Femoral vein valve incompetence as a risk factor for junctional recurrence

2017 ◽  
Vol 33 (3) ◽  
pp. 206-212 ◽  
Author(s):  
Sergio Gianesini ◽  
Savino Occhionorelli ◽  
Erica Menegatti ◽  
Anna Maria Malagoni ◽  
Mirko Tessari ◽  
...  

Background Recurrent varicose veins occur up to 80% of procedures. The sapheno-femoral junction can be involved in more than 50% of cases. A detailed pathophysiological explanation of the phenomenon is still missing. The aim of the present work is to evaluate the role of femoral vein incompetence as risk factor for sapheno-femoral junction recurrence. Methods Three-hundred-eighty-one patients presenting an incompetent great saphenous vein system and eventually also an incompetent femoral tract (C2-6EpAsdPr) underwent a great saphenous vein high ligation with flush ligation also of the incompetent tributaries along the leg, sparing the saphenous trunk. Pre-operatively, all patients underwent a sonographic evaluation assessing the superficial and deep venous systems, including a detailed analysis of the iliac-femoral vein tract above the sapheno-femoral junction. A retrospective statistical analysis assessed the recurrence risk associated with iliac-femoral vein tract incompetence. Results In a 5.5 ± 1.9 years follow-up, great saphenous vein trunk reflux recurrence was detected in 45/381 (11.8%) cases. The reflux source was found in a reconnected sapheno-femoral stump in 11/45 cases (24.5%), in the pelvic network in 8/45 cases (17.8%), in a neovascularization process in 7/45 (15.5%) and in a newly incompetent great saphenous vein tributary in 19/45 (42.2%). At the pre-operative assessment, iliac-femoral vein tract reflux was present in 7 (26.9%) of the 26 cases who developed a sapheno-femoral junction recurrence and in 25 (7%) of the 355 patients who did not demonstrate sapheno-femoral junction recurrence (odds ratio: 4.8; confidence interval 95%: 1.8–12.6; p < .003). Discussion Despite many technical diagnostic and therapeutic refinements, varicose veins recurrence remains a frequent event. The present investigation points out the association among iliac-femoral vein tract incompetence and sapheno-femoral junction recurrences after high ligation.

VASA ◽  
2000 ◽  
Vol 29 (3) ◽  
pp. 187-190 ◽  
Author(s):  
Cestmir Recek ◽  
Pojer

Background: Neovascularization is an important cause of venous reflux recurrence after high ligation of the long saphenous vein. The pathogenesis of this phenomenon is so far obscure. It is possible that a hemodynamic factor – a pressure gradient between the femoral vein and the residual long saphenous vein – could be the trigger initiating the process of neovascularization. Patients and methods: Venous pressure measurements on eight patients with primary varicose veins were performed in the erect position in the insufficient long saphenous vein on the thigh. Mean pressures in the quiet standing position and ambulatory pressures were considered. By interrupting the saphenous reflux either distally or proximally to the point of measurement the pressure conditions either in the femoral or in the crural veins were simulated. Results: With the tourniquet placed distally to the point of measurement, the venous pressure in the upper interrupted segment of the long saphenous vein (equivalent to the pressure in the femoral vein) remained uninfluenced during ambulation. In contrast, by interrupting the reflux proximally to the point of measurement, a marked decrease of the ambulatory pressure in the lower part of the long saphenous vein (equivalent to the pressure in the crural veins) was noted. Conclusions: A pressure difference occurs between the veins of the thigh and the lower leg during the activation of the muscle venous pump. This fact may explain the tendency of recurrencies of varicose veins after high ligation of the long saphenous vein as well as the initiation of reflux.


VASA ◽  
2010 ◽  
Vol 39 (4) ◽  
pp. 292-297 ◽  
Author(s):  
Recek

Pressure differences play an important role in the hemodynamics of both arterial and venous circulation. Venous ambulatory pressure gradient of about 35 mm Hg arises during the activity of the calf muscle venous pump between the veins in the thigh and the lower leg; this is the initiator launching venous reflux in varicose vein patients. The hemodynamic consequence of venous reflux is interference with the physiological decrease in venous pressure in the lower leg and foot and the occurrence of ambulatory venous hypertension, the degree of which depends on the magnitude of refluxing blood. Pressure difference occurring between the femoral vein and the remnant of great saphenous vein after high ligation or crossectomy during calf pump activity may be the activator of the process leading to the building of new venous communicating channels, the consequence of which is recurrent reflux. Neovascularization is apparently triggered by this hemodynamic factor, not by the surgical procedure itself, because neovascularization does not occur after harvesting of the great saphenous vein in the groin in people without varicose veins. Venous pressure potentials developing in the lower leg during the calf pump activity force the blood to flow from deep into superficial veins during muscle contraction and in the opposite direction during muscle relaxation. An untoward event caused by venous pressure difference is presented - spontaneous bypassing of a competent valve in the saphenous remnant after crossectomy, which converted a favourable hemodynamic situation into a harmful one. Possible explanation of this undesirable event is offered.


