Fundamental Studies and Development on an Innovative Ceramic/Polymer Material Compound

Author:

Nestler Daisy1,Todt Andreas1,Wielage Bernhard1,Wagner Guntram1

Affiliation:

1. Chemnitz University of Technology

Abstract

Fibre-reinforced ceramic composite materials offer excellent thermal, mechanical and chemical properties. Due to their intrinsic fibre structure and porosity, they offer a great damage tolerance. Therefore, they provide superb attenuation characteristics, as do polymer composites. The current compound systems consisting of ceramic components feature a rather low capacity for energy absorption in relation to their weight; this is a fact in dire need of a fundamental change. In regards to the development of new hybrid ceramic/polymer material compounds basic research of the material design and binding behaviour of the different components is necessary. The advantage of this development allows for a selective implementation of positive characteristics of one component in an integrated compound-system. This opens up completely new possible are-as of application, such as wear and tear resistant and chemically inert, energy absorbing elements for the construction of reactors or areas of medical technology. During the investigation, a few selected fibre-reinforced ceramic composite materials with a specific porosity were produced, while adjusting the amount of resin/hardening agent used, as well as modifying other parameters. This was followed by tests regarding the wetting with a polyurethane component. The characterisation and analysis of the hybrid compounds on a microscopic scale is achieved by means of optical microscopic examinations. The characterisation of the mechanical attenuation characteristics on the other hand is realised by means of DM(T)A. The flexural strength is determined by utilising a “three-point-bending test”.

Publisher

Trans Tech Publications, Ltd.

Subject

Mechanical Engineering,Mechanics of Materials,Condensed Matter Physics,General Materials Science

Reference7 articles.

1. B. Wielage, D. Nestler, A. Todt, K. Roder, L. Kroll, St. Spange, J. Tröltzsch, DE Patent 10, 2014, 200, 510, A1. (2014).

2. H. Mucha, Untersuchungen zur Porositätsentwicklung von Phenolharzen als polymere-und Kohlenstoffspendermatrices in C-Faserverbundwerkstoffen, Dissertation, TU Chemnitz, (2002).

3. B. Wielage, D. Weber (Nestler), T. Müller, H. Steger, Thermomechanical Monitoring of Composite Materials during the Pyrolysis of C/C Composites, in: Z. Key (Ed. ), Engineering Materials 425 (2010), 95–105.

4. DIN EN 1389: 2004-03, Hochleistungskeramik – Keramische Verbundwerkstoffe – Physikalische Eigenschaften – Bestimmung der Dichte und der scheinbaren Porosität. (2004).

5. DIN EN 658-3, Advanced technical ceramics - Mechanical properties of ceramic composites at room temperature - Part 3: Determination of flexural strength. (2002).

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