SHOTCRETES AND MORTARS FOR 3D PRINTERS USING CHINESE INDUSTRIAL WASTE
Article Sidebar
Main Article Content
Abstract
Currently, ordinary Portland cement is the main cementing material for shotcrete in tunnels in my country. Part of the use of single-doped silica fume or fly ash, however, there are few cementitious materials that use double-doped or multi-doped mineral admixtures. Due to the single composition of the cementitious material, poor gradation, and low quality, the concrete has poor compactness, insufficient viscosity, and large rebound. The use of "multiple" mineral admixtures can better solve the problem of high rebound rate of shotcrete in tunnels. Among them, mineral admixtures include mineral powder, fly ash, silica fume and limestone powder. The cementitious material in concrete can be single-mixed, double-mixed or multi-mixed with mineral admixtures. In this way, the heat of hydration when the concrete sets and hardens can be reduced, reduce the cracking of concrete, improve the compactness and viscosity of concrete and reduce the rebound rate of concrete.
The aim of research: the overall idea and technical measures to solve the high rebound rate of shotcrete or 3D printer mix and the high amount of cementitious materials using Chinese industrial waste.
Scientific novelty of research: optimal compositions using Chinese industrial waste for wet shotcrete, optimal compositions using Chinese industrial waste for 3D construction printers, basic properties of wet shotcrete composites with using Chinese industrial waste, basic properties of 3D construction printer composites with using Chinese industrial waste.
Article Details
This work is licensed under a Creative Commons Attribution 4.0 International License.
References
Li, Xiaoli, Ma, Jianxiong & Li, Ping. (2014). 3D Printing Technology and Application Trend. Automatic Instrumentation, 35(1), 1–5.
Deng, Manqiu. (2014). The development prospect of the third industrial revolution 3D printing in China. Digital Printing, (2), 22–23.
Ding, Lieyun, Jie, Xu & Yawei, Qin. (2015). A review of research and application of architectural 3D printing digital construction technology. Journal of Civil Engineering and Management, 32(3), 1–10.
Huang, Weidong, Lu, Xiaowei & Lin, Xin. (2011). Preparation of biomedical materials by laser forming Research status and development trend. China Materials Progress, (4), 1–10.
Liu, Guanchen. (2016). Analysis on the prospect of 3D printing technology in the future automobile industry. Times Automobile, (3), 33.
Wang, Qing. (2016). Application of 3D printing technology in construction engineering. Architectural Science, (34), 260.
Jiang, Lixin, Xiangxiang, Yi & Jie, Shao. (2013). The development of 3D printing technology and its application in the field of military industry. Chinese Army to Civilian, (12), 58–62.
Yang, Jianjiang & Xiang, Chen. (2015). 3D printing architectural technology and application trends. Construction Technology, 44(10), 84–88.
Zhang, Hao & Yuchen, An. (2016). The application and prospect of 3D printing technology in the field of construction engineering. Shanxi Architecture, 42(11), 17–18.
Zhang, Xiaoguang. (2014). Research on the development of architectural technology based on 3D printing era. Henan Science and Technology, (20), 162–163.
Hong, Yue. (2014). 3D printing architecture from theory to practice. Green Building Materials, (6), 58–62.
Yang, Jianjiang & Xiang, Chen. (2015). 3D printing architectural technology and application trends. Construction Technology, 44(10), 84–88.
Wang, Wentao. (2014). The development trend of 3D printing manufacturing technology and its impact on my country's structural transformation. Science and Technology Management Research, (6), 22–25.
Wang, Cancai. (2012). Analysis of the development status of 3D printing. Digital Technology, (9), 38–39.
Chen, Lixin. (2020). Improvement measures for pipe plugging and high rebound rate in tunnel wet spraying manipulator construction. Anhui Architecture, 27(12), 172.
Most read articles by the same author(s)
- A. YAGUBKIN, Y., RESEARCH AND APPLICATION OF WOOD-CONCRETE IN WORLD PRACTICE: AN OVERVIEW, Vestnik of Polotsk State University. Part F. Constructions. Applied Sciences: No. 16 (2021)
- A. YAGUBKIN, D. SHABANOV, Y. JINBIN, INFLUENCE OF TEMPERATURE ON THE THERMO-HUMIDITY CONDITIONS OF WALL MATERIALS, Vestnik of Polotsk State University. Part F. Constructions. Applied Sciences: No. 16 (2021)
- O. LAZARENKO, A. YAGUBKIN, IMPLEMENTATION OF BIM TECHNOLOGIES IN THE INDUSTRY BUILDING COMPLEX OF THE REPUBLIC OF BELARUS, Vestnik of Polotsk State University. Part F. Constructions. Applied Sciences: No. 8 (2020)
- A. YAGUBKIN, Z. ZHIXU, METHODS FOR REMOTE QUALITY CONTROL OF COMPOSITES WITH ORGANIC AGGREGATES, Vestnik of Polotsk State University. Part F. Constructions. Applied Sciences: No. 14 (2022)
- SHABANOV SHABANOV, A. YAGUBKIN, S. VABISHCHVICH, E. BOROVKOVA, E. TRAMBICKIJ, PARAMETERS OF ACOUSTIC EMISSION SIGNALS AND THEIR APPLICATION IN MONITORING THE STATE OF THE CONCRETE STRUCTURE, Vestnik of Polotsk State University. Part F. Constructions. Applied Sciences: No. 8 (2019)
- R. BOHUSH, D. GLUKHOV, A. YAGUBKIN, E. SKRIPELYOV, INTEGRATED VIDEO MONITORING SYSTEM TO TEST STRENGTH AND DEFORMABILITY OF BUILDING MATERIALS AND STRUCTURES, Vestnik of Polotsk State University. Part F. Constructions. Applied Sciences: No. 8 (2020)
- D. SHABANOV, E. BRIANTSEV, A. YAGUBKIN, I. KRUPENCHIK, S. ZMITROVICH, INSULATION MATERIAL AND THEIR CONVECTIVE PROPERTIES, Vestnik of Polotsk State University. Part F. Constructions. Applied Sciences: No. 8 (2019)
- D. SHABANOV, A. YAGUBKIN, V. HVATYNETS, E. TRAMBITSKY, TECHNIQUE OF SUPPORTING THE DEVELOPMENT OF STRUCTURAL DEFECTS IN CEMENT SYSTEMS, Vestnik of Polotsk State University. Part F. Constructions. Applied Sciences: No. 16 (2018)
- D. SHABANOV, A. YAGUBKIN, E. BOROVKOVA, E. TRAMBITSKY, METHOD OF ACOUSTIC-EMISSION STUDY OF THE INTERNAL STATE OF CEMENT STONE DURING ITS CHLORIDE CORROSION, Vestnik of Polotsk State University. Part F. Constructions. Applied Sciences: No. 16 (2019)
- D. SHABANOV, A. YAGUBKIN, E. BOROVKOVA, E. TRAMBITSKY, MONITORING THE STRUCTURAL STATE OF CEMENT SYSTEMS BY ACOUSTIC EMISSION AND TENZOMETRY SIGNAL PARAMETERS, Vestnik of Polotsk State University. Part F. Constructions. Applied Sciences: No. 16 (2019)