新生
医学
超声波
放射科
灌注
高分辨率
脑循环
心脏病学
内科学
遥感
地质学
小岛
胰岛素
作者
Simone Schwarz,Louise Denis,Emmanuel Nedoschill,Adrian Büehler,Vera Danko,Alina C. Hilger,Francisco Brevis Nuñez,Nikola Reinhard Dürr,Martin Schlunz‐Hendann,Friedhelm Brassel,Ursula Felderhoff‐Müser,Heiko Reutter,Joachim Woelfle,Jörg Jüngert,Christian Dohna‐Schwake,Nora Bruns,Adrian P. Regensburger,Olivier Couture,Henriette Mandelbaum,Ferdinand Knieling
出处
期刊:Advanced Science
[Wiley]
日期:2025-02-03
卷期号:12 (12): e2415235-e2415235
被引量:7
标识
DOI:10.1002/advs.202415235
摘要
During the first days of neonatal growth, the central nervous system (CNS) develops self-regulatory mechanisms to ensure constant cerebral perfusion. However, this vascular neogenesis takes place at a microscopic scale that cannot be observed with current clinical imaging techniques. Ultrasound localization microscopy (ULM) allows us to observe micro-vessels of the order of a few microns at depths of several centimeters. This can be done using conventional clinical ultrasound scanners and contrast sequences (CEUS). In this study, ULM is used to observe the human microvasculature in neonatal patients undergoing treatment for life-threatening malformations forming direct connections between the cerebral arterial and venous systems. It is observed that neuroendovascular treatment of neonatal arteriovenous malformations causes remodeling and reorganization of the cerebral vasculature by also activating corticomedullary vascular connections. ULM enables us to follow microvascular changes in human neonates with high spatio-temporal resolution. ULM may provide a novel clinical translatable tool, particularly including cerebral imaging in very young patients.
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