Advances in machine learning-driven pore pressure prediction in complex geological settings
Adindu Donatus Ogbu,
No information about this author
Kate A. Iwe,
No information about this author
Williams Ozowe
No information about this author
et al.
Computer Science & IT Research Journal,
Journal Year:
2024,
Volume and Issue:
5(7), P. 1648 - 1665
Published: July 25, 2024
Advances
in
machine
learning
(ML)
have
revolutionized
pore
pressure
prediction
complex
geological
settings,
addressing
critical
challenges
oil
and
gas
exploration
production.
Traditionally,
predicting
accurately
heterogeneous
anisotropic
formations
has
been
fraught
with
uncertainties
due
to
the
limitations
of
conventional
geophysical
petrophysical
methods.
Recent
developments
ML
techniques
offer
enhanced
precision
reliability
estimation,
leveraging
vast
datasets
sophisticated
algorithms
analyze
interpret
complexities.
ML-driven
approaches
utilize
a
variety
data
sources,
including
well
logs,
seismic
data,
drilling
parameters,
train
predictive
models
that
can
handle
non-linear
multi-dimensional
nature
subsurface
conditions.
Techniques
such
as
neural
networks,
support
vector
machines,
ensemble
methods
shown
significant
promise
capturing
intricate
relationships
between
variables
pressure.
These
adaptively
learn
from
new
improving
their
capabilities
over
time.
A
notable
advantage
is
its
ability
integrate
disparate
types
scales,
providing
holistic
understanding
regimes.
This
integration
enhances
accuracy
forecasts,
which
crucial
for
wellbore
stability,
safety,
hydrocarbon
recovery.
For
instance,
real-time
operations
be
fed
into
dynamically
update
estimates,
allowing
immediate
adjustments
plans
reducing
risk
blowouts
or
other
hazards.
Moreover,
facilitate
identification
subtle
patterns
trends
might
overlooked
by
traditional
capability
particularly
valuable
deep-water
environments,
tectonically
active
regions,
unconventional
reservoirs,
where
often
fall
short.
Despite
promising
advances,
remain
widespread
adoption
prediction.
include
need
extensive
training
datasets,
interpretability
models,
workflows
existing
geoscientific
practices.
Addressing
these
requires
interdisciplinary
collaboration
geoscientists,
scientists,
engineers
develop
robust,
user-friendly
solutions.
In
summary,
represents
advancement
managing
complexities
geology.
By
enhancing
reliability,
technologies
are
poised
improve
efficiency,
productivity
industry,
challenging
settings.
Keywords:
Advance,
ML,
Pore
Pressure,
Prediction,
Geological
Settings.
Language: Английский
Advances in rock physics for pore pressure prediction: A comprehensive review and future directions
Adindu Donatus Ogbu,
No information about this author
Kate A. Iwe,
No information about this author
Williams Ozowe
No information about this author
et al.
Engineering Science & Technology Journal,
Journal Year:
2024,
Volume and Issue:
5(7), P. 2304 - 2322
Published: July 24, 2024
Advances
in
rock
physics
have
significantly
enhanced
pore
pressure
prediction,
a
critical
aspect
of
subsurface
exploration
and
drilling
operations.
This
comprehensive
review
delves
into
the
latest
developments
methodologies,
integrating
empirical,
theoretical,
computational
approaches
to
predict
more
accurately.
Traditional
prediction
methods
often
rely
on
well
log
data
seismic
attributes,
but
recent
advancements
introduced
innovative
techniques
that
leverage
physical
properties
rocks
provide
reliable
predictions.
Key
advances
include
development
improved
models
better
account
for
complexities
environments,
such
as
heterogeneity
anisotropy.
These
integrate
from
various
sources,
including
logs,
core
samples,
surveys,
create
understanding
subsurface.
Additionally,
application
machine
learning
artificial
intelligence
has
opened
new
avenues
analyzing
large
datasets,
identifying
patterns,
refining
predictive
models.
also
examines
role
laboratory
experiments
field
studies
validating
calibrating
High-pressure
high-temperature
provided
valuable
insights
behavior
under
different
conditions,
which
are
essential
accurate
prediction.
Field
studies,
other
hand,
offer
real-world
help
fine-tuning
methodologies.
Future
directions
integration
advanced
geophysical
techniques,
full-waveform
inversion
distributed
acoustic
sensing,
higher
resolution
detailed
imaging.
