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. 2020 Aug 26;22(10):63. doi: 10.1007/s11926-020-00940-5

Pregnancy Outcomes in Systemic Vasculitides

Carolyn Ross 1, Rohan D’Souza 2, Christian Pagnoux 1,
PMCID: PMC7448704  PMID: 32845412

Abstract

Purpose of Review

In recent years, improvements in the recognition of primary vasculitides and increased treatment options have led to greater survival rates and a better quality of life for patients. Therefore, pregnancy in women with vasculitis has become a more frequent consideration or event. Literature on pregnancy outcomes in this population has grown and allowed us, in this article, to review the effects of pregnancy on disease activity, as well as maternal and fetal outcomes for each type of vasculitides.

Recent Findings

Successful pregnancies in patients with vasculitides are possible, especially when conception is planned, and the disease is in remission. The risk of vasculitis flare is highly dependent on the type of vasculitis, but overall limited. The most frequent complication associated with large-vessel vasculitis (mainly Takayasu arteritis) is hypertension and preeclampsia. Preterm deliveries and intrauterine growth restriction occur more frequently with small- and medium-vessel vasculitis.

Summary

Pregnancies in patients with vasculitis should be considered high risk and followed by a multidisciplinary team with expertise in the field. Flares should be managed as in the non-pregnant population, while avoiding medications with unknown safety in pregnancy or known teratogens. Although commonly prescribed for the prevention of preeclampsia, there is limited evidence supporting the use of low-dose aspirin for pregnant women with vasculitis. Prospective registries or studies are needed, to better assess the value of aspirin, the place and long-term impact of new biologics and, to identify predictors of pregnancy outcomes other than disease status at conception.

Keywords: Pregnancy, Vasculitides, Vasculitis, Takayasu, Behçet’s disease, ANCA-associated vasculitis

Introduction

Primary systemic vasculitides are a group of rare heterogeneous disorders classified mainly according to their affected vessel sizes [1]. In the past years, improvements in the diagnostic process and increased treatment options have led to an earlier detection, better survival, and less fertility concerns [2, 3•, 4]. Consequently, these diseases now affect more women of childbearing age and there has been a progressive increase in the number of pregnancies seen in this population [5].

Among the various primary vasculitides, those that can affect young women in their reproductive years are mainly Takayasu arteritis (TAK), polyarteritis nodosa (PAN), ANCA-associated vasculitis (AAV), immune-complex small-vessel vasculitis (IgA vasculitis), and Behçet’s disease (BD) [6]. Most of the published literature on pregnancy outcomes are in patients with TAK or BD, because they occur at an earlier age [2, 5].

Ideally, prior to pregnancy, the disease should be in sustained remission to increase the chances of favorable outcomes [5]. The patient should meet with a team of specialists with experience in vasculitides and high-risk pregnancies to review medications, assess the risk of flares, and discuss the potential risks of adverse outcomes [7••, 8].

Herein, we review the published literature on pregnancy outcomes in systemic vasculitides, highlighting possible characteristics associated with greater risks for adverse outcomes and impact of pregnancy on disease activity (Table 1). We also discuss how to optimize the management of pregnancy in these patients, their monitoring, and follow-up to prevent or detect early disease flares. Finally, we discuss more in depth the maternal and fetal outcomes in BD, TAK, and AAV.

Table 1.

Pregnancy outcomes in patients with systemic vasculitides

Type of vasculitis References Risk of vasculitis flare Maternal outcomes Fetal outcomes Comments
Large-vessel vasculitis
  Giant cell arteritis (GCA) [5, 14] N/A N/A N/A

Usual onset in patients > 50 years

Multicentric case-control study in France showed that history of ≥ 4 pregnancies may have protective effect in the development of GCA and/or polymyalgia rheumatica

  Takayasu arteritis (TAK) [15•, 16, 17••, 18, 19, 20•]

Most patients are diagnosed prior to conception

Flares between 3 and 25%

Most frequent complication: maternal hypertension and preeclampsia (40 and 20%, respectively)

Cesarean deliveries: 35–50%

Spontaneous miscarriages: 8–30%

Therapeutic abortions: 5–15%

Preterm deliveries: 4–30%

Intrauterine fetal deaths: 4–5%

LBW and IUGR: 20%

Most published reports of pregnancies in vasculitis are on TAK (and BD)
Medium-vessel vasculitis
  Polyarteritis nodosa (PAN) [2, 4, 5, 7••, 8, 21, 22, 23•, 24]

Disease onset during pregnancy or active disease at conception have resulted in maternal deaths (7 cases reported before 1982), mostly from renal failure or complications from hypertension

Recent evidence suggests that pregnancy outcomes are favorable when conceived during remission with rare disease relapsed

Series of 19 pregnancies:

Spontaneous miscarriages: up to 16%

Therapeutic abortions: 10%

Preterm deliveries are common (50–100% in small series)

Severe complications reported:

preeclampsia, renal deterioration, rupture of a pancreatic artery aneurysms in a patient with disease onset during pregnancy (27 weeks)

Rare cases of intrauterine deaths are reported with one case associated with placental vasculitis

LBW: common

Literature is scarce

Cutaneous PAN usually has good pregnancy outcome with possible flares limited to the skin.

