AIP Advances,
Journal Year:
2023,
Volume and Issue:
13(6)
Published: June 1, 2023
The
study
of
Williamson
nanofluid
under
peristaltic
pumping
is
conducted
in
this
work.
model
equations
are
developed
using
the
magnetic
field
and
convection
effects,
consequently,
a
nonlinear
system
ordinary
differential
achieved.
Then,
residual
method
based
on
linearly
independent
set
functions
known
as
moments
implemented
portrayed
results
parameters’
variations.
revealed
that
can
be
controlled
by
increasing
values
Gr
Gc;
however,
dual
effects
directed
movement
fluid
examined.
heat
transfer
augmentation
observed
for
stronger
Brinkman
number
it
higher
toward
channel
walls.
Similarly,
thermophoretic
effect
Brownian
motion
particles
highly
affect
concentration
nanofluid.
Alexandria Engineering Journal,
Journal Year:
2023,
Volume and Issue:
72, P. 83 - 96
Published: April 5, 2023
In
this
study,
the
mixed
convective
stagnation-point
flow
of
a
Al2O3-Cu/H2O
hybrid
nanofluid
towards
stretched
disc
with
boundary
and
zero
mass
flux
condition
is
described
suction
viscous
dissipation
effects.
The
process
accomplished
by
using
thermophoretic
Brownian
motion
physical
phenomena.
After
performing
similarity
transformation
on
PDEs
in
order
to
convert
them
into
an
ODE
system,
bvp4c
solver
then
employed
carry
out
numerical
solution.
study
that
was
above,
flow,
heat,
transfer
characteristics
were
investigated
assistance
Buongiorno
model
Devi
model.
following
brought
up
as
points
contention:
ϕ1,ϕ2,λ,S,Nt,Nb,Le,Ec,Bi
B.
There
very
good
consonance
among
existing
antecedent
results
undeniable
cases,
well
connection
error
approximately
0%.
velocity
temperature
profiles
upsurge
increment
nanoparticle
volume
fraction
convection
parameter,
while
increases
addition
parameters.
As
result
we
are
able
estimate
thermal
behavior
when
parameters
embedded.
Case Studies in Thermal Engineering,
Journal Year:
2023,
Volume and Issue:
44, P. 102825 - 102825
Published: March 2, 2023
The
fins
performance
under
natural
convection
is
essential
to
make
it
more
functional
for
large
scale
applications
specifically
in
thermal
engineering.
For
this,
important
introduce
new
techniques
enhance
the
instead
of
traditional
way.
Thus,
this
study
introduces
a
way
fin
efficient
using
ternary
nanomaterial
nanoparticles
shape
factor.
annular
significantly
contributes
electronics
exhaust
hot
air,
injector
pumps
and
applied
Methodology:
This
work
focuses
on
energy
model
factors.
Therefore,
nanofluid,
convection,
radiation
magnetic
field
used
develop
model.
Then,
RKF-45
implemented
investigate
physical
results.
Keen
analysis
results
reveal
that
coefficient
conductivity
ranging
from
0.0%
<
α1
3.0%
have
major
role
performance.
Induction
Rd
are
reliable
cooling
and,
heating
source
Q1
=
0.2,0.4,0.6,0.8
promote
capability
existence
(Al2O3–CuO–Cu)
with
concentration
factor
up
2%.
On
comparative
basis,
makes
than
hybrid
nanomaterial.
Heliyon,
Journal Year:
2023,
Volume and Issue:
9(9), P. e20057 - e20057
Published: Sept. 1, 2023
The
heat
transfer
remains
a
huge
problem
for
industrialists
and
engineers
because
many
production
processes
required
considerable
amount
of
to
finish
the
process
successfully.
Although,
conventional
fluids
have
large
scale
industrial
applications
but
unable
provide
transfer.
Therefore,
study
is
organized
propose
new
ternary
model
using
different
physical
constraints.
key
area
nanofluid
are
chemical,
applied
thermal
food
processing
engineering.and
Methodology:
purpose
this
research
introduce
impressive
effects
radiations,
surface
convection
saddle/nodal
points.
results
simulated
via
RKF-45
discussed
in
detail.The
strength
Al2O3
nanoparticles
form
1%-7%
(keeping
fixed
CuO
Cu
as
4%
6%)
s1
=
-0.2,-0.4,-0.6,-0.8
controlled
fluid
movement
while
0.2,0.4,0.6,0.8
boosted
velocity.
Increasing
Bi
0.1,0.2,0.3,0.4
increased
temperature
significantly.
Further,
shear
drag
maximum
radiations
Rd
enhances
rate.
Heliyon,
Journal Year:
2023,
Volume and Issue:
9(4), P. e15012 - e15012
Published: March 31, 2023
Significance
of
studyNanofluids
with
aggregation
effects
mediated
by
nanoparticles,
like
geothermal
panels
and
crossflow
heat
exchangers,
ignite
new
industrial
interests.
Polymer
conversion
processes
have
transport
phenomena
in
the
stagnation
zone
that
must
be
continuously
improved
to
raise
process
quality
standard.Aim
studyHence,
current
computational
study
examines
a
TiO2−C2H6O2
nanofluid's
unsteady
stagnation-point
flow
performance
via
shrinking
horizontal
cylinder.
In
addition,
magnetic
field,
joule-heating
viscous
dissipation,
nanoparticles
mass
suction
on
boundary
layer
are
reflected.Methodology:
The
RK-IV
shooting
method
is
applied
resolve
simplified
mathematical
model
numerically
computing
software
MATHEMATICA.
certain
circumstances,
comparing
prior
findings
indicates
good
agreement
relative
error
around
0%.FindingsThe
implementation
transfer
operation
may
increasing
settings.
