Mohamed Reda Ali Mohamed
Asst. Professor
Characteristics of melting heat transport of blood with time‑dependent cross‑nanoluid model using Keller–Box and BVP4C method
Engineering with Computers • 2023
Publication Information
Authors
Assad Ayub
· Zulqurnain Sabir
1
· Gilder Cieza Altamirano
2
3
· R. Sadat
· Mohamed R. Ali
4
Keywords
Cross-nanoluid model · Melting and convective heat transport of blood · BVP4C · Keller–Box method
Journal
Engineering with Computers
Publisher
Not Available
Volume
Not Available
Issue
Not Available
Pages
Not Available
publication.type
International
Paper Link
Open Link
Supplementary Materials
Not Available
Abstract
The blood low with heat transportation has prominent clinical importance during the levels where the blood low needs
to be checked (surgery) and the heat transportation rate must be controlled (therapy). This work presents an analysis of the
melting heat transport of blood, which consists of iron nanoparticles along free convection with cross-model and solution
of the partial diferential equation (PDEs) are emerged by the mathematical model. Being the importance of iron oxide
nanoparticles in applications of the biomedical ield due to their intrinsic properties such as colloidal stability, surface engineering capability and
low
toxicity,
this
study has been
launched.
Furthermore, PDEs of
the
problem
are
converted
into
a
set of nonlinear
ordinary
diferential
equations (ODEs)
by
proper
transformations. The solution of
this
system of ODEs
is
calculated
through RK 4
method and
Keller–Box
scheme. Some leading points and
numerical
results of
this
study of
both
types
of
presence
and
absence
of
meting
efects
are
tabulated.
to be checked (surgery) and the heat transportation rate must be controlled (therapy). This work presents an analysis of the
melting heat transport of blood, which consists of iron nanoparticles along free convection with cross-model and solution
of the partial diferential equation (PDEs) are emerged by the mathematical model. Being the importance of iron oxide
nanoparticles in applications of the biomedical ield due to their intrinsic properties such as colloidal stability, surface engineering capability and
low
toxicity,
this
study has been
launched.
Furthermore, PDEs of
the
problem
are
converted
into
a
set of nonlinear
ordinary
diferential
equations (ODEs)
by
proper
transformations. The solution of
this
system of ODEs
is
calculated
through RK 4
method and
Keller–Box
scheme. Some leading points and
numerical
results of
this
study of
both
types
of
presence
and
absence
of
meting
efects
are
tabulated.