scholarly journals Anatomy involved in the jugular foramen approach for jugulotympanic paraganglioma resection

2004 ◽  
Vol 17 (2) ◽  
pp. 41-44 ◽  
Author(s):  
Michelle M. Inserra ◽  
Markus Pfister ◽  
Robert K. Jackler

The goal in paraganglioma resection is to allow adequate exposure to remove the lesion while preserving cranial nerve function. Knowledge of the anatomy of the jugular foramen is crucial to this endeavor. In this report the authors describe a jugular foramen approach for the resection of glomus jugulare tumors in cases in which rerouting of the facial nerve can be avoided. This approach provides adequate exposure of the jugular bulb for many jugulotympanic paragangliomas without increased risk of injury to the facial nerve. In addition, special circumstances surrounding intracranial and carotid artery involvement are briefly discussed.

2021 ◽  
Author(s):  
Walid Ibn Essayed ◽  
Ossama Al-Mefty

Abstract Paragangliomas (PGLs) are benign hypervascular tumors that can develop in head and neck at different locations, primarily in the carotid bifurcation, jugular bulb, tympanic plexus, and vagal ganglia.1 Different gene mutations have been linked to the familial inherited forms, which can represent approximately 30% of all PGLs.1,2 These are classified into 5 different clinical syndromes: PGL 1 to 5.1 These patients have increased risk for synchronous and metachronous lesions requiring an extensive work-up for hormone secretion and other associated neoplasms, as well as attentive follow-up for lifelong management.1,3 Surgical resection is the best treatment option as it can be curative when the resection is total.2-4 Preservation of the lower cranial nerve function is central to the management of head and neck PGLs, given the gravity of bilateral injuries.3 Irradiation therapy should be considered if the risk for bilateral lower cranial nerve injuries is high.5 Surgically, intrabulbar resection with preservation of the medial wall of the jugular bulb protects the lower cranial nerve function.3 Other technical finesses, including maintaining the facial nerve in its bony fallopian canal (facial bridge), avoiding carotid artery sacrifice, preservation of the ear canal, and preoperative embolization, contributed markedly to outcome improvement.2,3 We report a case of a 34-yr-old male with PGL 3 with a left glomus jugulare tumor that recurred and a right carotid body tumor. Patient consented to surgery and photography.  Image at 3:44 republished from Al-Mefty and Teixeira,3 with permission from JSNPG.


Neurosurgery ◽  
2001 ◽  
Vol 48 (4) ◽  
pp. 838-848 ◽  
Author(s):  
Chandranath Sen ◽  
Karin Hague ◽  
Rajneesh Kacchara ◽  
Arthur Jenkins ◽  
Sumit Das ◽  
...  

Abstract OBJECTIVE Our goals were to study the normal histological features of the jugular foramen, compare them with the histopathological features of glomus tumors involving the temporal bone, and thus provide insight into the surgical management of these tumors with respect to cranial nerve function. METHODS Ten jugular foramen blocks were obtained from five human cadavers after removal of the brain. Microscopic studies of these blocks were performed, with particular attention to fibrous or bony compartmentalization of the jugular foramen, the relationships of the caudal cranial nerves to the jugular bulb/jugular vein and internal carotid artery, and the fascicular structures of the nerves. In addition, we studied the histopathological features of 11 glomus tumors involving the temporal bone (10 patients), with respect to nerve invasion, associated fibrosis, and carotid artery adventitial invasion. RESULTS A dural septum separating the IXth cranial nerve from the fascicles of Cranial Nerves X and XI, at the intracranial opening, was noted. Only two specimens, however, had a septum (one bony and one fibrous) producing internal compartmentalization of the jugular foramen. The cranial nerves remained fasciculated within the foramen, with the vagus nerve containing multiple fascicles and the glossopharyngeal and accessory nerves containing one and two fascicles, respectively. All of these nerve fascicles lay medial to the superior jugular bulb, with the IXth cranial nerve located anteriorly and the XIth cranial nerve posteriorly. All nerve fascicles had separate connective tissue sheaths. A dense connective tissue sheath was always present between the IXth cranial nerve and the internal carotid artery, at the level of the carotid canal. The inferior petrosal sinus was present between the IXth and Xth cranial nerves, as single or multiple venous channels. The glomus tumors infiltrated between the cranial nerve fascicles and inside the perineurium. They also produced reactive fibrosis. In one patient, in whom the internal carotid artery was also excised, the tumor invaded the adventitia. CONCLUSION Within the jugular foramen, the cranial nerves lie anteromedial to the jugular bulb and maintain a multifascicular histoarchitecture (particularly the Xth cranial nerve). Glomus tumors of the temporal bone can invade the cranial nerve fascicles, and infiltration of these nerves can occur despite normal function. In these situations, total resection may not be possible without sacrifice of these nerves.