The
use
cloud
computing
high-performance
platforms
is
expected
enhance
processing
analysis
making
efficient
scalable.
concludes
by
highlighting
importance
interdisciplinary
collaboration
advancing
By
combining
expertise
geophysics,
petrophysics,
geomechanics,
science,
can
continue
innovate
improve
accuracy
reliability
predictions,
ultimately
enhancing
production
efficiency
oil
gas
industry.
Keywords:
Advances,
Rock
Physics,
Pore
Pressure,
Prediction,
Directions.
Language: Английский
Effective waste management in construction: Techniques and implementation
Benfancy Kelechi Enobie,
No information about this author
Azubuike Chukwudi Okwandu,
No information about this author
Sanni Ayinde Abdulwaheed
No information about this author
et al.
International Journal of Applied Research in Social Sciences,
Journal Year:
2024,
Volume and Issue:
6(8), P. 1642 - 1652
Published: Aug. 11, 2024
This
review
paper
examines
the
critical
issue
of
waste
management
in
construction
industry,
focusing
on
techniques
for
reducing
and
managing
waste.
It
begins
by
highlighting
importance
management,
outlining
significant
environmental
economic
impacts
waste,
setting
research
objectives.
The
then
categorizes
types
identifies
primary
sources
these
wastes.
Effective
reduction
are
discussed,
including
prevention,
reuse,
recycling,
sustainable
practices.
regulatory
policy
frameworks
governing
analyzed,
international
local
policies.
Best
practices
implementation,
illustrated
through
successful
case
examples,
provided,
along
with
roles
various
stakeholders.
impact
modern
technologies
innovations,
such
as
Building
Information
Modeling
(BIM)
Internet
Things
(IoT),
is
explored.
Finally,
addresses
current
challenges
provides
recommendations
future
improvements,
emphasizing
need
collaborative
efforts
among
industry
Keywords:
Construction
Waste
Management,
Sustainable
Construction,
Reduction
Techniques,
(BIM),
Recycling
Reuse.
Language: Английский
Theoretical advancements in operational petrophysics for enhanced reservoir surveillance
Henry Oziegbe Iriogbe,
No information about this author
Chukwuemeka Obed Ebeh,
No information about this author
Femi Bamidele Onita
No information about this author
et al.
Engineering Science & Technology Journal,
Journal Year:
2024,
Volume and Issue:
5(8), P. 2576 - 2588
Published: Aug. 22, 2024
Operational
petrophysics
has
significantly
evolved
through
theoretical
advancements,
enhancing
the
accuracy
and
efficiency
of
reservoir
surveillance.
This
review
paper
explores
foundational
concepts
petrophysics,
including
key
parameters
such
as
porosity,
permeability,
fluid
saturation,
examines
models
advancements
that
have
shaped
modern
practices.
It
highlights
impact
innovative
tools
technologies,
digital
rock
physics,
advanced
well
logging,
real-time
monitoring
systems,
on
improving
data
resolution.
The
also
discusses
emerging
trends,
integration
artificial
intelligence
machine
learning,
addresses
challenges
limitations
facing
field,
high
costs
quality
issues.
Recommendations
for
future
research
are
provided
to
address
these
enhance
field's
capabilities.
By
summarizing
ongoing
challenges,
this
underscores
significance
progress
in
optimizing
management
ensuring
efficient
hydrocarbon
recovery.
Keywords:
Petrophysics,
Reservoir
Surveillance,
Digital
Rock
Physics,
Real-time
Monitoring,
Machine
Learning,
Data
Accuracy.
Language: Английский
Novel petrophysical considerations and strategies for carbon capture, utilization, and storage (CCUS)
Femi Bamidele Onita,
No information about this author
Obinna Joshua Ochulor
No information about this author
Engineering Science & Technology Journal,
Journal Year:
2024,
Volume and Issue:
5(8), P. 2548 - 2561
Published: Aug. 22, 2024
Carbon
Capture,
Utilization,
and
Storage
(CCUS)
is
a
critical
technology
for
mitigating
climate
change
by
capturing
CO?
emissions
from
industrial
sources
storing
them
in
geological
formations.
This
paper
explores
novel
petrophysical
considerations
strategies
enhancing
CCUS
implementation.
These
advanced
techniques
are
inputs
into
the
five
pillars
that
govern
successful
execution
of
projects.
