3D anatomy of the supraorbital and greater occipital nerve trajectories.

Purpose: This research aims to enhance understanding of the anatomy of the supraorbital nerve (SON) and greater occipital nerve (GON), focusing on their exit points, distal trajectories, and variability, utilizing a novel 3D representation. Methods: Ten cadaveric specimens underwent meticulous disse...

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Publicado en:Surgical & Radiologic Anatomy Vol. 46; no. 5; pp. 575 - 585
Autores principales: Van Vlasselaer, Nicolas, Meganck, Lore, Mulder, Elles, Buzzatti, Luca, Cattrysse, Erik
Formato: Journal Article
Publicado: Springer Nature May2024
Acceso en línea:Ver este registro en EBSCOhost
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      dt: May2024
      vid: 46
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      pub: Springer Nature
      place: New York, New York
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        10.1007/s00276-024-03322-z
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        atl: 3D anatomy of the supraorbital and greater occipital nerve trajectories.
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        au:
          Van Vlasselaer, Nicolas
          Meganck, Lore
          Mulder, Elles
          Buzzatti, Luca
          Cattrysse, Erik
        affil: https://ror.org/006e5kg04 Experimental Anatomy, Vrije Universiteit Brussel, Laarbeeklaan 103, Jette, 1090, Brussels, Belgium
      sug:
      ab: Purpose: This research aims to enhance understanding of the anatomy of the supraorbital nerve (SON) and greater occipital nerve (GON), focusing on their exit points, distal trajectories, and variability, utilizing a novel 3D representation. Methods: Ten cadaveric specimens underwent meticulous dissection, and 3D landmarks were registered. Models were generated from CT scans, and a custom 3D method was employed to visualize nerve trajectories. Measurements, including lengths and distances, were obtained for the SON and GON. Results: The SON exhibited varied exit points, with the lateral branches being the longest. The GON showed distinct branching patterns, which are described relative to various anatomical reference points and planes. No systematic left–right differences were observed for either nerve. 3D analysis revealed significant interindividual variability in nerve trajectories. The closest approximation between the SON and GON occurred between lateral branches. Conclusion: The study introduces a novel 3D methodology for analyzing the SON and GON, highlighting considerable anatomical variation. Understanding this variability is crucial for clinical applications and tools targeting the skull innervation. The findings serve as a valuable reference for future research, emphasizing the necessity for personalized approaches in innervation-related interventions.
      pubtype: Academic Journal
      doctype: Journal Article
      ougenre: Article
    language: English
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