Tailoring dielectric relaxation in ultra-thin high-dielectric constant nanolaminates for nanoelectronics

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Abstract

The work reported here demonstrates the feasibility of controlling the dielectric properties-high dielectric constant (k) and substantially extended relaxation frequency-of thin film nanolaminates (NLs) consisting of alternating TiOx and Al2O3 sublayers with various sublayer thicknesses grown by atomic layer deposition. For 150 nm thick TiO x/Al2O3 NLs with sub-nanometer thick sublayers, few Angstrom change in sublayer thickness dramatically increases relaxation cut-off frequency by more than 3 orders of magnitude with high dielectric constant (k > 800). This unusual phenomenon is discussed in the framework of two-phase Maxwell-Wagner relaxation. © 2013 American Institute of Physics.

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Lee, G., Lai, B. K., Phatak, C., Katiyar, R. S., & Auciello, O. (2013). Tailoring dielectric relaxation in ultra-thin high-dielectric constant nanolaminates for nanoelectronics. Applied Physics Letters, 102(14). https://doi.org/10.1063/1.4790838

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