Anatomical Sciences Education· 2026Q1
Integration of cadaveric dissections with emerging digital technologies in a neurosurgery and neuroanatomy residency training program: Implementation and first‐year experience
- 1citations
- Q1SCImago
- 2026year
Short summary
A neurosurgery residency program integrated stereoscopic teaching, digital guidance, photogrammetry, and virtual reality with cadaveric dissections, improving anatomical landmark recognition, operative planning, and radiologic-anatomic translation for skull base training.
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Key points
- Neurosurgery residents trained using integrated digital tools (stereoscopic teaching, digital guidance, VR, photogrammetry) alongside cadaveric dissections.
- The program focused on skull base anatomy, improving landmark recognition, operative corridor planning, and radiologic-anatomic translation.
- The educational value stems from the combined use of digital adjuncts with cadaveric dissection, not from any single technology.
- This multimodal approach supports spatial understanding and extends anatomical review beyond the laboratory setting.
AI-generated from the title and abstract; the full text is not read.
Abstract
Neuroanatomy remains a core competency in neurosurgical training, particularly in skull base education, where learners must integrate three-dimensional spatial understanding, radiologic correlation, and stepwise procedural knowledge. Cadaveric dissection remains foundational, but adjunctive digital tools may strengthen repeated visualization and anatomical review. We describe the educational rationale and implementation of integrating stereoscopic teaching, a stepwise digital application, photogrammetry, and virtual reality within an established neurosurgical skull base curriculum. Within the Mayo Clinic cranial base course embedded in a broader longitudinal curriculum, four postgraduate year 4 neurosurgery residents participated in transcranial and endoscopic cadaveric dissections supported by stereoscopic lectures, workstation-based tablet guidance, and immersive review using photogrammetry, virtual reality, and computed tomography/magnetic resonance imaging correlation. The integrated design aligned these modalities with course objectives in anatomical landmark recognition, operative corridor planning, radiologic-anatomic translation, and stepwise procedural rehearsal. The educational contribution of this model lies in the intentional integration of digital adjuncts around cadaveric dissection rather than in a single technology alone. This multimodal sequence may support spatial understanding, procedural preparation, and competency-oriented skull base training while extending review beyond the laboratory. Current evaluation is best interpreted as preliminary program evaluation rather than definitive learner-outcome evidence. This model may offer a transferable approach for programs seeking to complement cadaveric education with emerging digital tools and provides a basis for future prospective evaluations using multiple low-stakes assessment data points across the broader curriculum.
The authors' abstract, as published at the source. Anatomical Sciences Education, 2026 · DOI ↗
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Field: Biomedical Engineering
Biomedical EngineeringEngineering