May present as a breast lesion in postpartum

Anecdotal neonatal cases of transient cutaneous involvement are described with mothers affected with cutaneous PAN that flared during pregnancy (reported before 1994)

  Kawasaki disease (KD) [2531]

Anecdotal cases of disease onset during pregnancy or postpartum

No cases of disease recurrence during pregnancy

Most studies show no major cardiovascular events. However, they have been reported in up to 10%.

Case reports describe complications, such as ventricular fibrillation, other arrhythmias, thrombosis, myocardial infarction, and heart failure

Uneventful pregnancies have been described even in patients with coronary aneurysms or previous bypass grafting secondary to coronary stenosis

One maternal death from thrombosis of a giant aneurysm in the left main coronary artery 16 h after delivery

Series of 72 pregnancies:

Cesarean deliveries: 40%

Preterm deliveries: 10%

Good fetal outcomes

Congenital anomalies: 3% of neonates

Children born to mothers with KD have a 2-fold increased risk of the disease

Scarce literature consisting mostly of case reports

Specific recommendations for anticoagulation are not available. Low-dose aspirin should be considered in all patients with stenosis or coronary aneurysms and thrombosis risk should be assessed before conception.

Epidural anesthesia with assisted second stage of labor is recommended to limit hemodynamic complications in patients with significant coronary stenosis, aneurysms, or heart failure

Small-vessel vasculitis
  ANCA-associated vasculitis (AAV)
Microscopic polyangiitis (MPA) [2, 3•, 4, 5, 7••, 32, 33]

Rare cases of diagnosis in pregnancy (associated with worse outcomes) and in postpartum

Rare flares when disease in remission; less than 50% flare (mostly when disease is active)

Preeclampsia: up to 45%

Therapeutic abortions: 5–10%

Spontaneous miscarriages: 10%

Preterm deliveries: 30%

One maternal death from pulmonary infection

LBW: up to 65%

Possible placental transfer of anti-MPO antibodies with one newborn developing pulmonary-renal syndrome

Few cases described

It is possible that previous reports (before 1994) classified MPA as PAN

    Granulomatosis with polyangiitis (GPA) [2, 4, 5, 7••, 34, 35, 36••]

Disease onset during pregnancy (30%) occurs mostly in the second or third trimesters. Diagnosis in postpartum less than 20% of cases

Flares are reported in 25–40% of patients if the disease is in remission at conception and up to 100% if disease is active

Flares occur mostly in the first and second trimesters (mostly pulmonary involvement then skin lesions and arthralgias)

Preterm deliveries: 40%

Miscarriages: 5–10%

Therapeutic abortions: 10%

When disease is active, up to 40–100% of miscarriages have been reported

Preeclampsia: 20%

Cesarean deliveries: 40–50%

One maternal death from intracranial bleeding (25 weeks) and one maternal death from a vasculitis flare (post abortion)

IUGR and LBW: 10–25%

Rare intrauterine deaths

GPA is the AAV with the most published reports of pregnancy and AAV

Renal involvement can be difficult to differentiate from preeclampsia

Subglottic stenosis could complicate delivery; therefore, a consultation with an anesthesiologist is warranted before labor

    Eosinophilic granulomatosis with polyangiitis (EGPA) [2, 4, 5, 7••, 37, 38, 39•, 40]

Most diagnoses made before pregnancy. About 30–40% of cases with final diagnosis during pregnancy before the third trimester. Onset rarely reported in postpartum

Flares reported in 25–50% of patients, mostly with lung infiltration/asthma exacerbation or neuropathy (90%)

Cardiac involvement associated with poor prognostic

Preeclampsia: rare (< 5%)

Fetal loss: 10–15% (up to 50% if disease is active)

Therapeutic abortions: 5–10%

One maternal death from myocardial infarction and one death from cardiac failure 3 months postpartum

Preterm deliveries: 10–40%

Cesarean deliveries: 15–40%

Rare cases of intrauterine deaths

IUGR: 10–25%

LBW: 10–30%

  Immune complex vasculitides
    Anti-glomerular basement membrane (anti-GBM) disease [4144]

Most cases described disease onset during pregnancy, especially in the second trimester, with some pregnancies resulting in therapeutic abortions

Rare case reports described disease onset in postpartum

One maternal death (second trimester) is reported, but the patient did not attend follow-up visits after initial improvement with plasmapheresis and glucocorticoids

One case report described the recurrence of anti-GBM disease in a subsequent pregnancy

Almost all deliveries described resulted in preterm labor

Variable outcomes have been described with some patients remaining dialysis-dependent or undergoing renal transplantation and others returning to a normal renal function (less common)

None had permanent pulmonary disease

Gestational diabetes: 38% (all on glucocorticoids)

Preeclampsia: 25%

Cesarean deliveries: 50%

IUGR with LBW: 75–80%

2 newborns were described as having anti-GBM antibodies without any manifestations

