Bio‐Graphene Sensors for Monitoring Moisture Levels in Wood and Ambient Environment

Author:

Mulla Mohammad Yusuf12,Isacsson Patrik234,Dobryden Illia5,Beni Valerio12,Östmark Emma26,Håkansson Karl25,Edberg Jesper12ORCID

Affiliation:

1. Printed‐, Bio‐ and Organic Electronics RISE Research Institutes of Sweden Bredgatan 35 Norrköping SE‐602 21 Sweden

2. Digital Cellulose Center Bredgatan 35 Norrköping SE‐602 21 Sweden

3. Department of Science and Technology (ITN) Laboratory of Organic Electronics Linköping University Norrköping SE‐601 74 Sweden

4. Ahlstrom Group Innovation Apprieu 38140 France

5. Bioeconomy and Health RISE Research Institutes of Sweden Drottning Kristinas väg 61 Stockholm SE‐114 28 Sweden

6. Stora Enso AB Innovation Centre for Biomaterials Box 70395 Stockholm SE‐107 24 Sweden

Abstract

AbstractWood is an inherently hygroscopic material which tends to absorb moisture from its surrounding. Moisture in wood is a determining factor for the quality of wood being employed in construction, since it causes weakening, deformation, rotting, and ultimately leading to failure of the structures resulting in costs to the economy, the environment, and to the safety of residents. Therefore, monitoring moisture in wood during the construction phase and after construction is vital for the future of smart and sustainable buildings. Employing bio‐based materials for the construction of electronics is one way to mitigate the environmental impact of such electronics. Herein, a bio‐graphene sensor for monitoring the moisture inside and around wooden surfaces is fabricated using laser‐induced graphitization of a lignin‐based ink precursor. The bio‐graphene sensors are used to measure humidity in the range of 10% up to 90% at 25 °C. Using laser induced graphitization, conductor resistivity of 18.6 Ω sq−1 is obtained for spruce wood and 57.1 Ω sq−1 for pine wood. The sensitivity of sensors fabricated on spruce and pine wood is 2.6 and 0.74 MΩ per % RH. Surface morphology and degree of graphitization are investigated using scanning electron microscopy, Raman spectroscopy, and thermogravimetric analysis methods.

Funder

Vinnova

Stora Enso

Publisher

Wiley

Subject

Multidisciplinary

Reference53 articles.

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