scholarly journals CHIVA to Treat Saphenous Vein Insufficiency in Chronic Venous Disease: Characteristics and Results

2020 ◽  
Vol 8 (2) ◽  
pp. 307-308
Author(s):  
F.P. Faccini ◽  
S. Ermini ◽  
C. Franceschi
2019 ◽  
Vol 18 ◽  
Author(s):  
Felipe Puricelli Faccini ◽  
Stefano Ermini ◽  
Claude Franceschi

Abstract There is considerable debate in the literature with relation to the best method to treat patients with chronic venous disease (CVD). CHIVA is an office-based treatment for varicose veins performed under local anesthesia. The aim of the technique is to lower transmural pressure in the superficial venous system and avoid destruction of veins. Recurrence of varicosities, nerve damage, bruising and suboptimal aesthetic results are common to all treatments for the disease. This paper evaluates and discusses the characteristics and results of the CHIVA technique. We conclude that CHIVA is a viable alternative to common procedures that is associated with less bruising, nerve damage, and recurrence than stripping saphenectomy. The main advantages are preservation of the saphenous vein, local anesthesia, low recurrence rates, low cost, low pain, and no nerve damage. The major disadvantages are the learning curve and the need to train the team in venous hemodynamics.


2018 ◽  
Vol 2018 ◽  
pp. 1-8 ◽  
Author(s):  
Ewa Grudzińska ◽  
Andrzej Lekstan ◽  
Ewelina Szliszka ◽  
Zenon P. Czuba

The pathogenesis of chronic venous disease (CVD) remains unclear, but lately inflammation is suggested to have an important role in its development. This study is aimed at assessing cytokines released by lymphocytes in patients with great saphenous vein (GSV) incompetence. In 34 patients exhibiting oscillatory flow (reflux) in GSV, blood was derived from the cubital vein and from the incompetent sapheno-femoral junction. In 12 healthy controls, blood was derived from the cubital vein. Lymphocyte culture with and without stimulation by phytohemagglutinin (PHA) was performed. Interleukins (IL) 1β, 2, 4, 10, 12 (p70), and 17A; interleukin 1 receptor α (IL-1ra); tumor necrosis factor-α (TNF-α); interferon-gamma (IFN-γ); and RANTES were assessed in culture supernatants by the Bio-Plex assay. In both stimulated and unstimulated samples, in the examined group, IL-1β and IFN-γ had higher concentrations and RANTES had lower concentrations when compared to those in the control group. In the examined group, IL-4 and IL-17A had higher concentrations without stimulation and TNF-α had higher concentrations with stimulation. The GSV samples had higher IL-2, IL-4, IL-12 (p70), and IFN-γ concentrations without stimulation and lower IL-2 and TNF-α concentrations with stimulation when compared to those of the upper limb in the examined group. These observations indicate that the oscillatory flow present in incompetent veins causes changes in the cytokine production by lymphocytes, promoting a proinflammatory profile. However, the relations between immunological cells, cytokines, and the endothelium require more insight.


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.


2014 ◽  
Vol 30 (10) ◽  
pp. 700-705 ◽  
Author(s):  
V Starodubtsev ◽  
M Lukyanenko ◽  
A Karpenko ◽  
P Ignatenko

Objective To estimate the safety and efficacy of using the laser 1560 nm wavelength for treatment of chronic venous disease in patients with wide diameters of the proximal segment of the great saphenous vein. Methods In the study 88 patients with lower limb varicose veins were included. Maximum diameter of the great saphenous vein proximal segment varied from 15 to 34 mm (22 ± 2.3) in all patients. In the 1st group in 34 cases crossektomy and endovenous laser ablation (EVLA) were performed. In the 2nd group in 30 cases EVLA regardless diameter of the great saphenous vein proximal segment was performed. In the 3rd group in 34 cases EVLA taking into account the diameter of the great saphenous vein proximal segment was performed. The laser 1560 nm wavelength was used. Linear endovenous energy density in the 1st and 2nd groups was 90 J/cm for the proximal segment and trunk of great saphenous vein. Linear endovenous energy density in the 3rd group was personalized on the size of the veins: 100 J/cm for diameter of great saphenous vein proximal segment 15–20 mm, 150 J/cm for diameter 20–30 mm, 90 J/cm for middle and distal segments of great saphenous vein. Results In the 1st group obliteration of the trunk of the great saphenous veins and accessory great saphenous veins in all cases without additional interventions was reached. In the 2nd group at four cases (13.3%) the second procedure EVLA was carried out, after which the obliteration of the trunk was achieved. In the 3rd group the obliteration of the trunk of great saphenous vein was achieved without additional interventions. Conclusion Our experience of using the laser 1560 nm wavelength for the treatment of the chronic venous disease in patients with wide diameter of the proximal segment of great saphenous vein shows the safety and efficacy of this technique. EVLA has to be personalized on the size of the segments of vein in patients with wide proximal segment of great saphenous vein.