VASA ◽  
2006 ◽  
Vol 35 (3) ◽  
pp. 157-166 ◽  
Author(s):  
Hach-Wunderle ◽  
Hach

It is known from current pathophysiology that disease stages I and II of truncal varicosity of the great saphenous vein do not cause changes in venous pressure on dynamic phlebodynamometry. This is possibly also the case for mild cases of the disease in stage III. In pronounced cases of stage III and all cases of stage IV, however, venous hypertension occurs which triggers the symptoms of secondary deep venous insufficiency and all the complications of chronic venous insufficiency. From these facts the therapeutic consequence is inferred that in stages I and II and perhaps also in very mild cases of stage III disease, it is enough "merely" to remove varicose veins without expecting there to be any other serious complications in the patient’s further life caused by the varicosity. Recurrence rates are not included in this analysis. In marked cases of disease stages III and IV of the great saphenous vein, however, secondary deep venous insufficiency is to be expected sooner or later. The classical operation with saphenofemoral high ligation ("crossectomy") and stripping strictly adheres to the recognized pathophysiologic principles. It also takes into account in the greatest detail aspects of minimally invasive surgery and esthetics. In the past few years, developments have been advanced to further minimize surgical trauma and to replace the stripping maneuver using occlusion of the trunk vein which is left in place. Obliteration of the vessel is subsequently performed via transmission of energy through an inserted catheter. This includes the techniques of radiofrequency ablation and endovenous laser treatment. High ligation is not performed as a matter of principle. In a similar way, sclerotherapy using microfoam is minimally invasive in character. All these procedures may be indicated for disease stages I and II, and with reservations also in mild forms of stage III disease. Perhaps high ligation previously constituted overtreatment in some cases. Targeted studies are still needed to prove whether secondary deep venous insufficiency can be avoided in advanced stages of varicose vein disease without high ligation and thus without exclusion of the whole recirculation circuit.


1987 ◽  
Vol 2 (1) ◽  
pp. 1-5 ◽  
Author(s):  
G.M. Glass

Recurrence of varicose veins after surgical treatment by ligation and transection has been usually attributed to development of varicosity in veins collateral to the transected vessels. Early studies reported regeneration of the great saphenous vein at the site of previous transection. The present study in the rat was undertaken to determine whether restoration of normal venous circulation in a limb after surgical interruption of the main vein develops through enlargement of collateral veins or by restoration of continuity of the interrupted vein as a result of neovascularization at the site of ligation. Following ligation in continuity or ligation and surgical transection of the rat common iliac or femoral vein, phlebographic, surgical exploratory and histological studies showed restoration of its continuity through newly formed vessels. These findings suggest that in recurrence of varicose veins the roles of neovascularization and of collateral veins deserve further investigation.


2015 ◽  
Vol 31 (5) ◽  
pp. 334-343 ◽  
Author(s):  
Jean Francois Uhl ◽  
Miguel Lo Vuolo ◽  
Nicos Labropoulos

Objective To describe the anatomy of the lymph node venous networks of the groin and their assessment by ultrasonography. Material and methods Anatomical dissection of 400 limbs in 200 fresh cadavers following latex injection as well as analysis of 100 CT venograms. Routine ultrasound examinations were done in patients with chronic venous disease. Results Lymph node venous networks were found in either normal subjects or chronic venous disease patients with no history of operation. These networks have three main characteristics: they cross the nodes, are connected to the femoral vein by direct perforators, and join the great saphenous vein and/or anterior accessory great saphenous vein. After groin surgery, lymph node venous networks are commonly seen as a dilated and refluxing network with a dystrophic aspect. We found dilated lymph node venous networks in about 15% of the dissected cadavers. Conclusion It is likely that lymph node venous networks represent remodeling and dystrophic changes of a normal pre-existing network rather than neovessels related to angiogenic factors that occur as a result of an inflammatory response to surgery. The so-called neovascularization after surgery could, in a number of cases, actually be the onset of dystrophic lymph node venous networks. Lymph node venous networks are an ever-present anatomical finding in the groin area. Their dilatation as well as the presence of reflux should be ruled out by US examination of the venous system as they represent a contraindication to a groin approach, particularly in recurrent varicose veins after surgery patients. A refluxing lymph node venous network should be treated by echo-guided foam injection.


