Open Access

Elevated risk of thrombophilia in agenesis of the vena cava as a factor for deep vein thrombosis

  • Tolga Atilla Sagban1Email author,
  • Rüdiger E Scharf2,
  • Markus U Wagenhäuser1,
  • Alexander Oberhuber1,
  • Hubert Schelzig1,
  • Klaus Grabitz1 and
  • Mansur Duran1
Orphanet Journal of Rare Diseases201510:3

https://doi.org/10.1186/s13023-014-0223-4

Received: 2 November 2014

Accepted: 30 December 2014

Published: 21 January 2015

Abstract

Background

Congenital absence of the inferior vena cava (AIVC) is a rare malformation which may be associated with an increased risk for deep vein thrombosis (DVT). However, the role of thrombophilia in AIVC and DVT is unknown.

Methods

Between 1982 and 2013 41 patients (12 female, 29 male, mean age 28 S.D. 11 years) were detected at the University of Düsseldorf, Germany, with AIVC. Based on medical history, clinical examination, imaging and coagulation studies, we performed on this collective a risk characterisation. Extensive literature research added further 123 published cases during 1993 and 2013. AIVC-patients were compared with iliocaval DVT-patients without AIVC (n = 168) treated during the same period in our clinic (90 female, 78 male, mean age 38 S.D. 17 years).

Results

In contrast to classical DVT younger men were more often affected. Factor-V-Leiden-mutation, 5,10-methylenetetrahydrofolate reductase (MTHFR) polymorphism and hyperhomocysteinemia individually are associated with an increased risk of DVT in patients with AIVC. Aplasia/hypoplasia of the right or left kidney is also associated with IVCA.

Conclusions

AIVC should be considered in young patients who present with DVT involving the vena cava. Analysis of publications with AIVC and our patients yielded a typical spectrum of AIVC-associated DVT characteristics: AIVC occurs in young male adults, is revealed by proximal DVT, not necessarily accused by precipitating factors like immobilisation, and is mostly located bilateral. Hereditary coagulation abnormalities seem to be more often a contributing factor for DVT in AIVC.

Keywords

Vena cava anomaly Agenesis Deep venous thrombosis Thrombophilia

Background

The formation of the inferior vena cava (IVC) in the human embryo is a complex process with fusion and regression of three paired veins which develop around the sixth gestational week [1]. The posterior cardinal veins (PCV) drain the venous flow from the medial and caudal portions of the dorsal wall of the embryo into the venous sinus of the primitive heart through Cuvier’s veins. On the other hand, the omphalomesenteric veins, give rise to hepatic sinusoids, which lead directly to the coronary sinus via the hepatocardiac ducts. The primitive kidney or mesonephros is drained by the ipsilateral subcardinal veins (SV), which drain into the PCV. Between the two SV and the omphalomesenteric system numerous anastomoses exist, which give rise to the intrahepatic segment of the IVC. At this stage the involution of the PCV and SV begins, though the SV are only partially obliterated, maintaining their distal portion, which gives rise to the corresponding gonadal vein on the left and to the renal and postrenal segments of the IVC on the right. At the same time as the regression of the SV and PCV, a new system of SV develops designed to drain the dorsal wall of the embryo. These later veins develop later to the azygos and hemiazygos venous systems.

Malformations of the IVC are unusual and include an interruption of the IVC with azygos and hemiazygos vein continuation [2,3]. 90% of those cases involve suprarenal defects and only 6% involve the renal or infrarenal segments. Absence of the infrarenal segment of the IVC (AIVC) is an extremely rare anomaly [4]. The reasons for such a developmental failure are unclear. Most researchers believe that the cause lies in embryonic dysgenesis affecting separate segments or the entire IVC [5-7]. Others suggest that AIVC is not embryonic in origin, rather the result of intrauterine or perinatal thrombosis [8,9].

Until now only case reports or small collectives were reported for AIVC. Normally these malformations are well collateralized because of their presence since embryonic development. But some of them come to medical attention because of deep vein thrombosis (DVT). Although association with hyperhomcysteinemia [10] and factor-V-Leiden have been reported [11], in literature described collectives are very small and partly contrary [13]. Only limited data is available on the role of thrombophilia associated with AIVC [10-12]. To enlarge the small cohort of our AIVC patients (n = 41), we performed a Medline research reporting about cases with AIVC and could identify 124 additional AIVC patients with tested thrombophilia to ours (Additional file 1).

