2008
DOI: 10.1007/s11671-008-9170-0
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Fractal Nanotechnology

Abstract: Self-similar patterns are frequently observed in Nature. Their reproduction is possible on a length scale 102–105 nm with lithographic methods, but seems impossible on the nanometer length scale. It is shown that this goal may be achieved via a multiplicative variant of the multi-spacer patterning technology, in this way permitting the controlled preparation of fractal surfaces.

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Cited by 26 publications
(25 citation statements)
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“…r r 2 sin θdrdθdϕ: (16) Note that since balls represent here the basic units of the fractal, we have chosen the notation F 0 (q) instead of F(q), in spirit of Eq. (9).…”
Section: Scattering From a Ball And From A Trianglementioning
confidence: 99%
See 1 more Smart Citation
“…r r 2 sin θdrdθdϕ: (16) Note that since balls represent here the basic units of the fractal, we have chosen the notation F 0 (q) instead of F(q), in spirit of Eq. (9).…”
Section: Scattering From a Ball And From A Trianglementioning
confidence: 99%
“…In particular, models based on deterministic or exact self-similar fractals (i.e., fractals that are self-similar at every point, such as the Koch snowflake, Cantor set, or Mandelbrot cube) have been frequently used, since this type of fractals allows an analytical representation of various geometrical parameters (radius of gyration) or of the scattering intensity spectrum. Although for most fractals generated by natural processes, this is only an approximation, in the case of deterministic nano-and micro-materials obtained recently such as 2D Sierpinski gaskets [15] and Cantor sets [16], or 3D Menger sponge [17] and octahedral structures [18], this approximation becomes exact.…”
Section: Introductionmentioning
confidence: 99%
“…An intimate link between structural fractal properties of designed, nanotextured materials and functional advantages (e.g., detection sensitivity) has been demonstrated 5 , and synthetic fractal materials are finding applications in sensing, molecular electronics, high-performance filtration, sunlight collection, surface charge storage, and catalysis, among myriad other uses 7,8 . Many fractal fabrication efforts have relied on top-down patterning of surfaces 9 . The bottom-up design of supramolecular fractal topologies – both deterministic (e.g., Sierpinski’s triangles) 10,11 and stochastic fractals (e.g., arborols) 12,13 – has been performed with small molecule building blocks such as inorganic metal-ligand complexes or synthetic dendritic polymers utilizing co-ordinate or covalent bonds, respectively.…”
Section: Main Textmentioning
confidence: 99%
“…Given the contrast, concentration of fractals, and the absolute value of intensity, the fractal volume can be determined from Eq. (8).…”
Section: General Remarks On Small-angle Scatteringmentioning
confidence: 99%