玻璃纠缠

T. Klein
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引用次数: 0

摘要

在量子物理学中,量子纠缠是一种现象,当一组粒子以这样一种方式产生时,每个粒子的量子态都不能独立于其他粒子来描述。作品《玻璃纠缠》构建了一个类似的状态,其中数字部分和模拟部分都不能单独读取,并且每个部分都不能独立描述。这项工作包括将蜂窝玻璃体块的各个部分彼此物理分离,以及与这些单个物体相互作用的3d打印形式,以形成玻璃体块之间的生态系统。这些元素通过数字建模的卷须状结构结合在一起,类似于形成多细胞高级生物体时的生物细胞生长。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Glass entanglement
In quantum physics, quantum entanglement is a phenomenon that occurs when a group of particles is generated in such a way that the quantum state of each individual particle cannot be described independently from the other. The work Glass Entanglement constructs a similar state in which neither its digital nor analog parts could be read individually and where each part could not be described independently from the other. This work consists of the physical separation of the parts of cellular glass volumes from one another and the 3D-printed form interacting with these single objects to form an ecosystem between the glass volumes. The elements are held together by digitally modeled, tendril-like structures, analogous to the biological cell growth when forming multicellular higher-order organisms.
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