Methods

This study was approved by the local ethics committee of the University Hospital of Düsseldorf, Germany and informed consent was obtained from every single patient treated and investigated in our department, which included permission to use data from chart review and genetic investigations for thrombophilc factors. The study was performed in accordance with the Helsinki Declaration.

Subjects

We studied 209 consecutive patients between January 1982 and June 2013 with a history of ileo-femoral DVT with involvement of the vena cava. In this collective, 41 individuals with an AIVC were identified. Patients with ilio-femoral, vena cava involving DVT without AIVC (NoAIVC; n = 168) served as control group.

All patients were evaluated for determination of thrombophilic and other abnormalities. In both, the patients with a history of DVT and/or patients with an AIVC, blood samples were obtained after the diagnosis of DVT or/and AIVC.

We compared and added our results with those reported available on Medline database with sufficient relevant data. References were identified through search of the Medline database using the terms: “inferior vena cava”, “absence”, “anomaly”, “agenesis” and “atresia”. 68 publications could be identify, mostly case reports from 1993 until 2013, adding information of 124 patients with AIVC to our collective (Additional file 1). Publications without information about patients’ thrombophilia were disclosed. The references finally retained were chosen based on their relevance to topics addressed herein and to answer several questions important in clinical practice: demographic data of the AIVC population, clinical DVT presentation, imaging for AIVC diagnosis, additional anatomical anomalies, contribution of thrombophilia screening and therapeutic approach.

All patients treated in our clinic, had an objectively diagnosed episode of DVT diagnosed by Doppler ultrasonography, computed tomography or magnetic resonance imaging and/or by venography. These patients were treated with anticoagulation or when feasible by surgery in combination with anticoagulation [13].

Laboratory tests

All patients in our clinic were screened for inherited and acquired defects in blood coagulation. We determined the activities of lupus anticoagulant and hyperhomocysteinemia in plasma, and performed a genetic analysis to determine factor-V-Leiden-gene-mutation, the G20210A prothrombin-gene-mutation, and the gene encoding C677T 5,10-methylenetetrahydrofolate reductase (MTHFR)-mutation. Lupus anticoagulant was measured with the DVV test and DVV confirm test (American Diagnostica, Greenwich, Conn.).

Genetic analysis

DNA was extracted from peripheral-blood leukocytes according to standard protocols with the use of the Chelex system (Bio-Rad, Munich, Germany). The presence of factor-V-Leiden was determined by allele-specific restriction-enzyme analysis [14]. For confirmation of the genotypes, an oligonucleotide-ligation assay was performed [15]. The results of the oligonucleotide-ligation assay were in 100 percent concordance with the results of genotypic analysis, as determined by an allele specific restriction-enzyme assay. The G20210A prothrombin-gene-mutation was identified by allele-specific restriction-enzyme analysis [16]. Screening for the presence of the C677T MTHFR-polymorphism was performed by the method described by Frosst et al. [17].

Statistical analysis

The SPSS statistical package (SPSS for Windows, version 19.0 SPSS Inc., Chicago, IL., USA) was used for all statistical analyses. Measure of variation is reported as standard deviation. Depending on the type of data, the Wilcoxon rank-sum test, chi-square analysis, or Fisher’s exact test (two-tailed) was used to assess the differences between the groups. Multivariate analyses, including the calculation of predictive values, were performed with the use of a stepwise logistic-regression procedure.

Results

The characteristics of all patients are presented in Table 1 (details of patients derived by literature research is presented under Additional file 1).
Table 1

Characteristics of the patients with an aivc in this paper and in literature, compared with noaivc

Characteristics

Patients with AIVC and DVT in this paper (n = 41)

Patients with AIVC in literature research (n = 124)

Patients with NoAIVC (n = 168)

P Value of AIVC in this paper and in literature (n = 165) vs. NoAIVC (n = 168)

Sex male/female (male in %)

29/12 (70.7%)

93/31 (75.0%)

78/90 (46.4%)

<0.0001

Mean age at appearance of

    

DVT (years ± SD)

28 ± 11.1

28 ± 11.0

38 ± 17.3

<0.0001

Range (min., max.)

16-58

8-67

8-84

 

preciptating factors for DVT -

    

No. (%)

25/41 (61.0%)

52/122 (42.6%)*

130/168 (77.4%)

<0.0001

Left sided DVT (%)

4/41 (9.8%)

26/124 (21.0%)

83/168 (49.4%)

<0.0001

Right sided DVT (%)

12/41 (29.3%)

30/124 (24.2%)

28/168 (16.7%)

0.049

Both sided DVT (%)

25/41 (61.0%)

59/124 (47.6%)

57/168 (33.9%)

0.002

DVT deep vein thrombosis. AIVC inferior vena cava agenesia. NoAIVC iliofemoral DVT with involvement of inferior vena cava without AIVC. SD standard deviance.

