Mechanical Property Prediction Method Based on Multi-material 3D Printer

Yerbolat, Gaziz; Amangeldi, Shynggys; Ali, Md. Hazrat

doi:10.1109/iciev.2018.8641073

Cited by 3 publications

(4 citation statements)

References 9 publications

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“…The material properties of the ABS and PLA were also obtained. Yerbolat et al (2018a, 2018b) presented the latest results on the material optimization and mechanical property prediction applying modeling and simulation techniques on ANSYS (Yerbolat et al , 2018a, 2018b; Ali et al , 2018; Gibson and Shi, 1997).…”

Section: Discussion: Materials Prediction and Optimizationmentioning

confidence: 99%

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3D printing: a critical review of current development and future prospects

Ali

Batai

Sarbassov

2019

RPJ

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Purpose This study highlights the demand for low-cost and high accuracy products through the design and development of new 3D printing technologies. Besides, signiﬁcant progress has been made in this ﬁeld. A comparative study helps to understand the latest development in materials and future prospect of this technology. Design/methodology/approach Nevertheless, a large amount of progress still remains to be made. While some of the works have focused on the performances of the materials, the rest have focused on the development of new methods and techniques in additive manufacturing. Findings This paper critically evaluates the current 3D printing technologies, including the development and optimizations made to the printing methods, as well as the printed objects. Meanwhile, previous developments in this area and contributions to the modern trend in manufacturing technology are summarized briefly. Originality/value The paper can be summarized in three sections. Firstly, the existing printing methods along with the frequently used printing materials, as well as the processing parameters, and the factors which influence the quality and mechanical performances of the printed objects are discussed. Secondly, the optimization techniques, such as topology, shape, structure and mechanical property, are described. Thirdly, the latest development and applications of additive manufacturing are depicted, and the scope of future research in the relevant area is put forward.

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Section: Discussion: Materials Prediction and Optimizationmentioning

confidence: 99%

“…This process causes the powders to sinter together layer by layer and form a 3D model. This type of technology was developed in the 1980s by Carl Deckard (Yerbolat et al , 2018a, 2018b). In 1989, he founded the additive manufacturing company “Desk Top Manufacturing”.…”

Section: The Materials and Methodsmentioning

confidence: 99%

3D printing: a critical review of current development and future prospects

Ali

Batai

Sarbassov

2019

RPJ

Self Cite

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“…Nowadays, there is great progress in 3D printing technologies, both in the 3D printers themselves and in the materials from which the final object is printed. Threedimensional printing is the process of creating a three-dimensional fixed object from a digital file, where the resulting printed object is gradually created by laying (printing) continuous layers of material until the entire object is completed [1][2][3]. This technology is rapidly developing along with today's demands of end users.…”

Section: Introductionmentioning

confidence: 99%

Use of 3D Printing for Horn Antenna Manufacturing

et al. 2022

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This article describes the manufacturing of a horn antenna using a 3D commercial printer. The horn antenna was chosen for its simplicity and practical versatility. The standardised horn antenna is one of the most widely used antennas in microwave technology. A standardised horn antenna can be connected to standardised waveguides. The horn antenna has been selected so that this antenna can be fabricated by 3D printing and thus obtain the equivalent of a standardised horn antenna. This 3D horn antenna can then be excited by a standardised waveguide. The 3Dprinted horn antenna with metallic layers has very good impedance characteristics, standing wave ratio and radiation patterns that are close to those of a standardised horn antenna. The 3D-based horn antenna is suitable for applications where low antenna weight is required, such as aerospace and satellite technologies. The article also describes a manufacturing procedure for a horn antenna (E-sector horn antenna) that is plated with galvanic layers of silver and gold. The design of the plated horn antenna in the Matlab application using the Antenna Toolbox extension is also described, including 3D printing procedures, post-processing procedures (plating) and practical testing of its functionality. The measured results are compared to simulations of the standardised horn antenna and then analysed.

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“…15 Multiple possible combinations of the manufacturing parameters briefly discussed above make it very difficult for the strength to be estimated in conventional ways which are based on building empirical relations and material models. 18 These models and relationships rely on previous knowledge and a large quantity of costly and time-consuming experiments. At the same time, they become less flexible and more complex due to a large number of aforementioned possible combinations of manufacturing parameters.…”

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confidence: 99%

Fuzzy inference system for failure strength estimation of plain and notched 3D‐printed polylactide components

Gitman

Susmel

2022

Fatigue Fract Eng Mat Struct

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A fuzzy sets based computational fuzzy inference system has been used to estimate the failure strength of 3D‐printed polylactide components. The research has confirmed and validated the accuracy and reliability of this approach with a satisfying level of reliability. As far as failure strength is concerned, the following two types of input parameters have been considered: (i) manufacturing variables (i.e., manufacturing angle, infill density, and size of manufacturing voids) and (ii) geometrical features (i.e., notch root radius). The individual significance of the various parameters under investigation has been identified together with the influence on the estimation accuracy of the number of specimens being used. The fuzzy inference system has shown an accuracy improvement compared to the failure strength estimation, obtained as a result of an existing analytical method. The fuzzy inference system approach has also been shown to have a good potential as a decision‐making tool in design problems.

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Mechanical Property Prediction Method Based on Multi-material 3D Printer

Cited by 3 publications

References 9 publications

3D printing: a critical review of current development and future prospects

3D printing: a critical review of current development and future prospects

Use of 3D Printing for Horn Antenna Manufacturing

Fuzzy inference system for failure strength estimation of plain and notched 3D‐printed polylactide components

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