Surgical Technique of a Partial Tibial Nerve Transfer to the Tibialis Anterior Motor Branch for the Treatment of Peroneal Nerve Injury

2012 ◽  
Vol 69 (1) ◽  
pp. 48-53 ◽  
Author(s):  
Jennifer L. Giuffre ◽  
Allen T. Bishop ◽  
Robert J. Spinner ◽  
Alexander Y. Shin
2011 ◽  
Vol 470 (3) ◽  
pp. 779-790 ◽  
Author(s):  
Jennifer L. Giuffre ◽  
Allen T. Bishop ◽  
Robert J. Spinner ◽  
Bruce A. Levy ◽  
Alexander Y. Shin

2019 ◽  
Vol 161 (2) ◽  
pp. 271-277 ◽  
Author(s):  
Huihao Chen ◽  
Depeng Meng ◽  
Gang Yin ◽  
Chunlin Hou ◽  
Haodong Lin

2020 ◽  
Author(s):  
Themistocles S Protopsaltis ◽  
Yesha H Parekh

Abstract This video will be demonstrating the surgical treatment of complete foot drop with partial tibial nerve transfer to the motor branch of the tibialis anterior. Foot drop occurs when there is injury to the deep peroneal nerve that results in the paralysis of the tibialis anterior muscle and subsequent loss of ankle dorsiflexion.1-5 The patient who is the subject of this video is a 27-yr-old female with a 6-mo history of foot drop. She presented with complete loss of ankle dorsiflexion and great toe extension due to traumatic fall on her left knee while running. Upon physical examination, she had all the features of complete foot drop with loss of ankle dorsiflexion and ankle eversion. She also had decreased sensation to light touch over left dorsal foot, left great toe, and left lateral lower leg. The patient has consented to this procedure. The partial tibial nerve transfer to the motor branch of tibialis anterior muscle is the preferred treatment option for foot drop as it restores ankle dorsiflexion with minimal donor site complications. At 12 mo postsurgery, she has regained 4/5 for ankle dorsiflexion on motor testing compared to the 0/5 she had preoperatively.


Author(s):  
Benjamin Freychet ◽  
Bruce A. Levy ◽  
Michael J. Stuart ◽  
Allen T. Bishop ◽  
Alexander Y. Shin

Author(s):  
Simas RT ◽  
◽  
Caires ACV ◽  
Monteiro PIP ◽  
Dantas F ◽  
...  

Objectives: To describe the neurosurgical technical nuances of peroneal nerve injury management and to analyze the outcomes of patients diagnosed with peroneal nerve injury operated on at a single institution. Methods: Fourteen patients, all with electroneuromyography confirmation of peroneal nerve injury, were retrospectively analyzed. The variables analyzed included patient demographic characteristics, etiology of the lesion, preoperative neurological status, location of the lesion, perioperative findings, surgical technique, complications, and neurological status six months postoperatively. Results: Traumatic injury was the most common cause of peroneal nerve injury, accounting for 64.27% of cases. Concerning surgical technique, neurolysis was the preferred technique in most cases. Isolated neurolysis was performed in 50% of the cases, neurolysis combined with graft in 7.14%, and neurolysis combined with ganglion cyst excision in 21.43%. In our study, surgical treatment led to improvement in foot strength, with statistical relevance, in both sexes. Only one complication was observed. Conclusions: Surgical exploration and repair of peroneal nerve injuries achieved good results in this series, with functional improvement of the analyzed patients in both sexes. When appropriate, surgical repair can lead to favorable outcome and early surgery can be a therapeutic strategy in selected cases.


2002 ◽  
Vol 87 (4) ◽  
pp. 1763-1771 ◽  
Author(s):  
Antoni Valero-Cabré ◽  
Xavier Navarro

We investigated the changes induced in crossed extensor reflex responses after peripheral nerve injury and repair in the rat. Adults rats were submitted to non repaired sciatic nerve crush (CRH, n = 9), section repaired by either aligned epineurial suture (CS, n = 11) or silicone tube (SIL4, n = 13), and 8 mm resection repaired by tubulization (SIL8, n = 12). To assess reinnervation, the sciatic nerve was stimulated proximal to the injury site, and the evoked compound muscle action potential (M and H waves) from tibialis anterior and plantar muscles and nerve action potential (CNAP) from the tibial nerve and the 4th digital nerve were recorded at monthly intervals for 3 mo postoperation. Nociceptive reinnervation to the hindpaw was also assessed by plantar algesimetry. Crossed extensor reflexes were evoked by stimulation of the tibial nerve at the ankle and recorded from the contralateral tibialis anterior muscle. Reinnervation of the hindpaw increased progressively with time during the 3 mo after lesion. The degree of muscle and sensory target reinnervation was dependent on the severity of the injury and the nerve gap created. The crossed extensor reflex consisted of three bursts of activity (C1, C2, and C3) of gradually longer latency, lower amplitude, and higher threshold in control rats. During follow-up after sciatic nerve injury, all animals in the operated groups showed recovery of components C1 and C2 and of the reflex H wave, whereas component C3 was detected in a significantly lower proportion of animals in groups with tube repair. The maximal amplitude of components C1 and C2 recovered to values higher than preoperative values, reaching final levels between 150 and 245% at the end of the follow-up in groups CRH, CS, and SIL4. When reflex amplitude was normalized by the CNAP amplitude of the regenerated tibial nerve, components C1 (300–400%) and C2 (150–350%) showed highly increased responses, while C3 was similar to baseline levels. In conclusion, reflexes mediated by myelinated sensory afferents showed, after nerve injuries, a higher degree of facilitation than those mediated by unmyelinated fibers. These changes tended to decline toward baseline values with progressive reinnervation but still remained significant 3 mo after injury.


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