Abstract
The TESSYS technique (transforaminal endoscopic spine system) is gradually becoming a new gold standard surgical procedure for lumbar disc herniation (LDH), which can remove part of the articular process by special reamers, thus providing more space for operation and expanding the scope of application of transforaminal endoscopic lumbar discectomy. Puncture location and foraminoplasty are the key steps of TESSYS technique, which directly determine the position of the working channel and the operability of subsequent exploration and decompression. In order to establish a good working channel and improve the accuracy of surgery, aiming devices or computer navigation technology are introduced for spinal surgery. Electromagnetic navigation is helpful for making the preoperative plan, selecting the best surgical approach, and designing the surgical incision for lumbar foraminoplasty. With real-time navigation assistance, surgeons can accurately locate and reach the lesion through the best path, which can avoid the loss of direction, minimize the iatrogenic trauma, and reduce the difficulty and risk of operation. At present, the results of EM-based navigation-guided lumbar foraminoplasty are still preliminary, albeit encouraging. We believe that the combined use of the electromagnetic navigation and endoscopic surgery will further develop the accuracy, safety, and efficiency of lumbar foraminoplasty.
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Abbreviations
- CT:
-
Computerized tomography
- EM:
-
Electromagnetic
- LDH:
-
Lumbar disc herniation
- MRI:
-
Magnetic resonance imaging
- SAP:
-
Superior articular process
- SEESSYS:
-
I-See (Full Visualization Endoscopic System) Electromagnetic navigation Endoscopic Spinal Surgery System
- TESSYS:
-
Transforaminal endoscopic surgical system
- VAS:
-
Visual analog scale
- YESS:
-
Yeung Endoscopic Spine System
References
Kambin P, Sampson S. Posterolateral percutaneous suction-excision of herniated lumbar intervertebral discs. Report of interim results. Clin Orthop Relat Res. 1986;207:37–43.
Yeung AT. Minimally invasive disc surgery with the Yeung Endoscopic Spine System (YESS). Surg Technol Int. 1999;8:267–77.
Hoogland T, Schubert M, Miklitz B, et al. Transforaminal posterolateral endoscopic discectomy with or without the combination of a low-dose chymopapain: a prospective randomized study in 280 consecutive cases. Spine (Phila Pa 1976). 2006;31(24):E890–7.
Li X, Hu Z, Cui J, et al. Percutaneous endoscopic lumbar discectomy for recurrent lumbar disc herniation. Int J Surg. 2016;27:8–16.
Zhou C, Zhang G, Panchal RR, et al. Unique complications of percutaneous endoscopic lumbar discectomy and percutaneous endoscopic interlaminar discectomy. Pain Physician. 2018;21:E105–12.
Narain AS, Hijji FY, Yom KH, et al. Radiation exposure and reduction in the operating room: perspectives and future directions in spine surgery. World J Orthop. 2017;8:524–30.
von Jako RA, Carrino JA, Yonemura KS, et al. Electromagnetic navigation for percutaneous guide-wire insertion: accuracy and efficiency compared to conventional fluoroscopic guidance. Neuroimage. 2009;47:T127–32.
Sagi HC, Manos R, Benz R, et al. Electromagnetic field-based image-guided spine surgery part one: results of a cadaveric study evaluating lumbar pedicle screw placement. Spine. 2003;28:2013–8.
HT T, SB H, ZL X, et al. Application of navigation rod for puncture and positioning in percutaneous endoscopic lumbar discectomy. Chin J Spine Spinal Cord. 2017;27(04):339–44.
Zhu HY, Ye B, Duan W, et al. Preoperative three-dimensional image measurement combined with laser navigator assisted puncture for percutaneous endoscopic transforaminal discectomy. J Spinal Surg. 2019;017(001):11–7.
Fu Q, Liu YB, Li J, et al. Ultrasound volume navigation technology in transforaminal puncture of minimally invasive lumbar surgery with full-endoscopic techniques. Chin J Orthop. 2016;36(001):1–8.