*in two cases not reported in literature.

The difference between the AIVC groups was not significant.

AIVC in our clinic and in literature

41 patients with AIVC could be identified at the University of Düsseldorf, Germany. Mean age was 28 ± 11.1 years (min. 16, max. 58 years; 29 male and 12 female). Medline database research revealed additional 124 AIVC patients reported in 68 articles. Mean age here was 28.0 ± 11.0 years (min. 8, max. 67 years; 93 male). Age difference and male dominance in both groups was not statistical significant. While in our department 36.6% of AIVC patients (15/41 patients) were surgical treated with a prosthetic bypass, anticoagulation and compressing stockings [13], in literature only three reported bypasses could be identified [9,18,19]. Thrombolysis was reported as treatment of first choice in 14 patients [20-28]. Three publications implied no information about their treatment, whereas the majority of the published cases were treated conservatively with anticoagulation and compressing stockings (n = 104/124).

DVT of the legs was present in all AIVC cases in our clinic. A left sided DVT was evaluable in 9.8% (4/41 patients), right sided in 29.3% (12/41 patients). Both sided affection was dominant with 61.0% in our AIVC patients (25/41 patients). There was a trend toward a higher prevalence of both sided DVT in our patients with AIVC than among the AIVC patients in literature (prevalence, 61.0% vs. 47.6%; p = 0.10) but reached no significance.

In the here employed literature, left sided DVT could be diagnosed in 21.0% (n = 26/124 patients), right sided in 30/124 patients (24.2%). Both sided affections of DVT was present in 59/124 patients (47.6%). Compared to our AIVC-group, DVT pattern was not significant different in literature.

Precipitating factors like immobilization, use of oral contraceptives, etc. were more often documented in NoAIVC (130/168) than in AIVC (77/163; 77.4% vs. 47.3%; p < 0.0001).

NoAIVC

168 patients with NoAIVC served here as control group. Mean age was 38.0 ± 17.3 years (min. 8, max. 84 years). AIVC patients compared to NoAIVC patients were in average 10 years younger (p < 0.0001). Male dominance was also notable in AIVC (73.9% vs. 46.4%; p < 0.0001). In NoAIVC, right sided DVT was seen in 16.7% vs. 25.4% in AIVC, both sided in 33.9% vs. 50.9% in AIVC. Atypical site of DVT was significant for AIVC (right sided: p = 0.049; both sided: p = 0.002), whereas left sided DVT was more often observed in NoAIVC (49.4% vs. 18.3% in AIVC; p < 0.0001; Table 1).

Other organ anomalies in AIVC and NoAIVC

In many reported cases, AIVC was associated with other anatomic disorders. The most recognized anomaly in AIVC was aplasia of the right kidney (6.0% vs. 0% in NoAIVC; p = 0.002), secondly, hypoplasia of the left kidney in 2.7% of AIVC patients (vs. 0% in NoAIVC; p = 0.042). Polysplenia was just as well seen in 2.0% of AIVC patients (vs. 0% in NoAIVC; p = 0.080; n.s.). May-Thurner syndrome was only observed in five NoAIVC-patients (3.0% vs. 0% in AIVC; p = 0.026). A preduodenal portal vein was only observed in two cases of AIVC and not statistical significant represented (p = 0.176; Table 2).
Table 2

Prevalence of combined organ anomalies

Organ or system anomalies

Patients with AIVC in this paper (n = 41)

Patients with AIVC in literature (n = 108/124; 16/124 NR )

Patients with NoAIVC (n = 168)

P Value of AIVC in this paper and in literature (n = 149) vs. NoAIVC (n = 168)

Hypoplasia/aplasia of left kidney (%)

1/41 (2.4%)

3/108 (2.8%)

0/168 (0.0%)

0.042

Hypoplasia/aplasia of right kidney (%)

2/41 (4.9%)

7/108 (6.5%)

0/168 (0.0%)

0.002

Polysplenia (%)

1/41 (2.4%)

2/108 (1.9%)

0/168 (0.0%)

0.080

Preduodenal portal vein (%)

1/41 (2.4%)

1/108 (0.9%)

0/168 (0.0%)

0.176

May-Thurner syndrome (%)

0/41 (0.0%)

0/108 (0.0%)

5/168 (3.0%)

0.026

AIVC inferior vena cava agenesia. NoAIVC iliofemoral DVT with involvement of inferior vena cava without AIVC. NR not reported.