1 fetus had severe complications associated with prematurity (cerebral hemorrhage)

Very few cases reported (≤ 20 case reports)
    Cryoglobulinemic vasculitis [2, 5, 4547]

Diagnosis was made before conception in two-thirds of the described cases

2 pregnancies with onset of vasculitis during pregnancy (palpable macular rash and hypertension, glomerulonephritis)

3 vasculitis flares occurred (mononeuritis multiplex, skin involvement, hypertension with proteinuria and arthralgias) (50%)

One case noted an improvement in vasculitis symptoms during pregnancy

Good maternal outcomes: 4/6 (67%)

Preeclampsia described in one pregnancy

One miscarriage because of vasculitis flare (1/6)

Preterm delivery: 1/5 (31 weeks) (20%)

Cesarean deliveries: 3/5 (60%)

LBW: 1/5 (premature)

One fetus (mother with type 1 cryoglobulinemia) had transient cold-induced cutaneous lesions (resolved with warming and clearance of maternal IgG)

Few cases described (6 pregnancies)

Avoidance of cold temperatures in neonates and mothers with cryoglobulinemia is advised to avoid precipitation of cryoglobulins

IgA vasculitis [2, 7••, 22, 48•, 49, 50]

Disease onset during pregnancy (50–75%) or postpartum (10%) has been reported commonly in the literature and is associated with poorer outcomes

No disease exacerbations were observed in a study of 247 pregnancies. However, case reports describe occasional flares of abdominal pain, arthralgias, and purpura.

Mild disease exacerbations reported in up to 38%

Pregnancy outcomes are usually good with no maternal deaths

Increased risk of spontaneous miscarriages (1.9-fold), preterm delivery (2-fold), and gestational hypertension (4.7-fold)

Severe complications rarely reported, such as renal failure and necrotizing ulcers

Renal complications (mainly hypertension and/or proteinuria) are reported more commonly in patients affected by the disease in their childhood. One case of eclampsia is reported

Cesarean deliveries: up to 50%

No increase in stillbirth

1 fetal death occurred due to rapidly progressive renal failure in a patient diagnosed during pregnancy

LBW: 15–25%

IgA are unable to cross the placental barrier, thus no neonatal cases occurred
    Hypocomplementemic urticarial vasculitis (anti-C1q vasculitis) [51]

Disease exacerbation: 1 pregnancy (1/3)

Postpartum flare: 1/3

No preeclampsia was reported or other complications No fetal complications Very few cases described (3 pregnancies)
Variable vessel vasculitis
  Behçet’s disease (BD) [2, 5, 52••, 53, 54, 55••, 5659] Improvements in the disease reported in 60% of patients, 30% worsened, and 10% remained stable

No clear association with preeclampsia

Miscarriages range from 7 to 25%

Therapeutic abortions: less than 5%

Increased preterm deliveries (12–25%) and increased cesarean deliveries

Increased thromboembolic events especially postpartum

No significant increases in congenital anomalies

Fetal deaths: less than 3%

LBW up to 25%

Transient neonatal Behçet’s disease described in a few cases
  Cogan’s syndrome (CS) [2, 5, 37, 6064]

Vasculitis was diagnosed before conception in all patients

Vasculitis flare: 3 pregnancies (interstitial keratitis) (33%)

Slight improvement in symptoms: 2 (22%)

Vasculitis remained stable: 3 (33%)

No complications seen during pregnancy

Cesarean deliveries: 4/9 (44%)

No preterm deliveries

No perinatal complications

1 neonate with LBW (1/8)

Few cases described (< 9 case reports)

2 case reports before 1976 reported thoracic aorta involvement in pregnancy and aortic insufficiency

Single-organ vasculitis
  Cutaneous leukocytoclastic angiitis and cutaneous arteritis [5, 51, 65, 66] Case reports described occasional flares limited to the skin

Favorable outcomes

No severe maternal morbidity reported

In a series of 24 pregnancies:

Gestational hypertension: 8%

Preterm deliveries: 13%

Cesarean deliveries: 38% (25% elective)

Good fetal outcomes

LBW: none reported in a series of 24 pregnancies

Compared with the general population, admissions to neonatal intensive care unit and severe neonatal morbidity not increased (17 and 4%, respectively)

Cases of leukocytoclastic vasculitis induced by Ritodrine in pregnancy have been reported
  Isolated aortitis [5] N/A N/A N/A No cases found of isolated aortitis in pregnancy. Aortic involvement in pregnancy is mostly caused by TAK, and rarely reported with Cogan’s syndrome or rheumatoid arthritis
  Primary central nervous system vasculitis [5, 7••, 22, 51]

Case reports of disease onset during pregnancy or postpartum are reported

A recent study of 4 pregnancies with CNS vasculitis showed no disease flare

No complications reported in these 4 patients (no miscarriages or preeclampsia)

Preterm deliveries: 25% (1/4)

Mean gestational age: 37.4 weeks

Cesarean deliveries: 50% (2/4) for obstetric indications

No stillbirths or fetal growth restrictions were documented.

