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Creation of Basalt Plastics with Different Types of Hybrid Matrices
- Source :
- Materials Science Forum. 1037:189-195
- Publication Year :
- 2021
- Publisher :
- Trans Tech Publications, Ltd., 2021.
-
Abstract
- Basalt plastic, thanks to its complex of valuable operational properties, has a potential variety of applications. the article describes the technology of production of basalt plastics with various types of hybrid matrices, one of the components of which is cured in the molding process, and the second-like a binder in natural materials, retains its viscoelastic state. The viscoelastic component makes it possible to increase the deformation properties in the zones of their location, preventing cracking under increased loads. As a result of the conducted mechanical tensile tests, the average values of absolute breaking forces, tensile strength and elongation during fracture of basalt plastic samples with different types of hybrid matrices were obtained. The addition of viscoelastic components (such as technical wax, anaerobic, and organosilicon polymer materials) to the basalt plastic matrix allows to increase the elongation at fracture by 2...5%. Anaerobic polymer material in the basalt plastic matrix allows to increase the tensile strength of the composite material, as well as significantly reduce the dispersion of the measured values. This provides an effective prediction of the operational properties of the structural material in the design of products. On the basis of microanalysis of the structure of basalt plastics with different types of hybrid matrices, an explanation of the causes of changes in the mechanical properties of the resulting composite materials is given.
- Subjects :
- chemistry.chemical_classification
Basalt
0209 industrial biotechnology
Materials science
Structural material
020502 materials
Mechanical Engineering
02 engineering and technology
Polymer
Condensed Matter Physics
Viscoelasticity
Cracking
020901 industrial engineering & automation
0205 materials engineering
chemistry
Mechanics of Materials
Ultimate tensile strength
Fracture (geology)
General Materials Science
Deformation (engineering)
Composite material
Subjects
Details
- ISSN :
- 16629752
- Volume :
- 1037
- Database :
- OpenAIRE
- Journal :
- Materials Science Forum
- Accession number :
- edsair.doi...........1e597b8d110f84eafc5e1e9a29c471a5