Attritional Rupture of Peroneus Brevis and Peroneus Longus Tendons: Flexor Digitorum Longus Transfer

2020 ◽  
pp. 321-335
Author(s):  
Nick Casscells ◽  
Tom Sherman ◽  
Lew Schon
1926 ◽  
Vol 22 (5-6) ◽  
pp. 511-513
Author(s):  
V. N. Ternovsky ◽  
M. Sadykova

Dissecting the muscles of the right lower limb of an unknown corpse, we found an accessory muscle on the posterior surface of the lower leg. This muscle (see Fig.) Was bordered behind in. soleus and with the tendon m. plantaris, in front - with in. flexor hallucis longus, medially - c m. flexor digitorum longus and laterally - c m. peroneus brevis.


2017 ◽  
Vol 2 (3) ◽  
pp. 2473011417S0002
Author(s):  
Shingo Maeda ◽  
Takaaki Hirano ◽  
Akiyama Yui ◽  
Hiroyuki Mitsui ◽  
Hisateru Niki

Category: Arthroscopy Introduction/Purpose: Open surgery of the sole of the foot requires an extensive amount of soft tissue to be dissected. In recent years, various types of endoscopic surgery for the sole of the foot have been reported, making it possible to dynamically evaluate and treat plantar lesions with a small skin incision and minimal dissection. However, there have also been reports of complications involving plantar nerve injury. A good knowledge of the plantar nerve anatomy is crucial for safe endoscopic surgery of the sole. We aimed to anatomically dissect the soles of cadaveric feet to investigate the safe zones for plantar portals. Methods: We studied 36 feet of 24 cadavers. The soft tissue of the sole was dissected, and the relationships between the plantar nerve and flexor digitorum longus tendon, flexor hallucis longus tendon and peroneus longus tendon were studied. The plantar nerve course was digitally imaged and uploaded into Image J software to determine the nerve position. The back of the calcaneus, the medial side of the base of M (Metatarsal) 1, the medial side of the head of M1, the lateral side of the head of M5, and the proximal tip of M5 were plotted and defined as A, B, C, D, and E respectively on Image J. The nerve courses were plotted on AB, BE, and CD, and the percentage at which they were positioned on the line segment was calculated. Next, the bifurcation positions of each nerve were plotted and measured to the defined line segments. Results: No major differences were noted in the course of the medial plantar nerve and lateral plantar nerve. The medial plantar nerve and lateral plantar nerve ran between B and E, at 32.4% ± 4% and 61.2%± 5.1% respectively from B. No plantar arteries were found to run between the medial plantar nerve and lateral plantar nerve on BE. Taking mean and standard deviation values into account, no neurovascular structure existed from 36.4% to 56.1% along a line between the medial aspect of the base of M1 to the proximal tip of M5. The flexor digitorum longus tendon and peroneus longus tendon passed through the deep layer of this region. Conclusion: We believe this region to be a safe zone for creating plantar endoscopic portal. The plantar central portal can be created at the center of the sole. An approach from the plantar central portal to the flexor digitorum longus tendon, flexor hallucis longus tendon, and peroneus longus tendon with the plantar lateral portal, posteromedial portal, and toe portal allows for a greater range of vision and treatment options and may further advance endoscopic surgery of the sole.


2019 ◽  
Vol 4 (4) ◽  
pp. 247301141988427
Author(s):  
Baofu Wei ◽  
Ruoyu Yao ◽  
Annunziato Amendola

Background: The transfer of flexor-to-extensor is widely used to correct lesser toe deformity and joint instability. The flexor digitorum longus tendon (FDLT) is percutaneously transected at the distal end and then routed dorsally to the proximal phalanx. The transected tendon must have enough mobility and length for the transfer. The purpose of this study was to dissect the distal end of FDLT and identify the optimal technique to percutaneously release FDLT. Methods: Eight fresh adult forefoot specimens were dissected to describe the relationship between the tendon and the neurovascular bundle and measure the width and length of the distal end of FDLT. Another 7 specimens were used to create the percutaneous release model and test the strength required to pull out FDLT proximally. The tendons were randomly released at the base of the distal phalanx (BDP), the space of the distal interphalangeal joint (SDIP), and the neck of the middle phalanx (NMP). Results: At the distal interphalangeal (DIP) joint, the neurovascular bundle begins to migrate toward the center of the toe and branches off toward the center of the toe belly. The distal end of FDLT can be divided into 3 parts: the distal phalanx part (DPP), the capsule part (CP), and the middle phalanx part (MPP). There was a significant difference in width and length among the 3 parts. The strength required to pull out FDLT proximally was about 168, 96, and 20 N, respectively, for BDP, SDIP, and NMP. Conclusion: The distal end of FDLT can be anatomically described at 3 locations: DPP, CP, and MPP. The tight vinculum brevis and the distal capsule are strong enough to resist proximal retraction. Percutaneous release at NMP can be performed safely and effectively. Clinical Relevance: Percutaneous release at NMP can be performed safely and effectively during flexor-to-extensor transfer.


1993 ◽  
Vol 1 (1) ◽  
pp. 50-51
Author(s):  
Lowell A Hughes ◽  
James L Mahoney

LA Hughes, JL Mahoney. An anomalous leg flexor muscle. Can J Plast Surg 1993;1(1):50-51. A case of an anomalous flexor muscle in the leg (flexor digitorum intermedius) is described and the normal anatomy of the flexor digitorum longus discussed along with known variations and abnormal muscles in the deep posterior group of leg muscles.


2006 ◽  
Vol 27 (5) ◽  
pp. 363-366 ◽  
Author(s):  
Raymond J. Sullivan ◽  
Heather A. Gladwell ◽  
Michael S. Aronow ◽  
Michael D. Nowak

2021 ◽  
Vol 28 (2) ◽  
pp. 1-12
Author(s):  
Ramazan Kurul ◽  
Tamer Cankaya ◽  
Necmiye Un Yildirim

Background/AimsAnkle proprioception and neuromuscular feedback from this region provides the sensory input needed for balance. The aim of this study was to investigate the effects of repeated correction taping applied on the ankle and peroneus longus and peroneus brevis muscles on balance and gait in patients with stroke.MethodsA total of 61 patients with stroke with a mean age of 62.25 ± 7.04 years were included in this study. The patients were randomly divided into two groups. The control group (n=30) received 1 hour of rehabilitation, which took place during weekdays over the course of 2 weeks. The intervention group (n=31) received 1 hour of daily rehabilitation as well as having kinesio tape applied to their ankle. Both groups were assessed with the Balance Evaluating Systems Test, Timed Up and Go Test, Functional Reach Test, Tetrax Balance System and Barthel Index. Clinical assessments were performed at baseline, immediately after the first application, 1 week and 2 weeks later, following the first taping.ResultsThere was a significant improvement in the Balance Evaluating Systems and Functional Reach Tests scores between the first and last measurements in favour of the intervention group (P<0.05). There were no significant changes between baseline and immediately after assessment for all measurements (P>0.05). There was no significant difference in Tetrax scores, Timed Up and Go Test and Barthel Index scores (P>0.05).ConclusionsIn this study, it was found that dynamic balance was improved by taping the peroneus longus and peroneus brevis muscles, but the static balance did not change. One week of kinesio taping would be beneficial; however, prolonged use would not provide further improvement.


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