Rare cases (< 10)

Reversible cerebral vasoconstriction syndrome is frequently misdiagnosed as primary cerebral vasculitis

LBW, low birth weight; IUGR, intrauterine growth restriction

General Principles

More than a thousand pregnancies have been reported in patients with systemic vasculitides, mostly consisting of case reports and small observational series. To our knowledge, the only prospective observational study on vasculitis and pregnancy comes from the Vasculitis Pregnancy Registry (VPreg) imbedded within the Vasculitis Patient-Powered Research Network (VPPRN) [9•].

Interaction of Pregnancy and Vasculitis

It is crucial to discuss conception with vasculitis patients, as maternal and obstetrical complications are influenced by disease activity and prior organ damage [5, 8]. Ideally, patients should have minimal disease activity at least 6 months prior to conception and should be on stable and pregnancy-compatible medications [4, 5].

Close monitoring of pregnant patients with vasculitis is warranted. Follow-up parameters may be altered in pregnancy. Serum C-reactive protein (CRP) levels are normally elevated in pregnancy with the highest values seen during labor [10]. Diagnostic imaging should not be withheld in pregnant women if clinically indicated, although caution is recommended, especially with the use of gadolinium contrast, on account of recent data suggesting an association with an increased risk of neonatal deaths and stillbirths [11, 12].

Effect of Vasculitis on Pregnancy in General

Favorable pregnancy outcomes can be achieved in patients with systemic vasculitides especially when the disease is in remission and conception is carefully planned [3•]. Maternal age for women with vasculitides appears to be higher than in other healthy women, on average 5 years older, and can have an additional impact on pregnancy outcomes [13].

Hypertension is reported in up to 20% of these pregnancies [5, 65]. However, higher rates of hypertension and preeclampsia are observed in patients with TAK [3•, 7••]. In most studies, gestational diabetes does not have a higher prevalence when compared with the general population and mostly affects patients taking glucocorticoids [37, 65].

The rate of pregnancy loss is higher in women with vasculitides (mostly BD, TAK, small-vessel vasculitis). It has been reported to be as high as 34% in a study of 74 pregnancies, while the expected rate of miscarriages in the United States is estimated at 15–20% [13]. Most studies also showed an increase in fetal loss rate [21, 51, 65], although one study on 55 pregnancies did not find a significant increase in miscarriages when compared with the general population [37].

Increased vasculitis activity is associated with preterm delivery, which has an incidence of 20–53%, compared with 13% in the general population [7•, 13, 21, 37, 51, 65]. There are no reported major congenital malformations in relation to vasculitis [37].

Low birth weight (LBW) is reported in 10% of pregnancies, which is slightly increased compared with the general population, with increased admission into the neonatal intensive care unit [37, 65]. A study reported similar findings with increased LBW being mostly attributed to preterm delivery [51]. Intrauterine growth restriction (IUGR) is more frequent in pregnant women with small-vessel vasculitis, up to 30% [7••].

Cesarean deliveries are more frequently performed, in up to half of pregnancies, mainly for obstetrical reasons, such as IUGR, prolonged labor, or non-reassuring fetal heart rate [7••, 21, 65]. However, induction for concerns of the underlying disease occurs in about 40% of cases according to a study [37].

Effect of Pregnancy on Vasculitis in General

Pregnancy is not recognized as a trigger for the development of vasculitis. However, there are descriptions of vasculitis diagnosed in pregnancy, postpartum, or post-abortion, especially PAN, AAV, and IgA vasculitis [6]. PAN and microscopic polyangiitis (MPA) have worst prognoses when diagnosed during pregnancy [5]. Pregnancy outcomes in a patient with vasculitis do not predict future outcomes in subsequent pregnancies [6, 22].

The prospective V-Preg registry of pregnancies in women with vasculitides has enrolled 62 patients between 2015 and 2018, mostly with TAK or granulomatosis with polyangiitis (GPA), and is still recruiting. Results of these first patients were presented as an abstract, and data on the first trimester showed that 75% of patients self-reported minimal or absent disease activity and no fetal loss was reported. Vasculitis was also well controlled before conception with no hospitalization three months prior. Women with pregnancies prior to the vasculitis diagnosis had a high rate of miscarriages (44%) [9•].

Disease flares are higher in patients with active or recently diagnosed vasculitis, with a subsequent increased risk of preterm deliveries and miscarriages [7••]. Flares are reported in 20 to 40% of pregnancies [7•, 13, 21, 37, 51]. Ultimately, the risk of exacerbation seems low, but is variable depending on the type of vasculitis. A Canadian study found that exacerbations were more often seen with retinal and small-vessel vasculitis [7••]. Another study on necrotizing vasculitis found that 50% of patients had mild to moderate flares and up to 20% had severe complications [21]. On the opposite, improvement in disease activity during pregnancy can occur in patients with non-severe BD [5].

Maternal deaths, mostly from disease exacerbations, are rare but have been reported, mostly with TAK, PAN, and AAV [5]. Some authors suggest avoiding pregnancy in patients with severe renal impairment, cardiac insufficiency, uncontrolled asthma in eosinophilic granulomatosis with polyangiitis (EGPA), severe pulmonary hypertension, and uncontrolled hypertension with renal involvement [5].

