Mechanics of Advanced Materials and Structures,
Journal Year:
2024,
Volume and Issue:
unknown, P. 1 - 13
Published: June 6, 2024
The
dynamic
response
of
concrete
structures
reinforced
with
nanocomposites
to
supersonic
airflow
represents
a
critical
aspect
in
aerospace
and
defense
applications,
necessitating
accurate
predictive
models
for
enhanced
structural
integrity
performance.
In
this
study,
we
introduce
innovative
deep
neural
networks
(DNNs)
as
novel
approach
predict
the
behavior
such
under
conditions.
Traditional
modeling
techniques
often
face
challenges
capturing
intricate
interactions
between
material
properties,
geometry,
dynamics,
particularly
presence
nanocomposite
reinforcements.
DNNs
offer
promising
solution
by
leveraging
their
ability
learn
complex
patterns
nonlinear
relationships
from
extensive
datasets.
This
paper
presents
comprehensive
framework
developing
deploying
DNN-based
prediction,
encompassing
network
architecture
design,
training
strategies,
data
preprocessing
tailored
unique
characteristics
nanocomposite-reinforced
structures.
Through
series
case
studies
comparative
analyses,
demonstrate
effectiveness
accuracy
airflow,
including
phenomena
vibration,
flutter,
aerodynamic
instability.
Furthermore,
discuss
potential
advantages
associated
adoption
model
interpretability,
computational
efficiency,
requirements.
Finally,
outline
future
research
directions
opportunities
further
advancing
application
addressing
engineering
beyond.
Mechanics of Advanced Materials and Structures,
Journal Year:
2024,
Volume and Issue:
unknown, P. 1 - 16
Published: Aug. 4, 2024
Bending
responses
of
a
nanocomposite-reinforced
cylindrical
panel
are
studied
in
this
article.
A
shell
is
assumed
micro
scale
and
sandwiched
by
piezoelectric
layers.
In
article,
micro-size
dependent
theory
named
as
the
modified
couple
stress
(MCST)
analytically
employed
kinematic
relations
extended
through
employing
shear
deformable
model
order
to
investigate
electroelastic
bending
three-layered
micro-shell
bonded
between
smart
layers
subjected
an
applied
voltage,
external
internal
pressures.
The
rested
on
two
parametrically
elastic
foundation.
develop
constitutive
relations,
mixture's
rule
well
Halpin-Tsai
utilized
compute
governing
equations.
Electroelastostatic
obtained
trigonometric
functions.
large
parametric
analysis
presented
explore
deflection
with
change
thickness
layer
radius,
length
radius
ratio,
different
characteristics
nanoplatelet
reinforcement
for
both
pressure.
proposed
composite
electromechanical
structure
may
be
used
structures
systems.
controllable
system
can
suggested
usage
graphene
nanoplatelets
because
flexibility
affecting
parameters.
Mechanics of Advanced Materials and Structures,
Journal Year:
2024,
Volume and Issue:
unknown, P. 1 - 20
Published: April 27, 2024
This
article
presents
a
new
method
called
the
artificial
neural
networks-genetic
programming
(ANNs-GP)
algorithm,
which
effectively
predicts
bending
behavior
of
functionally
graded
graphene
origami-enabled
auxetic
metamaterial
(FG-GORAM)
structures
under
transient
conditions.
Functionally
materials
(FGMs)
display
spatial
heterogeneity
in
their
composition
and
microstructure,
resulting
distinctive
mechanical
characteristics
that
make
them
well-suited
for
wide
range
engineering
applications.
The
objective
this
study
is
to
create
prediction
model
can
accurately
capture
intricate
FGM
structures.
To
do
this,
researchers
have
used
ANN-GP
technique,
combines
ANNs
with
GP.
