Design and Development of System Components for Therapeutic Ultrasound Devices: Enhancing Focused Ultrasound Treatments Using Cones with Clinical and Ergonomic Considerations

Rasika Thombre, Griffin Mess, Eli Curry, R. Mejía, Fariba Aghabaglou, Max J. Kerensky, Haley G. Abramson, Roslyn VanSickle, B. Tyler, N. Theodore, A. Manbachi
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Abstract

Focused ultrasound (FUS) is an emerging technique with the potential to revolutionize traditional treatment methods in the fields of oncology and neurosurgery. Recently, FUS treatments have shown potential for altering neural activity in the spinal cord, with the intent to alleviate pain. Preliminary animal studies using FUS have demonstrated the need for transducer accessories that can simplify the implementation of the transducer in the clinic. The coupling cone that was supplied with the transducer was designed for larger target tissues. Thus, surgeons have expressed a desire to adapt the cone design to be easier to use for smaller targets, such as the spinal cord. Here, we developed 3D printed cones, with smaller aperture sizes, for FUS transducers to assist surgeons in localizing the focal point of the transducers in a faster, and more intuitive manner. The cones were designed to not alter the original focal region of the transducers. This was experimentally confirmed by measuring the size of the focal region for the transducer with the new cones and comparing this data to measurements provided by the manufacturer. The new coupling cones will make the FUS transducers more ergonomic for use in stimulating the spinal cord in an animal model.
治疗性超声设备系统组件的设计和开发:基于临床和人体工程学考虑的锥增强聚焦超声治疗
聚焦超声(FUS)是一项新兴技术,有可能彻底改变肿瘤和神经外科领域的传统治疗方法。最近,FUS治疗显示出改变脊髓神经活动的潜力,目的是减轻疼痛。使用FUS的初步动物研究表明,需要换能器附件,以简化换能器在临床中的实施。随换能器提供的耦合锥是为更大的目标组织设计的。因此,外科医生已经表达了对锥体设计的渴望,使其更容易用于更小的目标,如脊髓。在这里,我们为FUS换能器开发了孔径较小的3D打印锥体,以帮助外科医生以更快、更直观的方式定位换能器的焦点。锥被设计成不改变传感器的原始焦点区域。通过测量换能器的焦点区域的尺寸,并将该数据与制造商提供的测量数据进行比较,实验证实了这一点。新的耦合锥将使FUS换能器更符合人体工程学,用于刺激动物模型中的脊髓。
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