In 16 of 124 reported cases in literature organ anomalies were not reported (NR); comparisons were calculated with 108 patients.

Absence of portal vein.

Prevalence of inherited risk factors

There was no significant difference in the prevalence of factor-V-Leiden, prothrombin-gene-mutation, MTHFR-gene-mutation, and hyperhomocysteinemia between the 41 AIVC patients in our clinic and the 124 AIVC patients derived from literature research. Homozygoty for factor-V-Leiden or prothrombin-gene-mutation was not detected. In AIVC, factor-V-Leiden-mutation was heterozygous in 27/165 patients and in 8/168 in NoAIVC. Prothrombin-gene-mutation was heterozygous analysed in 9/165 AIVC and in 3/168 NoAIVC patients. Except of 2/168 NoAIVC individuals, all MTHFR-mutations were heterozygous (in AIVC 25/165; in NoAIVC 4/168). None of the patients with a history of AIVC had both, factor-V-Leiden and prothrombin-gene-mutation. A combination of two or more thrombophilic factors in-between the groups showed no significant difference (Table 3).
Table 3

Prevalence of hereditary coagulation defects

 

Patients with AIVC in this paper (n = 41)

Patients with AIVC in literature research (n = 124)

Patients with NoAIVC (n = 168)

P Value of AIVC in this paper and in literature (n = 165) vs. NoAIVC (n = 168)

Factor V Leiden (%)

11/41 (26.8%)

16/124 (12.9%)

8/168 (4.8%)

0.001

Prothrombin gene mutation (%)

1/41 (2.4%)

8/124 (6.5%)

2/168 (1.2%)

0.146

MTHFR gene mutation (%)

15/41 (36.6%)

6/124 (4.8%)

6/168 (3.6%)

0.005

Homocysteinemia (%)

15/41 (36.6%)

5/124 (4.0%)

5/168 (3.0%)

<0.0001

Lupus anticoagulant (%)

2/41 (4.9%)

4/124 (3.2%)

1/168 (0.6%)

0.053

Two thrombophilic factors positive (%)

9/41 (22.0%)

7/124 (5.6%)

4/168 (2.4%)

0.075

Three and more thrombophilic factors positive (%)

8/41 (19.5%)

1/124 (0.8%)

3/168 (1.8%)

0.086

AIVC inferior vena cava agenesia. NoAIVC iliofemoral DVT with involvement of inferior vena cava without AIVC.

One case homozygous for factor-V-Leiden-gene-mutation. Two cases homozygous for MTHFR-gene-mutation.

A strong statistic trend was present for lupus anticoagulant, detected in 6/165 AIVC patients vs. 1/168 in NoAIVC (3.6% vs. 0.6%; p = 0.053), but reached no significance (Table 3). Significant difference could be calculated for prevalence of factor-V-Leiden and hyperhomocysteinemia between AIVC and NoAIVC patients (prevalence of factor-V-Leiden, 16.4% vs. 4.8%; p = 0.001; prevalence of hyperhomocysteinemia, 12.1% vs. 3.0%; p < 0.0001; Tables 3 and 4). The prevalence of prothrombin-gene-mutation among the AIVC patients compared with NoAIVC patients was not significant (prevalence, 5.5% vs. 1.2%; p = 0.171; Table 4). By contrast, the MTHFR-gene-mutation was predominantly associated with AIVC (prevalence, 12.7% vs. 3.6% in NoAIVC patients; p = 0.005; Table 4).
Table 4

Prevalence of hereditary coagulation defects in patients with aivc and in patients with noaivc

Characteristic

Prevalence among patients with NoAIVC (n = 168)

Prevalence among patients with AIVC (n = 165)*

P value (NoAIVC vs. AIVC)

Percent

Gender (male)

46.4

73.9

<0.0001

Factor V Leiden

4.8

16.4

0.001

MTHFR gene mutation

3.6

12.7

0.005

Homocysteinemia

3.0

12.1

<0.0001

Prothrombin gene mutation

1.2

5.5

0.171

Lupus anticoagulant

0.6

3.6

0.053

AIVC inferior vena cava agenesia. NoAIVC iliofemoral DVT with involvement of inferior vena cava without AIVC.

*AIVC in this paper and in literature (n = 165).

P values are for the univariate comparison between patients with NoAIVC and those with AIVC.

