Colloidal quasicrystals with 12-fold and 18-fold diffraction symmetry
Micelles are the simplest example of self-assembly found in nature. As many other colloids, they can self-assemble in aqueous solution to form ordered periodic structures. These structures so far all exhibited classical crystallographic symmetries. Here we report that micelles in solution can self-a...
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Veröffentlicht in: | Proceedings of the National Academy of Sciences - PNAS 2011-02, Vol.108 (5), p.1810-1814 |
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creator | Fischer, Steffen Exner, Alexander Zielske, Kathrin Perlich, Jan Deloudi, Sofia Steurer, Walter Lindner, Peter Förster, Stephan Clark, Noel A. |
description | Micelles are the simplest example of self-assembly found in nature. As many other colloids, they can self-assemble in aqueous solution to form ordered periodic structures. These structures so far all exhibited classical crystallographic symmetries. Here we report that micelles in solution can self-assemble into quasicrystalline phases. We observe phases with 12-fold and 18-fold diffraction symmetry. Colloidal water-based quasicrystals are physically and chemically very simple systems. Macroscopic monodomain samples of centimeter dimension can be easily prepared. Phase transitions between the fee phase and the two quasicrystalline phases can be easily followed in situ by time-resolved diffraction experiments. The discovery of quasicrystalline colloidal solutions advances the theoretical understanding of quasicrystals considerably, as for these systems the stability of quasicrystalline states has been theoretically predicted for the concentration and temperature range, where they are experimentally observed. Also for the use of quasicrystals in advanced materials this discovery is of particular importance, as it opens the route to quasicrystalline photonic band gap materials via established water-based colloidal self-assembly techniques. |
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As many other colloids, they can self-assemble in aqueous solution to form ordered periodic structures. These structures so far all exhibited classical crystallographic symmetries. Here we report that micelles in solution can self-assemble into quasicrystalline phases. We observe phases with 12-fold and 18-fold diffraction symmetry. Colloidal water-based quasicrystals are physically and chemically very simple systems. Macroscopic monodomain samples of centimeter dimension can be easily prepared. Phase transitions between the fee phase and the two quasicrystalline phases can be easily followed in situ by time-resolved diffraction experiments. The discovery of quasicrystalline colloidal solutions advances the theoretical understanding of quasicrystals considerably, as for these systems the stability of quasicrystalline states has been theoretically predicted for the concentration and temperature range, where they are experimentally observed. 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As many other colloids, they can self-assemble in aqueous solution to form ordered periodic structures. These structures so far all exhibited classical crystallographic symmetries. Here we report that micelles in solution can self-assemble into quasicrystalline phases. We observe phases with 12-fold and 18-fold diffraction symmetry. Colloidal water-based quasicrystals are physically and chemically very simple systems. Macroscopic monodomain samples of centimeter dimension can be easily prepared. Phase transitions between the fee phase and the two quasicrystalline phases can be easily followed in situ by time-resolved diffraction experiments. The discovery of quasicrystalline colloidal solutions advances the theoretical understanding of quasicrystals considerably, as for these systems the stability of quasicrystalline states has been theoretically predicted for the concentration and temperature range, where they are experimentally observed. Also for the use of quasicrystals in advanced materials this discovery is of particular importance, as it opens the route to quasicrystalline photonic band gap materials via established water-based colloidal self-assembly techniques.</description><subject>Aqueous solutions</subject><subject>Atoms & subatomic particles</subject><subject>Crystal structure</subject><subject>Crystallography</subject><subject>Diffraction</subject><subject>Diffraction patterns</subject><subject>Diffusion</subject><subject>Fees</subject><subject>Materials</subject><subject>Micelles</subject><subject>Photonics</subject><subject>Physical Sciences</subject><subject>Polymers</subject><subject>Symmetry</subject><subject>Synchrotrons</subject><subject>Tiling</subject><subject>Wave diffraction</subject><issn>0027-8424</issn><issn>1091-6490</issn><fulltext>true</fulltext><rsrctype>article</rsrctype><creationdate>2011</creationdate><recordtype>article</recordtype><recordid>eNpdkUtr3DAUhUVoaSZp1121mG6ycnOvHra0KYQhj0Kgm3YtJFtONNjWRLIT5t9XZtJJmpUu6DvnPg4hnxG-I9TsfDualCuQlRII8oisEBSWFVfwjqwAaF1KTvkxOUlpAwBKSPhAjilSyjnKFblch74PvjV98TCb5Ju4S5PpU_Hkp_sCadmFvi3M2BYo93Xruy6aZvJhLNJuGNwUdx_J-y6L3Kfn95T8ubr8vb4pb39d_1xf3JYNr_hUWkeN5MY1TtY1OHSqY5Q5ixUX1KLqhGGYmVbaTlkLzNaVYsIpR61RjWCn5MfedzvbwbWNG6doer2NfjBxp4Px-v-f0d_ru_CoGTBGK54Nzp4NYniYXZr04FPj-t6MLsxJy3w4pKKqMvntDbkJcxzzdgskgKp6sTvfQ00MKUXXHUZB0EtAeglIvwSUFV9fb3Dg_yXyCliUL3ZSC40SIQNf9sAmTSEeCJ6bYF0z9heZ2aBn</recordid><startdate>20110201</startdate><enddate>20110201</enddate><creator>Fischer, Steffen</creator><creator>Exner, Alexander</creator><creator>Zielske, Kathrin</creator><creator>Perlich, Jan</creator><creator>Deloudi, Sofia</creator><creator>Steurer, Walter</creator><creator>Lindner, Peter</creator><creator>Förster, Stephan</creator><creator>Clark, Noel A.</creator><general>National Academy of Sciences</general><general>National Acad Sciences</general><scope>NPM</scope><scope>AAYXX</scope><scope>CITATION</scope><scope>7QG</scope><scope>7QL</scope><scope>7QP</scope><scope>7QR</scope><scope>7SN</scope><scope>7SS</scope><scope>7T5</scope><scope>7TK</scope><scope>7TM</scope><scope>7TO</scope><scope>7U9</scope><scope>8FD</scope><scope>C1K</scope><scope>FR3</scope><scope>H94</scope><scope>M7N</scope><scope>P64</scope><scope>RC3</scope><scope>7X8</scope><scope>5PM</scope></search><sort><creationdate>20110201</creationdate><title>Colloidal quasicrystals with 12-fold and 18-fold diffraction symmetry</title><author>Fischer, Steffen ; 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As many other colloids, they can self-assemble in aqueous solution to form ordered periodic structures. These structures so far all exhibited classical crystallographic symmetries. Here we report that micelles in solution can self-assemble into quasicrystalline phases. We observe phases with 12-fold and 18-fold diffraction symmetry. Colloidal water-based quasicrystals are physically and chemically very simple systems. Macroscopic monodomain samples of centimeter dimension can be easily prepared. Phase transitions between the fee phase and the two quasicrystalline phases can be easily followed in situ by time-resolved diffraction experiments. The discovery of quasicrystalline colloidal solutions advances the theoretical understanding of quasicrystals considerably, as for these systems the stability of quasicrystalline states has been theoretically predicted for the concentration and temperature range, where they are experimentally observed. 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subjects | Aqueous solutions Atoms & subatomic particles Crystal structure Crystallography Diffraction Diffraction patterns Diffusion Fees Materials Micelles Photonics Physical Sciences Polymers Symmetry Synchrotrons Tiling Wave diffraction |
title | Colloidal quasicrystals with 12-fold and 18-fold diffraction symmetry |
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