TY - JOUR
T1 - Advances and Challenges in Wearable Sensors for Health Monitoring
AU - Brazaca, Laís Canniatti
AU - Moreno Lozano, Alvaro
AU - Mayol, Beatriz
AU - Scheidt, Desiree Tamara
AU - De Fazio, Domenico
AU - Kim, Enji
AU - Maroli, Gabriel
AU - Rosati, Giulio
AU - Ates, Hatice Ceren
AU - Wang, Hui
AU - Kim, Hye Jin
AU - Ha, Ji Hwan
AU - Yang, Jin
AU - Jeon, Jisoo
AU - Goldhahn, Jörg
AU - Sonigara, Keval K.
AU - Li, La
AU - Zhou, Mingyu
AU - Cho, Seokjoo
AU - Fan, Shicheng
AU - Wu, Shuang
AU - Gonçalves, Vanessa Matos
AU - Dei Santi, Vitor H.B.
AU - Zhou, Weixin
AU - Heng, Wenzheng
AU - Chung, Won Gi
AU - Li, Xinming
AU - Zou, Yang
AU - Jin, Yunxia
AU - Wu, Zixuan
AU - Bandodkar, Amay J.
AU - Merkoçi, Arben
AU - Dincer, Can
AU - Lim, Chwee Teck
AU - Kim, Dae Hyeong
AU - Carrilho, Emanuel
AU - Salvatore, Giovanni Antonio
AU - Shen, Guozhen
AU - Park, Inkyu
AU - Jeerapan, Itthipon
AU - Park, Jang Ung
AU - Wu, Jin
AU - Ho, John S.
AU - Rogers, John
AU - Wang, Joseph
AU - Plaxco, Kevin W.
AU - Ferreira de Oliveira, Maria Cristina
AU - Pumera, Martin
AU - Brasier, Noé
AU - Veiseh, Omid
AU - Lee, Pooi See
AU - Tsukruk, Vladimir V.
AU - Gao, Wei
AU - Zhu, Yong
AU - Wang, Zhong Lin
AU - Li, Zhou
AU - Sempionatto, Juliane
AU - Oliveira, Osvaldo N.
N1 - Publisher Copyright:
© 2026 The Authors. Published by American Chemical Society.
PY - 2026/7/29
Y1 - 2026/7/29
N2 - Analytical tools may revolutionize healthcare by enabling accessible, rapid, and decentralized testing. Wearable (bio)sensors, in particular, provide frequent or continuous patient monitoring through non- to minimally invasive measurements. This approach yields unprecedented amounts of health-related information, leading to more informed clinical decision-making and closer patient follow-up. In this mega-review article, we bring together leading researchers in the field to discuss the state of the art in wearable devices for health monitoring. We begin by providing a broad overview of the field through citation network analysis. We then review the application of chemical (bio)sensors in biofluids (e.g., sweat, saliva, tears, interstitial fluid, and cerebrospinal fluid), highlighting the challenges and advantages associated with each. Subsequently, we discuss the construction of wearable devices and their main formats (e.g., smart contact lenses, textiles, mouthguards, watches/wristbands, and implantable systems). Physical sensors are addressed in a dedicated section focusing on the assessment of heart rate, blood pressure, and body temperature. The role of soft electronics in wearable devices is also examined, as these technologies are essential for enhancing user comfort and sensor reliability, which demands advances in materials science. Furthermore, we present strategies for signal acquisition and transmission, as well as approaches for on-body energy harvesting and device self-powering. The use of artificial intelligence and machine learning is then discussed as a means of enhancing analytical performance and managing the large volumes of data generated by wearable devices. Finally, business, regulatory, and ethical considerations are examined. We expect that this review will provide an overview of sensing and biosensing technologies for health-related applications, identify promising research directions, and inspire future developments.
AB - Analytical tools may revolutionize healthcare by enabling accessible, rapid, and decentralized testing. Wearable (bio)sensors, in particular, provide frequent or continuous patient monitoring through non- to minimally invasive measurements. This approach yields unprecedented amounts of health-related information, leading to more informed clinical decision-making and closer patient follow-up. In this mega-review article, we bring together leading researchers in the field to discuss the state of the art in wearable devices for health monitoring. We begin by providing a broad overview of the field through citation network analysis. We then review the application of chemical (bio)sensors in biofluids (e.g., sweat, saliva, tears, interstitial fluid, and cerebrospinal fluid), highlighting the challenges and advantages associated with each. Subsequently, we discuss the construction of wearable devices and their main formats (e.g., smart contact lenses, textiles, mouthguards, watches/wristbands, and implantable systems). Physical sensors are addressed in a dedicated section focusing on the assessment of heart rate, blood pressure, and body temperature. The role of soft electronics in wearable devices is also examined, as these technologies are essential for enhancing user comfort and sensor reliability, which demands advances in materials science. Furthermore, we present strategies for signal acquisition and transmission, as well as approaches for on-body energy harvesting and device self-powering. The use of artificial intelligence and machine learning is then discussed as a means of enhancing analytical performance and managing the large volumes of data generated by wearable devices. Finally, business, regulatory, and ethical considerations are examined. We expect that this review will provide an overview of sensing and biosensing technologies for health-related applications, identify promising research directions, and inspire future developments.
KW - biosensors
KW - health monitoring
KW - perspectives
KW - sensors
KW - wearable devices
UR - https://www.scopus.com/pages/publications/105046287805
U2 - 10.1021/acsami.6c04520
DO - 10.1021/acsami.6c04520
M3 - Review article
C2 - 42460879
AN - SCOPUS:105046287805
SN - 1944-8244
VL - 18
SP - 39567
EP - 39694
JO - ACS applied materials & interfaces
JF - ACS applied materials & interfaces
IS - 29
ER -