Abstract

This paper deals with the influence of thermal aging on physical properties of a composite material, Menzolit BMC 3100. First, we present a number of analysis, FTIR (infrared spectroscopy), DSC (differential scanning calorimetry), TMA (thermomechanical analysis), TGA (thermogravimetric analysis), and HDT (heat deflection temperature), to understand the material performance under heat, and then, we carry out a test of toughness and strength using Charpy impact strength and Brinell hardness. Finally, we present optical surface analysis of the material under investigation by carrying out aging analysis at increments from room temperature up to 300°C. It was observed that above 200°C, the material begins to degrade at the surface, especially its organic component, polyester resin. This type of degradation has a negative impact on a variety of its physical properties. Exposure to temperatures above 200°C reduces the material’s hardness, toughness, and shape stability, likewise, material degradation was found to increase with higher thermal loads almost linearly for all the observed properties.

Highlights

  • Menzolit BMC 3100 is a composite material that is sparsely described in the scientific literature

  • It was observed that above 200°C, the material begins to degrade at the surface, especially its organic component, polyester resin. is type of degradation has a negative impact on a variety of its physical properties

  • Polymer composites play very important roles in modern industry, especially the automotive sector [1,2,3,4,5,6,7,8], in which light weight, high specific modulus, and strength are critical factors put into consideration in production and where these materials find a wide range of application. is paper describes the composition of polymer composites, e.g., Menzolit BMC 3100, and the unique advantages they offer, relative to traditional materials

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Summary

Introduction

Menzolit BMC 3100 is a composite material that is sparsely described in the scientific literature. Detailed reference is only made to the material when producers give product specifications in offering the material as an advertised item. Such specifications are limited, providing only specific physical values that characterise the material and rarely publishing details on material composition. (1) negative values show expansion; (2) continuous service temperature without external loads; (3) if two figures are given for one property, the first refers to the transversal direction, while the second represents principal axis; (4) moulding pressure in compression moulding; (5) wall thickness 3 mm; (6) figures given apply to quasi-isotropic 6-layer [0/90/45/-45/90/0] design; (7) heat conductivity is understood perpendicular to the plane of the laminate (out-of-plane axis)

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