Development of 3D Concrete Printing Using Additive Manufacturing Processes for Construction and Building Industry (2022-12)¶
Shanmugan S., Sandhyarani T., Palani Subbaiya
Contribution - Nanotechnology‐Based Additive Manufacturing, pp. 579-599
Abstract
Additive manufacturing is the new product creation method from plastic, sand, and other powdered materials. The additive manufacturing process has been used since the mid‐1960s, and there have been various improvements in materials used in the process of additive manufacturing. Generally, substantial real material is widely used in construction. 3D printing in civil construction is used in wide range of areas, construction infrastructures, structures, thoroughfares, barriers, retentive parapets, and connections, in different ways. In construction, the creation of fashioned materials is easy and effortless because they are commercially available. Concrete as structured material is strong, able to face any natural adversities like rain, snow, and wind, and hence served the purpose of shelter throughout the ages but has taken a lot of time. Whereas the three‐dimensional production knowledge uses fine quantity fabric which makes the process more nimble than concrete. Planning multifunctional elements area unit is shown in Figure 20.1. The three‐dimensional numerical perfect is born‐again with Stereolithography (STL) arrangement, making actual items through construction that coats using sheet, antecedents. It is a fast prototype which acts as a reference to an appropriate procedure to produce the replica as an assembled product [2]. This procedure is suitable to only small‐scale models. As the three‐dimensional imprinters have a primary knowledge inside, this application is not suitable for large‐scale models. As the days go on, the claims are doubled in its scope and its usage in the construction. Advancements have been started. Recently, applications for the three‐dimensional photocopiers in new centuries shaped several important representations in construction to exploit important three‐dimensional copiers [3], as shown in Figure 20.2. In recent years, Associate from the Nursing involuntary coating via coating production method, the three‐dimensional production knowledge has begun to entice consideration within manufacturing. In addition to this, Additive producing is a revolutionary replacement of existing methods in the manufacturing field. However, 3D concrete printing technology is not yet an isolated solution that can solve all problems in the construction industry because it is still under development. The desire for knowledge in manufacturing leads to many investigations which help to overcome the limitations in existing technology. The technologies that obliterate the constraints are artificial intelligence and 3D printing technology [4, 5]. The complicated structures are anticipated in popular reduction value associated standard ways. Moreover, the cost of the structures produced by 3D printing is expected to become independent of the increase in the complexity of the structure [6], as shown in Figure 20.3. Three‐dimensional production in manufacturing is contingent on 2‐influences: the distinctiveness of customer desires and a degree with customer needs. Scientists approve a structure request by exploiting three‐dimensional production knowledge that can be developed further step by step [7]. The 3D printing concrete concept has been developed worldwide in the last few years. Cement‐based replications that are composed by three‐dimensional production have started emerging over the course of time. During its progression, there are few submissions for non‐structural elements that later turned into large‐scale constructions. These submissions further lead to the rise in prominence in three‐dimensional technology. Sensible extrudability with co‐application of the Self‐Compacting Concrete Shotcrete principle is achieved [8]. Besides the size and shape of nozzles, the printer should rotate 90 degrees around the corners to accurately shape the corners for the structure. To provide corners of 90 degrees, the versatility of the 3D concrete printer is taken into consideration and tested many times before actual printing [9]. 3D printing has been employed for the past 30 years, and recently, Researchers’ sole investigation with changed categories for the resources in three‐dimensional process was analyzed to make the process more complicated and create disturbance in the exact intergalactic. This is clarified with a concrete printing system that is extensively developed. Two main classes of 3D printing technology are available, known as Contour crafting and Binder spurting by D‐shape [10]. The opposite belongings of exploitation in Recycled Concrete Aggregates (RCA) are achieved in hundred percent area unit showed an important saving asset in real associated by usual totals. However, concrete, made of 75% natural aggregates and 25% of RCA, showed no significant change in concrete properties [11]. Concrete is sometimes ecstatic due to its blending herbal of a development website and decanted formwork. Employment for a chemical admixture may change the setting time of concrete. The usage of chemical admixtures varied by looking at the printing speed of the 3D printer [12]. A three‐dimensional knowledge for the printing process is determined by the structure engineering request for rapid with an effective prototype invention performance. It is calculated that an outline crafting organization is quickly progressed [13]. For plummeting an outlay, that tools are inexpensive merchandise within the marketplace, period Straight Numerical producing implies crops concluding merchandise instead of originals. Fabric wants to design area units in the main metals that area unit elements for numerous industrial instrumentality [14]. The commonly used AM technologies include a computer, 3D modeling software (Computer Aided Design or CAD), machine equipment, and layering material [15]. All kinds of literature on the three‐dimensional process, the real showed is dependable, environmentally responsive within analysis developments. Though, here is a unit of numerous existing aspect desire developmental methods as acknowledged universally which is improved by the physique measure, our analysis work evaluates the practicability of concrete in these prints that stresses the influence of current knowledge on predictions. The lack of research on the 2‐3D printing aspect of concrete has led us to study the behavior of concrete in this area. Moreover, our scheme encourages employment material with three‐dimensional production, thereby reducing price and increase productivity within an industry.
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9 References
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Exploratory Investigation of Solid Freeform Construction - Schutter Geert, Lesage Karel, Mechtcherine Viktor, Nerella Venkatesh et al. (2018-08)
Vision of 3D Printing with Concrete:
Technical, Economic and Environmental Potentials - Wu Peng, Wang Jun, Wang Xiangyu (2016-04)
A Critical Review of the Use of 3D Printing in the Construction Industry
0 Citations
BibTeX
@inproceedings{shan_sand_pala.2023.Do3CPUAMPfCaBI,
author = "S. Shanmugan and T. Sandhyarani and Subbaiya Palani",
title = "Development of 3D Concrete Printing Using Additive Manufacturing Processes for Construction and Building Industry",
doi = "10.1002/9783527835478.ch20",
year = "2023",
volume = "8",
pages = "579--599",
booktitle = "Nanotechnology‐Based Additive Manufacturing",
editor = "Kalim Deshmukh and S. K. Khadheer Pasha and Kishor Kumar Sadasivuni",
}
Formatted Citation
S. Shanmugan, T. Sandhyarani and S. Palani, “Development of 3D Concrete Printing Using Additive Manufacturing Processes for Construction and Building Industry”, in Nanotechnology‐Based Additive Manufacturing, 2023, vol. 8, pp. 579–599. doi: 10.1002/9783527835478.ch20.
Shanmugan, S., T. Sandhyarani, and Subbaiya Palani. “Development of 3D Concrete Printing Using Additive Manufacturing Processes for Construction and Building Industry”. In Nanotechnology‐Based Additive Manufacturing, edited by Kalim Deshmukh, S. K. Khadheer Pasha, and Kishor Kumar Sadasivuni, 8:579–99, 2023. https://doi.org/10.1002/9783527835478.ch20.