Theoretical analysis of power-law nanofluid across extended sheet with thermal-concentration slip and Soret/Dufour effect
Irfan Haider,
No information about this author
Imtiaz Ahmad Khan,
No information about this author
Fatima Kainat
No information about this author
et al.
Published: Feb. 21, 2025
The
present
research
explores
the
theoretical
analysis
of
power-law
nanofluid
across
extended
sheet
with
thermal-concentration
slip
and
Soret/Dufour
effects.
Physical
problem
is
converted
into
non-linear
differential
equations
via
similar
transformations.
Keller
box
method
has
been
utilized
to
solve
problems.
In
framework,
magnetic
fields
are
integrated.
Box
approach
apply
on
explanatory
algebraic
MATLAB
software
extract
numerical
graphical
results.
features
such
as
temperature
description,
velocity
mass
distribution
examined
in
relation
different
flow
model
variables.
findings
show
that
profile
increases
increasing
variable
while
concentration
rate
decreased.
It
found
heart
transmission
fluid
increased
Brownian
motion
Lewis
variable.
Present
study
useful
for
cooling
process
industrial
mechanical
systems.
Language: Английский
Viscous dissipation and variable density impact on heat-mass transmission in magneto Ree-Eyring nanofluid across stretched sheet with multiple slips
Irfan Haider,
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Nawishta Jabeen,
No information about this author
Ahmad Hussain
No information about this author
et al.
Case Studies in Thermal Engineering,
Journal Year:
2025,
Volume and Issue:
unknown, P. 105871 - 105871
Published: Feb. 1, 2025
Language: Английский
Thermally and chemically reactive boundary layer flow past a wedge moving in a nanofluid with activation energy and thermophoretic diffusion effects
AIP Advances,
Journal Year:
2024,
Volume and Issue:
14(10)
Published: Oct. 1, 2024
This
study
investigates
the
effects
of
activation
energy
and
chemical
reactions
on
boundary
layer
flow
around
a
wedge
that
is
moving
in
nanofluid.
To
represent
problem,
nonlinear
partial
differential
equations
are
utilized.
These
can
be
reduced
to
coupled
ordinary
using
similarity
transformations.
numerically
solved
Keller
Box
technique,
then
their
numerical
pictorial
solutions
studied
MATLAB.
The
looks
at
relationship
between
velocity,
temperature,
concentration
profiles
important
factors
such
as
Prandtl
number,
constant
parameter,
energy,
reaction
rate.
parametric
range
0.1
≤
λ
1.0,
Le
3.0,
E
2.0,
Pr
7.0,
Nt
0.5,
Nb
σ
3.4,
δ
2.5,
β
2.0
Furthermore,
comprehensive
investigation
conducted
into
remedies
for
skin
friction
heat
transmission
It
deduced
growing
magnitude
fluid
velocity
noted
lower
Prandtl,
factor,
greater
energy.
depicted
maximum
enhancing
temperature
with
good
distributions
examined
each
pertinent
factor.
transport
Lewis
temperature-difference
but
increases
pressure-gradient
Brownian
factor
rise.
Language: Английский