ANN
component
acquires
knowledge
from
dataset
including
actual
or
simulated
data,
while
GP
fine-tunes
structure
parameters
network
improve
its
ability
accurate
predictions.
proposed
algorithm
strengths
predict
FG-GORAM
robust
efficient,
allowing
designers
engineers
optimize
performance
reliability
these
various
effectiveness
proved
by
comparing
it
experimental
data.
shows
has
potential
be
useful
tool
designing
analyzing
sophisticated
Mechanics of Advanced Materials and Structures,
Journal Year:
2024,
Volume and Issue:
unknown, P. 1 - 22
Published: May 17, 2024
This
paper
demonstrates
a
thorough
examination
of
the
bending
behavior
sandwich
concrete
building
structures
that
are
reinforced
with
graphene
nanoplatelets
(GPLs).
The
analysis
is
confirmed
using
machine
learning
technique.
Sandwich
have
notable
benefits
in
terms
strength,
longevity,
and
thermal
insulation,
making
them
well-suited
for
many
applications.
Integrating
GPLs
into
matrix
improves
mechanical
characteristics
performance
these
structures,
especially
behavior.
study
utilizes
technique
to
verify
characterization
temporary
structure
nanoplatelets.
approach
dataset
consisting
simulated
data
create
prediction
model
can
reliably
estimate
response
under
different
loading
situations.
algorithm's
effectiveness
dependability
optimizing
design
demonstrated
through
validation
against
results.
provides
engineers
designers
powerful
tool.
enhances
comprehension
use
approaches
analyzing
designing
sophisticated
structural
materials
systems.
Mechanics of Advanced Materials and Structures,
Journal Year:
2023,
Volume and Issue:
31(22), P. 5581 - 5604
Published: June 8, 2023
Due
to
the
importance
of
safety
in
process
structural
designing
modern
buildings'
ceiling,
this
study
gravitates
on
a
novel
topic
analyzing
thermoelastic
response
concrete
ceiling
reinforced
with
nanoparticles
graphene-platelets
(GPL).
To
end,
mentioned
is
considered
as
fully-clamped
rectangular
plate
exposed
simultaneous
impact
thermal
and
mechanical
loads.
The
exact
form
elasticity
theory
conjunction
differential
quadrature
method
employed
for
acquiring
behavior
system.
Then,
an
artificial
intelligence-based
used
accelerate
computational
process.
Efficiency
accuracy
solution
are
examined
verified
by
means
comparative
study.
results
article
would
be
broadly
design
constructions
near
future.
Mechanics of Advanced Materials and Structures,
Journal Year:
2024,
Volume and Issue:
unknown, P. 1 - 17
Published: May 29, 2024
The
integration
of
advanced
nanocomposites
into
concrete
structures
presents
a
promising
avenue
for
enhancing
their
mechanical
properties
and
durability.
However,
accurately
predicting
the
vibrations
such
remains
complex
challenging
task
due
to
nonlinear
behavior
materials
involved
intricate
interplay
various
influencing
factors.
In
this
study,
we
propose
application
machine
learning
techniques
as
powerful
tool
estimating
reinforced
with
nanocomposites.
By
leveraging
vast
amounts
data
generated
from
mathematical
modeling,
algorithms
can
effectively
capture
relationships
between
material
properties,
structural
configurations,
environmental
conditions,
vibration
responses.
This
article
provides
modeling
simulation
input
methods
suitable
prediction
in
structures,
including
artificial
neural
networks.
Furthermore,
discuss
key
considerations
challenges
associated
developing
accurate
reliable
models
specific
domain,
feature
selection,
model
complexity,
quality,
interpretability.
Through
comprehensive
highlight
potential
versatile
efficient
graphene
oxide
powders
(GOPs).
design,
analysis,
maintenance
not
only
facilitates
more
predictions
but
also
enables
proactive
decision-making
optimization
performance.
Finally,
outline
future
research
directions
opportunities
further
advancing
field
engineering
nanocomposite
materials.
