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Rare coexistence: type A aortic interruption and left ventricular non-compaction

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212 Advances in Interventional Cardiology 2018; 14, 2 (52)

Image in intervention

Corresponding author:

Yahya Kemal İçen MD, Cardiology Department, Adana City Hospital, Health Science University, 01000 Adana, Turkey, phone: +90 5437720025, e-mail: dryahyakemalicen@gmail.com

Received: 25.12.2017, accepted: 19.02.2018.

Rare coexistence: type A aortic interruption and left ventricular non-compaction

Yahya Kemal İçen1, Ayşe Selcan Koç2

1Cardiology Department, Adana City Hospital, Health Science University, Adana, Turkey

2Radiology Department, Adana City Hospital, Health Science University, Adana, Turkey

Adv Interv Cardiol 2018; 14, 2 (52): 212–213 DOI: https://doi.org/10.5114/aic.2018.76420

Left ventricular non-compaction (LVNC) is an anom- aly characterized by deep trabeculations within the left ventricular cavity. This anomaly, described by Chin et al.

[1]. in 1990, was added to the cardiomyopathy classifi- cation in 2006. Aortic interruption (AI), first described by Steidele in 1778, occurs in one in three million births [2].

The coexistence of these two rare anomalies is much less common.

A 48-year-old male patient was admitted to the car- diology polyclinic with a feeling of pressure in the chest area. There was no disease in his background. On physi- cal examination, the patient’s blood pressure measured 145/90 mm Hg and there was a  systolic murmur with no spread of 1–2/6 on the aortic focus. Electrocardiog- raphy (ECG) was normal. An exercise ECG test was re- quested and interpreted as positive. Evaluation of the echocardiography revealed that the ejection fraction was 55%, and hypertrabeculation was observed in the left ventricle. The non-compacted layer was 2.2 cm and the compacted layer was 0.8 cm (Figure 1 A). A  stable angina diagnosis was considered and the patient was transferred to the coronary angiography (CAG) labora- tory. The right femoral region was punctured, and the guide wire could not pass into the distal section of the descending aorta. A simultaneous right radial approach was performed. In angiography, non-critical lesions were observed in the coronary arteries. Hypertrabeculation was observed in the left ventriculography (Figure 1 B).

A pigtail catheter was placed in the aorta from the radial route and descending from the femoral route. Simultane- ous aortography was performed where the descending aorta discontinued before the exit of the subclavian ar- tery, accompanied by a giant collateral vessel (Figure 1 C).

The discontinuity at the descending aorta and giant collateral artery was confirmed with three dimensional

computed tomography angiography (Figure 1 D). Type A AI and LVNC were diagnosed and the patient was dis- charged with suggestions of medical treatment.

Left ventricular non-compaction and AI are very rare anomalies individually. Left ventricular non-compaction is a known reason for cardiomyopathy. If not diagnosed at an early stage, the patient could present with cardi- ac insufficiency symptoms and the patient could be lost at an early stage. Some morphological diagnostic crite- ria have been accepted for LVNC with echocardiography.

Compacted epicardial bands and thicker non-compacted endocardial layers have been observed in echocardiog- raphy. A maximum end systolic ratio of non-compacted to compacted layers greater than 2 was accepted as the diagnosis for LVNC. In our patient, the ratio of non-com- pacted to compacted layers was greater than 2. Because the patient had claustrophobia, the diagnosis of LVNC could not be confirmed with magnetic resonance im- aging (MRI). AI is a congenital anomaly. In patients with good collateral circulation, the diagnosis is made at an older age. The classification, made by Celoria et al. [3], lists three types: type A, B, C. If the aorta is interrupted at the distal part of the left subclavian artery it is called type A; if the aorta is interrupted between the left subcla- vian and left common carotid artery, it is called type B; if the aorta is interrupted after the common carotid artery, it is called type C. In our case, the descending aorta did not continue before arriving at the left subclavian artery, so it is defined as type A. The coexistence of AI and LVNC is very rare, and we found only one case which was pub- lished in 2015 in the literature review [4].

Even if LVNC and AI coexistence is very rare, it has to be kept in mind. Suspected patients may require further investigation, such as computed tomography angiogra- phy or magnetic resonance angiography.

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Yahya Kemal İçen et al. A rare coexistence of congenital anomalies

213

Advances in Interventional Cardiology 2018; 14, 2 (52)

Conflict of interest

The authors declare no conflict of interest.

References

1. Chin TK, Perloff JK, Williams RG, et al. Isolated noncompaction of left ventricular myocardium. A study of eight cases. Circulation 1990; 82: 507-13.

2. Steidele RJ. Samml Chir u Med Beob (Vienna) 1778; 2: 114.

3. Celoria GC, Patton RB. Congenital absence of the aortic arch.

Am Heart J 1959; 58: 407-13.

4. Isilak Z, Incedayi M, Aribal S, et al. Coexistence of left ventric- ular noncompaction and aortic interruption. Echocardiography 2013; 30: E220-1.

Figure 1. A – Showing deep trabeculations (red ar- rows) and non-compacted layer (1) and compact- ed layer (2) with transthoracic echocardiography in parasternal short axis projection. B – Showing deep trabeculations (red arrows) with ventriculog- raphy. C – Showing interrupted segment and giant collateral in aorta (red arrows) with aortography.

D – Showing interrupted segment and giant col- lateral in aorta (red arrows) with 3D computerized tomography

A

C

B

D

Cytaty

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