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使用内镜矩阵阵列换能器的实时三维颅内超声检查

Real-time 3-d intracranial ultrasound with an endoscopic matrix array transducer.

作者信息

Light Edward D, Mukundan Srinivasan, Wolf Patrick D, Smith Stephen W

机构信息

Department of Biomedical Engineering, Duke University, Durham, NC, USA.

出版信息

Ultrasound Med Biol. 2007 Aug;33(8):1277-84. doi: 10.1016/j.ultrasmedbio.2007.02.004. Epub 2007 May 3.

Abstract

A transducer originally designed for transesophageal echocardiography (TEE) was adapted for real-time volumetric endoscopic imaging of the brain. The transducer consists of a 36 x 36 array with an interelement spacing of 0.18 mm. There are 504 transmitting and 252 receive channels placed in a regular pattern in the array. The operating frequency is 4.5 MHz with a -6 dB bandwidth of 30%. The transducer is fabricated on a 10-layer flexible circuit from Microconnex (Snoqualmie, WA, USA). The purpose of this study is to evaluate the clinical feasibility of real-time 3-D intracranial ultrasound with this device. The Volumetrics Medical Imaging (Durham, NC, USA) 3-D scanner was used to obtain images in a canine model. A transcalvarial acoustic window was created under general anesthesia in the animal laboratory by placing a 10-mm burr hole in the high parietal calvarium of a 50-kg canine subject. The burr-hole was placed in a left parasagittal location to avoid the sagittal sinus, and the transducer was placed against the intact dura mater for ultrasound imaging. Images of the lateral ventricles were produced, including real-time 3-D guidance of a needle puncture of one ventricle. In a second canine subject, contrast-enhanced 3-D Doppler color flow images were made of the cerebral vessels including the complete Circle of Willis. Clinical applications may include real-time 3-D guidance of cerebrospinal fluid extraction from the lateral ventricles and bedside evaluation of critically ill patients where computed tomography and magnetic resonance imaging techniques are unavailable.

摘要

一种最初设计用于经食管超声心动图(TEE)的换能器被改装用于脑部实时容积内镜成像。该换能器由一个36×36的阵列组成,阵元间距为0.18毫米。阵列中有504个发射通道和252个接收通道,呈规则排列。工作频率为4.5兆赫,-6分贝带宽为30%。该换能器是在美国华盛顿州斯诺夸尔米的Microconnex公司的10层柔性电路上制造的。本研究的目的是评估使用该设备进行实时三维颅内超声检查的临床可行性。使用美国北卡罗来纳州达勒姆的Volumetrics医学成像公司的三维扫描仪在犬类模型中获取图像。在动物实验室的全身麻醉下,通过在一只50千克犬类受试者的高顶骨上钻一个10毫米的骨孔,创建一个经颅骨声学窗口。骨孔位于左矢状旁位置以避开矢状窦,将换能器贴在完整的硬脑膜上进行超声成像。生成了侧脑室的图像,包括对一个脑室进行针穿刺的实时三维引导。在另一只犬类受试者中,对包括完整 Willis 环在内的脑血管进行了对比增强三维多普勒彩色血流成像。临床应用可能包括从侧脑室进行脑脊液抽取的实时三维引导,以及在无法使用计算机断层扫描和磁共振成像技术的情况下对重症患者进行床边评估。

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