Additive Lithography–Organic Monolayer Patterning Coupled with an Area-Selective Deposition

The combination of area-selective deposition (ASD) with a patternable organic monolayer provides a versatile additive lithography platform, enabling the generation of a variety of nanoscale feature geometries. Stearate hydroxamic acid self-assembled monolayers (SAMs) were patterned with extreme ultr...

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Veröffentlicht in:ACS applied materials & interfaces 2021-02, Vol.13 (7), p.9081-9090
Hauptverfasser: Wojtecki, Rudy, Ma, Jonathan, Cordova, Isvar, Arellano, Noel, Lionti, Krystelle, Magbitang, Teddie, Pattison, Thomas G, Zhao, Xiao, Delenia, Eugene, Lanzillo, Nicholas, Hess, Alexander E, Nathel, Noah Fine, Bui, Holt, Rettner, Charles, Wallraff, Gregory, Naulleau, Patrick
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container_end_page 9090
container_issue 7
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container_title ACS applied materials & interfaces
container_volume 13
creator Wojtecki, Rudy
Ma, Jonathan
Cordova, Isvar
Arellano, Noel
Lionti, Krystelle
Magbitang, Teddie
Pattison, Thomas G
Zhao, Xiao
Delenia, Eugene
Lanzillo, Nicholas
Hess, Alexander E
Nathel, Noah Fine
Bui, Holt
Rettner, Charles
Wallraff, Gregory
Naulleau, Patrick
description The combination of area-selective deposition (ASD) with a patternable organic monolayer provides a versatile additive lithography platform, enabling the generation of a variety of nanoscale feature geometries. Stearate hydroxamic acid self-assembled monolayers (SAMs) were patterned with extreme ultraviolet (λ = 13.5 nm) or electron beam irradiation and developed with ASD to achieve line space patterns as small as 50 nm. Density functional theory was employed to aid in the synthesis of hydroxamic acid derivatives with optimized packing density to enhance the imaging contrast and improve dose sensitivity. Near-edge X-ray absorption fine structure spectroscopy and infrared spectroscopy reveal that the imaging mechanism is based on improved deposition inhibition provided by the cross-linking of the SAM to produce a more effective barrier during a subsequent deposition step. With patterned substrates composed of coplanar copper lines and silicon spacers, hydroxamic acids selectively formed monolayers on the metal portions and could undergo a pattern-wise exposure followed by ASD in the first combination of a patternable monolayer with ASD. This material system presents an additional capability compared to traditional ASD approaches that generally reflect a starting patterned surface. Furthermore, this bottoms-up additive approach to lithography may be a viable alternative to subtractive nanoscale feature generation.
doi_str_mv 10.1021/acsami.0c16817
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1944-8252
language eng
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source American Chemical Society Journals
subjects area-selective deposition
atomic layer deposition
INORGANIC, ORGANIC, PHYSICAL, AND ANALYTICAL CHEMISTRY
nanolithography
photocrosslinking
self-assembled monolayers
Surfaces, Interfaces, and Applications
title Additive Lithography–Organic Monolayer Patterning Coupled with an Area-Selective Deposition
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