Iliac artery stent infection treated with superficial femoral vein

The large size of some retroperitoneal tumors and the complex anatomy of the retroperitoneal structures often require en bloc resection of contiguous organs and, sometimes, resection of critical vascular structures. Vascular reconstructive techniques allow reconstruction of major vascular structures, and autologous vein grafting is the preferred option. Although great saphenous vein can be used in select cases, other options must be explored in cases of caliber mismatch between saphenous vein and native vessel. In addition, the use of synthetic grafts should be avoided in potentially infected vascular beds. The use of the superficial femoral vein in such settings is well documented especially in relation to treatment of infected aortic grafts and has the added advantage of appropriate size match for reconstruction of the major abdominal and pelvic vascular structures. Here, we present a case of a 56-year-old woman with a local recurrence of urothelial cancer in the pelvis after radical cystectomy and radiotherapy. Computed tomography (CT) angiography showed the right iliac artery directly involved by the tumor, and vessel resection was necessary to achieve oncologic surgical margins. The tumor was excised en bloc, and vascular reconstruction using the reversed contralateral superficial femoral vein in an end-to-end fashion was performed. The postoperative course was uneventful. Patient was maintained on low-molecular-weight heparin for 1 month and then on low-dose (100 mg acetylsalicylic acid) antiplatelet therapy and compression stockings. Six months later, the patient is asymptomatic, without leg swelling, and the CT scan shows patency of the vascular repair and no tumor recurrence.

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Morphometric characteristics of competent proximal valves of the great saphenous vein and superficial femoral vein in vivo according to ultrasound angioscanning data

Regional blood circulation and microcirculation ◽

10.24884/1682-6655-2019-18-3-16-22 ◽

2019 ◽

Vol 18 (3) ◽

pp. 16-22

Author(s):

E. K. Gavrilov ◽

H. L. Bolotokov ◽

E. A. Babinets

Keyword(s):

Saphenous Vein ◽

Great Saphenous Vein ◽

Femoral Vein ◽

Lower Boundary ◽

Average Diameter ◽

Lower Limbs ◽

Functional Test ◽

Natural Form ◽

Superficial Femoral Vein ◽

Venous Diameter

Introduction. It seems relevant to study the ultrasound anatomy and physiology of the proximal valve segments of the superficial femoral vein (SFV) and the great saphenous vein (GSV) to develop effective reconstructive surgical interventions on venous valves in chronic vein diseases.The aim of the survey was to study the ultrasound anatomy of the venous wall, the size and shape of the proximal SFV and GSV valves are normal at rest and during the functional test Valsalva.Material and methods. Proximal valve SFV studies were performed in 144 lower limbs in 115 people (mean age 51.1 ± 14.4 years, 60 women and 55 men), proximal GSV valves studies - in 82 lower limbs in 67 persons (average age 45, 1 ± 13.3 years, 33 women, 34 men). A longitudinal and transverse ultrasound scanning of the femoral vein bifurcation and safenofemoral junction areas were performed, the structures of the proximal SFV and GSV valves were visualized, the valve shape was measured and the diameter of the veins was measured at the level valves at the base of the valves (inlet diameter), at the point of maximum ectasia (diameter of ectasia), at the upper border of the valve (diameter of the outlet), as well as measuring the length of the valve a (length to ectasia, the total length of the valve). The degree of ectasia over the valve was judged by calculating the relative venous diameter change (RVDC).Results. the average diameter of the SFV at the level of the lower boundary of its first valve was 10.01 ± 1.44 mm. The average diameter of the SFV at the level of the maximum ectasia of its first valve was 13,1±2 mm. The average value of the index of RVDC for SFV was 31%±10,4%. An increase in the diameter of the vein in the zone of supravalvular ectasia up to 20% corresponded to the spindle-shaped valve, more than 20% - to the clavate form, which was noted in the majority of the examined. The change in the relative venous diameter of the SFV on the Valsalva test was 38,2%±12,4%. The average diameter of the GSV at the base of the first valves was 6,07±1,25 mm. The average diameter of the GSV at the level of the maximum ectasia of the osteal valve was 9,44±1,69 mm. The average RVDC for GSV was 58%±24%.Conclusion. the natural form of proximal SFV and GSV valves is clavate with presence of the significant supravalvular ectasia, which was noted in the majority of the subjects alone and in all during the performance of the Valsalva functional test.

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Effects of intermittent pneumatic compression on femoral vein peak venous velocity during active ankle exercise

Journal of Orthopaedic Surgery ◽

10.1177/2309499021998105 ◽

2021 ◽

Vol 29 (1) ◽

pp. 230949902199810

Author(s):

Kenta Sakai ◽

Naonobu Takahira ◽

Kouji Tsuda ◽

Akihiko Akamine

Keyword(s):

Femoral Vein ◽

Bed Rest ◽

Intermittent Pneumatic Compression ◽

Postoperative Rehabilitation ◽

Venous Flow ◽

Compression Phase ◽

Superficial Femoral Vein ◽

Inpatient Ward ◽

Vein Thrombosis ◽

Strong Compression

Introduction: The risk of developing deep vein thrombosis (DVT) is high even after the period of bed rest following major general surgery including total joint arthroplasty (TJA). Mobile intermittent pneumatic compression (IPC) devices allow the application of IPC during postoperative exercise. Although ambulation included ankle movement, no reports have been made regarding the effects of IPC during exercise, including active ankle exercise (AAE), on venous flow. This study was performed to examine whether using a mobile IPC device can effectively augment the AAE-induced increase in peak velocity (PV). Methods: PV was measured by Doppler ultrasonography in the superficial femoral vein at rest, during AAE alone, during IPC alone, and during AAE with IPC in 20 healthy subjects in the sitting position. PV in AAE with IPC was measured with a mobile IPC device during AAE in the strong compression phase. AAE was interrupted from the end of the strong compression phase to minimize lower limb fatigue. Results: AAE with IPC (76.2 cm/s [95%CI, 69.0–83.4]) resulted in a significant increase in PV compared to either AAE or IPC alone (47.1 cm/s [95%CI, 38.7–55.6], p < 0.001 and 48.1 cm/s [95%CI, 43.7–52.4], p < 0.001, respectively). Discussion: Reduced calf muscle pump activity due to the decline in ambulation ability reduced venous flow. Therefore, use of a mobile IPC device during postoperative rehabilitation in hospital and activity including self-training in an inpatient ward may promote venous flow compared to postoperative exercise without IPC. Conclusion: Use of a mobile IPC device significantly increased the PV during AAE, and simultaneous AAE with IPC could be useful evidence for the prevention of DVT in clinical settings, including after TJA.

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