Thermal Radiation and Thermo-Diffusion in Casson-Ferrofluid over a Magnetized Porous Surface: RSM Analysis
S Manjunatha,
No information about this author
J. Santhosh Kumar,
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Khalil Ur Rehman
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et al.
International Journal of Thermofluids,
Journal Year:
2025,
Volume and Issue:
unknown, P. 101130 - 101130
Published: Feb. 1, 2025
Language: Английский
Optimizing power and cooling: SOR-based computational analysis of hybrid nanoliquid flow in Darcy porous medium
Results in Engineering,
Journal Year:
2025,
Volume and Issue:
unknown, P. 104602 - 104602
Published: March 1, 2025
Language: Английский
An investigation of inclined magnetic field on viscous dissipation, Joule heating and thermal diffusion of Casson-hybrid nanofluid over magnetized porous surfaces: Simulation using RSM
Kuracha Nirisha,
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Sujatha Sree,
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V. Nagaradhika
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et al.
Research Square (Research Square),
Journal Year:
2025,
Volume and Issue:
unknown
Published: May 9, 2025
Abstract
Hybrid
nanofluids
have
been
utilized
in
an
assortment
of
thermal
engineering
applications,
that
include
heat
exchangers,
materials
science
research,
and
industrial
domains
like
solar
through
collectors,
food
processing,
aerospace
engineering.
The
examination
the
hydrodynamic
behavior
a
Casson
hybrid
nanofluid
porous
medium
subjected
to
bilinear
stretching
surface
is
ultimate
objective
this
study.
effects
radiation,
chemical
reactions,
volumetric
source/sink,
Joule
heating
viscous
dissipation
are
all
included
mathematical
model.
When
magnetic
field
with
inclination
present,
fluid
electrically
conducting.
By
means
similarity
transformations,
governing
nonlinear
coupled
partial
differential
equations
(PDEs)
which
characterize
flow
phenomena
transformed
into
system
ordinary
(ODEs).
MATLAB
bvp4c
solver
conjunction
shooting
technique
yields
numerical
solutions.
outcomes,
show
how
different
dimensionless
parameters
affect
field,
temperature
distribution,
concentration
profiles,
displayed
both
graphically
tabularly.
skin
friction
coefficient,
Sherwood
number,
Nusselt
number
at
among
derived
quantities
calculated
examined.
In
particular,
momentum
boundary
layer
thickness
decreases
as
parameter
increases.
On
other
hand,
velocity
rise
when
increased.
As
values
source,
Dufour
effect,
parameter,
width
layer.
Through
average
99.87%
statistical
analysis
employing
adjusted
R-squared
metrics
demonstrates
high
degree
model
fitting
for
coefficient.
more
sensitive
differing
effect.
implementation
response
methodology
thorough
investigation
intricate
relationships
between
behavior,
porosity
two
significant
improvements.
Language: Английский