Patients should be advised to continue their medications and have regular follow-ups in the postpartum period (3 months) because flares have been reported in 20–40% of patients [37, 51]. Postpartum flares may be more frequent in patients with BD and are reported in 30% of patients [37].

Treatment Considerations

Among the medications commonly used in the treatment of systemic vasculitis, methotrexate, mycophenolate mofetil, and cyclophosphamide have recognized teratogenic effects and should be stopped prior to conception, in accordance with published guidelines. However, cyclophosphamide can be considered during the second or third trimester for life- or organ-threatening complications. Leflunomide also shows detrimental effects on the fetus and should be stopped 24 months prior to conception or a cholestyramine washout should be done [67••]. Azathioprine, IVIg, hydroxychloroquine, colchicine, cyclosporine, and tacrolimus appear to be compatible with pregnancy [67••].

Glucocorticoids are cornerstones for the treatment of vasculitis. Although earlier studies reported an association with fetal malformations, especially orofacial clefts, recent studies, including a large Danish cohort study, have shown no association between glucocorticoids use and orofacial clefts [68]. Oral prednisone transplacental absorption is low, but prolonged use may be associated with an increased risk of preterm deliveries and IUGR, as well as maternal hypertension and gestational diabetes [3•].

Concerns have been expressed regarding congenital anomalies related to the use of biologics, with reports showing an increased risk of 30%. A meta-analysis, including only one study with vasculitis patients (BD) and mostly on tumor necrosis factor (TNF) inhibitors or anti-B cell (rituximab), reported that this association is no longer significant when adjusted for disease activity and showed similar results for preterm deliveries. There was a 68% increased risk of having LBW babies when exposed to biologics, but no increased risk of serious infection in neonates during their first year of life [69••]. Evidence on TNF inhibitors mostly comes from inflammatory bowel disease, and patients on these medications have shown favorable pregnancy outcomes [3•]. However, infants born to mothers exposed to anti-TNF should not receive live vaccines for the first 6 months of life. Unlike other TNF inhibitors, certolizumab has limited placental transfer and fetal exposure [67••]. Rituximab should be continued during pregnancy. However, it crosses the placenta and has been associated with B cell depletion in the neonates sometimes persisting for months [3•, 70].

The prophylactic use of aspirin during pregnancy has been associated with a 62% reduction in preterm preeclampsia in women at high risk, including chronic hypertension [71]. A meta-analysis showed similar results when aspirin was initiated before 16 weeks of gestation and at a dose of ≥ 100 mg [72]. Aspirin has also been associated with a reduction in IUGR [73]. However, the role of aspirin in pregnant women with vasculitides is not established. There are no studies assessing the potential reduction of preeclampsia in these patients. Because of the increased risk of preeclampsia in patients with vasculitides (especially TAK), many experts advocate the prescription of aspirin, especially in the case of pre-existing hypertension or chronic kidney disease [5, 51].

Behçet’s Disease

BD is one of the most common reported vasculitis in pregnancy [5]. In the United States, the overall prevalence of deliveries from mothers with BD is 1.4 per 100,000 and has been increasing in the past 15 years [52••].

Effects of BD on Pregnancy

Numerous studies have evaluated the effects of BD on pregnancy with discrepancies in the rate of pregnancy-related complications. One possible explanation is the broad spectrum of clinical manifestations with variable disease severity in different cultural and geographic areas [22, 53]. However, most pregnancies in BD have good outcomes.

Obstetric complications, mostly miscarriages, are increased by 7-fold in pregnancies with BD in patients with prior thromboembolic events [54]. An increase in pregnancy complications (hypertension, gestational diabetes, preterm labor, and vascular events) after the diagnosis of BD is also reported, when compared with pregnancies before the diagnosis of BD [53].

There is no clear association between BD and preeclampsia [55••, 56, 57, 74, 75]. Hypertension and preeclampsia have been reported in 1 to 6% of pregnancies with BD [2, 52••, 53, 54]. The prevalence of gestational diabetes does not seem to be higher in these patients [52••].

Preterm delivery was seen in only 1% of BD pregnancies [2] and with an increased risk of up to 2 times in recent studies [52••, 65]. Other data support the increase in preterm labor with an estimated rate of 12–25% [55••, 56, 57].

Only a few studies have suggested an increase in fetal losses [53, 57]. A meta-analysis reported an incidence of miscarriages of 9%, whereas it ranged in more recent studies from 7 to 30%, with fetal deaths up to 3% [2, 53, 54, 55••, 56, 57]. It was suggested that the increase in miscarriages resulted from a vascular complication of the decidua interfering with normal implantation [53]. These data contrast with results of other studies that did not show an increased risk of miscarriage [54, 58, 59, 75].

LBW is reported in a few studies, in up to 25% of pregnancies in some recent ones, as opposed to an incidence of 8% in the general population in the United States [55••, 57, 76]. However, several studies did not find an increased risk [53, 54, 56, 65].

