Directional Materials-Nanoporous Organosilica Monoliths with Multiple Gradients Prepared Using Click Chemistry

The existence of more than one functional entity is fundamental for materials, which are desired of fulfilling complementary or succeeding tasks. Whereas it is feasible to make materials with a homogeneous distribution of two different, functional groups, cases are extremely rare exhibiting a smooth...

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Veröffentlicht in:Angewandte Chemie 2015-09, Vol.127 (36), p.10611-10615
Hauptverfasser: Schachtschneider, Andreas, Wessig, Martin, Spitzbarth, Martin, Donner, Adrian, Fischer, Christian, Drescher, Malte, Polarz, Sebastian
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container_end_page 10615
container_issue 36
container_start_page 10611
container_title Angewandte Chemie
container_volume 127
creator Schachtschneider, Andreas
Wessig, Martin
Spitzbarth, Martin
Donner, Adrian
Fischer, Christian
Drescher, Malte
Polarz, Sebastian
description The existence of more than one functional entity is fundamental for materials, which are desired of fulfilling complementary or succeeding tasks. Whereas it is feasible to make materials with a homogeneous distribution of two different, functional groups, cases are extremely rare exhibiting a smooth transition from one property to the next along a defined distance. We present a new approach leading to high‐surface area solids with functional gradients at the microstructural level. Periodically ordered mesoporous organosilicas (PMOs) and aerogel‐like monolithic bodies with a maximum density of azide groups were prepared from a novel sol–gel precursor. The controlled and fast conversion of the azide into numerous functions by click chemistry is the prerequisite for the implementation of manifold gradient profiles. Herein we discuss materials with chemical, optical and structural gradients, which are interesting for all applications requiring directionality, for example, chromatography. Die Richtung stimmt: Richtungsabhängigkeit in nanoporösen Materialien konnte erzielt werden, indem chemische Gradienten in Form oberflächengebundener funktioneller organischer Gruppen eingeführt wurden. Beinahe jede gewünschte funktionelle Gruppe kann mittels Klick‐Chemie an der Oberfläche des nanoporösen Materials angebracht werden.
doi_str_mv 10.1002/ange.201502878
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Whereas it is feasible to make materials with a homogeneous distribution of two different, functional groups, cases are extremely rare exhibiting a smooth transition from one property to the next along a defined distance. We present a new approach leading to high‐surface area solids with functional gradients at the microstructural level. Periodically ordered mesoporous organosilicas (PMOs) and aerogel‐like monolithic bodies with a maximum density of azide groups were prepared from a novel sol–gel precursor. The controlled and fast conversion of the azide into numerous functions by click chemistry is the prerequisite for the implementation of manifold gradient profiles. Herein we discuss materials with chemical, optical and structural gradients, which are interesting for all applications requiring directionality, for example, chromatography. Die Richtung stimmt: Richtungsabhängigkeit in nanoporösen Materialien konnte erzielt werden, indem chemische Gradienten in Form oberflächengebundener funktioneller organischer Gruppen eingeführt wurden. 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Chem</addtitle><description>The existence of more than one functional entity is fundamental for materials, which are desired of fulfilling complementary or succeeding tasks. Whereas it is feasible to make materials with a homogeneous distribution of two different, functional groups, cases are extremely rare exhibiting a smooth transition from one property to the next along a defined distance. We present a new approach leading to high‐surface area solids with functional gradients at the microstructural level. Periodically ordered mesoporous organosilicas (PMOs) and aerogel‐like monolithic bodies with a maximum density of azide groups were prepared from a novel sol–gel precursor. The controlled and fast conversion of the azide into numerous functions by click chemistry is the prerequisite for the implementation of manifold gradient profiles. Herein we discuss materials with chemical, optical and structural gradients, which are interesting for all applications requiring directionality, for example, chromatography. Die Richtung stimmt: Richtungsabhängigkeit in nanoporösen Materialien konnte erzielt werden, indem chemische Gradienten in Form oberflächengebundener funktioneller organischer Gruppen eingeführt wurden. 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subjects Aerogels
Chemical synthesis
Chemistry
Chromatography
Conversion
Density
Functional groups
Functionally gradient materials
Gradienten
Hybridmaterialien
Klick-Chemie
Microstructure
Nanoporöse Materialien
Oberflächenmodifizierung
Precursors
Sol gel process
Sol-gel processes
Solids
Tasks
title Directional Materials-Nanoporous Organosilica Monoliths with Multiple Gradients Prepared Using Click Chemistry
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