Abstract

Foundation piles that are made by concrete 3D printers constitute a new alternative way of founding buildings constructed using incremental technology. We are currently observing very rapid development of incremental technology for the construction industry. The systems that are used for 3D printing with the application of construction materials make it possible to form permanent formwork for strip foundations, construct load-bearing walls and partition walls, and prefabricate elements, such as stairs, lintels, and ceilings. 3D printing systems do not offer soil reinforcement by making piles. The paper presents the possibility of making concrete foundation piles in laboratory conditions using a concrete 3D printer. The paper shows the tools and procedure for pile pumping. An experiment for measuring pile bearing capacity is described and an example of a pile deployment model under a foundation is described. The results of the tests and analytical calculations have shown that the displacement piles demonstrate less settlement when compared to the analysed shallow foundation. The authors indicate that it is possible to replace the shallow foundation with a series of piles combined with a printed wall without locally widening it. This type of foundation can be used for the foundation of low-rise buildings, such as detached houses. Estimated calculations have shown that the possibility of making foundation piles by a 3D printer will reduce the cost of making foundations by shortening the time of execution of works and reducing the consumption of construction materials.

Highlights

  • Digital Fabrication with Concrete (DFC) technologies have been developing rapidly in the construction and architecture industry

  • The aim of this paper is to present the possibility of making concrete foundation piles using a 3D printer for concrete

  • The resulting piles are of uniform length, but the diameter of the pile along its length varies

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Summary

Introduction

Digital Fabrication with Concrete (DFC) technologies have been developing rapidly in the construction and architecture industry. 276 presents guidelines according to which DFC technologies can be described and categorised [1,2]. Examples include the Mesh Mold technology, in which the machine operations for the assembly, cutting, bending, and welding processes are numerically controlled while the casting and contour crafting operations are performed manually [3,4]. The Flexible Mould (Figure 1a) method is the manufacture of curved panels on flexible coatings, which, in turn, are applied onto pins that provide the desired shape [5,6]. Additive Manufacturing (AM) is the fastest growing DFC technology in construction

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