Micro- to Nanoscale Bio-Hybrid Hydrogels Engineered by Ionizing Radiation

Bio-hybrid hydrogels consist of a water-swollen hydrophilic polymer network encapsulating or conjugating single biomolecules, or larger and more complex biological constructs like whole cells. By modulating at least one dimension of the hydrogel system at the micro- or nanoscale, the activity of the...

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Main Authors: Clelia Dispenza, Daniela Giacomazza, Mats Jonsson
Format: Article
Language:English
Published: MDPI AG 2021-12-01
Series:Biomolecules
Subjects:
Online Access:https://www.mdpi.com/2218-273X/11/1/47
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spelling doaj-28221d5327ad42bd81bdea960367a74a2021-01-01T00:04:00ZengMDPI AGBiomolecules2218-273X2021-12-0111474710.3390/biom11010047Micro- to Nanoscale Bio-Hybrid Hydrogels Engineered by Ionizing RadiationClelia Dispenza0Daniela Giacomazza1Mats Jonsson2Dipartimento di Ingegneria, Università degli Studi di Palermo, Viale delle Scienze 6, 90128 Palermo, ItalyIstituto di BioFisica, Consiglio Nazionale delle Ricerche, Via U. La Malfa 153, 90146 Palermo, ItalyDepartment of Chemistry, School of Engineering Sciences in Chemistry, Biotechnology and Health, KTH Royal Institute of Technology, SE-100 44 Stockholm, SwedenBio-hybrid hydrogels consist of a water-swollen hydrophilic polymer network encapsulating or conjugating single biomolecules, or larger and more complex biological constructs like whole cells. By modulating at least one dimension of the hydrogel system at the micro- or nanoscale, the activity of the biological component can be extremely upgraded with clear advantages for the development of therapeutic or diagnostic micro- and nano-devices. Gamma or e-beam irradiation of polymers allow a good control of the chemistry at the micro-/nanoscale with minimal recourse to toxic reactants and solvents. Another potential advantage is to obtain simultaneous sterilization when the absorbed doses are within the sterilization dose range. This short review will highlight opportunities and challenges of the radiation technologies to produce bio-hybrid nanogels as delivery devices of therapeutic biomolecules to the target cells, tissues, and organs, and to create hydrogel patterns at the nano-length and micro-length scales on surfaces.https://www.mdpi.com/2218-273X/11/1/47radiation chemistrymicro-/nano-gel patternsnanogelsbio-hybrid hydrogelsdrug deliverytissue engineering
collection DOAJ
language English
format Article
sources DOAJ
author Clelia Dispenza
Daniela Giacomazza
Mats Jonsson
spellingShingle Clelia Dispenza
Daniela Giacomazza
Mats Jonsson
Micro- to Nanoscale Bio-Hybrid Hydrogels Engineered by Ionizing Radiation
Biomolecules
radiation chemistry
micro-/nano-gel patterns
nanogels
bio-hybrid hydrogels
drug delivery
tissue engineering
author_facet Clelia Dispenza
Daniela Giacomazza
Mats Jonsson
author_sort Clelia Dispenza
title Micro- to Nanoscale Bio-Hybrid Hydrogels Engineered by Ionizing Radiation
title_short Micro- to Nanoscale Bio-Hybrid Hydrogels Engineered by Ionizing Radiation
title_full Micro- to Nanoscale Bio-Hybrid Hydrogels Engineered by Ionizing Radiation
title_fullStr Micro- to Nanoscale Bio-Hybrid Hydrogels Engineered by Ionizing Radiation
title_full_unstemmed Micro- to Nanoscale Bio-Hybrid Hydrogels Engineered by Ionizing Radiation
title_sort micro- to nanoscale bio-hybrid hydrogels engineered by ionizing radiation
publisher MDPI AG
series Biomolecules
issn 2218-273X
publishDate 2021-12-01
description Bio-hybrid hydrogels consist of a water-swollen hydrophilic polymer network encapsulating or conjugating single biomolecules, or larger and more complex biological constructs like whole cells. By modulating at least one dimension of the hydrogel system at the micro- or nanoscale, the activity of the biological component can be extremely upgraded with clear advantages for the development of therapeutic or diagnostic micro- and nano-devices. Gamma or e-beam irradiation of polymers allow a good control of the chemistry at the micro-/nanoscale with minimal recourse to toxic reactants and solvents. Another potential advantage is to obtain simultaneous sterilization when the absorbed doses are within the sterilization dose range. This short review will highlight opportunities and challenges of the radiation technologies to produce bio-hybrid nanogels as delivery devices of therapeutic biomolecules to the target cells, tissues, and organs, and to create hydrogel patterns at the nano-length and micro-length scales on surfaces.
topic radiation chemistry
micro-/nano-gel patterns
nanogels
bio-hybrid hydrogels
drug delivery
tissue engineering
url https://www.mdpi.com/2218-273X/11/1/47
work_keys_str_mv AT cleliadispenza microtonanoscalebiohybridhydrogelsengineeredbyionizingradiation
AT danielagiacomazza microtonanoscalebiohybridhydrogelsengineeredbyionizingradiation
AT matsjonsson microtonanoscalebiohybridhydrogelsengineeredbyionizingradiation
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