Huizer Karin, Banga Ivneet Kaur, Kumar Ruchita Mahesh, Muthukumar Sriram, Prasad Shalini
Parnassia Academy, Parnassia Psychiatric Institute, Hague, The Netherlands.
Department of Pathology, Erasmus Medical Center, Rotterdam, The Netherlands.
Wiley Interdiscip Rev Nanomed Nanobiotechnol. 2024 Nov-Dec;16(6):e2021. doi: 10.1002/wnan.2021.
This review article explores the transformative potential of dynamic, real-time biosensing in biorhythm tracking for psychiatric disorders. Psychiatric diseases, characterized by a complex, heterogeneous, and multifactorial pathophysiology, pose challenges in both diagnosis and treatment. Common denominators in the pathophysiology of psychiatric diseases include disruptions in the stress response, sleep-wake cycle, energy metabolism, and immune response: all of these are characterized by a strong biorhythmic regulation (e.g., circadian), leading to dynamic changes in the levels of biomarkers involved. Technological and practical limitations have hindered the analysis of such dynamic processes to date. The integration of biosensors marks a paradigm shift in psychiatric research. These advanced technologies enable multiplex, non-invasive, and near-continuous analysis of biorhythmic biomarkers in real time, overcoming the constraints of conventional approaches. Focusing on the regulation of the stress response, sleep/wake cycle, energy metabolism, and immune response, biosensing allows for a deeper understanding of the heterogeneous and multifactorial pathophysiology of psychiatric diseases. The potential applications of nanobiosensing in biorhythm tracking, however, extend beyond observation. Continuous monitoring of biomarkers can provide a foundation for personalized medicine in Psychiatry, and allow for the transition from syndromal diagnostic entities to pathophysiology-based psychiatric diagnoses. This evolution promises enhanced disease tracking, early relapse prediction, and tailored disease management and treatment strategies. As non-invasive biosensing continues to advance, its integration into biorhythm tracking holds promise not only to unravel the intricate etiology of psychiatric disorders but also for ushering in a new era of precision medicine, ultimately improving the outcomes and quality of life for individuals grappling with these challenging conditions.
这篇综述文章探讨了动态实时生物传感在精神疾病生物节律跟踪中的变革潜力。精神疾病具有复杂、异质性和多因素的病理生理学特征,在诊断和治疗方面都面临挑战。精神疾病病理生理学的共同特征包括应激反应、睡眠-觉醒周期、能量代谢和免疫反应的紊乱:所有这些都具有强烈的生物节律调节(如昼夜节律)特征,导致所涉及生物标志物水平的动态变化。迄今为止,技术和实际限制阻碍了对这种动态过程的分析。生物传感器的整合标志着精神医学研究的范式转变。这些先进技术能够对生物节律生物标志物进行多重、非侵入性和近乎连续的实时分析,克服了传统方法的局限性。聚焦于应激反应、睡眠/觉醒周期、能量代谢和免疫反应的调节,生物传感有助于更深入地理解精神疾病异质性和多因素的病理生理学。然而,纳米生物传感在生物节律跟踪中的潜在应用不仅限于观察。对生物标志物的持续监测可为精神医学中的个性化医疗提供基础,并允许从综合征诊断实体向基于病理生理学的精神疾病诊断转变。这种演变有望加强疾病跟踪、早期复发预测以及定制疾病管理和治疗策略。随着非侵入性生物传感技术的不断进步,将其整合到生物节律跟踪中不仅有望揭示精神疾病错综复杂的病因,还将开创精准医学的新时代,最终改善患有这些挑战性疾病的个体的治疗效果和生活质量。