Christine U Lee, Gina K Hesley, Taylor A Pierson, Rebecca L Higgins, Matthew W Urban
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This review highlights ten key operator-controlled adjustments (including transducer selection, beam focusing, power, depth, gain and time gain compensation, harmonic imaging, spatial compounding, dynamic range, beam steering, and color Doppler) that significantly influence image quality in breast ultrasound. Each adjustment is accompanied by an \"In practice\" section providing examples and practical tips on implementation. The last topic discusses color Doppler which is generally used in breast ultrasound for evaluating the vascularity of a finding. Color Doppler, or more specifically, color Doppler twinkling, can be leveraged as a technique to detect certain breast biopsy markers that are challenging to detect by conventional B-mode ultrasound. While the cause of color Doppler twinkling is still under active investigation, twinkling is a clinically well-known, compelling ultrasound feature typically described with kidney stones. A step-by-step guide on how to use color Doppler twinkling to detect these markers is provided.</p>","PeriodicalId":101427,"journal":{"name":"Translational breast cancer research : a journal focusing on translational research in breast cancer","volume":"5 ","pages":"28"},"PeriodicalIF":0.0000,"publicationDate":"2024-10-29","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"https://www.ncbi.nlm.nih.gov/pmc/articles/PMC11557156/pdf/","citationCount":"0","resultStr":"{\"title\":\"Breast ultrasound knobology and the knobology of twinkling for marker detection.\",\"authors\":\"Christine U Lee, Gina K Hesley, Taylor A Pierson, Rebecca L Higgins, Matthew W Urban\",\"doi\":\"10.21037/tbcr-24-30\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"<p><p>Breast ultrasound utilizes various scanning techniques to acquire optimal images for diagnostic evaluation. During interventional procedures, such as ultrasound-guided biopsies or preoperative localizations, knowledgeable and purposeful scanning adjustments are critical for successfully identifying the targeted mass or biopsy marker or clip. While most ultrasound scanning parameters are similar across different vendors, detailed descriptions specifically addressing the scanning parameters-often referred to as \\\"knobology\\\"- for breast ultrasound is at best limited in the literature. This review highlights ten key operator-controlled adjustments (including transducer selection, beam focusing, power, depth, gain and time gain compensation, harmonic imaging, spatial compounding, dynamic range, beam steering, and color Doppler) that significantly influence image quality in breast ultrasound. Each adjustment is accompanied by an \\\"In practice\\\" section providing examples and practical tips on implementation. The last topic discusses color Doppler which is generally used in breast ultrasound for evaluating the vascularity of a finding. Color Doppler, or more specifically, color Doppler twinkling, can be leveraged as a technique to detect certain breast biopsy markers that are challenging to detect by conventional B-mode ultrasound. While the cause of color Doppler twinkling is still under active investigation, twinkling is a clinically well-known, compelling ultrasound feature typically described with kidney stones. 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引用次数: 0
摘要
乳腺超声利用各种扫描技术获取最佳图像进行诊断评估。在介入手术(如超声引导活检或术前定位)过程中,知识渊博、目的明确的扫描调整对于成功识别目标肿块或活检标记或夹子至关重要。虽然不同供应商的大多数超声扫描参数相似,但专门针对乳腺超声扫描参数(通常称为 "旋钮学")的详细描述在文献中充其量是有限的。本综述重点介绍了十项由操作员控制的关键调整(包括换能器选择、波束聚焦、功率、深度、增益和时间增益补偿、谐波成像、空间复合、动态范围、波束转向和彩色多普勒),这些调整对乳腺超声的图像质量有重大影响。每项调整都附有 "实际操作 "部分,提供实施实例和实用技巧。最后一个主题讨论的是彩色多普勒,在乳腺超声中通常用于评估发现的血管情况。彩色多普勒,更具体地说是彩色多普勒闪烁,可作为一种技术用于检测某些传统 B 型超声难以检测到的乳腺活检标志物。虽然彩色多普勒闪烁的原因仍在积极研究中,但闪烁是临床上众所周知的、典型的肾结石超声特征。本文提供了如何使用彩色多普勒闪烁来检测这些标记物的分步指南。
Breast ultrasound knobology and the knobology of twinkling for marker detection.
Breast ultrasound utilizes various scanning techniques to acquire optimal images for diagnostic evaluation. During interventional procedures, such as ultrasound-guided biopsies or preoperative localizations, knowledgeable and purposeful scanning adjustments are critical for successfully identifying the targeted mass or biopsy marker or clip. While most ultrasound scanning parameters are similar across different vendors, detailed descriptions specifically addressing the scanning parameters-often referred to as "knobology"- for breast ultrasound is at best limited in the literature. This review highlights ten key operator-controlled adjustments (including transducer selection, beam focusing, power, depth, gain and time gain compensation, harmonic imaging, spatial compounding, dynamic range, beam steering, and color Doppler) that significantly influence image quality in breast ultrasound. Each adjustment is accompanied by an "In practice" section providing examples and practical tips on implementation. The last topic discusses color Doppler which is generally used in breast ultrasound for evaluating the vascularity of a finding. Color Doppler, or more specifically, color Doppler twinkling, can be leveraged as a technique to detect certain breast biopsy markers that are challenging to detect by conventional B-mode ultrasound. While the cause of color Doppler twinkling is still under active investigation, twinkling is a clinically well-known, compelling ultrasound feature typically described with kidney stones. A step-by-step guide on how to use color Doppler twinkling to detect these markers is provided.