Park Taewoong, Leem Jung Woo, Kim Young L, Lee Chi Hwan
Weldon School of Biomedical Engineering, Purdue University, West Lafayette, IN, 47907, USA.
Purdue Institute for Cancer Research, Regenstrief Center for Healthcare Engineering, Purdue Quantum Science and Engineering Institute, Purdue University, West Lafayette, IN, 47907, USA.
Adv Mater. 2025 Feb 3:e2418705. doi: 10.1002/adma.202418705.
This review underscores the transformative potential of photonic nanomaterials in wearable health technologies, driven by increasing demands for personalized health monitoring. Their unique optical and physical properties enable rapid, precise, and sensitive real-time monitoring, outperforming conventional electrical-based sensors. Integrated into ultra-thin, flexible, and stretchable formats, these materials enhance compatibility with the human body, enabling prolonged wear, improved efficiency, and reduced power consumption. A comprehensive exploration is provided of the integration of photonic nanomaterials into wearable devices, addressing material selection, light-matter interaction principles, and device assembly strategies. The review highlights critical elements such as device form factors, sensing modalities, and power and data communication, with representative examples in skin patches and contact lenses. These devices enable precise monitoring and management of biomarkers of diseases or biological responses. Furthermore, advancements in materials and integration approaches have paved the way for continuum of care systems combining multifunctional sensors with therapeutic drug delivery mechanisms. To overcome existing barriers, this review outlines strategies of material design, device engineering, system integration, and machine learning to inspire innovation and accelerate the adoption of photonic nanomaterials for next-generation of wearable health, showcasing their versatility and transformative potential for digital health applications.
随着对个性化健康监测的需求不断增加,本综述强调了光子纳米材料在可穿戴健康技术中的变革潜力。它们独特的光学和物理特性能够实现快速、精确和灵敏的实时监测,优于传统的基于电学的传感器。这些材料集成到超薄、柔性和可拉伸的形式中,增强了与人体的兼容性,实现了长时间佩戴、提高了效率并降低了功耗。本文对光子纳米材料集成到可穿戴设备进行了全面探索,涉及材料选择、光与物质相互作用原理以及设备组装策略。该综述突出了诸如设备外形尺寸、传感方式以及电源和数据通信等关键要素,并以皮肤贴片和隐形眼镜中的代表性示例进行说明。这些设备能够精确监测和管理疾病或生物反应的生物标志物。此外,材料和集成方法的进步为将多功能传感器与治疗性药物递送机制相结合的连续护理系统铺平了道路。为克服现有障碍,本综述概述了材料设计、设备工程、系统集成和机器学习的策略,以激发创新并加速光子纳米材料在下一代可穿戴健康领域的应用,展示了它们在数字健康应用中的多功能性和变革潜力。