Unsteadiness,
nanoparticle
volume
fraction,
magnetic,
curvature,
Eckert
number
(implies
operating
Joule
heating
dissipation)
all
influence
rate.
velocity
temperature
profiles
both
increase
as
unsteadiness,
fraction
parameters
increase,
whereas
curvature
show
opposite
behavior.
When
values
were
changed
from
2.0
2.5
φ
=
0.01,
rates
rose
4.751%.
A
comparison
shows
has
better
profile,
while
without
profile.
AIMS Mathematics,
Journal Year:
2023,
Volume and Issue:
8(7), P. 15932 - 15949
Published: Jan. 1, 2023
<abstract>
<sec><title>Significance</title><p>The
study
of
non-transient
heat
transport
mechanism
in
mono
nano
as
well
ternary
nanofluids
attracts
the
researchers
because
their
promising
characteristics.
Applications
these
fluids
spread
industrial
and
various
engineering
disciplines
more
specifically
chemical
applied
thermal
engineering.
Due
huge
significance
nanofluids,
is
organized
for
latest
class
termed
along
with
induced
magnetic
field.</p>
</sec>
<sec><title>Methodology</title><p>The
model
development
done
via
similarity
equations
properties
nanoparticles,
resulting
a
nonlinear
mathematical
model.
To
analyze
physical
results
parametric
values
performed
RKF-45
scheme.</p>
<sec><title>Study
findings</title><p>The
reveal
that
velocity
$
F{'}\left(\eta
\right)
increased
increasing
m
=
0.1,
0.2,
0.3
{\lambda
}_{1}
1.0,
1.2,
1.3
$.
However,
decreased
{\delta
Tangential
G{'}\left(\eta
reduces
rapidly
near
wedge
surface
{M}_{1}
Further,
nanofluid
was
greater
than
hybrid
nanofluids.
Shear
drag
local
gradient
quantities
were
greatest
nanofluid.</p>
</abstract>
Journal of Computational Design and Engineering,
Journal Year:
2024,
Volume and Issue:
11(2), P. 22 - 36
Published: Jan. 29, 2024
Abstract
The
study
of
variety
Newtonian
nanofluids
subject
to
various
physical
model
parameters
gained
much
interest
engineers
and
scientists.
Owing
their
coolant
absorption
characteristics,
these
are
broadly
found
in
chemical
engineering,
biomedical
engineering
(expansion
contraction
veins
arteries),
detection
cancer
cells
through
magnetic
nanoparticles,
microchips,
particularly
petroleum
industry.
This
focuses
on
investigation
nanofluid
heat
transfer
applications
inside
a
channel
formed
by
expanding/contracting
walls.
A
new
transport
is
introduced
adding
the
effects
nanoparticles
molecular
diameters,
thermal
radiations,
walls
permeability.
Then,
numerical
code
for
developed
executed
analyze
dynamics
from
aspects.
For
expanding
(${\alpha
}_1
=
1.0,2.0,3.0,4.0$)
contracting
-
1.0,
2.0,
3.0,
4.0$)
walls,
velocity
examined
maximum
center.
However,
fluid
movement
working
domain
reverse
proportion
${Re}
1.0,3.0,5.0,7.0$.
Further,
high
absorbent
(${A}_1
0.1,0.3,0.5,0.7$)
controlled
motion
both
${\alpha
>
0$
<
0$,
respectively.
addition
radiation
number
${Rd}
0.1,0.3,0.5,0.7$
played
role
catalytic
parameter
which
imperatively
increased
temperature.
temperature
ratio
${\theta
}_r
reduced
this
decrease
rapid
conventional
fluid.
Case Studies in Thermal Engineering,
Journal Year:
2024,
Volume and Issue:
60, P. 104599 - 104599
Published: May 27, 2024
This
article
explores
the
enhancement
of
thermal
exchange
in
a
dissipative
Triple-nanoparticle
hybrid
fluid
over
stretchable
wavy
cylindrical
surface
with
slip
effect,
incorporating
Python
bvp
algorithm
artificial
intelligence
AI
analysis
numerical
results.
The
stochastic
gives
enhanced
and
optimized
results
predictive
modeling,
randomness
influencing
parameters
nonlinear
turbulent
behavior
model.
model
has
significant
importance
application
noise
reducing
drag
reduction
devices
or
structures.
Moreover,
presented
geometrical
structure
is
useful
enhancing
conduction
characteristic.
intricate
interplay
constituent
nanoparticles
their
effect
on
complex
heat
transfer
optimization
main
focus
this
study.
Mathematical
Model
PDEs
flow
problem
converted
into
system
ODEs
by
similarity
transformations
introducing
dimensionless
parameters.
Numerical
solutions
emerged
are
obtained
solver
graphical
presented.
To
expedite
solution
process
enhance
accuracy
prediction,
advanced
algorithm,
such
as
neural
network
machine
learning
technique
adopted.
dataset
from
embedded
for
further
using
Levenberg
Marquardt
Feed-forward
Algorithm
(LMFA)
10
computing
neurons
4
output
layers
representing
parametric
variations.
A
rise
speed
observed
higher
value
yield
stress
Newtonian-behavior
i.e.
Casson
parameter
stretching
λ
sheet,
but
shows
decline
turbulence
.
Temperature
profile
show
descending
inclination
Eckert
ratio
Ec,
Prandtl
momentum-thermal
diffusivity.