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Medical Engineering and Microneurosurgery: Application and Future

Robotics and medical engineering can convert traditional surgery into digital and scientific procedures. Here, we describe our work to develop microsurgical robotic systems and apply engineering technology to assess microsurgical skills. With the collaboration of neurosurgeons and an engineering tea...

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Autores principales: MORITA, Akio, SORA, Shigeo, NAKATOMI, Hirofumi, HARADA, Kanako, SUGITA, Naohiko, SAITO, Nobuhito, MITSUISHI, Mamoru
Formato: Online Artículo Texto
Lenguaje:English
Publicado: The Japan Neurosurgical Society 2016
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC5066085/
https://www.ncbi.nlm.nih.gov/pubmed/27464471
http://dx.doi.org/10.2176/nmc.ra.2016-0107
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author MORITA, Akio
SORA, Shigeo
NAKATOMI, Hirofumi
HARADA, Kanako
SUGITA, Naohiko
SAITO, Nobuhito
MITSUISHI, Mamoru
author_facet MORITA, Akio
SORA, Shigeo
NAKATOMI, Hirofumi
HARADA, Kanako
SUGITA, Naohiko
SAITO, Nobuhito
MITSUISHI, Mamoru
author_sort MORITA, Akio
collection PubMed
description Robotics and medical engineering can convert traditional surgery into digital and scientific procedures. Here, we describe our work to develop microsurgical robotic systems and apply engineering technology to assess microsurgical skills. With the collaboration of neurosurgeons and an engineering team, we have developed two types of microsurgical robotic systems. The first, the deep surgical systems, enable delicate surgical procedures such as vessel suturing in a deep and narrow space. The second type allows for super-fine surgical procedures such as anastomosing artificial vessels of 0.3 mm in diameter. Both systems are constructed with master and slave manipulator robots connected to local area networks. Robotic systems allowed for secure and accurate procedures in a deep surgical field. In cadaveric models, these systems showed a good potential of being useful in actual human surgeries, but mechanical refinements in thickness and durability are necessary for them to be established as clinical systems. The super-fine robotic system made the very intricate surgery possible and will be applied in clinical trials. Another trial included the digitization of surgical technique and scientific analysis of surgical skills. Robotic and human hand motions were analyzed in numerical fashion as we tried to define surgical skillfulness in a digital format. Engineered skill assessment is also feasible and should be useful for microsurgical training. Robotics and medical engineering should bring science into the surgical field and training of surgeons. Active collaboration between medical and engineering teams and academic and industry groups is mandatory to establish such medical systems to improve patient care.
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spelling pubmed-50660852016-10-18 Medical Engineering and Microneurosurgery: Application and Future MORITA, Akio SORA, Shigeo NAKATOMI, Hirofumi HARADA, Kanako SUGITA, Naohiko SAITO, Nobuhito MITSUISHI, Mamoru Neurol Med Chir (Tokyo) Review Article Robotics and medical engineering can convert traditional surgery into digital and scientific procedures. Here, we describe our work to develop microsurgical robotic systems and apply engineering technology to assess microsurgical skills. With the collaboration of neurosurgeons and an engineering team, we have developed two types of microsurgical robotic systems. The first, the deep surgical systems, enable delicate surgical procedures such as vessel suturing in a deep and narrow space. The second type allows for super-fine surgical procedures such as anastomosing artificial vessels of 0.3 mm in diameter. Both systems are constructed with master and slave manipulator robots connected to local area networks. Robotic systems allowed for secure and accurate procedures in a deep surgical field. In cadaveric models, these systems showed a good potential of being useful in actual human surgeries, but mechanical refinements in thickness and durability are necessary for them to be established as clinical systems. The super-fine robotic system made the very intricate surgery possible and will be applied in clinical trials. Another trial included the digitization of surgical technique and scientific analysis of surgical skills. Robotic and human hand motions were analyzed in numerical fashion as we tried to define surgical skillfulness in a digital format. Engineered skill assessment is also feasible and should be useful for microsurgical training. Robotics and medical engineering should bring science into the surgical field and training of surgeons. Active collaboration between medical and engineering teams and academic and industry groups is mandatory to establish such medical systems to improve patient care. The Japan Neurosurgical Society 2016-10 2016-07-26 /pmc/articles/PMC5066085/ /pubmed/27464471 http://dx.doi.org/10.2176/nmc.ra.2016-0107 Text en © 2016 The Japan Neurosurgical Society This work is licensed under a Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 International License. To view a copy of this license, visit http://creativecommons.org/licenses/by-nc-nd/4.0/
spellingShingle Review Article
MORITA, Akio
SORA, Shigeo
NAKATOMI, Hirofumi
HARADA, Kanako
SUGITA, Naohiko
SAITO, Nobuhito
MITSUISHI, Mamoru
Medical Engineering and Microneurosurgery: Application and Future
title Medical Engineering and Microneurosurgery: Application and Future
title_full Medical Engineering and Microneurosurgery: Application and Future
title_fullStr Medical Engineering and Microneurosurgery: Application and Future
title_full_unstemmed Medical Engineering and Microneurosurgery: Application and Future
title_short Medical Engineering and Microneurosurgery: Application and Future
title_sort medical engineering and microneurosurgery: application and future
topic Review Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC5066085/
https://www.ncbi.nlm.nih.gov/pubmed/27464471
http://dx.doi.org/10.2176/nmc.ra.2016-0107
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