In a logistic-regression analysis in which adjustments were made for age and gender (Table 5) and in which hyperhomocysteinemia, presence of factor-V-Leiden- polymorphism, the prothrombin-gene-mutation, lupus anticoagulant and MTHFR-gene-mutation were included in the same model, only the presence of factor-V-Leiden-gene-mutation, hyperhomocysteinemia and MTHFR-gene-mutation could be identified as independent risk factors (Table 5). Localisation of DVT was also analysed. There was a statistical difference with regard to the prevalence or relative risk of both or right sided DVT between AIVC and NoAIVC patients (p = 0.049 resp. p = 0.002). Nevertheless, left sided DVT was predominantly associated with NoAIVC than with AIVC (prevalence, 18.2% among AIVC vs. 49.4% in NoAIVC; p < 0.0001). Aplasia of the right and hypoplasia of the left kidney were statistical significant in multivariate analyses for AIVC (Table 5).
Table 5

Relative risk of aivc associated with hereditary coagulation defects and anatomic malformations

Risk factors in AIVC

Univariate analysis

Multivariate analysis

Relative risk (95% CI)

P value

Relative risk (95% CI)

P value

Age (years)

27.98 (35.65-41.17)

<0.0001**

22.31 (32.62-39.89)

<0.0001

Gender (male)

3.274 (2.064-5.192)

<0.0001*

5.789 (3.131-10.701)

<0.0001

Factor V Leiden

3.913 (1.721-8.895)

0.001*

4.890 (1.647-7.517)

<0.0001

MTHFR gene mutation

3.354 (1.385-8.123)

0.005*

2.132 (1.016-7.072)

0.005

Homocysteinemia

6.641 (2.243-19.659)

<0.0001*

6.916 (2.544-19.814)

<0.0001

Aplasia of right kidney

58.4††

0.002*

64.8††

0.002

Hypoplasia of left kidney

36.1††

0.059*

46.7††

0.042

Right sided DVT

1.707 (0.999-2.918)

0.049*

1.663 (1.025-3.267)

0.049

Both sided DVT

2.019 (1.298-3.141)

0.002*

2.003 (1.305-3.349)

0.002

DVT deep vein thrombosis. AIVC inferior vena cava agenesia. MTHFR 5,10-methylenetetrahydrofolate reductase.

*Univariate analyses were performed with the use of the chi-square test. Multivariate analyses were performed with the use of the stepwise logistic-regression procedure. CI denotes confidence interval.

**Univariate analyses were performed with the use of the T-test. Multivariate analyses were performed with the use of the stepwise logistic-regression procedure. CI denotes confidence interval.

All stepwise logistic-regression analyses were performed with the following variables: presence of factor-V-Leiden; presence of prothrombin-gene-mutation; presence of the MTHFR-gene-mutation; hyperhomocysteinemia; presence of Lupus anticoagulant; aplasia of the right kidney; hypoplasia of the left kidney; polysplenia; right sided DVT; both sided DVT; age; gender; the P values indicate the significance of each risk factor independently.

††Because no patient with NoAIVC had this combined defect, the estimated relative risk was calculated on the basis of the probability of a combined defect in these patients. For this reason, no confidence interval is given.

Discussion

The factors that predispose to venous thrombosis were initially described by Virchow in 1856 [29]. Individuals with DVT usually have a predisposing risk factor, such as a genetic abnormality causing hypercoagulability, pregnancy, etc. AIVC should also be considered as a potential associated anatomic abnormality, lacking of a main venous conduit, which influences blood flow in the venous system [11]. Our results showed that precipitating factors like immobilization were less often an activator for DVT in AIVC patients. Younger male with atypical DVT (right or both sided DVT) are more often affected by AIVC presenting with signs and symptoms of an acute DVT without previous evidence of risk factors. Thrombophilia plays also an important role in AIVC patients although other authors published contrary findings based on case reports or small groups [11,12]. While factor-V-Leiden-gene-mutation can be found in a normal population roughly in 5%, a similar prevalence could be shown in our control group (NoAIVC patients 4.8%). In AIVC the prevalence is more than three times higher (16.4%). In our opinion this is not debted to a selection towards AIVC with DVT, because the here presented prevalence of factor-V-Leiden-mutation in NoAIVC is similar to the normal population. In addition, homozygosis for a common cytosine-to-thymidine mutation in the gene encoding MTHFR, C677T, is associated with high plasma homocysteine concentrations and venous thrombosis. There are conflicting results regarding the role of a homozygous 677TT MTHFR genotype as a risk factor for venous thromboembolism. Homozygosis for this polymorphism was associated with high plasma homocysteine concentrations and venous thrombosis in some studies [17,30,31] but not in others [32]. In our study, the 677TT MTHFR-genotype (homozygote) was only present in two cases of NoAIVC. All other MTHFR-positive testing’s were heterozygous with the 677CT MTHFR genotype combined with hyperhomocysteinemia. In our opinion this genotype in combination with metabolic anomaly has an influence on the risk of DVT; the prevalence of the 677CT MTHFR-genotype in AIVC was higher than in the group of NoAIVC. Like factor-V-Leiden, MTHFR-gene-mutation was predominant in AIVC, mostly in combination with hyperhomocysteinemia. The G20210A prothrombin-gene- mutation or the presence of lupus anticoagulant seems to play no role here.

