journal Applied Sciences. Special Issue Micro-Robotics.

Analysis and Comparison of Electromagnetic Microrobotic Platforms for Biomedical Applications

  • EMA
  • Review

This paper focus on EMA platforms that use electromagnets. From this review and based on the biomedical application specifications, the appropriate EMA system can be determined efficiently.

Q2 IF: 2.679
Authors
Affiliations

Ruipeng Chen

Antoine Ferreira

Published

Abstract

Magnetic microrobotics is a promising technology for improving minimally invasive surgery (MIS) with the ambition of enhancing patient care and comfort. The potential benefits include limited incisions, less hemorrhaging and postoperative pain, and faster recovery time. To achieve this, a key issue relies on the design of a proper electromagnetic actuation (EMA) setup which is based on the use of magnetic sources. The magnetic field and its gradient generated by the EMA platform is then used to induce magnetic torque and force for microrobot manipulations inside the human body. Like any control systems, the EMA system must be adapted to the given controlled microrobot and customized for the application. With great research efforts on magnetic manipulating of microrobots, the EMA systems are approaching commercial applications, and their configurations are becoming more suitable to be employed in real medical surgeries. However, most of the proposed designs have not followed any specific rule allowing to take into account the biomedical applications constraints. Through reviewing the different proposed EMA systems in the literature, their various specifications and configurations are comprehensively discussed and analyzed. This study focus on EMA platforms that use electromagnets. From this review and based on the biomedical application specifications, the appropriate EMA system can be determined efficiently.

Keywords: electromagnetic actuation system, medical magnetic microrobots, minimally invasive surgery

Funding

This work was supported by the French National Institute of Health and Medical Research (Inserm) “Plan Cancer” 2014–2019 program, Project: Microrobots Targeting Glioblastoma.

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Citation

BibTeX citation:
@article{chen2022,
  author = {Chen, Ruipeng and Folio, David and Ferreira, Antoine},
  publisher = {Multidisciplinary Digital Publishing Institute},
  title = {Analysis and {Comparison} of {Electromagnetic} {Microrobotic}
    {Platforms} for {Biomedical} {Applications}},
  journal = {Applied Sciences},
  volume = {12},
  number = {1},
  date = {2022-01-04},
  url = {https://dfolio.fr/publications/articles/2022chenApplied.html},
  doi = {10.3390/app12010456},
  langid = {en-US},
  abstract = {Magnetic microrobotics is a promising technology for
    improving minimally invasive surgery (MIS) with the ambition of
    enhancing patient care and comfort. The potential benefits include
    limited incisions, less hemorrhaging and postoperative pain, and
    faster recovery time. To achieve this, a key issue relies on the
    design of a proper electromagnetic actuation (EMA) setup which is
    based on the use of magnetic sources. The magnetic field and its
    gradient generated by the EMA platform is then used to induce
    magnetic torque and force for microrobot manipulations inside the
    human body. Like any control systems, the EMA system must be adapted
    to the given controlled microrobot and customized for the
    application. With great research efforts on magnetic manipulating of
    microrobots, the EMA systems are approaching commercial
    applications, and their configurations are becoming more suitable to
    be employed in real medical surgeries. However, most of the proposed
    designs have not followed any specific rule allowing to take into
    account the biomedical applications constraints. Through reviewing
    the different proposed EMA systems in the literature, their various
    specifications and configurations are comprehensively discussed and
    analyzed. This study focus on EMA platforms that use electromagnets.
    From this review and based on the biomedical application
    specifications, the appropriate EMA system can be determined
    efficiently.}
}
For attribution, please cite this work as:
Chen R., Folio D., and Ferreira A., “Analysis and Comparison of Electromagnetic Microrobotic Platforms for Biomedical Applications,” Appl. Sci., vol. 12, January 2022. [Online]. Available: https://dfolio.fr/publications/articles/2022chenApplied.html