Nanolithography for oxide nanoarrays and their application in medical devices

Onderzoeksoutput: Hoofdstuk in Boek/Rapport/CongresprocedureConferentiebijdrageAcademicpeer review

1 Citaat (Scopus)

Uittreksel

Using lithographic patterning techniques, normally we aim for the integration of structural elements into a more complex apparatus, which can be at various length scales, for example hand-held equipment. Nanoscale fabricated pillars, holes or wires have shown unique properties already and ordering these in specific arrangements results in novel phenomena normally not present in natural occuring materials. Such materials are called nanoarrays. Engineered nanoarrays belong therefore to the class of metamaterials. One example of a metamaterial is a material with a negative refractive index created by design of artificial structure. These exciting material properties bring about also new opportunities for applications. A functional device or system demanding some level of ordering in a material also requires a carefully designed manufacturing process. Here, we will present an overview of nanolithographic techniques for oxide nanoarrays. Bio-inspired templated nanoarrays will be described in perspective to other nanolithography techniques. These nanostructures can deliver new functionality, too. Moreover, (nano)structured materials can deliver specific functionality at the interface with biological material. Developing these materials, subsequently, we can look for medical applications where the properties of oxide nanoarrays are explored. Photonic crystals, for example, can be applied in medical diagnostic devices. In this paper, therefore oxide nanoarrays are introduced and the emerging technology for modification and tuning of medical device performance utilizing oxide nanoarrays is discussed. © 2010 Copyright SPIE - The International Society for Optical Engineering.
Originele taal-2Engels
TitelOxide-based Materials and Devices, 23 January 2010, San Francisco, California
RedacteurenF.H. Teherani, D.C. Look, C.W. Litton, D.J. Rogers
Plaats van productieBellingham
UitgeverijSPIE
Pagina's76031J-
ISBN van geprinte versie9780819479990
DOI's
StatusGepubliceerd - 2010
Evenementconference; Nanostructured Oxides and their Applications II; 2010-01-23; 2010-01-23 -
Duur: 23 jan 201023 jan 2010

Publicatie series

NaamProceedings of SPIE
Volume7603
ISSN van geprinte versie0277-786X

Congres

Congresconference; Nanostructured Oxides and their Applications II; 2010-01-23; 2010-01-23
Periode23/01/1023/01/10
AnderNanostructured Oxides and their Applications II

Vingerafdruk

Nanolithography
Oxides
Metamaterials
Medical applications
Photonic crystals
Nanostructured materials
Biological materials
Nanostructures
Refractive index
Materials properties
Tuning
Wire

Citeer dit

Luttge, R. (2010). Nanolithography for oxide nanoarrays and their application in medical devices. In F. H. Teherani, D. C. Look, C. W. Litton, & D. J. Rogers (editors), Oxide-based Materials and Devices, 23 January 2010, San Francisco, California (blz. 76031J-). (Proceedings of SPIE; Vol. 7603). Bellingham: SPIE. https://doi.org/10.1117/12.845242
Luttge, R. / Nanolithography for oxide nanoarrays and their application in medical devices. Oxide-based Materials and Devices, 23 January 2010, San Francisco, California. redacteur / F.H. Teherani ; D.C. Look ; C.W. Litton ; D.J. Rogers. Bellingham : SPIE, 2010. blz. 76031J- (Proceedings of SPIE).
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Luttge, R 2010, Nanolithography for oxide nanoarrays and their application in medical devices. in FH Teherani, DC Look, CW Litton & DJ Rogers (redactie), Oxide-based Materials and Devices, 23 January 2010, San Francisco, California. Proceedings of SPIE, vol. 7603, SPIE, Bellingham, blz. 76031J-, 23/01/10. https://doi.org/10.1117/12.845242

Nanolithography for oxide nanoarrays and their application in medical devices. / Luttge, R.

Oxide-based Materials and Devices, 23 January 2010, San Francisco, California. redactie / F.H. Teherani; D.C. Look; C.W. Litton; D.J. Rogers. Bellingham : SPIE, 2010. blz. 76031J- (Proceedings of SPIE; Vol. 7603).

Onderzoeksoutput: Hoofdstuk in Boek/Rapport/CongresprocedureConferentiebijdrageAcademicpeer review

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AB - Using lithographic patterning techniques, normally we aim for the integration of structural elements into a more complex apparatus, which can be at various length scales, for example hand-held equipment. Nanoscale fabricated pillars, holes or wires have shown unique properties already and ordering these in specific arrangements results in novel phenomena normally not present in natural occuring materials. Such materials are called nanoarrays. Engineered nanoarrays belong therefore to the class of metamaterials. One example of a metamaterial is a material with a negative refractive index created by design of artificial structure. These exciting material properties bring about also new opportunities for applications. A functional device or system demanding some level of ordering in a material also requires a carefully designed manufacturing process. Here, we will present an overview of nanolithographic techniques for oxide nanoarrays. Bio-inspired templated nanoarrays will be described in perspective to other nanolithography techniques. These nanostructures can deliver new functionality, too. Moreover, (nano)structured materials can deliver specific functionality at the interface with biological material. Developing these materials, subsequently, we can look for medical applications where the properties of oxide nanoarrays are explored. Photonic crystals, for example, can be applied in medical diagnostic devices. In this paper, therefore oxide nanoarrays are introduced and the emerging technology for modification and tuning of medical device performance utilizing oxide nanoarrays is discussed. © 2010 Copyright SPIE - The International Society for Optical Engineering.

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Luttge R. Nanolithography for oxide nanoarrays and their application in medical devices. In Teherani FH, Look DC, Litton CW, Rogers DJ, redacteurs, Oxide-based Materials and Devices, 23 January 2010, San Francisco, California. Bellingham: SPIE. 2010. blz. 76031J-. (Proceedings of SPIE). https://doi.org/10.1117/12.845242