Most studies have not reported an increase in cesarean deliveries, but a few noted an incidence of up to 42% of deliveries, mostly for obstetrical reasons (not vasculitis-related) [52••, 56].

Effects of Pregnancy on BD

The disease course seems variable with many studies reporting that remission is frequent during pregnancy [53, 54, 55••, 58, 59, 77], whereas others suggested that flares are more common [74, 75, 78, 79].

In a meta-analysis, BD was reported to flare up during pregnancy in about 30% of cases, with manifestations mostly consisting of ulcers (58%), erythema nodosum, arthritis, and lastly, ocular involvement, mostly in the postpartum period [2, 54, 77, 80]. Most flares occurred in the first trimester, but one study found them to predominate in the third trimester [74, 80]. Exacerbation rates are reported between 8 and 66% in the literature [53, 54, 55••, 56, 58, 59, 74, 75, 80].

On average, the disease remains stable in about 10% of patients, whereas 60% improve during pregnancy [2]. A French study reported an annual vasculitis flare rate 3 times lower in pregnancy [54]. Another study concluded that there is a 5-fold increase chance of remission in pregnancy and 4-fold in postpartum [53]. Improvement has been linked to hormonal changes during pregnancy with progesterone inhibiting the function of macrophages and lymphocytes and estrogen promoting the synthesis of anti-inflammatory cytokines and suppressing interleukin 12 (IL12) production [52••, 55••]. However, patients should still be closely monitored in the postpartum period, because a few studies have reported frequent flares after delivery [37].

Only one maternal death has been reported in a 45-year-old patient with a colonic perforation secondary to intestinal ulcers at 6 weeks of gestation [52••].

Thromboembolic events are reported in 10 to 37% of affected BD patients in general [81]. Pregnancy also increases the daily risk of venous thromboembolic events by 10-fold peripartum and up to 35-fold postpartum [82]. In examining 144 pregnancies with BD, thromboembolic events were increased by 15 times in the postpartum period [52••]. Vascular complications were also more common in a study of 63 pregnancies with BD [56]. Rare vascular complications in pregnancies with BD are reported, such as cerebral venous thrombosis, superior vena cava thrombosis, intracardiac thrombosis, Budd-Chiari syndrome, ovarian vein thrombosis, deep vein thrombosis, and pulmonary embolism [52••, 56, 58, 83]. Given this heightened risk, patients should be closely monitored for thromboembolic events, especially in the postpartum period. The role of routine thromboprophylaxis is not established.

Treatment Considerations

Several therapies can be used for BD, including colchicine, short courses of glucocorticoids, and anti-TNF for the most severe cases. A recent meta-analysis reported no increase in major fetal malformations or fetal loss when using colchicine during pregnancy. However, its use was associated with LBW and prematurity when indications were not limited to familial Mediterranean fever [84••]. Even though placental transfer occurs, colchicine appears to be compatible with pregnancy and even protective in BD with a decrease in flare by two-fold in a study [54].

Anti-TNF has been used in BD without an increase in congenital anomalies [85]. Cyclosporine can be used during pregnancy, but blood pressure monitoring is warranted [67••]. Apremilast, an oral phosphodiesterase-4 inhibitor, has recently shown promising results in the reduction of oral ulcers [86]. However, there is no evidence on its safety during pregnancy and it cannot be recommended at this time [67••].

Anesthetic Considerations

It has been feared that scarring and nodule formation could develop at the site of neuraxial anesthesia in BD patients. Although the literature is scarce, there is no evidence to suggest avoiding regional anesthesia. Concerns about airway management have been expressed in patients with BD related to oropharyngeal scarring and the possible worsening of ulcerations upon manipulation. However, no complicated intubations are reported even in severe disease [87]. An assessment with an anesthesiologist is suggested to guide the decision process.

Neonatal Behçet

A small number of case reports describe transient neonatal BD mostly consisting of oral or genital ulcerations and skin findings that resolve up to 8 weeks after birth [83, 88, 89]. One neonatal death occurred from respiratory distress and neurological involvement following delivery at 34 weeks of gestation and another neonate, born at 38 weeks, suffered life-threatening complications a few days postpartum treated with glucocorticoids [90, 91]. Most cases were reported in mothers who suffered from BD before pregnancy and had orogenital ulcerations during pregnancy [89]. It has been hypothesized that the disease could be mediated by a transplacental transfer of maternal antibodies [83]. Necrotizing villitis and decidual vasculitis have been identified in two placentas of patients affected with BD, one pregnancy occurred with good maternal and fetal outcomes and the other one resulted in a therapeutic abortion because of colchicine exposure [92].

Takayasu Arteritis

Effects of TAK on Pregnancy

Most pregnancies result in good maternal and obstetrical outcomes. Patients should be advised not to conceive until blood pressure is well controlled with pregnancy-safe medications, as better pregnancy outcomes are reported with normal blood pressure in the preconception period [93]. A higher incidence of complications is reported in patients with severe disease, pre-existing hypertension, and a greater number of previously damaged vessels [15•, 16, 17••]. Patients of African descent could have a higher incidence of pregnancy-related complications [18].

