Radiation Engineering of Xyloglucan Hydrogels

Xyloglucans (XGs) are interesting substrates for the production of scaffolds for tissue engineering, drug delivery depots and hydrogel dressings, thanks to their ability to gel in appropriate conditions, such as in the presence of hydro-alcoholic solvents or by addition of sugar molecules. Due to th...

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Main Authors: S. Todaro, M.A. Sabatino, A. Ajovalasit, L.A. Ditta, D. Castiglia, R. Wach, P. Ulanski, D. Bulone, C. Dispenza
Format: Article
Language:English
Published: AIDIC Servizi S.r.l. 2016-05-01
Series:Chemical Engineering Transactions
Online Access:https://www.cetjournal.it/index.php/cet/article/view/3101
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spelling doaj-7b411dfa649d4846a037c4f06ef7570c2021-02-19T21:11:03ZengAIDIC Servizi S.r.l.Chemical Engineering Transactions2283-92162016-05-014910.3303/CET1649049Radiation Engineering of Xyloglucan HydrogelsS. TodaroM.A. SabatinoA. AjovalasitL.A. DittaD. CastigliaR. WachP. UlanskiD. BuloneC. DispenzaXyloglucans (XGs) are interesting substrates for the production of scaffolds for tissue engineering, drug delivery depots and hydrogel dressings, thanks to their ability to gel in appropriate conditions, such as in the presence of hydro-alcoholic solvents or by addition of sugar molecules. Due to their natural source, they are characterized by high average molecular weights and broad molecular weight distributions. High energy irradiation is a suitable tool to reduce polysaccharides molecular weight without a dramatic alteration of the polymer chemical structure and gelation ability. In this work, the effect of the radiation dose on the molecular weight of a XG derived from Tamarind seeds is investigated. The rheological properties of the gels obtained by adding ethanol to the polymer water solutions are also described. The effects of alcohol content, storage time and irradiation dose on gel strength are discussed.https://www.cetjournal.it/index.php/cet/article/view/3101
collection DOAJ
language English
format Article
sources DOAJ
author S. Todaro
M.A. Sabatino
A. Ajovalasit
L.A. Ditta
D. Castiglia
R. Wach
P. Ulanski
D. Bulone
C. Dispenza
spellingShingle S. Todaro
M.A. Sabatino
A. Ajovalasit
L.A. Ditta
D. Castiglia
R. Wach
P. Ulanski
D. Bulone
C. Dispenza
Radiation Engineering of Xyloglucan Hydrogels
Chemical Engineering Transactions
author_facet S. Todaro
M.A. Sabatino
A. Ajovalasit
L.A. Ditta
D. Castiglia
R. Wach
P. Ulanski
D. Bulone
C. Dispenza
author_sort S. Todaro
title Radiation Engineering of Xyloglucan Hydrogels
title_short Radiation Engineering of Xyloglucan Hydrogels
title_full Radiation Engineering of Xyloglucan Hydrogels
title_fullStr Radiation Engineering of Xyloglucan Hydrogels
title_full_unstemmed Radiation Engineering of Xyloglucan Hydrogels
title_sort radiation engineering of xyloglucan hydrogels
publisher AIDIC Servizi S.r.l.
series Chemical Engineering Transactions
issn 2283-9216
publishDate 2016-05-01
description Xyloglucans (XGs) are interesting substrates for the production of scaffolds for tissue engineering, drug delivery depots and hydrogel dressings, thanks to their ability to gel in appropriate conditions, such as in the presence of hydro-alcoholic solvents or by addition of sugar molecules. Due to their natural source, they are characterized by high average molecular weights and broad molecular weight distributions. High energy irradiation is a suitable tool to reduce polysaccharides molecular weight without a dramatic alteration of the polymer chemical structure and gelation ability. In this work, the effect of the radiation dose on the molecular weight of a XG derived from Tamarind seeds is investigated. The rheological properties of the gels obtained by adding ethanol to the polymer water solutions are also described. The effects of alcohol content, storage time and irradiation dose on gel strength are discussed.
url https://www.cetjournal.it/index.php/cet/article/view/3101
work_keys_str_mv AT stodaro radiationengineeringofxyloglucanhydrogels
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AT dcastiglia radiationengineeringofxyloglucanhydrogels
AT rwach radiationengineeringofxyloglucanhydrogels
AT pulanski radiationengineeringofxyloglucanhydrogels
AT dbulone radiationengineeringofxyloglucanhydrogels
AT cdispenza radiationengineeringofxyloglucanhydrogels
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