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让数据发挥作用:体素打印用于跨尺度和领域的数据数字制造。

Making data matter: Voxel printing for the digital fabrication of data across scales and domains.

作者信息

Bader Christoph, Kolb Dominik, Weaver James C, Sharma Sunanda, Hosny Ahmed, Costa João, Oxman Neri

机构信息

The Mediated Matter Group, Media Lab, Massachusetts Institute of Technology, Cambridge, MA 02139, USA.

Wyss Institute for Biologically Inspired Engineering, Harvard University, Cambridge, MA 02138, USA.

出版信息

Sci Adv. 2018 May 30;4(5):eaas8652. doi: 10.1126/sciadv.aas8652. eCollection 2018 May.

Abstract

We present a multimaterial voxel-printing method that enables the physical visualization of data sets commonly associated with scientific imaging. Leveraging voxel-based control of multimaterial three-dimensional (3D) printing, our method enables additive manufacturing of discontinuous data types such as point cloud data, curve and graph data, image-based data, and volumetric data. By converting data sets into dithered material deposition descriptions, through modifications to rasterization processes, we demonstrate that data sets frequently visualized on screen can be converted into physical, materially heterogeneous objects. Our approach alleviates the need to postprocess data sets to boundary representations, preventing alteration of data and loss of information in the produced physicalizations. Therefore, it bridges the gap between digital information representation and physical material composition. We evaluate the visual characteristics and features of our method, assess its relevance and applicability in the production of physical visualizations, and detail the conversion of data sets for multimaterial 3D printing. We conclude with exemplary 3D-printed data sets produced by our method pointing toward potential applications across scales, disciplines, and problem domains.

摘要

我们提出了一种多材料体素打印方法,该方法能够对通常与科学成像相关的数据集进行物理可视化。利用基于体素的多材料三维(3D)打印控制,我们的方法能够对不连续数据类型进行增材制造,如点云数据、曲线和图形数据、基于图像的数据以及体数据。通过对光栅化过程进行修改,将数据集转换为抖动材料沉积描述,我们证明了经常在屏幕上可视化的数据集可以转换为物理的、材料异质的对象。我们的方法无需将数据集后处理为边界表示,从而防止了数据的改变和所生成物理模型中信息的丢失。因此,它弥合了数字信息表示与物理材料组成之间的差距。我们评估了我们方法的视觉特征和特性,评估了其在物理可视化生产中的相关性和适用性,并详细介绍了用于多材料3D打印的数据集转换。我们以我们方法生产的示例性3D打印数据集作为结尾,这些数据集指向了跨尺度、学科和问题领域的潜在应用。

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