One retrospective study in Brazil evaluated complications in pregnant women before TAK diagnosis. They found an incidence of hypertension about 7 times higher in the group pre-diagnosis compared with healthy controls [19]. However, other studies did not observe this trend in pregnancies before TAK diagnosis [18].

Exacerbation of pre-existing arterial hypertension and preeclampsia are the most common complications associated with TAK in pregnancy [2, 15•, 18, 19, 94]. Infradiaphragmatic artery involvement, especially renal artery stenosis, appears to be a major risk factor in most studies [15•, 16, 17••, 20, 94, 95]. Stenosis of the renal arteries leads to an increase in renin production and subsequently to an increase in blood pressure and uteroplacental insufficiency resulting in IUGR [17••, 20•, 96•, 97]. However, a French cohort of 98 pregnancies did not find renal artery involvement to be associated with preeclampsia and IUGR [18].

Hypertension and preeclampsia affect 20–40% of pregnancies with TAK, as compared with 2–8% in the general population [17••, 98]. Consistent findings have been reported by other authors [2, 15•, 20•, 96•, 99]. The overall rates of hypertension and preeclampsia reported are variable among studies and are being reported in up to 100 and 75% of pregnancies, respectively, with the highest rate among Indian patients [17••, 100]. Careful monitoring and aggressive management of hypertension should be sought.

Angioplasty for renal artery stenosis in the preconception period could have a protective role during pregnancy based on a small number of patients who had uneventful pregnancies after this intervention [95].

LBW and IUGR are the most common complications reported in newborns. In a literature review of more than 400 pregnancies, the occurrence of LBW and IUGR was 20% with a range previously reported between 4 and 52%. The highest incidence was associated with bilateral renal involvement [17••, 18, 100, 101].

A recent study noted that preterm deliveries occur in 17% of patients with ranges in the literature between 4 and 30% and fetal loss between 8 and 30% [15•, 16, 17••, 93, 96•]. Intrauterine fetal deaths were reported in 4–5% in TAK patients, as compared with 1–2% in the general population [2, 17••, 18, 99].

With regard to labor, 35–50% of pregnancies in TAK patients had a cesarean delivery [2, 17••, 96•]. Induction of labor was performed in multiple reports for severe hypertension, IUGR, retinopathy, aortic insufficiency, aortic aneurysms, or severe vasculitis [2].

Effects of Pregnancy on TAK

Physiological changes of pregnancy do not seem to affect disease activity [2, 96•, 102]. A meta-analysis found that exacerbation rates are reported in 3% of pregnancies with TAK [2]. More recent evidence noted an incidence of vasculitis flare in up to 25% of pregnancies [7••, 15•]. Active disease during pregnancy has been associated with life-threatening complications in more than 5% of pregnancies and a 13-fold increase of the risk of obstetric complications, such as preeclampsia, miscarriages, IUGR, and preterm births [17••, 18, 20•, 103••]. However, a few series suggested improvement of the disease during pregnancy [18, 19, 102]. A study showed that CRP levels and digital plethysmography improved during pregnancy, and up to one year after delivery [102].

Increased circulating blood volume and cardiac load during pregnancy can lead to a deterioration of pre-existing vascular lesions [15•]. Rare cases of aortic insufficiency, myocardial infarction, renal insufficiency, retinopathy, congestive heart failure, aneurysm formation, and stroke have been reported, as well as aortic dissection [2, 19, 20•].

At least two maternal deaths were reported in the literature resulting from myocardial infarction in the postpartum period and uncontrolled hypertension leading to heart failure, encephalopathy, and renal insufficiency [2, 16, 18].

Disease Control and Treatment Considerations

Patients receiving treatments for TAK during pregnancy seem to have lower complication rates [18, 93]. A recent study observed lower rates of preeclampsia in patients receiving glucocorticoids but did not find the same outcomes with aspirin [17••]. Aspirin should particularly be considered during pregnancy in TAK because of the higher risk of preeclampsia and IUGR. Antibiotic prophylaxis to prevent infective endocarditis is recommended during delivery in patients with aortic insufficiency [2, 5, 8].

Anesthetic Considerations and Labor Management

Regional anesthesia has been advocated for labor in TAK patients and usually allows greater hemodynamic stability as well as evaluation of cerebral perfusion. A more profound decrease in preload can be observed with spinal anesthesia; therefore, concern has been expressed of a greater risk of ischemic complications, such as cerebral ischemia. However, many case reports have noted successful outcomes in patients with spinal blocks or combined spinal-epidural anesthesia [5].

Many authors have suggested to shorten the active phase of the second stage of labor because of a possible significant increase in blood pressure and therefore an increased risk of cerebral hemorrhage and congestive heart failure [8, 22, 104]. Blood pressure monitoring during labor is of paramount importance and blood pressure discrepancies between upper and lower extremities should be noted beforehand. Patients should also be closely monitored during the first 24–48 h after delivery [2]. A consultation with the anesthesiology team should be sought at an early stage in pregnancy to plan labor and hemodynamic monitoring.