2011 ◽  
Vol 145 (2_suppl) ◽  
pp. P218-P219
Author(s):  
Ryan G. Porter ◽  
David Chan ◽  
Vijay M. Ravindra

1999 ◽  
Vol 121 (2_suppl) ◽  
pp. P123-P124
Author(s):  
Sabine V Hesse ◽  
Vinod K Anand

2015 ◽  
Vol 36 (3) ◽  
pp. 275-290
Author(s):  
Mohit Agarwal ◽  
John L. Ulmer ◽  
Andrew P. Klein ◽  
Leighton P. Mark

2002 ◽  
Vol 106 (3) ◽  
pp. 155-158 ◽  
Author(s):  
F. Thomke ◽  
D. Jung ◽  
R. Besser ◽  
R. Roder ◽  
J. Konietzko ◽  
...  

1996 ◽  
Vol 115 (1) ◽  
pp. 82-88 ◽  
Author(s):  
Peter G. Von Doersten ◽  
Robert K. Jackler

Anterior rerouting of the facial nerve is a maneuver designed to enhance exposure of the jugular foramen and carotid canal during resection of cranial base tumors. Our clinical impression is that the degree of additional exposure afforded by moving the facial nerve varies considerably according to both anatomic variations and the technique used. Three possible techniques exist based on the extent of facial nerve mobilization and point of rotation: canal wall up-second genu pivot point (CWU-2G); canal wall down-second genu pivot point (CWD-2G); and canal wall down-first genu pivot point (CWD-1G). We anatomically studied 20 human cadaver heads to establish clinically relevant guidelines for the selective use of these techniques. At the level of the dome of the jugular bulb, the facial nerve mobilized anteriorly a mean of 4.2 mm for CWU-2G, 10 mm for CWD-2G, and 14 mm for CWD-1G. Detailed analysis of numerous measurements and rotation angles suggests that the typical exposure afforded by the various rerouting techniques is as follows: CWU-2G, complete exposure of the jugular bulb; CWD-2G, exposure of the jugular bulb and a mean of 6 mm of the posterior aspect of the carotid artery; and CWD-1G, exposure of the jugular bulb and entire carotid genu. Minimizing the amount of facial nerve manipulation needed to achieve sufficient surgical exposure helps optimize postoperative functional status.


1995 ◽  
Vol 64 (4) ◽  
pp. 165-182 ◽  
Author(s):  
David W. Andrews ◽  
Craig L. Silverman ◽  
Jon Glass ◽  
Beverly Downes ◽  
Richard J. Riley ◽  
...  

2018 ◽  
Vol 07 (01) ◽  
pp. 023-028
Author(s):  
Saurin Shah ◽  
Amit Keshri ◽  
Simple Patadia ◽  
Rabi Sahu ◽  
Raj Kumar

Abstract Objectives To evaluate the facial nerve in inferior and lateral (transmastoid) approaches to the jugular foramen and/or petrous apex. Design Retrospective study of 11 consecutive patients operated for lesions in the jugular foramen/petrous apex via an inferior or lateral transpetrosal approach. Setting Tertiary care superspecialty referral center. Participants Eleven consecutive patients of jugular foramen/petrous apex lesions operated over a period of 18 months. Main Outcomes Measures Extent of tumor resection, surgical technique used, and recovery of facial nerve function postoperatively. Conclusion Approach to these lesions needs to be tailored to the extent of disease, possible histology and relation to the facial nerve. Meticulous surgery and adequate postoperative care permit a satisfactory recovery of facial nerve function following rerouting procedures.


2009 ◽  
Vol 111 (5) ◽  
pp. 1096-1101 ◽  
Author(s):  
R. Shane Tubbs ◽  
Marios Loukas ◽  
Michael Hill ◽  
Mohammadali M. Shoja ◽  
Aaron A. Cohen-Gadol

Richard Lower (1631–1691), an anatomist and physician, was born in St. Tudy, Cornwall, England, and became an avid follower of William Harvey and a pupil to Sir Thomas Willis. Unfortunately, little is written of his contributions to the study of the nervous system despite his successful medical career and his regard as one of the most significant English physiologists of the 17th century. Lower was best known for his remarkable studies within the cardiovascular and respiratory disciplines. However, although not as well documented and thus often overlooked, Lower produced noteworthy advancements within the field of neuroscience such as studying the hindbrain innervation of the heart, CSF formation and circulation, cranial nerve function, and the structural sources of seizures. Some have even attributed the results of Willis' anatomical and physiological studies to Lower rather than to Willis himself. Lower has not received the recognition he is owed as a highly skilled and trained anatomist and physician. In this paper, the neurological contributions, with a brief mention of challenges, delivered during the 17th century by this influential historical physician will be highlighted with an emphasis on the impact each contribution made.


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