Fundamental and Practical Limits of Achieving Artificial Magnetism and Effective Optical Medium by Using Self-Assembly of Metallic Colloidal Clusters
Kwangjin Kim, Ji Hyeok Huh, Doyoung Yu, Seungwoo Lee
KU-KIST Graduate School of Converging Science and Technology
The self-assembly of metallic colloidal clusters (so called plasmonic metamolecules) has been viewed as a versatile, but highly effective approach for the materialization of the metamaterials exhibiting artificial magnetism at optical frequencies (including visible and near infrared (NIR) regimes). Indeed, several proofs of concepts of plasmonic metamolecules have been successfully demonstrated in both theoretical and experimental ways. Nevertheless, this self-assembly strategy has barely been used and still remains an underutilized method. For example, the self-assembly and optical utilization of the plasmonic metamolecules have been limited to the discrete unit of the structure; the materialization of effective optical medium made of plasmonic metamolecules is highly challenging. In this work, we theoretically exploited the practical limits of self-assembly technology for the fabrication of optical magnetic metamaterials. [Figure not available: see fulltext.].
Macromolecular Research
Published - 2018 Dec 1
plasmonic metamolecules
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Plasmonics Engineering & Materials Science 100%
Magnetism Engineering & Materials Science 98%
Self assembly Engineering & Materials Science 89%
Metamaterials Engineering & Materials Science 40%
Infrared radiation Engineering & Materials Science 14%
Kim, K., Huh, J. H., Yu, D., & Lee, S. (2018). Fundamental and Practical Limits of Achieving Artificial Magnetism and Effective Optical Medium by Using Self-Assembly of Metallic Colloidal Clusters. Macromolecular Research, 26(12), 1103-1107. https://doi.org/10.1007/s13233-018-6154-5
Fundamental and Practical Limits of Achieving Artificial Magnetism and Effective Optical Medium by Using Self-Assembly of Metallic Colloidal Clusters. / Kim, Kwangjin; Huh, Ji Hyeok; Yu, Doyoung; Lee, Seungwoo.
In: Macromolecular Research, Vol. 26, No. 12, 01.12.2018, p. 1103-1107.
Kim, K, Huh, JH, Yu, D & Lee, S 2018, 'Fundamental and Practical Limits of Achieving Artificial Magnetism and Effective Optical Medium by Using Self-Assembly of Metallic Colloidal Clusters', Macromolecular Research, vol. 26, no. 12, pp. 1103-1107. https://doi.org/10.1007/s13233-018-6154-5
Kim K, Huh JH, Yu D, Lee S. Fundamental and Practical Limits of Achieving Artificial Magnetism and Effective Optical Medium by Using Self-Assembly of Metallic Colloidal Clusters. Macromolecular Research. 2018 Dec 1;26(12):1103-1107. https://doi.org/10.1007/s13233-018-6154-5
Kim, Kwangjin ; Huh, Ji Hyeok ; Yu, Doyoung ; Lee, Seungwoo. / Fundamental and Practical Limits of Achieving Artificial Magnetism and Effective Optical Medium by Using Self-Assembly of Metallic Colloidal Clusters. In: Macromolecular Research. 2018 ; Vol. 26, No. 12. pp. 1103-1107.
@article{c75563fda2f64721b3605abc870ab49d,
title = "Fundamental and Practical Limits of Achieving Artificial Magnetism and Effective Optical Medium by Using Self-Assembly of Metallic Colloidal Clusters",
abstract = "The self-assembly of metallic colloidal clusters (so called plasmonic metamolecules) has been viewed as a versatile, but highly effective approach for the materialization of the metamaterials exhibiting artificial magnetism at optical frequencies (including visible and near infrared (NIR) regimes). Indeed, several proofs of concepts of plasmonic metamolecules have been successfully demonstrated in both theoretical and experimental ways. Nevertheless, this self-assembly strategy has barely been used and still remains an underutilized method. For example, the self-assembly and optical utilization of the plasmonic metamolecules have been limited to the discrete unit of the structure; the materialization of effective optical medium made of plasmonic metamolecules is highly challenging. In this work, we theoretically exploited the practical limits of self-assembly technology for the fabrication of optical magnetic metamaterials. [Figure not available: see fulltext.].",
keywords = "colloids, magnetism, plasmonic metamolecules, self-assembly",
author = "Kwangjin Kim and Huh, {Ji Hyeok} and Doyoung Yu and Seungwoo Lee",
note = "Funding Information: Acknowledgments: This work was supported by Samsung Research Funding Center for Samsung Electronics under Project Number SRFC-MA 猃? 爃琁? 爃?. Publisher Copyright: {\textcopyright} 2018, The Polymer Society of Korea and Springer Nature B.V.",
journal = "Macromolecular Research",
publisher = "Polymer Society of Korea",
T1 - Fundamental and Practical Limits of Achieving Artificial Magnetism and Effective Optical Medium by Using Self-Assembly of Metallic Colloidal Clusters
AU - Kim, Kwangjin
AU - Huh, Ji Hyeok
AU - Yu, Doyoung
AU - Lee, Seungwoo
N1 - Funding Information: Acknowledgments: This work was supported by Samsung Research Funding Center for Samsung Electronics under Project Number SRFC-MA 猃? 爃琁? 爃?. Publisher Copyright: © 2018, The Polymer Society of Korea and Springer Nature B.V.
N2 - The self-assembly of metallic colloidal clusters (so called plasmonic metamolecules) has been viewed as a versatile, but highly effective approach for the materialization of the metamaterials exhibiting artificial magnetism at optical frequencies (including visible and near infrared (NIR) regimes). Indeed, several proofs of concepts of plasmonic metamolecules have been successfully demonstrated in both theoretical and experimental ways. Nevertheless, this self-assembly strategy has barely been used and still remains an underutilized method. For example, the self-assembly and optical utilization of the plasmonic metamolecules have been limited to the discrete unit of the structure; the materialization of effective optical medium made of plasmonic metamolecules is highly challenging. In this work, we theoretically exploited the practical limits of self-assembly technology for the fabrication of optical magnetic metamaterials. [Figure not available: see fulltext.].
AB - The self-assembly of metallic colloidal clusters (so called plasmonic metamolecules) has been viewed as a versatile, but highly effective approach for the materialization of the metamaterials exhibiting artificial magnetism at optical frequencies (including visible and near infrared (NIR) regimes). Indeed, several proofs of concepts of plasmonic metamolecules have been successfully demonstrated in both theoretical and experimental ways. Nevertheless, this self-assembly strategy has barely been used and still remains an underutilized method. For example, the self-assembly and optical utilization of the plasmonic metamolecules have been limited to the discrete unit of the structure; the materialization of effective optical medium made of plasmonic metamolecules is highly challenging. In this work, we theoretically exploited the practical limits of self-assembly technology for the fabrication of optical magnetic metamaterials. [Figure not available: see fulltext.].
KW - colloids
KW - plasmonic metamolecules
KW - self-assembly
JO - Macromolecular Research
JF - Macromolecular Research