Rationally designed porous silicon as platform for optical biosensors

Optical porous silicon multilayer structures are able to work as sensitive chemical sensors or biosensors based in their optical response. An algorithm to simulate the optical response of these multilayers was developed, considering the optical properties of the individual layers. The algorithm allo...

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Autores principales: Priano, G., Acquaroli, L.N., Lasave, L.C., Battaglini, F., Arce, R.D., Koropecki, R.R.
Formato: JOUR
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Acceso en línea:http://hdl.handle.net/20.500.12110/paper_00406090_v520_n20_p6434_Priano
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spelling todo:paper_00406090_v520_n20_p6434_Priano2023-10-03T14:51:08Z Rationally designed porous silicon as platform for optical biosensors Priano, G. Acquaroli, L.N. Lasave, L.C. Battaglini, F. Arce, R.D. Koropecki, R.R. Biosensors Functionalization Nanostructured porous silicon Optical microcavity Response simulation Aminosilanes Derivatizations Functionalizations Nano-structured Optical bio-sensors Optical microcavities Optical response Photonic structure Porous silicon structures Porous silicon surfaces Response simulation Silicon multilayers Algorithms Biosensors Microcavities Multilayers Optical properties Porous silicon Optical multilayers Optical porous silicon multilayer structures are able to work as sensitive chemical sensors or biosensors based in their optical response. An algorithm to simulate the optical response of these multilayers was developed, considering the optical properties of the individual layers. The algorithm allows designing and customizing the porous silicon structures according to a given application. The results obtained by the simulation were experimentally verified; for this purpose different photonic structures were prepared, such as Bragg reflectors and microcavities. Some of these structures have been derivatized by the introduction of aminosilane groups on the porous silicon surface. The algorithm also permits to simulate the effects produced by a non uniform derivatization of the multilayer. © 2012 Elsevier B.V. JOUR info:eu-repo/semantics/openAccess http://creativecommons.org/licenses/by/2.5/ar http://hdl.handle.net/20.500.12110/paper_00406090_v520_n20_p6434_Priano
institution Universidad de Buenos Aires
institution_str I-28
repository_str R-134
collection Biblioteca Digital - Facultad de Ciencias Exactas y Naturales (UBA)
topic Biosensors
Functionalization
Nanostructured porous silicon
Optical microcavity
Response simulation
Aminosilanes
Derivatizations
Functionalizations
Nano-structured
Optical bio-sensors
Optical microcavities
Optical response
Photonic structure
Porous silicon structures
Porous silicon surfaces
Response simulation
Silicon multilayers
Algorithms
Biosensors
Microcavities
Multilayers
Optical properties
Porous silicon
Optical multilayers
spellingShingle Biosensors
Functionalization
Nanostructured porous silicon
Optical microcavity
Response simulation
Aminosilanes
Derivatizations
Functionalizations
Nano-structured
Optical bio-sensors
Optical microcavities
Optical response
Photonic structure
Porous silicon structures
Porous silicon surfaces
Response simulation
Silicon multilayers
Algorithms
Biosensors
Microcavities
Multilayers
Optical properties
Porous silicon
Optical multilayers
Priano, G.
Acquaroli, L.N.
Lasave, L.C.
Battaglini, F.
Arce, R.D.
Koropecki, R.R.
Rationally designed porous silicon as platform for optical biosensors
topic_facet Biosensors
Functionalization
Nanostructured porous silicon
Optical microcavity
Response simulation
Aminosilanes
Derivatizations
Functionalizations
Nano-structured
Optical bio-sensors
Optical microcavities
Optical response
Photonic structure
Porous silicon structures
Porous silicon surfaces
Response simulation
Silicon multilayers
Algorithms
Biosensors
Microcavities
Multilayers
Optical properties
Porous silicon
Optical multilayers
description Optical porous silicon multilayer structures are able to work as sensitive chemical sensors or biosensors based in their optical response. An algorithm to simulate the optical response of these multilayers was developed, considering the optical properties of the individual layers. The algorithm allows designing and customizing the porous silicon structures according to a given application. The results obtained by the simulation were experimentally verified; for this purpose different photonic structures were prepared, such as Bragg reflectors and microcavities. Some of these structures have been derivatized by the introduction of aminosilane groups on the porous silicon surface. The algorithm also permits to simulate the effects produced by a non uniform derivatization of the multilayer. © 2012 Elsevier B.V.
format JOUR
author Priano, G.
Acquaroli, L.N.
Lasave, L.C.
Battaglini, F.
Arce, R.D.
Koropecki, R.R.
author_facet Priano, G.
Acquaroli, L.N.
Lasave, L.C.
Battaglini, F.
Arce, R.D.
Koropecki, R.R.
author_sort Priano, G.
title Rationally designed porous silicon as platform for optical biosensors
title_short Rationally designed porous silicon as platform for optical biosensors
title_full Rationally designed porous silicon as platform for optical biosensors
title_fullStr Rationally designed porous silicon as platform for optical biosensors
title_full_unstemmed Rationally designed porous silicon as platform for optical biosensors
title_sort rationally designed porous silicon as platform for optical biosensors
url http://hdl.handle.net/20.500.12110/paper_00406090_v520_n20_p6434_Priano
work_keys_str_mv AT prianog rationallydesignedporoussiliconasplatformforopticalbiosensors
AT acquaroliln rationallydesignedporoussiliconasplatformforopticalbiosensors
AT lasavelc rationallydesignedporoussiliconasplatformforopticalbiosensors
AT battaglinif rationallydesignedporoussiliconasplatformforopticalbiosensors
AT arcerd rationallydesignedporoussiliconasplatformforopticalbiosensors
AT koropeckirr rationallydesignedporoussiliconasplatformforopticalbiosensors
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