Numerical simulation and experimental study on the steady-state levitation characteristics of magnetic ball driven by external magnets in arterial blood vessels

CUI, Zhanxiang ;LU, Yonghua ;ZHU, Yun ;WANG, Zezheng ;WANG, Ziyuan .
Numerical simulation and experimental study on the steady-state levitation characteristics of magnetic ball driven by external magnets in arterial blood vessels. 
Articles in Press, [S.l.], v. 0, n.0, p. , december 2024. 
ISSN 0039-2480.
Available at: <https://www.sv-jme.eu/sl/article/numerical-simulation-and-experimental-study-on-the-steady-state-levitation-characteristics-of-magnetic-ball-driven-by-external-magnets-in-arterial-blood-vessels/>. Date accessed: 02 apr. 2025. 
doi:http://dx.doi.org/.

Cui, Z., Lu, Y., Zhu, Y., Wang, Z., & Wang, Z.
(0).
Numerical simulation and experimental study on the steady-state levitation characteristics of magnetic ball driven by external magnets in arterial blood vessels.
Articles in Press, 0(0), .
doi:http://dx.doi.org/

@article{.,
	author = {Zhanxiang  Cui and Yonghua  Lu and Yun  Zhu and Zezheng  Wang and Ziyuan  Wang},
	title = {Numerical simulation and experimental study on the steady-state levitation characteristics of magnetic ball driven by external magnets in arterial blood vessels},
	journal = {Articles in Press},
	volume = {0},
	number = {0},
	year = {0},
	keywords = {Magnetic levitation; blood vessel; Steady-state levitation; Numerical simulation; Multi-objective optimization; },
	abstract = {Research on micro-robots in the medical field has provided innovative and significant methods for the treatment of many diseases. In order to expand the application scenarios of controllable micro-mechanical diagnosis and treatment within human blood vessels, this study presents the design of a magnetic levitation ball system in blood vessels. The magnetic ball is driven by an external magnetic field, and simulation calculations of the system's electromagnetic field, flow field characteristics, and mechanical state were conducted using finite element software. The study investigated the effects of the ball's position, magnetic pole direction, and the driving current of the electromagnetic coil on the electromagnetic force acting on the magnetic ball. Finite element numerical simulations were performed on the blood flow field characteristics to examine the effects of blood flow rate and position on the blood flow field characteristics and the fluid drag forces acting on the ball. A joint simulation of the flow field and magnetic field of the magnetic ball was conducted on the ANSYS Workbench platform, and a multi-objective optimization method was used to solve for the physical field parameters of the steady-state suspension of the magnetic ball. Experiments on the external magnetic driven suspension of the magnetic ball in liquid pipelines were carried out to study the relationship between the driving current of the electromagnetic coil, liquid flow rate, and the steady-state suspension position of the ball. A mechanical analysis model was established, and the experimental results validated the feasibility of the simulation model and multi-objective optimization method.},
	issn = {0039-2480},	pages = {},	doi = {},
	url = {https://www.sv-jme.eu/sl/article/numerical-simulation-and-experimental-study-on-the-steady-state-levitation-characteristics-of-magnetic-ball-driven-by-external-magnets-in-arterial-blood-vessels/}
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Cui, Z.,Lu, Y.,Zhu, Y.,Wang, Z.,Wang, Z.
0 December 0. Numerical simulation and experimental study on the steady-state levitation characteristics of magnetic ball driven by external magnets in arterial blood vessels. Articles in Press. [Online] 0:0

%A Cui, Zhanxiang 
%A Lu, Yonghua 
%A Zhu, Yun 
%A Wang, Zezheng 
%A Wang, Ziyuan 
%D 0
%T Numerical simulation and experimental study on the steady-state levitation characteristics of magnetic ball driven by external magnets in arterial blood vessels
%B 0
%9 Magnetic levitation; blood vessel; Steady-state levitation; Numerical simulation; Multi-objective optimization; 
%! Numerical simulation and experimental study on the steady-state levitation characteristics of magnetic ball driven by external magnets in arterial blood vessels
%K Magnetic levitation; blood vessel; Steady-state levitation; Numerical simulation; Multi-objective optimization; 
%X Research on micro-robots in the medical field has provided innovative and significant methods for the treatment of many diseases. In order to expand the application scenarios of controllable micro-mechanical diagnosis and treatment within human blood vessels, this study presents the design of a magnetic levitation ball system in blood vessels. The magnetic ball is driven by an external magnetic field, and simulation calculations of the system's electromagnetic field, flow field characteristics, and mechanical state were conducted using finite element software. The study investigated the effects of the ball's position, magnetic pole direction, and the driving current of the electromagnetic coil on the electromagnetic force acting on the magnetic ball. Finite element numerical simulations were performed on the blood flow field characteristics to examine the effects of blood flow rate and position on the blood flow field characteristics and the fluid drag forces acting on the ball. A joint simulation of the flow field and magnetic field of the magnetic ball was conducted on the ANSYS Workbench platform, and a multi-objective optimization method was used to solve for the physical field parameters of the steady-state suspension of the magnetic ball. Experiments on the external magnetic driven suspension of the magnetic ball in liquid pipelines were carried out to study the relationship between the driving current of the electromagnetic coil, liquid flow rate, and the steady-state suspension position of the ball. A mechanical analysis model was established, and the experimental results validated the feasibility of the simulation model and multi-objective optimization method.
%U https://www.sv-jme.eu/sl/article/numerical-simulation-and-experimental-study-on-the-steady-state-levitation-characteristics-of-magnetic-ball-driven-by-external-magnets-in-arterial-blood-vessels/
%0 Journal Article
%R 
%& 
%P 1
%J Articles in Press
%V 0
%N 0
%@ 0039-2480
%8 2024-12-12
%7 2024-12-12

