Design for Additive Manufacturing with Biomimetic Approaches

Nur Zeynep Cengiz Bulut, Veysel Ozdemir

Abstract


As a result of millions of years of evolution, nature has created structures that are resistant to the environment it is in, and these structures have inspired people to solve problems. However, these structures found in nature are very difficult to manufacture due to their complex architecture. At this point, with the increasing interest and development in additive manufacturing (AM) technologies, these inspired structures have become applicable. In order to provide design freedom that traditional manufacturing methods cannot provide, the design for additive manufacturing (DFAM) design model has emerged, depending on the capacity of additive manufacturing technologies. In this design model, designs with high mechanical properties can be created by using lattice structures and topological optimization methods. The combination of these two methods leads to the creation of bio-inspired designs. Thus, bio-inspired, lightweight and high-strength designs can be developed. In this study, a combination of biomimetic approaches and additive manufacturing design was taken.


Keywords


Additive manufacturing, Biomimetics, Lattice structures, Topological optimization

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References


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