Self-Adaptive Nanophotonic Metasurfaces Enabling Digital Twins: Toward Continuous Personalized Healthcare in Aging and Disability

IF 3.6 3区 化学 Q2 CHEMISTRY, ANALYTICAL
Analyst Pub Date : 2026-09-17 DOI:10.1039/d6an00888g
Bakr Ahmed Taha,Ali J. Addie,Khalid Hassan Ibnouf,Majid S. Jabir,Omar Talal Mahmood,R. Apsari,Norhana Arsad
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Abstract

Continuous physiological monitoring is a prerequisite in medicine that enables early disease detection, long-term health monitoring, and individualized therapeutic interventions. Although wearable optical biosensors have evolved significantly, their long-term clinical deployment remains limited by mechanical degradation, signal drift, biofouling, energy constraints, and poor integration with intelligent healthcare infrastructure. These issues are especially acute in the aged and disabled, when constant, dependable, and tailored monitoring is critical for proactive disease treatment. As a result, next-generation sensing technologies must progress beyond passive data collection toward self-adaptive systems capable of maintaining analytical accuracy while supporting patient-specific clinical interpretation and clinician-supervised decision-making. This perspective presents an overview of self-adaptive nanophotonic metasurfaces as the sensing foundation for Living Digital Twins (LDTs) in personalized healthcare. To create an intelligent sensing ecosystem, the proposed framework combines flexible plasmonic, localized surface plasmon resonance (LSPR), surface-enhanced Raman scattering (SERS), artificial intelligence, internet of nano things (IoNT) connectivity, and individualized digital twin analytics. The proposed framework combines continuous multimodal biomarker sensing with patient-specific physiological modelling to support longitudinal updating of digital representations. Edge intelligence enables low-latency signal processing, while adaptive analytics may improve sensing stability, calibration, and patient-specific interpretation. The integration of adaptive nanophotonic sensing with digital twins therefore represents a prospective approach for supporting early identification of physiological deterioration, individualized risk assessment, and clinician-supervised treatment planning in aging and disabled populations.
自适应纳米光子元表面实现数字孪生:迈向老龄化和残疾的持续个性化医疗保健
持续的生理监测是医学的先决条件,可以实现早期疾病检测、长期健康监测和个性化治疗干预。尽管可穿戴光学生物传感器已经有了很大的发展,但它们的长期临床部署仍然受到机械退化、信号漂移、生物污垢、能量限制以及与智能医疗基础设施集成不良的限制。这些问题在老年人和残疾人中尤其严重,因为持续、可靠和量身定制的监测对于主动治疗疾病至关重要。因此,下一代传感技术必须从被动的数据收集发展到能够保持分析准确性的自适应系统,同时支持患者特定的临床解释和临床医生监督的决策。这一观点概述了自适应纳米光子超表面作为个性化医疗保健中生活数字双胞胎(LDTs)的传感基础。为了创建一个智能传感生态系统,所提出的框架结合了柔性等离子体、局部表面等离子体共振(LSPR)、表面增强拉曼散射(SERS)、人工智能、纳米物联网(IoNT)连接和个性化数字孪生分析。所提出的框架结合了连续的多模态生物标志物传感与患者特异性生理建模,以支持数字表示的纵向更新。边缘智能支持低延迟信号处理,而自适应分析可以提高传感稳定性、校准和患者特定解释。因此,自适应纳米光子传感与数字双胞胎的整合代表了一种支持早期识别生理恶化、个性化风险评估和临床医生监督下的老年人和残疾人治疗计划的前瞻性方法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Analyst
Analyst 化学-分析化学
CiteScore
7.80
自引率
4.80%
发文量
636
审稿时长
1.9 months
期刊介绍: "Analyst" journal is the home of premier fundamental discoveries, inventions and applications in the analytical and bioanalytical sciences.
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