We confirmed the importance of factor-V-Leiden as a risk factor for venous thromboembolism in AIVC. In addition, we found that factor-V-Leiden is a risk factor that is independent of other known determinants of thrombosis; specifically, it is independent of the G20210A prothrombin or MTHFR-gene-mutation, whereas MTHFR-mutation in combination with hyperhomocysteinemia is independently from factor-V-Leiden-mutation also a risk factor for DVT in AIVC.

The developmental cause of AIVC is debated: it’s maybe caused by embryonic dysgenesis or by an intrauterine insult during the perinatal period [6,33]. AIVC have been associated with other congenital anomalies, like renal hypoplasia/agenesis. This anatomic anomaly for the right kidney was found in our research in 6% of AIVC, but not in NoAIVC patients. The right renal hypoplasia is suggestive of a defect in the formation of the IVC in these segments, since the embryologic right SV does not drain the mesonephros [34]. A hypoplastic left kidney was also found here in AIVC (2.7%). However, it is not clear whether this represents a true congenital malformation or atrophy of a previously normal kidney due to long-standing poor perfusion or thrombosis secondary to vascular malformation. The question of hereditary is not clearly answerable, but two cases in our collective direct to this hypothesis. In one case, the son of a patient with AIVC was diagnosed with DVT bilateral. Computed tomography showed here also an AIVC in the same segment like his father. The second remarkable case was the asymptomatic twin-brother of an AIVC patient, who received imaging for other reasons. His AIVC pattern was identical to his twin brother. The thrombophilic patterns were identical in-between the relatives. Of course, these relatives with AIVC cannot be representative, but both give rise to a hereditary hypothesis of AIVC. Interestingly, factor-V-deficiency is caused by mutations in the F5 gene, located on the long (q) arm of chromosome 1 at position 23, nearby LEFTY2 (Left-Right Determination Factor 2), playing a role in left-right asymmetry determination of organ systems during development at cytogenetic location 1q42.1 [35]. Renal dysgenesis and MTHFR-mutation is also located on this chromosome [35]. Further genetic investigations could here emblaze the hereditary genesis of AIVC.

Conclusions

This study shows that AIVC is associated with a higher prevalence of thrombophilia even compared to patients with iliofemoral DVT with involvement of inferior vena cava but without AIVC. AIVC should be considered in young patients who present with DVT involving the vena cava. Analysis of publications with AIVC and our patients yielded a typical spectrum of AIVC-associated DVT characteristics: AIVC occurs in young male adults, is revealed by proximal DVT, not necessarily accused by precipitating factors like immobilisation, and is mostly located bilateral. Hereditary coagulation abnormalities seem to be more often a contributing factor for DVT in AIVC.

Abbreviations

AIVC: 

Inferior vena cava agenesis

DVT: 

Deep vein thrombosis

IVC: 

Inferior vena cava

MTHFR: 

5,10-methylenetetrahydrofolate reductase

NoAIVC: 

Iliofemoral DVT with involvement of inferior vena cava without AIVC

PCV: 

Posterior cardinal veins

SV: 

Subcardinal veins

Declarations

Authors’ Affiliations

(1)
Department of Vascular and Endovascular Surgery, Heinrich Heine University Düsseldorf
(2)
Department for Hemostasis and Transfusion Medicine, Heinrich Heine University Düsseldorf