They
are:
capacity,
Containment
risk
analysis
(CRA),
Injectivity,
Monitoring,
Measurement
&
Verification
(MMV)
Stake
holder
management.
use
logging
such
as
high-resolution
imaging,
digital
rock
physics,
nuclear
magnetic
resonance
(NMR),
to
provide
detailed
insights
reservoir
properties,
facilitating
more
accurate
estimation
storage
capacity
Injectivity.
The
integration
machine
learning
artificial
intelligence
enhances
data
interpretation,
optimizing
site
selection,
containment
monitoring
processes.
challenges
opportunities
unconventional
reservoirs,
including
tight
formations
shale
also
addressed.
Effective
involve
thorough
selection
characterization,
injection
techniques,
comprehensive
assessment
mitigation,
supportive
economic
policy
frameworks.
Emerging
technologies
interdisciplinary
collaboration
essential
long-term
sustainability
success
Future
research
needs
include
understanding
behavior
various
settings,
developing
cost-effective
capture
technologies,
improving
public
perception
social
acceptance.
underscores
importance
an
integrated
approach
CCUS,
leveraging
technological
advancements
collaborative
efforts
combat
change.
Keywords:
(CCUS),
Petrophysical
Techniques,
(MMV),
Risk
Assessment.
Language: Английский
Conceptual framework for integrating petrophysical field studies to optimize hydrocarbon recovery
Henry Oziegbe Iriogbe,
No information about this author
Chukwuemeka Obed Ebeh,
No information about this author
Femi Bamidele Onita
No information about this author
et al.
Engineering Science & Technology Journal,
Journal Year:
2024,
Volume and Issue:
5(8), P. 2562 - 2575
Published: Aug. 22, 2024
This
paper
presents
a
conceptual
framework
for
optimizing
hydrocarbon
recovery
by
integrating
petrophysical
field
studies
with
geological
and
engineering
data.
The
is
designed
to
enhance
the
accuracy
of
reservoir
characterization
improve
decision-making
processes
in
exploration
production.
Key
components
include
systematic
collection
integration
data,
development
static
dynamic
models,
application
advanced
technologies
such
as
artificial
intelligence
(AI)
machine
learning
(ML).
By
offering
more
comprehensive
understanding
properties
behavior,
allows
precise
well
placement,
tailored
production
strategies,
effective
implementation
enhanced
techniques.
potential
impact
this
on
success
rates
efficiency
significant,
promising
reduce
operational
risks
increase
rates.
Furthermore,
discusses
challenges
associated
data
model
validation,
providing
solutions
suggesting
future
research
directions
refine
further
framework.
Integrating
emerging
highlighted
critical
advancing
framework's
capabilities,
ensuring
its
relevance
an
evolving
energy
landscape.
Keywords:
Hydrocarbon
Recovery,
Petrophysical
Studies,
Reservoir
Characterization,
Data
Integration,
Advanced
Technologies.
Language: Английский
Best practices and innovations in core/logging contract management: A theoretical review
Henry Oziegbe Iriogbe,
No information about this author
Chukwuemeka Obed Ebeh,
No information about this author
Femi Bamidele Onita
No information about this author
et al.
International Journal of Applied Research in Social Sciences,
Journal Year:
2024,
Volume and Issue:
6(8), P. 1902 - 1915
Published: Aug. 21, 2024
Core/logging
contract
management
is
a
critical
aspect
of
the
resource
extraction
industry,
involving
meticulous
drafting,
negotiation,
execution,
and
monitoring
contracts
related
to
geological
sampling
logging
activities.
This
review
explores
best
practices
innovations
in
core/logging
management,
highlighting
importance
clear
comprehensive
effective
risk
strategies,
rigorous
performance
monitoring,
adherence
legal
compliance
standards.
Additionally,
integrating
technological
advancements
such
as
digital
systems,
blockchain,
data
analytics
examined,
along
with
innovative
process
improvements
incorporating
sustainable
practices.
Despite
benefits
these
innovations,
challenges
remain,
including
regulatory
complexities,
issues,
need
for
enhanced
stakeholder
collaboration.
Future
trends
point
towards
increased
adoption
twins,
smart
contracts,
advanced
analytics,
emphasizing
necessity
continuous
adaptation
proactive
management.
By
adopting
embracing
practitioners
can
enhance
efficiency,
transparency,
reliability
ultimately
leading
more
successful
project
outcomes.
Keywords:
Risk
Technological
Sustainable
practices,
Data
analytics.
Language: Английский