High Performance Triboelectric Nanogenerators from Compostable Cellulose‐Biodegradable Poly(Butylene Succinate) Composites

Author:

Lapčinskis Linards12ORCID,Ģērmane Līva2ORCID,Platnieks Oskars3ORCID,Krikovs Artis3,Gaidukovs Sergejs3ORCID,Pudzs Kaspars4ORCID,Linarts Artis2ORCID,Sherrell Peter C.56ORCID,Šutka Andris1ORCID

Affiliation:

1. Institute of Materials and Surface Engineering Faculty of Materials Science and Applied Chemistry Riga Technical University P. Valdena 3/7 Riga LV‐1048 Latvia

2. Institute of Technical Physics Faculty of Materials Science and Applied Chemistry Riga Technical University P. Valdena 3/7 Riga LV‐1048 Latvia

3. Institute of Polymer Materials Faculty of Materials Science and Applied Chemistry Riga Technical University P. Valdena 3/7 Riga LV‐1048 Latvia

4. Institute of Solid State Physics University of Latvia Kengaraga str. 8 Riga LV‐1063 Latvia

5. School of Chemical and Biomedical Engineering Faculty of Engineering and Information Technology The University of Melbourne Parkville 3010 Australia

6. School of Science STEM College RMIT University Melbourne 3001 Australia

Abstract

AbstractTriboelectric nanogenerator (TENG) devices are exemplar systems for mechanical‐to‐electrical energy conversion due to their simplicity and promising performance. However,  little attention has been paid to recycling or reusing TENG devices. Indeed, most TENG devices are based on non‐biodegradable polymers, and thus end up in a landfill. Developing biodegradable triboelectric materials is crucial to mitigate negative environmental impacts from their growing use, however, it is challenging to identify such a materials that generate an applicable charge. Herein, such a biodegradable polymer triboelectric pair is demonstrated, by combining poly(butylene succinate) (PBS) films with microcrystalline cellulose (MCC) filler. A power density of 143 mW m−2 and a charge density of 1.36 nC cm−2 is measured when contacting pristine PBS with 70 wt% MCC/PBS composite film, which is comparable to polydimethylsiloxane‐based TENGs under identical testing conditions. These devices are shown to degrade via composting at 58 °C over 70 days, enabling long‐term (>10 000 cycle) performance and degradation upon disposal. It is suggested that this approach can be extended to control triboelectric properties for other biodegradable polymers. The technology and concepts developed herein directly address the United Nations Sustainable Development Goals for Responsible Consumption & Production and Affordable and Clean Energy.

Publisher

Wiley

Subject

General Environmental Science,Renewable Energy, Sustainability and the Environment

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