Self-Powered Algae-Integrated Wearable System for Oxygen Supplementation in Hypoxic Disease Treatment

Hypoxia serves as a critical determinant in the advancement of various intractable pathological conditions including oncological disorders and hypovascular wounds, which may profoundly attenuate the efficacy of pharmacological interventions and substantially inhibit the physiological recovery processes. Consequently, in an effort to mitigate the inherent constraints of conventional methodologies (<i>e.g.</i>, exogenous oxygen delivery systems), a self-powered triboelectric nanogenerator (TENG)-based algae-integrated pliable and enveloped device (TAPED) operates as a wearable system to sustain oxygen generation. The TAPED system harnesses biomechanical energy generated through natural bodily movements to energize an integrated luminescent source, enabling controlled photosynthesis for sustained, on-demand oxygen production. The incorporation of TENG technology renders TAPED self-sufficient, eliminating the necessity for external recharging, reducing device mass, and improving convenience for continuous oxygen delivery. Additionally, its body-attachable design circumvents risks associated with direct algal implantation, such as immunogenic reactions and infections. Specifically, experimental application of TAPED has exhibited significant therapeutic efficacy in diverse pathological conditions, including diabetic chronic infected wounds, breast carcinoma tumors, and lactic acid accumulation consequent to strenuous exercise-induced fatigue. Collectively, the TAPED represents an advanced therapeutic approach, which holds substantial potential for translational application within clinical contexts, particularly for enhancing patient prognosis in hypoxic diseases such as oncology and wound management.

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Institutions

Publication Details

Journal
ACS Nano
Published
2025-04-25
DOI
https://doi.org/10.1021/acsnano.5c02581
Citations
7
Primary Topic
High Altitude and Hypoxia
Type
article
Field-Weighted Citation Impact
12.72

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article

Self-Powered Algae-Integrated Wearable System for Oxygen Supplementation in Hypoxic Disease Treatment

Guanyue Li, Jiajing Liu, Yusheng Gong, Wanju Jiao et al.
7 citations
ACS Nano
High Altitude and Hypoxia
12.72
article

Self-Powered Algae-Integrated Wearable System for Oxygen Supplementation in Hypoxic Disease Treatment

Guanyue Li, Jiajing Liu, Yusheng Gong, Wanju Jiao, Rengui Xu, Jiarong Xu, Wei Chen, Qi Zeng, Xiuli Chen, Yuan Liu, Linxi He, Xinting Liang
article en
7 citations

Abstract

Hypoxia serves as a critical determinant in the advancement of various intractable pathological conditions including oncological disorders and hypovascular wounds, which may profoundly attenuate the efficacy of pharmacological interventions and substantially inhibit the physiological recovery processes. Consequently, in an effort to mitigate the inherent constraints of conventional methodologies (<i>e.g.</i>, exogenous oxygen delivery systems), a self-powered triboelectric nanogenerator (TENG)-based algae-integrated pliable and enveloped device (TAPED) operates as a wearable system to sustain oxygen generation. The TAPED system harnesses biomechanical energy generated through natural bodily movements to energize an integrated luminescent source, enabling controlled photosynthesis for sustained, on-demand oxygen production. The incorporation of TENG technology renders TAPED self-sufficient, eliminating the necessity for external recharging, reducing device mass, and improving convenience for continuous oxygen delivery. Additionally, its body-attachable design circumvents risks associated with direct algal implantation, such as immunogenic reactions and infections. Specifically, experimental application of TAPED has exhibited significant therapeutic efficacy in diverse pathological conditions, including diabetic chronic infected wounds, breast carcinoma tumors, and lactic acid accumulation consequent to strenuous exercise-induced fatigue. Collectively, the TAPED represents an advanced therapeutic approach, which holds substantial potential for translational application within clinical contexts, particularly for enhancing patient prognosis in hypoxic diseases such as oncology and wound management.

ACS NanoVol. 19(17)
Target (United States) (US), Huazhong University of Science and Technology (CN)
National Natural Science Foundation of China, China Postdoctoral Science Foundation, Huazhong University of Science and Technology, Natural Science Foundation of Hubei Province, Young Scientists Fund, National Key Research and Development Program of China, Fundamental Research Funds for the Central Universities
Zero hunger
Openalex Percentile: Top 1%
High Altitude and Hypoxia
12.72
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