Beyond sensitivity: what are the enabling opportunities of OPM-MEG?

IF 3.8 Q3 ENGINEERING, BIOMEDICAL Frontiers in medical technology Pub Date : 2025-01-21 eCollection Date: 2025-01-01 DOI:10.3389/fmedt.2025.1515548
Timothy P L Roberts, Charlotte Birnbaum, Luke Bloy, William Gaetz
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Abstract

While optically-pumped magnetometer (OPM) technology offers a number of compelling advantages over its SQUID predecessor for magnetoencephalography (MEG), many studies and viewpoints focus on issues of (i) scalp placement, with commensurate increases in sensitivity to weak magnetic fields and (ii) room temperature operation (without the need for baths of liquid helium to maintain superconducting properties of SQUIDs). This article addresses another unique and tantalizing opportunity-the ability for the OPM array to be "wearable", and thus to move with the participant. This is critical in adoption of naturalistic paradigms that move beyond "laboratory neuroscience" toward "real world neuroscience". It is also critically important in application to pediatric populations who cannot or will not remain still during conventional MEG scan procedures. Application to the developing infant brain will be considered as well as application to pediatric neuropsychiatric and developmental disorders, such as autism spectrum disorder. Rather than present solutions, this article will highlight the challenges faced by conventional SQUID-based cryo-MEG and explore the potential avenues for OPM-MEG to make a positive impact to the field of pediatric neuroscience.

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灵敏度之外:OPM-MEG的实现机会是什么?
虽然光泵磁强计(OPM)技术在脑磁图(MEG)方面比SQUID的前身提供了许多令人信服的优势,但许多研究和观点都集中在(i)头皮放置问题上,对弱磁场的敏感性相应增加;(ii)室温操作(不需要液氦浴来保持SQUID的超导特性)。本文讨论了另一个独特而诱人的机会——OPM阵列“可穿戴”的能力,从而与参与者一起移动。这对于采用超越“实验室神经科学”走向“现实世界神经科学”的自然主义范式至关重要。在应用于不能或不愿在常规MEG扫描过程中保持静止的儿科人群中,这也是至关重要的。应用于发育中的婴儿大脑,以及应用于儿童神经精神和发育障碍,如自闭症谱系障碍。本文将重点介绍传统基于squid的冷冻meg所面临的挑战,并探讨OPM-MEG对儿科神经科学领域产生积极影响的潜在途径。
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13 weeks
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