2016 ◽  
Vol 23 (3) ◽  
Author(s):  
Rostyslav Vasyliovych Sabadosh

Abstract. The vein of Giacomini is often identified with the cranial extension of the small saphenous vein despite the fact that according to the international interdisciplinary anatomical nomenclature they are distinguished from one another.The objective of the research was to improve the results of treatment of patients with lower limb primary chronic venous disease disease studying the variation in anatomy and pathology of the vein of Giacomini and the cranial extension of the small saphenous vein with subsequent development of differential surgical tactics.Materials and methods. 502 patients with primary chronic venous disease on 605 legs were examined and treated. Each patient underwent preoperative ultrasonographic triplex scanning of the lower limb venous system.Results. Varicose dilatation of the vein of Giacomini was observed in 3.8% of patients (95% CI 2.4-5.6 %), and the pathology of the cranial extension of the small saphenous vein was detected in 1.7% of patients (95% CI 0.8-3.0%). When the arch of the small saphenous vein was present the following variations in the pathology of the vein of Giacomini were observed: 1) the spread of reflux from the great saphenous vein to the vein of Giacomini; 2) reflux from the terminal valve of the small saphenous vein intensified the antegrade flow of blood within the vein of Giacomini resulting in reflux in the great saphenous vein distal to the point where the vein of Giacomini drained into the great saphenous vein. The causes of failure of the valves in the trunk of the cranial extension of the small saphenous vein included: 1) reflux from the ostium of the cranial extension of the small saphenous vein; 2) perforating vein reflux; 3) reflux from the terminal valve of the small saphenous vein.Conclusions.  The pathology of the vein of Giacomini and the cranial extension of the small saphenous vein is not homogeneous; therefore, surgical tactics in every patient has to be hemodynamically justified and differentiated depending on the pathways of pathological reflux spreading. 


2014 ◽  
Vol 30 (9) ◽  
pp. 627-631 ◽  
Author(s):  
AA Kokkosis ◽  
H Schanzer

Objective To identify the anatomical and clinical parameters that predict lack of regression of superficial varicosities after ablation of the great saphenous vein. Methods Symptomatic patients treated with endovenous ablation from August 2006 to July 2013, by a single surgeon, were included. Recorded parameters included age, sex, size, and extent of varicosities (class I–IV) (patient standing), and diameter and length (patient supine) of treated great saphenous vein. Varicose vein classification was defined as: class I ≤6 mm and localized to thigh or leg, class II ≤6 mm and present in the thigh and leg (extensive), class III >6 mm and localized to the thigh or leg, and class IV >6 mm and extensive. “Excellent” results were defined as complete resolution of varicosities, “good” results as incomplete resolution, and “poor” results as no improvement. Results A total of 267 patients and 302 consecutive limbs were included in the study. There were 175 females (65.5%), and the mean age was 54 years old (22–92). The CEAP classification was as follows: C2 (81.5%), C3 (6.3%), C4 (7.9%), C5 (2.0%), and C6 (2.3%). Great saphenous vein diameters was significantly larger in patients with C3–C6 (proximal 0.84 ± 0.25 versus 0.65 ± 0.21, p = < 0.0001, distal 0.58 ± 0.18 versus 0.44 ± 0.13, p < 0.0001) or class III–IV varicose veins (proximal 0.85 ± 0.25 versus 0.75 ± 0.27, p = 0.012, distal 0.62 ± 0.62 versus 0.50 ± 0.17, p < 0.0001). Class III–IV limbs had a “good/poor” result 69.8% of the time, as compared to 51.9% of the limbs class I–II varicose veins (p = 0.002). Conclusions Advanced chronic venous disease (C3–C6) patients have larger diameter great saphenous veins, reflecting the progressive nature of the disease. Patients with more severe varicosities regardless of CEAP class were more likely to require a secondary procedure. The severity of the varicosities may not correlate with the degree of venous disease, but it is an indication of which patients should undergo secondary procedures, possibly with a one-stage approach.


