arXivDaily arXiv每日学术速递 周一至周五更新
arXiv 1608.06334cond-mat.softcond-mat.dis-nnphysics.bio-phphysics.optics
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一种受生物组织启发的可调谐光子流体

A biological tissue-inspired tunable photonic fluid

Xinzhi Li, Amit Das, Dapeng Bi

AI总结:

受生物组织细胞堆积启发,本文设计了具有完全光子带隙的二维和三维非晶材料,通过细胞黏附与形状调控参数连续调节带隙和力学性质,并发现光子带隙在流体相中仍保持,从而实现可实时调谐的光子流体。

摘要:

受致密生物组织中细胞堆积方式的启发,我们设计了具有完全光子带隙的二维和三维非晶材料。一个基于细胞如何相互黏附并调控自身形状的物理参数,可以连续调谐光子带隙大小以及材料的体力学性质。该材料可被调谐以经历以剪切模量消失为特征的固-液相变。值得注意的是,光子带隙在流体相中依然存在,从而产生一种对流动和重排具有鲁棒性的光子流体。实验上,这一设计应能促成自组装非刚性光子结构的工程化,其光子带隙可通过力学和热调谐实时控制。

英文摘要:

Inspired by how cells pack in dense biological tissues, we design 2D and 3D amorphous materials which possess a complete photonic band gap. A physical parameter based on how cells adhere with one another and regulate their shapes can continuously tune the photonic band gap size as well as the bulk mechanical properties of the material. The material can be tuned to go through a solid-fluid phase transition characterized by a vanishing shear modulus. Remarkably, the photonic band gap persists in the fluid phase, giving rise to a photonic fluid that is robust to flow and rearrangements. Experimentally this design should lead to the engineering of self-assembled non-rigid photonic structures with photonic band gaps that can be controlled in real time via mechanical and thermal tuning.

机构、总结、中文摘要均由AI分析而来,可能存在错误,请以论文正文为准。

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