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脊髓髓内肿瘤手术:术中(神经生理)监测的作用

Surgery for intramedullary spinal cord tumors: the role of intraoperative (neurophysiological) monitoring.

作者信息

Sala Francesco, Bricolo Albino, Faccioli Franco, Lanteri Paola, Gerosa Massimo

机构信息

Department of Neurological and Visual Sciences, Section of Neurosurgery, University Hospital, Piazzale Stefani 1, 37100, Verona, Italy.

出版信息

Eur Spine J. 2007 Nov;16 Suppl 2(Suppl 2):S130-9. doi: 10.1007/s00586-007-0423-x. Epub 2007 Jul 26.

Abstract

In spite of advancements in neuro-imaging and microsurgical techniques, surgery for intramedullary spinal cord tumors (ISCT) remains a challenging task. The rationale for using intraoperative neurophysiological monitoring (IOM) is in keeping with the goal of maximizing tumor resection and minimizing neurological morbidity. For many years, before the advent of motor evoked potentials (MEPs), only somatosensory evoked potentials (SEPs) were monitored. However, SEPs are not aimed to reflect the functional integrity of motor pathways and, nowadays, the combined used of SEPs and MEPs in ISCT surgery is almost mandatory because of the possibility to selectively injury either the somatosensory or the motor pathways. This paper is aimed to review our perspective in the field of IOM during ISCT surgery and to discuss it in the light of other intraoperative neurophysiologic strategies that have recently appeared in the literature with regards to ISCT surgery. Besides standard cortical SEP monitoring after peripheral stimulation, both muscle (mMEPs) and epidural MEPs (D-wave) are monitored after transcranial electrical stimulation (TES). Given the dorsal approach to the spinal cord, SEPs must be monitored continuously during the incision of the dorsal midline. When the surgeon starts to work on the cleavage plane between tumor and spinal cord, attention must be paid to MEPs. During tumor removal, we alternatively monitor D-wave and mMEPs, sustaining the stimulation during the most critical steps of the procedure. D-waves, obtained through a single pulse TES technique, allow a semi-quantitative assessment of the functional integrity of the cortico-spinal tracts and represent the strongest predictor of motor outcome. Whenever evoked potentials deteriorate, temporarily stop surgery, warm saline irrigation and improved blood perfusion have proved useful for promoting recovery, Most of intraoperative neurophysiological derangements are reversible and therefore IOM is able to prevent more than merely predict neurological injury. In our opinion combining mMEPs and D-wave monitoring, when available, is the gold standard for ISCT surgery because it supports a more aggressive surgery in the attempt to achieve a complete tumor removal. If quantitative (threshold or waveform dependent) mMEPs criteria only are used to stop surgery, this likely impacts unfavorably on the rate of tumor removal.

摘要

尽管神经影像学和显微外科技术取得了进展,但髓内脊髓肿瘤(ISCT)手术仍然是一项具有挑战性的任务。使用术中神经生理监测(IOM)的基本原理与最大化肿瘤切除和最小化神经功能损伤的目标相一致。多年来,在运动诱发电位(MEP)出现之前,仅监测体感诱发电位(SEP)。然而,SEP并非旨在反映运动通路的功能完整性,如今,在ISCT手术中联合使用SEP和MEP几乎是必需的,因为存在选择性损伤体感或运动通路的可能性。本文旨在回顾我们在ISCT手术中IOM领域的观点,并结合近期文献中出现的关于ISCT手术的其他术中神经生理策略进行讨论。除了外周刺激后的标准皮质SEP监测外,经颅电刺激(TES)后还监测肌肉(mMEP)和硬膜外MEP(D波)。鉴于采用背侧入路进入脊髓,在切开背侧中线时必须持续监测SEP。当外科医生开始在肿瘤与脊髓之间的分离平面操作时,必须关注MEP。在肿瘤切除过程中,我们交替监测D波和mMEP,在手术最关键步骤期间持续进行刺激。通过单脉冲TES技术获得的D波可对皮质脊髓束的功能完整性进行半定量评估,并且是运动结果的最强预测指标。每当诱发电位恶化时,暂时停止手术,温盐水冲洗和改善血液灌注已被证明有助于促进恢复。大多数术中神经生理紊乱是可逆的,因此IOM不仅能够预测神经损伤,还能够预防神经损伤。我们认为,在可行的情况下,联合使用mMEP和D波监测是ISCT手术的金标准,因为它支持更积极的手术以试图实现肿瘤的完全切除。如果仅使用定量(阈值或波形相关)mMEP标准来停止手术,这可能会对肿瘤切除率产生不利影响。

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