小尺度上的模块化和灵活性:用立体光刻技术不断演变的连续材料变化

S. Hanna, S. H. Mahdavi
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引用次数: 9

摘要

在本文中,我们介绍了一种技术,通过该技术,物体的内部材料特性可以在微观结构水平(5x10-5m)上进行优化,以抵消施加在其上的力。然后可以使用立体光刻的快速成型方法制造这些材料。所提出的技术类似于大规模定制的原理,并利用灵活的模块以计算效率高的方式创建复杂的结构。该过程分为两个阶段,其中遗传算法演变微观结构的拓扑结构,第二个算法结合有限元分析,然后优化几何形状。所示的例子是专门为制造技术设计的,但方法和一般原理适用于任何规模的结构问题。
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Modularity and Flexibility at the Small Scale: Evolving Continuous Material Variation with Stereolithography
In this paper, we introduce a technique by which the internal material properties of an object can be optimised at a microstructural level (5x10-5m) to counteract the forces that are applied to it. These can then be fabricated using the rapid prototyping method of stereolithography. The proposed technique is analogous to principles of mass customization and takes advantage of a flexible module to create complex structures in a manner that is computationally efficient and effective. The process is two-staged, in which a genetic algorithm evolves the topology of the microstructure and a second algorithm incorporating Finite Element Analysis then optimises the geometry. The examples shown are designed specifically for the fabrication technique, but the method and general principles are applicable to structural problems at any scale.
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