Cui, Zhanxiang, Yonghua  Lu, Yun  Zhu, Zezheng  Wang, & Ziyuan  Wang.
"Numerical simulation and experimental study on the steady-state levitation characteristics of magnetic ball driven by external magnets in arterial blood vessels." Articles in Press [Online], 0.0 (0): . Web.  02 Apr. 2025

TY  - JOUR
AU  - Cui, Zhanxiang 
AU  - Lu, Yonghua 
AU  - Zhu, Yun 
AU  - Wang, Zezheng 
AU  - Wang, Ziyuan 
PY  - 0
TI  - Numerical simulation and experimental study on the steady-state levitation characteristics of magnetic ball driven by external magnets in arterial blood vessels
JF  - Articles in Press
DO  - 
KW  - Magnetic levitation; blood vessel; Steady-state levitation; Numerical simulation; Multi-objective optimization; 
N2  - Research on micro-robots in the medical field has provided innovative and significant methods for the treatment of many diseases. In order to expand the application scenarios of controllable micro-mechanical diagnosis and treatment within human blood vessels, this study presents the design of a magnetic levitation ball system in blood vessels. The magnetic ball is driven by an external magnetic field, and simulation calculations of the system's electromagnetic field, flow field characteristics, and mechanical state were conducted using finite element software. The study investigated the effects of the ball's position, magnetic pole direction, and the driving current of the electromagnetic coil on the electromagnetic force acting on the magnetic ball. Finite element numerical simulations were performed on the blood flow field characteristics to examine the effects of blood flow rate and position on the blood flow field characteristics and the fluid drag forces acting on the ball. A joint simulation of the flow field and magnetic field of the magnetic ball was conducted on the ANSYS Workbench platform, and a multi-objective optimization method was used to solve for the physical field parameters of the steady-state suspension of the magnetic ball. Experiments on the external magnetic driven suspension of the magnetic ball in liquid pipelines were carried out to study the relationship between the driving current of the electromagnetic coil, liquid flow rate, and the steady-state suspension position of the ball. A mechanical analysis model was established, and the experimental results validated the feasibility of the simulation model and multi-objective optimization method.
UR  - https://www.sv-jme.eu/sl/article/numerical-simulation-and-experimental-study-on-the-steady-state-levitation-characteristics-of-magnetic-ball-driven-by-external-magnets-in-arterial-blood-vessels/

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	author = {Cui, Z., Lu, Y., Zhu, Y., Wang, Z., Wang, Z.},
	title = {Numerical simulation and experimental study on the steady-state levitation characteristics of magnetic ball driven by external magnets in arterial blood vessels},
	journal = {Articles in Press},
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TY  - JOUR
AU  - Cui, Zhanxiang 
AU  - Lu, Yonghua 
AU  - Zhu, Yun 
AU  - Wang, Zezheng 
AU  - Wang, Ziyuan 
PY  - 2024/12/12
TI  - Numerical simulation and experimental study on the steady-state levitation characteristics of magnetic ball driven by external magnets in arterial blood vessels
JF  - Articles in Press; Vol 0, No 0 (0): Articles in Press
DO  - 
KW  - Magnetic levitation, blood vessel, Steady-state levitation, Numerical simulation, Multi-objective optimization, 
N2  - Research on micro-robots in the medical field has provided innovative and significant methods for the treatment of many diseases. In order to expand the application scenarios of controllable micro-mechanical diagnosis and treatment within human blood vessels, this study presents the design of a magnetic levitation ball system in blood vessels. The magnetic ball is driven by an external magnetic field, and simulation calculations of the system's electromagnetic field, flow field characteristics, and mechanical state were conducted using finite element software. The study investigated the effects of the ball's position, magnetic pole direction, and the driving current of the electromagnetic coil on the electromagnetic force acting on the magnetic ball. Finite element numerical simulations were performed on the blood flow field characteristics to examine the effects of blood flow rate and position on the blood flow field characteristics and the fluid drag forces acting on the ball. A joint simulation of the flow field and magnetic field of the magnetic ball was conducted on the ANSYS Workbench platform, and a multi-objective optimization method was used to solve for the physical field parameters of the steady-state suspension of the magnetic ball. Experiments on the external magnetic driven suspension of the magnetic ball in liquid pipelines were carried out to study the relationship between the driving current of the electromagnetic coil, liquid flow rate, and the steady-state suspension position of the ball. A mechanical analysis model was established, and the experimental results validated the feasibility of the simulation model and multi-objective optimization method.
UR  - https://www.sv-jme.eu/sl/article/numerical-simulation-and-experimental-study-on-the-steady-state-levitation-characteristics-of-magnetic-ball-driven-by-external-magnets-in-arterial-blood-vessels/

Cui, Zhanxiang, Lu, Yonghua, Zhu, Yun, Wang, Zezheng, AND Wang, Ziyuan.
"Numerical simulation and experimental study on the steady-state levitation characteristics of magnetic ball driven by external magnets in arterial blood vessels" Articles in Press [Online], Volume 0 Number 0 (12 December 2024)