| Literature DB >> 32719653 |
Luqiong Jia1, Jiejun Wang1, Longhui Zhang1, Yunfeng Zhang2, Wei You1, Xinjian Yang1, Ming Lv1.
Abstract
Pediatric intracranial dissecting aneurysms are rare (1), and treating this type of aneurysm in the vertebrobasilar circulation is more difficult. As an off-label application, pipeline embolization devices (PEDs) for posterior circulation dissecting aneurysms are reported to have good therapeutic effect (2). However, studies have found that PEDs for large or giant vertebrobasilar dissecting aneurysms have a poor effect and are associated with disastrous consequences for patients (3). PEDs are feasible for vertebrobasilar dissecting aneurysms (4); however, few reports discuss using PEDs to span the entire segment of the basilar artery. Because there are more perforating arteries in the basilar artery, it is more prudent to use PEDs in this artery. We report a case of a pediatric patient with a giant vertebrobasilar dissecting aneurysm successfully treated with three PEDs combined with right vertebral artery occlusion, without complications. The patient's headache symptoms resolved fully 3 months after the procedure, and the aneurysm was completely healed and excellent reconstruction of the left vertebral artery was seen 4 months post-procedure, using digital subtraction angiography.Entities:
Keywords: flow diverter (FD); giant; pediatric patient; three pipeline; vertebrobasilar dissecting aneurysm
Year: 2020 PMID: 32719653 PMCID: PMC7347969 DOI: 10.3389/fneur.2020.00633
Source DB: PubMed Journal: Front Neurol ISSN: 1664-2295 Impact factor: 4.003
Figure 1(A,B) Preoperative computed tomography (A) and magnetic resonance imaging (B) showing a giant intracranial mass effect (white arrow) in the basal ganglia region. Preoperative anteroposterior angiograms of the right vertebral artery (C,D) and left vertebral artery (E,F) showing a giant dissecting aneurysm in the vertebrobasilar artery. (G,H) Three-dimensional reconstruction showing that the dissecting aneurysm straddles bilateral vertebral arteries and that the anterior inferior cerebellar artery arises from the aneurysm.
Figure 2(A) Immediately post-operative angiograms showing the complete occlusion of the RVA. (B,C) Immediately post-operative angiograms showing the reconstruction of the vertebrobasilar artery and visible contrast stasis in the lumen of the aneurysm. (D) Unsubtracted view showing good shape of the three PEDs (white arrow). (E,F) Four-month post-treatment DSA of the LVA showing complete occlusion of the aneurysm and reconstruction of the LVA and basilar artery. (G,H) Four-month post-treatment DSA of the RVA showing that the occluded RVA is thinner, and the posterior inferior cerebellar artery has good blood flow. (I,J) Four-month post-treatment angiograms (unsubtracted view) showing good shape of the PEDs (white arrow). (K,L) Four-month post-treatment computed tomographic image (L). Compared with the preoperative image (K) the post-operative image shows decreased aneurysm size (white arrow) and increased space around the brainstem. PED, pipeline embolization device; RVA, right vertebral artery; DSA, digital subtraction angiography; LVA, left vertebral artery.