Shurkhay VA, Goryaynov SA, Kutin MA, et al. Application of intraoperative electromagnetic frameless navigation in transcranial and endoscopic neurosurgical interventions. Zh Vopr Neirokhir Im N N Burdenko. 2017;81(5):5–16.
Takenaka T, Toyota S, Kuroda H, et al. Freehand technique of an electromagnetic navigation system emitter to avoid interference caused by metal neurosurgical instruments. World Neurosurg. 2018;118:143–7.
Tsang RK, Chung JCK. Adapting electromagnetic navigation system for transoral robotic-assisted skull base surgery. Laryngoscope. 2020;130(8):1922–5.
Soteriou E, Grauvogel J, Laszig R, et al. Prospects and limitations of different registration modalities in electromagnetic ENT navigation. Eur Arch Otorhinolaryngol. 2016;273(11):3979–86.
Berger M, Kallus S, Nova I, et al. Approach to intraoperative electromagnetic navigation in orthognathic surgery: a phantom skull based trial. J Craniomaxillofac Surg. 2015;43(9):1731–6.
Bouchard C, Magill JC, Nikonovskiy V, et al. Osteomark: a surgical navigation system for oral and maxillofacial surgery. Int J Oral Maxillofac Surg. 2012;41(2):265–70.
Ohya T, Iwai T, Luan K, Kato T, et al. Analysis of carotid artery deformation in different head and neck positions for maxillofacial catheter navigation in advanced oral cancer treatment. Biomed Eng Online. 2012;4(11):65.
Kochanski RB, Lombardi JM, Laratta JL, et al. Image-guided navigation and robotics in spine surgery. Neurosurgery. 2019;84(6):1179–89.
Klingler JH, Sircar R, Scheiwe C, et al. Comparative study of C-arms for intraoperative 3-dimensional imaging and navigation in minimally invasive spine surgery Part I: applicability and image quality. Clin Spine Surg. 2017;30(6):276–84.
Ankur S, Narain, Fady Y, et al. Radiation exposure and reduction in the operating room: perspectives and future directions in spine surgery. World J Orthop. 2017.
Shin S, Kim Y, Kwak H, et al. 3D tracking of surgical instruments using a single camera for laparoscopic surgery simulation. Stud Health Technol Inform. 2011;163:581–7.
Jaeger HA, Nardelli P, O’Shea C, et al. Automated catheter navigation with electromagnetic image guidance. IEEE Trans Biomed Eng. 2017;64(8):1972–9.
Zamorano L, Jiang Z, Kadi AM. Computer-assisted neurosurgery system: Wayne State University hardware and software configuration. Comput Med Imaging Graph. 1994;18(4):257–71.
Gauvin G, Yeo CT, Ungi T, et al. Real-time electromagnetic navigation for breast-conserving surgery using NaviKnife technology: a matched case-control study. Breast J. 2020;26(3):399–405.
Pishnamaz M, Wilkmann C, Na HS, et al. Electromagnetic real time navigation in the region of the posterior pelvic ring: an experimental in-vitro feasibility study and comparison of image guided techniques. PLoS One. 2016;11(2):e0148199.
Sorriento A, Porfido MB, Mazzoleni S, et al. Optical and electromagnetic tracking systems for biomedical applications: a critical review on potentialities and limitations. IEEE Rev Biomed Eng PP. 2019;99:1–1.
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Li, YJ., Lin, YP., Rao, SY. (2022). EM-based Navigation-Guided Percutaneous Endoscopic Lumbar Foraminoplasty. In: Kim, JS., Härtl, R., Wang, M.Y., Elmi-Terander, A. (eds) Technical Advances in Minimally Invasive Spine Surgery. Springer, Singapore. https://doi.org/10.1007/978-981-19-0175-1_15
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