2017 ◽  
Vol 24 (2) ◽  
pp. 290-296 ◽  
Author(s):  
Ramon L. Varcoe ◽  
Shannon D. Thomas ◽  
Victor Bourke ◽  
Nicole M. K. Rübesamen ◽  
Andrew F. Lennox

Purpose: To report the use of adjunctive venography for the treatment of superficial venous reflux. Methods: Two hundred consecutive patients (mean age 60.9 years, range 33–86; 128 women) with chronic venous disease underwent saphenous or perforator vein ablation in 268 limbs (305 venous trunks) guided by adjunctive venography and fluoroscopy in addition to ultrasound between October 2010 and May 2016. Intraprocedural venograms were independently evaluated by 2 vascular specialists to identify the presence of venous anomalies and the need for fluoroscopy-guided maneuvers to successfully complete venous ablation. Intraprocedural venography results were compared with preoperative venous duplex scan reports to ascertain if the duplex study could be of value in identifying preoperatively any anatomical variants that may pose a technical challenge to the operator. Results: In this cohort, 542 venograms (2.0/limb) were performed with a mean duration of 4.9±9.1 minutes (range 1–48). Two thirds of patients (132, 66%) had anomalies or abnormalities within the target vein; more than a third (88, 44%) required an endovascular maneuver to successfully complete the ablation and 17% (34) of cases were impossible to complete without adjunctive fluoroscopic guidance. Per-patient comparison of intraprocedural venography with preoperative venous duplex reports identified 21 (11%) patients with abnormalities detected on ultrasound (23 anomalies) compared with 123 (64%) on venography (193 anomalies). This gave ultrasound a 17.1% sensitivity, 100% specificity and positive predictive value, and 40.7% negative predictive value. Conclusion: Venography is a valuable addition to ultrasound to facilitate complete ablation of insufficient saphenous veins in selected patients with complex anatomy.


2000 ◽  
Vol 32 (5) ◽  
pp. 954-960 ◽  
Author(s):  
Nicos Labropoulos ◽  
Athanasios D. Giannoukas ◽  
Kostas Delis ◽  
Steven S. Kang ◽  
M.Ashraf Mansour ◽  
...  

2020 ◽  
Vol 28 (3) ◽  
pp. 474-479
Author(s):  
Nurten Andaç Baltacıoğlu

Background: This study aims to identify specific segmental distribution patterns of lower extremity chronic venous disease based on latent class analysis of Doppler mapping results. Methods: A total of 1,871 lower extremities of 1,218 treatment-naïve patients (536 males, 682 females; mean age 45.4 years; range, 21 to 87 years) with chronic venous disease referred for Doppler examination between September 2009 and August 2018 were included. Refluxing superficial venous segments of the lower extremities were mapped and recorded in database in 10 distinct anatomic locations as follows: saphenofemoral junction and proximal greater saphenous vein, mid and distal thigh greater saphenous vein, anterior and posterior accessory saphenous veins, proximal and distal calf greater saphenous vein, saphenopopliteal junction and proximal lesser saphenous vein, distal lesser saphenous vein, and intersaphenous veins including Giacomini’s vein. Repeated examinations were excluded. The latent class analysis was applied to identify any possible anatomic distribution patterns of chronic venous disease. Results: Bayesian information criteria revealed three latent class models fit for refluxing segment distribution as follows: 58.2% (n=1,089) were above-the-knee greater saphenous vein segments including saphenofemoral junction (pattern 1); 29.3% (n=548) were below-the-knee greater saphenous vein segments (pattern 2); and 12.5% (n=234) were lesser saphenous vein segments and intersaphenous veins including Giacomini’s vein (pattern 3). There was no age- or sex-specific differences in the chronic venous disease distribution patterns. Conclusion: The latent class analysis, by identifying previously unseen subgroups within the sampled population, provides a new approach to classification of reflux patterns in chronic venous disease. Identification of latent classes may provide understanding of different pathophysiological bases of venous reflux and more optimal planning for interventions.


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