References

  1. Langman J. Venous system. In: Medical Embryology. 3rd ed. Baltimore: Williams Wilkins Co; 1976. p. 222–9.Google Scholar
  2. Mayo J, Gray R, St Lois E, Grosman H, McLoughlin M, Wise D. Anomalies of the Vena cava. Am J Roentgenol. 1983;140:339–45.View ArticleGoogle Scholar
  3. Shultz CL, Morrison S, Bryan PJ. Azygous continuation of the inferior vena cava: Demonstration by NMR imaging. J Comput Assit Tomogr. 1984;8:774–6.View ArticleGoogle Scholar
  4. Shah NL, Shanley CJ, Prince MR, Wakefield WT. Deep venous thrombosis complicating a congenital absence of the inferior vena cava. Surgery. 1996;120:891–6.PubMedView ArticleGoogle Scholar
  5. Hamoud S, Nitecky S, Engel A, Goldsher D, Hayek T. Hypoplasia of the inferior vena cava with azygous continuation presenting as recurrent leg deep vein thrombosis. Am J Med Sci. 2000;319:414–6.PubMedView ArticleGoogle Scholar
  6. Basile A, Certo A, Ascenti G, Lamberto S, Cannella A, Garcia Medina J. Embryologic and acquired anomalies of the inferior vena cava with recurrent deep vein thrombosis. Abdom Imaging. 2003;28:400–3.PubMedView ArticleGoogle Scholar
  7. Dellavalle A, Ribichini F, Steffenino G. Unsuspected infrahepatic interruption of inferior vena cava associated with floppy mitral valve, mitral valve prolapse, and severe mitral regurgitation. Chest. 1996;106:1626–8.View ArticleGoogle Scholar
  8. Ordonez FS, Carrasco JCG, Recio FJB. Absence of the inferior vena cava causing repeated venous thrombosis in an adult. Angiology. 1998;49:951–6.View ArticleGoogle Scholar
  9. Dougherty MJ, Calligaro KD, de Laurentis DA. Congenitally absent inferior vena cava presenting in adulthood with venous stasis and ulceration: a surgically treated case. J Vasc Surg. 1996;23:141–6.PubMedView ArticleGoogle Scholar
  10. Yun SS, Kim JI, Kim KH, Sung GY, Lee DS, Kim JS, et al. Deep venous thrombosis caused by congenital absence of inferior vena cava, combined with hyperhomocysteinemia. Ann Vasc Surg. 2004;18:124–9.PubMedView ArticleGoogle Scholar
  11. Chee YL, Culligan DJ, Watson H. Inferior vena cava malformation as a risk factor for deep venous thrombosis in the young. Br J Haematol. 2001;114:878–80.PubMedView ArticleGoogle Scholar
  12. Ruggeri M, Tosetto A, Castaman G, Rodeghiero F. Congenital absence of the inferior vena cava: a rare risk factor for idiopathic deep-vein thrombosis. Lancet. 2001;357:441.PubMedView ArticleGoogle Scholar
  13. Sagban TA, Grotemeyer D, Balzer KM, Tekath B, Pillny M, Grabitz K, et al. Surgical Treatment for agenesis of the vena cava: A single-centre experience in 15 cases. Eur J Vasc Endovasc Surg. 2010;40:241–5.PubMedView ArticleGoogle Scholar
  14. Ridker PM, Hennekens CH, Lindpaintner K, Stampfer MJ, Eisenberg PR, Miletich JP. Mutation in the gene coding for coagulation factor V and the risk of myocardial infarction, stroke, and venous thrombosis in apparently healthy men. N Engl J Med. 1995;332:912–7.PubMedView ArticleGoogle Scholar
  15. Zotz RB, Maruhn-Debowski B, Scharf RE. Mutation in the gene coding for coagulation factor V and resistance to activated protein C: detection of the genetic mutation by oligonucleotide ligation assay using a semiautomated system. Thromb Haemost. 1996;76:53–5.PubMedGoogle Scholar
  16. Poort SR, Rosendaal FR, Reitsma PH, Bertina RM. A common genetic variation in the 3′-untranslated region of the prothrombin gene is associated with elevated plasma prothrombin levels and an increase in venous thrombosis. Blood. 1996;88:698–703.Google Scholar
  17. Frosst P, Blom HJ, Milos R, Goyette P, Sheppard CA, Matthews RG. A candidate genetic risk factor for vascular disease: a common mutation in methylenetetrahydrofolate reductase. Nat Genet. 1995;10:111–3.PubMedView ArticleGoogle Scholar
  18. LA Spada M, Stilo F, Carella G, Benedetto F, De Caridi G, Spinelli F. Thrombectomy and surgical reconstruction for extensive iliocaval thrombosis in a patient with agenesis of the retrohepatic vena cava and atresia of the left renal vein. Ann Vasc Surg. 2011;25:1–4. 839.e.View ArticleGoogle Scholar