Mechanics of Advanced Materials and Structures,
Journal Year:
2024,
Volume and Issue:
unknown, P. 1 - 33
Published: Nov. 17, 2024
Graphene,
a
single
layer
of
carbon
atoms
arranged
in
two-dimensional
honeycomb
lattice,
has
garnered
significant
attention
recent
years
due
to
its
exceptional
properties
and
diverse
potential
applications.
This
article
provides
an
overview
graphene
synthesis,
wide-ranging
applications,
the
associated
challenges
opportunities.
Several
methods
have
been
developed
for
synthesizing,
including
mechanical
exfoliation,
chemical
vapor
deposition
(CVD),
electrochemical
synthesis.
These
techniques
offer
varying
levels
scalability,
quality,
cost-effectiveness,
catering
specific
needs
different
Graphene's
unique
properties,
such
as
high
electrical
thermal
conductivity,
strength,
flexibility,
led
integration
into
numerous
fields,
electronics,
energy,
medical
industry,
aerospace.
Despite
immense
potential,
faces
related
large-scale
production,
environmental
impact,
standardization
synthesis
techniques.
Additionally,
development
cost-effective
scalable
manufacturing
processes
remains
priority.
Furthermore,
graphene's
role
enabling
sustainable
technologies
enhancing
existing
products
underscores
importance
shaping
future
various
industries.
In
conclusion,
significantly
progressed,
leading
Mechanics of Advanced Materials and Structures,
Journal Year:
2024,
Volume and Issue:
unknown, P. 1 - 15
Published: March 7, 2024
Proper
consideration
should
be
given
to
the
stability
of
new
concrete
in
order
assure
quality
building
engineering,
while
also
demanding
its
excellent
flowability.
The
inadequate
initial
state
negatively
impacts
long-term
durability
reinforced
structures,
although
this
issue
has
not
been
well
addressed.
This
work
focuses
on
assessing
aerodynamic
response
ceilings
with
advanced
functionally
graded
nano-materials.
As
reinforcement
current
structure,
graphene
oxide
powders
(GOPs)
are
used
improved
material
properties
than
other
types
reinforcement.
For
mathematical
modeling
Reddy's
Higher-order
Shear
Deformation
Theory
is
model
work's
displacement
fields.
Also,
perturbation
force
mathematically
described
using
Bernoulli
equation
for
potential
flow.
After
that
a
method
involves
separating
variables,
we
may
get
answer
pressure
ultimate
form.
Haber-Schaim
foundation
made
auxetic
Cartesian
coordinate
system
high
accuracy.
obtaining
governing
equations
and
associated
boundary
conditions,
meshless
approach
weighted
orthogonal
basis
Kronecker
delta-based
shape
functions
solve
equations.
Finally,
some
suggestions
improving
aerodynamics
flutter
velocity
airflow
presented
plate
by
GOPs
related
industries.
Mechanics of Advanced Materials and Structures,
Journal Year:
2024,
Volume and Issue:
unknown, P. 1 - 12
Published: May 31, 2024
This
research
presents
the
use
of
advanced
nanocomposites
in
bridge
building
as
a
way
to
improve
stability
and
efficiency
concrete
structures.
By
using
nanocomposites,
problems
with
performance
under
different
loading
circumstances,
durability,
structural
integrity
have
be
addressed.
study
examines
behavior
structures
reinforced
cutting-edge
shear
deformation
theory,
numerical
solution
process,
Hamilton's
principle.
The
starts
out
by
examining
makeup
features
nanocomposite
materials,
emphasizing
how
they
may
enhance
mechanical
qualities
concrete.
dynamic
response
various
scenarios
are
assessed
simulations
analysis
grounded
on
complex
relationship
between
performance,
geometry,
material
composition
is
captured
theory.
nanocomposite-reinforced
structures,
including
their
stiffness,
strength,
weight
fraction
fully
understood
thanks
this
theoretical
framework.
study's
conclusions
provide
insight
into
well-suited
sophisticated
for
boosting
strength
constructions,
especially
when
it
comes
bridges.
Engineers
researchers
system
design
robust
sustainable
infrastructure
development
principle,
methodologies.