ANCA-Associated Vasculitis

AAV vasculitis is a group of necrotizing vasculitides, including granulomatosis with polyangiitis (GPA), eosinophilic granulomatosis with polyangiitis (EGPA), and microscopic polyangiitis (MPA) [1]. These diseases are most often seen in subjects in their 50s, but women of child-bearing age can also be affected. There is a growing literature about pregnancy outcomes in these patients. AAV may be the most frequently diagnosed vasculitis during pregnancy, mostly prior to the third trimester [3•, 105••]. In a study of 110 patients with AAV, the diagnosis was made before conception in 63%, during pregnancy in 29%, and in the postpartum period in 8% of patients. Disease flares occurred in 15% of pregnancies [106••].

Effect of AAV on Pregnancy

Pregnancy outcomes are reportedly often favorable in patients with AAV. Complications are more frequent when the disease is active at conception or develops during pregnancy and in patients with severe major organ damage from previous flares (renal insufficiency, cardiomyopathy) [3, 5, 8, 105••].

A systematic review observed that 20% of pregnancies were delivered preterm and 2% resulted in stillbirths [106••]. Preterm birth is one of the most common complications associated with AAV, with an incidence range previously reported of 25–50%, mostly in GPA [2, 7••, 21, 37]. A recent study with vasculitis diagnosed during pregnancy showed a preterm birth rate of 73%, whereas two studies, including patients with disease in remission, only showed a rate of 7–9% [34, 105••, 107].

Spontaneous miscarriages have a variable incidence, between 4 and 20% of pregnancies [2, 21, 34, 105••, 106••, 107]. However, one recent Canadian study in 20 pregnancies with AAV reported no miscarriages [7••].

LBW occurred in 10–30% of pregnancies [5, 7••, 105••, 106••]. A case series describing patients in remission prior to conception reported no fetal growth restriction [107].

Hypertension and preeclampsia were noted in 10–30% of AAV pregnancies [2, 7••, 34, 105••, 106••]. Other complications reported with AAV are placenta previa with antepartum hemorrhage, retroplacental hematoma, and premature rupture of membranes [2, 3•, 6, 21].

Like with other vasculitides, cesarean deliveries are more commonly performed, in around 50% of cases, mostly for obstetrical indications, such as arrest of descent and fetal distress [2, 7••, 21, 105••, 106••]. Regional anesthesia is preferred in patients with subglottic stenosis and counseling should be sought with an anesthesiologist [108].

Effect of Pregnancy on AAV

AAV activity does not seem to be majorly affected by pregnancy. Exacerbations are more commonly associated with severe disease and have been noted in 35% of patients in a recent study, although most often they were non-severe [3•, 7••]. Other studies have reported flares in about 20–50% of cases with the highest risk in the first and second trimesters and in the first month postpartum [5, 8, 13, 105••].

Life-threatening complications affected 20% of pregnancies in a study on 20 pregnancies with necrotizing vasculitides [21]. Maternal complications consisted of alveolar hemorrhage, respiratory failure, transient ischemic attacks, severe cardiac failure, renal insufficiency, limb ischemia, and exacerbation of bronchial or subglottic stenosis [105••]. Asthma decompensation and/or cardiac failure complicate 25–50% of pregnancies with EGPA with a poor prognosis associated with cardiac involvement [2, 21]. There are few reported maternal deaths, all prior to 2002 [35, 105••, 106••].

Placental transfer of anti-MPO antibodies has been reported in the literature with only one case of neonate, delivered at 33 weeks of gestation, developing pulmonary hemorrhage and renal failure [3•, 22, 32].

Conclusion

Pregnancies in women with systemic vasculitides should be considered high risk. Favorable maternal and fetal outcomes are reported, especially when the pregnancy is planned, and the disease is in sustained remission. Patients should be closely monitored as life-threatening complications have been described, mostly when cardiac or renal systems are involved. The number of published articles on the subject has increased tremendously in the past years, thereby improving our knowledge on the overall risk associated with pregnancy in vasculitis. However, more data from prospective registries remain needed to better evaluate pregnancy outcomes and identify best predictors and treatment options of disease flares. The role of aspirin in the prevention of preeclampsia in patients with systemic vasculitides should also be further investigated, to help clinicians in the management and monitoring of these patients.

Compliance With Ethical Standards

Conflict of Interest

CP reports receiving fees for serving on advisory boards from Chemocentryx, GlaxoSmithKline, Sanofi, and Hoffman-La Roche; he also reports lecture fees and research grant support from Hoffman-La Roche and GlaxoSmithKline. RD reports receiving speaking honoraria and grant funding for projects on labor induction and coronavirus infections in pregnancy, unrelated to this publication. No other conflicts of interest are declared.

Human and Animal Rights and Informed Consent

This article contains studies on humans exclusively and review articles performed by some of the listed authors. These studies have been previously published and complied with the ethical standards required.

Footnotes

This article is part of the Topical Collection on Vasculitis

Publisher’s Note

Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.

References

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