2020 ◽  
Vol 18 (1) ◽  
pp. 99-101
Author(s):  
Vasanthakumar Packiriswamy ◽  
Satheesha B Nayak

Knowledge of normal as well as variant great saphenous vein is useful as it is the vein that can get varicosed; the vein that is used in bypass surgeries and the vein that is used for cannulation purpose. We observed almost complete duplication of the great saphenous vein in the left lower limb of an adult male cadaver. Both the great saphenous veins arose from the medial end of the dorsal venous arch and coursed parallel to each other throughout the limb. They united in the femoral triangle to form a short (1 inch long) common great saphenous vein. Common great saphenous vein terminated into the femoral vein. There were four communicating veins connecting the two great saphenous veins in the leg, giving the appearance of a venous ladder. Knowledge of this variation could be extremely useful in treatment of varicose veins of lower limb, in catheterizations and in various surgical procedures of the lower limb.


1982 ◽  
Vol 63 (4) ◽  
pp. 63-66
Author(s):  
V. E. Mamaev ◽  
M. F. Musin ◽  
M. N. Malinovsky

In 70 patients with varicose veins of the lower extremities, the state of the venous bed of the femoral-iliac segment was studied by methods of proximal pelvic and retrograde-femoral phlebography. The characteristic radiological signs of varicose veins were found: ectasia of the iliac and femoral veins, failure of the valve of the sapheno-femoral anastomosis with reflux of the contrast agent into the great saphenous vein, aneurysmal dilatation of the mouth of the great saphenous vein, partial or complete insufficiency of the valves of the femoral vein. It was found that in 35.7% of cases, the cause of the development of hypertension and varicose veins of the saphenous veins was segmental narrowing of the veins and compression of the femoral vein in the region of the pupar ligament, various extravasal compression of the main veins of the femoral-iliac segment with bone protrusions, a cross-passing artery, and an enlarged uterus. It is recommended, when studying the venous hemodynamics of the lower extremities, simultaneously with the use of distal phlebography, to carry out a contrast study of the pelvic veins


2020 ◽  
Vol 35 (10) ◽  
pp. 792-798
Author(s):  
Dominic Mühlberger ◽  
Achim Mumme ◽  
Markus Stücker ◽  
Erich Brenner ◽  
Thomas Hummel

Objectives Recurrent varicose veins after surgery are a frequent burden and the saphenofemoral junction is the most common source of reflux. Pre-existing branches of the common femoral vein near the saphenofemoral junction, which may increase due to haemodynamic or other reasons, could play a role in the development of recurrent varices. There exist only a few anatomical data about the prevalence of these minor venous tributaries of the common femoral vein near the saphenofemoral junction. Therefore, this study aimed to elucidate their frequency and distribution. Method A total of 59 veins from 35 anatomical donors were dissected. The common femoral vein with the adherent parts of the profunda femoris vein and the great saphenous vein was exposed and analysed ex situ. The number of minor tributaries to the common femoral vein was counted and their distances to the saphenofemoral junction as well their diameters were measured. Results We could identify up to 10 minor tributaries of the common femoral vein below the level of the great saphenous vein as far as 6 cm distally and up to four veins above the level as far as 5 cm proximally. The mean diameters of these vessels ranged from 0.5 to 11.7 mm. Most of these vessels were located near the saphenofemoral junction and 3 cm distally. Directly opposite to the opening of the great saphenous vein we could find at least one minor tributary of the common femoral vein in 57%. Conclusions There exist a vast number of minor tributaries of the common femoral vein and they are mainly located near the saphenofemoral junction. Nevertheless, their role in the development of recurrent varices is still unclear and further studies are necessary.


2021 ◽  
pp. 34-42
Author(s):  
Olga Yaroslavna Porembskaya ◽  
Mikhail Shakirovich Chesnokov ◽  
Sergey Igorevich Mozgunov ◽  
Viacheslav Nikolaevich Kravchuk

There are different types of great saphenous vein (GSV) anatomy that have been reported in the literature. GSV hypoplasia is frequently observed anatomical type with twice higher incidence than GSV aplasia. Proximal GSV aplasia including sapheno-femoral junction (SFJ) is the rarest anatomical type that is always accompanied by anterior accessory saphenous vein (AASV) acting as the alternative drainage route in such cases. In the case of SFJ absence the AASV connects common femoral vein at the level of typical SFJ location. In this case report we present the situation of complete GSF and AASV absence with the subsartorious perforating vein as the proximal junction between superficial and deep veins. At the same time this perforating vein is the source of pathological venous reflux towards the varicose veins of the thigh and leg. There is no information about phlebectomy of GSV in this case but it is known that the accident of the knee trauma with a subsequent operation and also the operation on the GSV tributaries on the leg (puncture without avulsion according to the patient memories) took place in the past. As such events are associated with the risk of thrombotic complications the postthrombotic involution of GSV could be contemplated in this case as the reason of GSV disappearance. Foam sclerotherapy of the incompetent thigh perforator vein with miniphlebectomy on the thigh was performed. Leg varicose veins were left untreated as their reduction after reflux elimination was expected. 14 days after treatment perforating vein obliteration and leg varicose veins reduction were diagnosed.


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