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E. M. de Gussem and M. E. Faughnan

 

 

effect in patients with HHT and PAH [6062], though there is limited evidence. Caution is warranted with the use of pulmonary vasodilators since systemic vasodilatation could increase any systemic shunt and worsen heart failure. Sildena l, a phosphodiesterase-5 inhibitor has also been reported to be bene cial in one case of PAH in HHT [63]. Anticoagulation is not absolutely contraindicated in HHT patients, but its use, rather, should be decided on a case-by-­ case basis.

Background HHT

HHT is an autosomal dominant inherited disorder affecting 1 in 5000–10,000 persons, characterized by the presence of vascular malformations. HHT has also been previously referred to as Osler-Weber-Rendu disease. HHT is characterized by the presence of mucocutaneous telangiectases (Fig. 26.5), recurrent epistaxis, visceral AVMs, and positive family history. These characteristics are the four diagnostic criteria for HHT (Table 26.1). The diagnosis of HHT is de - nite if patients meet ≥3 criteria. The diagnosis is possible if they meet two criteria and the diagnosis of HHT is unlikely if patients meet ≤1 criterion [64].

Patients have recurrent spontaneous epistaxis, with an average age of onset of 12 years. Ninetyve percent of patients have recurrent epistaxis by the age of 40. The average diagnostic delay, between ENT consultation for epistaxis and HHT diagnosis, is approximately 15 years [65]. Mucocutaneous telangiectasia is typically present on the lips, oral cavity, nasal mucosa, and skin of the face and hands. Mucocutaneous telangiectasia increases in number with aging. By the age of 20 years, 55–60% of patients have visible mucocutaneous telangiectasia [66, 67]. Visceral AVMs can be present in the lungs, liver, brain, spine, or rarely other organs. Clinical heterogeneity is the rule, with

Table 26.1  Clinical diagnostic criteria for hereditary hemorrhagic telangiectasia

Mucocutaneous telangiectasia

Frequent recurrent spontaneous epistaxis

Visceral arteriovenous malformations

Affected rst-degree relative

Table 26.2  Genotype-phenotype correlation of organ involvement in patients with hereditary hemorrhagic telangiectasia [68]

 

Endoglin mutation

ACVRL1 mutation

 

(%)

(%)

Pulmonary AVM

49–76

5–44

Cerebral VM

9–22

0–4

Liver VM

8–60

41–83

Gastrointestinal

60–72

51–66

telangiectasia

 

 

AVM arteriovenous malformation, VM vascular malformation

HHT clinical manifestations being often highly variable amongst families and within families. Genotype-phenotype correlations are described above and detailed in Table 26.2. Since epistaxis and mucocutaneous telangiectasia are not always present during childhood or adolescence, HHT cannot always be diagnosed or ruled out based on clinical criteria in younger patients, and therefore genetic testing is often required.

Eightyve percent of patients have a mutation in the Endoglin (ENG) gene on chromosome 9 (HHT-1) [68], or a mutation in the ACVRL-1 gene on chromosome 12 (HHT-2) [69, 70]. Less common mutations for HHT are mutations in the SMAD4 gene on chromosome 18 occurring in 2% of patients and generally associated with an overlapping juvenile polyposis syndrome [5, 71]. Approximately 90% of patients with HHT have a mutation in one of these three genes [4].

Pathogenesis

 

Endoglin and ACVRL1 are surface proteins on endothelial

 

cells. Endoglin is a coreceptor, enhancing bone morphoge-

 

netic protein (BMP) 9 and BMP10 ligand binding to the

 

ACVRL1/BMPR2 receptor on epithelial cells. This binding

 

activates the SMAD 1/5/8 signaling pathway, which normally

 

inhibits VEGF signaling. VEGF signaling is important in

 

angiogenesis. In HHT, because of haploinsuf ciency of the

 

endoglin or ACVRL1 gene, there is a loss of function of the

 

endoglin and ACVRL1 receptor expression on cell surfaces.

 

It is hypothesized that a second hit is required for AVM devel-

 

opment: for example, infammation and subsequent cytokine

 

release lead to biallelic loss of endoglin or ACVRL1 gene

 

expression. Current understanding is that this leads to a loss

Fig. 26.5  Mucocutaneous telangiectasia on the lips

of BMP9/10 signaling, driving a corresponding local increase

26  Pulmonary Vascular Manifestations of Hereditary Hemorrhagic Telangiectasia

471

 

 

in PI3K–AKT–mTOR signaling and an untempered response of VEGF with increased endothelial cell proliferation, which contributes to AVM formation, as recently reviewed [72].

Treatment of persons with HHT with the VEGF inhibitor bevacizumab has shown to decrease the severity of epistaxis and to improve high-output heart failure due to shunting from liver vascular malformations [52], and is recommended for severe and refractory disease [21]. Smaller studies have shown that pazopanib, a tyrosine kinase inhibitor that inhibits the VEGF receptor, reduced the frequency of epistaxis in persons with HHT [73] and reduced blood transfusion requirements in severe bleeders. Several anti-VEGF therapies and other pathway-based therapies are currently being investigated in pre-clinical and clinical trials and offer hope for effective systemic treatment of HHT [74].

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