Operative Neurosurgery 30:929–937, 2026
This clinical report presents the first institutional case series using the da Vinci Xi robotic system applied to neurosurgical procedures, detailing patient selection, operative technique, training, and outcomes for five patients with lesions including clivus chordoma, odontoid metastasis, peroneal neuropathy, and an arachnoid cyst. The series emphasizes procedural feasibility, intraoperative setup, and interdisciplinary collaboration with otolaryngology for transoral and intracranial approaches.
The authors highlight benefits such as enhanced precision, tremor filtration, and minimally invasive access in narrow corridors, while candidly discussing limitations including lack of haptic feedback, high capital costs, training needs, and the current absence of neurosurgery-specific instrument integration; postoperative follow-up showed favorable outcomes without new neurological deficits.
Goal Share early clinical experience adapting the da Vinci Xi surgical robot for neurosurgical procedures, addressing limited current adoption in neurosurgery.
Training Surgeon completed formal robotic training plus simulation, then practiced planned operations on cadavers and calf brains under guidance before clinical use.
Series Five patients underwent robot-assisted neurosurgery (2018–2022) for clivus chordoma (2), odontoid metastatic mass (1), peroneal neuropathy (1), and arachnoid cyst (1).
Technique Cases used a typical 2 robotic arms + 4K camera setup; the surgeon operated from a console with tremor filtration and enhanced instrument dexterity.
Approaches Robotic procedures included transoral tumor resection/odontoidectomy, peroneal nerve decompression, and intracranial arachnoid cyst fenestration (robot used after initial craniotomy steps in the cyst case).
Outcomes No intraoperative or postoperative neurological deficits or complications were observed; all 5 patients had favorable outcomes with 6–24 months follow-up.
Advantages Particular value noted for working in narrow/deep corridors (eg, clivus/odontoid) and for tasks like transoral resection and cyst fenestration, leveraging articulated movement and tremor cancellation.
Limitations/needs Key constraints include lack of tactile feedback, potential device malfunction, nonstandardized training, dedicated staffing needs, and high costs; practical training is emphasized as essential, with further evaluation needed.












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