Organic–inorganic hybrid hierarchical aluminum phenylphosphonate microspheres

Organic–inorganic hybrid phenylphosphonates with hierarchical morphologies have attracted much attention due to their structural versatility for various applications including catalysis, adsorption, and biomedicals, however, so far there have been no reports of the synthesis and application of alumi...

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Main Authors: Zhang, L., Shi, X., Liu, Shaomin, Pareek, Vishnu, Liu, J.
Format: Journal Article
Published: Academic Press 2014
Online Access:http://hdl.handle.net/20.500.11937/13578
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author Zhang, L.
Shi, X.
Liu, Shaomin
Pareek, Vishnu
Liu, J.
author_facet Zhang, L.
Shi, X.
Liu, Shaomin
Pareek, Vishnu
Liu, J.
author_sort Zhang, L.
building Curtin Institutional Repository
collection Online Access
description Organic–inorganic hybrid phenylphosphonates with hierarchical morphologies have attracted much attention due to their structural versatility for various applications including catalysis, adsorption, and biomedicals, however, so far there have been no reports of the synthesis and application of aluminium phenylphosphonate microspheres. Here, we report a hydrothermal method for the synthesis of the flower-like porous aluminum phenylphosphonate microspheres by using phenylphosphinic acid and aluminum nitrate as the precursors. The nano-flakes formed in the initial growing stage are believed to play a key role in the formation of aluminum phenylphosphonate micro-flowers. The self-assembly of the flower-like microspheres has been identified to involve a two-stage growth process: a synergistic Ostwald ripening and oriented nanosheets attachment. The resultant aluminum phenylphosphonate micro-flowers can be easily converted to mesoporous amorphous aluminum phosphates by high temperature treatment without causing any morphology deterioration. The hierarchical aluminum phenylphosphonate microspheres have been applied to enrich peptide. This versatile synthesis method would enable to synthesize other metal phosphonates/phosphates spheres with interesting architecture for the potential application in catalysis, energy storage and nanomedicine.
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spelling curtin-20.500.11937-135782017-09-13T16:02:38Z Organic–inorganic hybrid hierarchical aluminum phenylphosphonate microspheres Zhang, L. Shi, X. Liu, Shaomin Pareek, Vishnu Liu, J. Organic–inorganic hybrid phenylphosphonates with hierarchical morphologies have attracted much attention due to their structural versatility for various applications including catalysis, adsorption, and biomedicals, however, so far there have been no reports of the synthesis and application of aluminium phenylphosphonate microspheres. Here, we report a hydrothermal method for the synthesis of the flower-like porous aluminum phenylphosphonate microspheres by using phenylphosphinic acid and aluminum nitrate as the precursors. The nano-flakes formed in the initial growing stage are believed to play a key role in the formation of aluminum phenylphosphonate micro-flowers. The self-assembly of the flower-like microspheres has been identified to involve a two-stage growth process: a synergistic Ostwald ripening and oriented nanosheets attachment. The resultant aluminum phenylphosphonate micro-flowers can be easily converted to mesoporous amorphous aluminum phosphates by high temperature treatment without causing any morphology deterioration. The hierarchical aluminum phenylphosphonate microspheres have been applied to enrich peptide. This versatile synthesis method would enable to synthesize other metal phosphonates/phosphates spheres with interesting architecture for the potential application in catalysis, energy storage and nanomedicine. 2014 Journal Article http://hdl.handle.net/20.500.11937/13578 10.1016/j.jcis.2014.04.008 Academic Press restricted
spellingShingle Zhang, L.
Shi, X.
Liu, Shaomin
Pareek, Vishnu
Liu, J.
Organic–inorganic hybrid hierarchical aluminum phenylphosphonate microspheres
title Organic–inorganic hybrid hierarchical aluminum phenylphosphonate microspheres
title_full Organic–inorganic hybrid hierarchical aluminum phenylphosphonate microspheres
title_fullStr Organic–inorganic hybrid hierarchical aluminum phenylphosphonate microspheres
title_full_unstemmed Organic–inorganic hybrid hierarchical aluminum phenylphosphonate microspheres
title_short Organic–inorganic hybrid hierarchical aluminum phenylphosphonate microspheres
title_sort organic–inorganic hybrid hierarchical aluminum phenylphosphonate microspheres
url http://hdl.handle.net/20.500.11937/13578