Michael A Jensen, Joseph S Neimat, Panagiotis Kerezoudis, Rushna Ali, R Mark Richardson, Casey H Halpern, Steven Ojemann, Francisco A Ponce, Kendall H Lee, Laura M Haugen, Bryan T Klassen, Douglas Kondziolka, Kai J Miller
{"title":"表征立体定向系统不精度的一般框架。","authors":"Michael A Jensen, Joseph S Neimat, Panagiotis Kerezoudis, Rushna Ali, R Mark Richardson, Casey H Halpern, Steven Ojemann, Francisco A Ponce, Kendall H Lee, Laura M Haugen, Bryan T Klassen, Douglas Kondziolka, Kai J Miller","doi":"10.1227/ons.0000000000001423","DOIUrl":null,"url":null,"abstract":"<p><strong>Background and objectives: </strong>Identifying and characterizing sources of targeting error in stereotactic procedures is essential to maximizing accuracy, potentially improving surgical outcomes. We aim to describe a generic framework which characterizes sources of stereotactic inaccuracy.</p><p><strong>Methods: </strong>We assembled a list of stereotactic systems: ROSA, Neuromate, Mazor Renaissance, ExcelsiusGPS, Cirq, STarFix (FHC), Nexframe, ClearPoint, CRW, and Leksell. We searched the literature for qualitative and quantitative work identifying and quantifying potential sources of inaccuracy and describing each system's implementation using Standards for Reporting Qualitative Research guidelines. Our literature search spanned 1969 to 2024, and various studies were included, with formats ranging from phantom studies to systematic reviews. Keyword searches were conducted, and the details about each system were used to create a framework for identifying and describing the unique targeting error profile of each system.</p><p><strong>Results: </strong>We describe and illustrate the details of various sources of stereotactic inaccuracies and generate a framework to unify these sources into a single framework. This framework entails 5 domains: imaging, registration, mechanical accuracy, target planning and adjustment, and trajectory planning and adjustment. This framework was applied to 10 stereotactic systems.</p><p><strong>Conclusion: </strong>This framework provides a rubric to analyze the sources of error for any stereotactic system. 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Keyword searches were conducted, and the details about each system were used to create a framework for identifying and describing the unique targeting error profile of each system.</p><p><strong>Results: </strong>We describe and illustrate the details of various sources of stereotactic inaccuracies and generate a framework to unify these sources into a single framework. This framework entails 5 domains: imaging, registration, mechanical accuracy, target planning and adjustment, and trajectory planning and adjustment. This framework was applied to 10 stereotactic systems.</p><p><strong>Conclusion: </strong>This framework provides a rubric to analyze the sources of error for any stereotactic system. 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A General Framework for Characterizing Inaccuracy in Stereotactic Systems.
Background and objectives: Identifying and characterizing sources of targeting error in stereotactic procedures is essential to maximizing accuracy, potentially improving surgical outcomes. We aim to describe a generic framework which characterizes sources of stereotactic inaccuracy.
Methods: We assembled a list of stereotactic systems: ROSA, Neuromate, Mazor Renaissance, ExcelsiusGPS, Cirq, STarFix (FHC), Nexframe, ClearPoint, CRW, and Leksell. We searched the literature for qualitative and quantitative work identifying and quantifying potential sources of inaccuracy and describing each system's implementation using Standards for Reporting Qualitative Research guidelines. Our literature search spanned 1969 to 2024, and various studies were included, with formats ranging from phantom studies to systematic reviews. Keyword searches were conducted, and the details about each system were used to create a framework for identifying and describing the unique targeting error profile of each system.
Results: We describe and illustrate the details of various sources of stereotactic inaccuracies and generate a framework to unify these sources into a single framework. This framework entails 5 domains: imaging, registration, mechanical accuracy, target planning and adjustment, and trajectory planning and adjustment. This framework was applied to 10 stereotactic systems.
Conclusion: This framework provides a rubric to analyze the sources of error for any stereotactic system. Illustrations allow the reader to understand sources of error conceptually so that they may apply them to their practice.
期刊介绍:
Operative Neurosurgery is a bi-monthly, unique publication focusing exclusively on surgical technique and devices, providing practical, skill-enhancing guidance to its readers. Complementing the clinical and research studies published in Neurosurgery, Operative Neurosurgery brings the reader technical material that highlights operative procedures, anatomy, instrumentation, devices, and technology. Operative Neurosurgery is the practical resource for cutting-edge material that brings the surgeon the most up to date literature on operative practice and technique