  19. Tofigh AM, Coscas R, Koskas F, Kieffer E. Surgical management of deep venous insufficiency caused by congenital absence of the inferior vena cava. Vasc Endovasc Surg. 2008;42:58–61.View ArticleGoogle Scholar
  20. Boecken G. Temporary exertion-dependent paresthesias in agenesis of the inferior vena cava. Dtsch Med Wochenschr. 1988;113:1879–81.PubMedView ArticleGoogle Scholar
  21. Körber T, Petzsch M, Placke J, Ismer B, Schulze C. Akute Becken-Beinvenenthrombose bei Agenesie des renalen segnments der Vena cava inferior. Z Kardiol. 2001;90:52–7.PubMedView ArticleGoogle Scholar
  22. Tsuji Y, Inoue T, Murakami H, Hino Y, Matsuda H, Okita Y. Deep vein thrombosis caused by congenital interruption of the inferior vena cava: a case report. Angiology. 2001;52:721–5.PubMedView ArticleGoogle Scholar
  23. Dean SM, Tytle TL. Acute right lower extremity iliofemoral deep venous thrombosis secondary to an anomalous inferior vena cava: a report of two cases. Vasc Med. 2006;11:165–9.PubMedView ArticleGoogle Scholar
  24. Sanchez Fernandez GL, Reiss UM, de Alarcon PA. Risk of thrombosis with anomalies of the inferior Vena Cava and factor V Leiden. Pediatr Blood Cancer. 2008;50:731.PubMedView ArticleGoogle Scholar
  25. Rose SS, Ali Y, Kumar A, Bekos TJ, Saidi P. Deep venous thrombosis caused by inferior vena cava atresia and hereditary thrombophilia. Am J Med Sci. 2009;337:67–70.PubMedView ArticleGoogle Scholar
  26. Singh K, Poliquin J, Syversten G, Kohler DO. A rare cause of venous thrombosis: Congenital absence (agenesis) of the inferior vena cava. Int J Angiol. 2010;19:e110–2.PubMedView ArticleGoogle Scholar
  27. Garg K, Cayne N, Jacobowitz G. Mechanical and pharmacologic catheter-directed thrombolysis treatment of severe, symptomatic, bilateral deep vein thrombosis with congenital absence of the inferior vena cava. J Vasc Surg. 2011;53:1707–10.PubMedView ArticleGoogle Scholar
  28. Ganguli S, Kalva S, Oklu R, Walker TG, Datta N, Grabowski EF, et al. Efficacy of lower-extremity venous thrombolysis in the setting of congenital absence or atresia of the inferior vena cava. Cardiovasc Intervent Radiol. 2012;35:1053–8.PubMedView ArticleGoogle Scholar
  29. Longo N. Inherited disorders of amino acid metabolism. In: Braunwald E, Fauci AS, Kasper DL, Hauser SL, Longo DL, Jameson JL, editors. Harrison’s Principles of Internal Medicine. 15th ed. New York, NY: McGraw-Hill; 2001. p. 2306–7.Google Scholar
  30. Margaglione M, D’Andrea G, D’Addedda M, Giuliani N, Cappucci G, Iannaccone L, et al. The methylenetetrahydrofolate reductase TT677 genotype is associated with venous thrombosis independently of the coexistence of the FV Leiden and the prothrombin A20210 mutation. Thromb Haemost. 1998;79:907–11.PubMedGoogle Scholar
  31. Eichinger S, Stümpflen A, Hirschl M, Bialonczyk C, Herkner K, Stain M, et al. Hyperhomocysteinemia is a risk factor of recurrent venous thromboembolism. Thromb Haemost. 1998;80:566–9.PubMedGoogle Scholar
  32. Kluijtmans LAJ, den Heijer M, Reitsma PH, Heil SG, Blom HJ, Rosendaal FR. Thermolabile methylenetetrahydrofolate reductase and factor V Leiden in the risk of deep-vein thrombosis. Thromb Haemost. 1998;79:254–8.PubMedGoogle Scholar
  33. Ramanathan T, Hughes TM, Richardson AJ. Perinatal inferior vena cava thrombosis and absence of the infrarenal vena cava. J Vasc Surg. 2001;33:1097–9.PubMedView ArticleGoogle Scholar
  34. Timmers GJ, Falke TH, Rauwerda JA, Huijgens PC. Deep vein thrombosis as a presenting symptom of congenital interruption of the inferior vena cava. Int J Clin Pract. 1999;53:75–6.PubMedGoogle Scholar
  35. GeneCards®. Weizmann Institute of Science. Database on human genes. Available at: http://www.genecards.org Accessed May 18, 2014.

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