Intra-operative applications of augmented reality in glioma surgery: a systematic review

被引:12
作者
Ragnhildstveit, Anya [1 ,2 ]
Li, Chao [3 ,4 ]
Zimmerman, Mackenzie H. [1 ]
Mamalakis, Michail [2 ]
Curry, Victoria N. [1 ,5 ]
Holle, Willis [1 ,6 ]
Baig, Noor [1 ,7 ]
Uguralp, Ahmet K. [1 ]
Alkhani, Layth [1 ,8 ]
Oguz-Uguralp, Zeliha [1 ]
Romero-Garcia, Rafael [2 ,9 ]
Suckling, John [2 ]
机构
[1] Integrated Res Literacy Grp, Draper, UT 84020 USA
[2] Univ Cambridge, Dept Psychiat, Cambridge, England
[3] Univ Cambridge, Dept Clin Neurosci, Cambridge, England
[4] Univ Cambridge, Dept Appl Math & Theoret Phys, Cambridge, England
[5] Univ Penn, Dept Bioengn, Philadelphia, PA USA
[6] Univ Utah, Dept Phys & Astron, Salt Lake City, UT USA
[7] Harvard Univ, Dept Mol & Cellular Biol, Cambridge, MA USA
[8] Stanford Univ, Dept Biol, Stanford, CA USA
[9] Univ Seville, Inst Biomed Sevilla IBiS, HUVR, CSIC,Dept Fisiol Med & Biofis, Seville, Spain
来源
FRONTIERS IN SURGERY | 2023年 / 10卷
关键词
augmented reality; brain tumor; glioma; mixed reality; neuronavigation; neurosurgery; systematic review; virtual reality; LOW-GRADE GLIOMAS; BRAIN-TUMORS; NEURONAVIGATION; RESECTION; MRI; NAVIGATION; ATLAS;
D O I
10.3389/fsurg.2023.1245851
中图分类号
R61 [外科手术学];
学科分类号
摘要
BackgroundAugmented reality (AR) is increasingly being explored in neurosurgical practice. By visualizing patient-specific, three-dimensional (3D) models in real time, surgeons can improve their spatial understanding of complex anatomy and pathology, thereby optimizing intra-operative navigation, localization, and resection. Here, we aimed to capture applications of AR in glioma surgery, their current status and future potential.MethodsA systematic review of the literature was conducted. This adhered to the Preferred Reporting Items for Systematic Reviews and Meta-Analyses (PRISMA) guideline. PubMed, Embase, and Scopus electronic databases were queried from inception to October 10, 2022. Leveraging the Population, Intervention, Comparison, Outcomes, and Study design (PICOS) framework, study eligibility was evaluated in the qualitative synthesis. Data regarding AR workflow, surgical application, and associated outcomes were then extracted. The quality of evidence was additionally examined, using hierarchical classes of evidence in neurosurgery.ResultsThe search returned 77 articles. Forty were subject to title and abstract screening, while 25 proceeded to full text screening. Of these, 22 articles met eligibility criteria and were included in the final review. During abstraction, studies were classified as "development" or "intervention" based on primary aims. Overall, AR was qualitatively advantageous, due to enhanced visualization of gliomas and critical structures, frequently aiding in maximal safe resection. Non-rigid applications were also useful in disclosing and compensating for intra-operative brain shift. Irrespective, there was high variance in registration methods and measurements, which considerably impacted projection accuracy. Most studies were of low-level evidence, yielding heterogeneous results.ConclusionsAR has increasing potential for glioma surgery, with capacity to positively influence the onco-functional balance. However, technical and design limitations are readily apparent. The field must consider the importance of consistency and replicability, as well as the level of evidence, to effectively converge on standard approaches that maximize patient benefit.
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页数:18
相关论文
共 82 条
[1]   Population, Intervention, Comparison, Outcomes and Study (PICOS) design as a framework to formulate eligibility criteria in systematic reviews [J].
Amir-Behghadami, Mehrdad ;
Janati, Ali .
EMERGENCY MEDICINE JOURNAL, 2020, 37 (06) :387-387
[2]  
[Anonymous], Brain Tumors
[3]   Non-rigid alignment of pre-operative MRI, fMRI, and DT-MRI with intra-operative MRI for enhanced visualization and navigation in image-guided neurosurgery [J].
Archip, Neculal ;
Clatz, Olivier ;
Whalen, Stephen ;
Kacher, Dan ;
Fedorov, Andriy ;
Kot, Andriy ;
Chrisocholdes, Nikos ;
Jolesz, Ferenc ;
Golby, Alexandra ;
Black, Peter M. ;
Warfield, Simon K. .
NEUROIMAGE, 2007, 35 (02) :609-624
[4]   Augmented reality in operating microscopes for neurosurgical interventions [J].
Aschke, M ;
Wirtz, CR ;
Raczkowsky, J ;
Wörn, H ;
Kunze, S .
1ST INTERNATIONAL IEEE EMBS CONFERENCE ON NEURAL ENGINEERING 2003, CONFERENCE PROCEEDINGS, 2003, :652-655
[5]   Surgical Innovation and Evaluation 1 Evaluation and stages of surgical innovations [J].
Barkun, Jeffrey S. ;
Aronson, Jeffrey K. ;
Feldman, Liane S. ;
Maddern, Guy J. ;
Strasberg, Steven M. .
LANCET, 2009, 374 (9695) :1089-1096
[6]  
Bayer S, 2017, INT J BIOMED IMAGING, V2017, DOI 10.1155/2017/6028645
[7]   Blinding was judged more difficult to achieve and maintain in nonpharmacologic than pharmacologic trials [J].
Boutron, I ;
Tubach, F ;
Giraudeau, B ;
Ravaud, P .
JOURNAL OF CLINICAL EPIDEMIOLOGY, 2004, 57 (06) :543-550
[8]   Augmented reality in intradural spinal tumor surgery [J].
Carl, Barbara ;
Bopp, Miriam ;
Sass, Benjamin ;
Pojskic, Mirza ;
Nimsky, Christopher .
ACTA NEUROCHIRURGICA, 2019, 161 (10) :2181-2193
[9]  
Chen JG, 2017, WORLD NEUROSURG, V106, P193, DOI [10.1016/j.WNEU.2017.06.146, 10.1016/j.wneu.2017.06.146]
[10]   Applications of augmented reality in the neurosurgical operating room: A systematic review of the literature [J].
Chidambaram, Swathi ;
Stifano, Vito ;
Demetres, Michelle ;
Teyssandier, Mariano ;
Palumbo, Maria Chiara ;
Redaelli, Alberto ;
Olivi, Alessandro ;
Apuzzo, Michael L. J. ;
Pannullo, Susan C. .
JOURNAL OF CLINICAL NEUROSCIENCE, 2021, 91 :43-61