Today in the age of advanced ceramic civilization, there are a variety of applications for modern ceramics materials with specific properties. Our up-to date research recognizes that ceramics have a fractal configuration nature on the basis of different phenomena. The key property of fractals is their scale-independence. The practical value is that the fractal objects’ interaction and energy is possible at any reasonable scale of magnitude, including the nanoscale and may be even below. This is a consequence of fractal scale independence. This brings us to the conclusion that properties of fractals are valid on any scale (macro, micro, or nano). We also analyzed these questions with experimental results obtained from a comet, here 67P, and also from ceramic grain and pore morphologies on the microstructure level. Fractality, as a scale-independent morphology, provides significant variety of opportunities, for example for energy storage. From the viewpoint of scaling, the relation between large and small in fractal analysis is very important. An ideal fractal can be magnified endlessly but natural morphologies cannot, what is the new light in materials sciences and space.

中文翻译：

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分形性质作为微观结构表征和空间尺度相对化的新前沿

在陶瓷文明发达的今天，具有特定性能的现代陶瓷材料有多种应用。我们最新的研究认识到，陶瓷具有基于不同现象的分形配置性质。分形的关键特性是它们的尺度无关性。实用价值在于分形物体的相互作用和能量在任何合理的量级范围内都是可能的，包括纳米级，甚至可能更低。这是分形尺度独立性的结果。这使我们得出结论，分形的属性在任何尺度（宏观、微观或纳米）上都是有效的。我们还利用从彗星（此处为 67P）以及微观结构水平上的陶瓷晶粒和孔隙形态获得的实验结果分析了这些问题。分形，作为一种与尺度无关的形态，它提供了各种各样的机会，例如用于储能。从尺度的角度看，分形分析中大小的关系非常重要。理想的分形可以无限放大，但自然形态不能放大，什么是材料科学和空间的新光。