Sol–gel based materials for biomedical applications

Золь-гельные материалы для биомедицинских применений
Rajendra K. Singh, Hae‐Won Kim, Jonathan C. Knowles, Gareth Owens, Farzad Foroutan, Mustafa Al-Qaysi, Cheol‐Min Han, Chinmaya Mahapatra
2016-01-17

bioactive molecule entrapmentbiomedical materialscontrolled drug releasehybrid materialssol–gel chemistry
Sol–gel chemistry offers a flexible approach to obtaining a diverse range of materials. It allows differing chemistries to be achieved as well as offering the ability to produce a wide range of nano-/micro-structures. The paper commences with a generalized description of the various sol–gel methods available and how these chemistries control the bulk properties of the end products. Following this, a more detailed description of the biomedical areas where sol–gel materials have been explored and found to hold significant potential. One of the interesting fields that has been developed recently relates to hybrid materials that utilize sol–gel chemistry to achieve unusual composite properties. Another intriguing feature of sol–gels is the unusual morphologies that are achievable at the micro- and nano-scale. Subsequently the ability to control pore chemistry at a number of different length scales and geometries has proven to be a fruitful area of exploitation, that provides excellent bioactivity and attracts cellular responses as well as enables the entrapment of biologically active molecules and their controllable release for therapeutic action. The approaches of fine-tuning surface chemistry and the combination with other nanomaterials have also enabled targeting of specific cell and tissue types for drug delivery with imaging capacity.
1
Precisely controlled pore chemistry, morphology, and geometry can promote bioactivity, attract cellular responses, and support biological molecule entrapment.
2
Sol–gel chemistry enables diverse biomedical materials by controlling chemical composition, bulk properties, and nano-/micro-scale structures.
3
Sol–gel materials enable controllable therapeutic release through engineered pore structures and incorporation of biologically active molecules.
4
Sol–gel-derived hybrid materials can exhibit unusual composite properties, expanding their biomedical application potential.
5
Surface-chemistry tuning and integration with other nanomaterials support targeted drug delivery to specific cells or tissues while providing imaging functionality.

sol–gel-based materials for biomedical applications

The relationships between sol–gel chemistry, material structure and properties, and biomedical functionality, including bioactivity, cellular responses, biomolecule entrapment and controlled release, and targeted drug delivery with imaging

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2016-01-17
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Rajendra K. Singh
Hae‐Won Kim
Jonathan C. Knowles
Gareth Owens
Farzad Foroutan
Mustafa Al-Qaysi
Cheol‐Min Han
Chinmaya Mahapatra
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