameworks
from
existing
studies
are
summarized,
their
reconstruction
effects
compared.
Based
on
this,
new
framework
proposed.
It
expands
low-dimensional
same
size
using
pseudo-decoder
then
processes
them
through
an
autoencoder.
The
results
indicate
that
achieves
further
accuracy
improvements
compared
previous
three
frameworks,
R2
mean
squared
error
reaching
0.933
5.13
×10−4,
respectively.
Additionally,
skip
connection
configuration
model,
dataset
size,
rate,
well
arrangement
sensors
accuracy,
investigated.
Finally,
transferability
demonstrated
by
reconstructing
fluid
velocity
fields
flow.