Abstract

This paper aims to study the mechanical and electrical properties of the composite structure of PVC film and film cell under biaxial tension. The saddle PVC membrane structure with thin-film battery was obtained by biaxial tensile tests carried out on the composite structure along the fiber direction and at an angle of 45 degrees to the fiber, respectively. The deformation of the film cell and PVC membrane materials was tested using digital image technology, and the voltage of the film cell was tested using a multimeter. The results showed that the tensile strain occurred in both membrane batteries and PVC membrane at different loading levels, and the former was always less than the latter. At a tensile load with the ultimate load ratio of 60%, it was only at the film cell’s outer edge that the stripping occurred. Under the illumination of a stable light source, the film cell voltage decreased gradually with the increasing tensile load. No more than 10% of the cell voltage drop occurred when the membrane material, the principal tensile strain of the cell, and the cell’s expansion area ratio were less than 3.1%, 2.8%, and 1.03, respectively. The experimental results show that the film cell can be applied to the saddle membrane structure by controlling the appropriate load.

Highlights

  • Polyvinyl chloride (PVC) was widely used in many industries, such as PVC film used in the construction industry

  • Because PVC membrane materials are generally organic materials, these materials are often exposed to the sun, and they age and deteriorate, affecting the service life of the tension-membrane structure [5,6]

  • The thin-Film Battery is attached to the surface of the PVC tension membrane to form a composite structure, which can prevent the damage of the UV to the tension membrane

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Summary

Introduction

Polyvinyl chloride (PVC) was widely used in many industries, such as PVC film used in the construction industry. Tension membrane structure composed of PVC, compared with the traditional structure, has the advantages of a lightweight, large span, accessibility, rich architectural modelling, convenient construction, economy, transparency, and so on [1,2]. It has been widely used in various long-span buildings [3,4]. Some researchers [20,21] tried to combine amorphous silicon solar cells with building substrates or fibre-reinforced polymer panels to study the performance of their composite structure and explored lower the installation costs

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