Gelatin-based porous silicon hydrogel composites for the controlled release of tramadol

[Display omitted] •Porous silicon microparticles improve hydrogel swelling capabilities.•Drug dosage can be controlled by the amount ofmicroparticles and crosslinking nature.•Drug release mechanism of porous silicon-based gelatin hydrogels follows an anomalous behavior.•Porous silicon particles incr...

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Veröffentlicht in:European polymer journal 2018-11, Vol.108, p.485-497
Hauptverfasser: Rocha-García, Denisse, Betancourt-Mendiola, M. de Lourdes, Wong-Arce, Alejandra, Rosales-Mendoza, Sergio, Reyes-Hernández, Jaime, González-Ortega, Omar, Palestino, Gabriela
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container_title European polymer journal
container_volume 108
creator Rocha-García, Denisse
Betancourt-Mendiola, M. de Lourdes
Wong-Arce, Alejandra
Rosales-Mendoza, Sergio
Reyes-Hernández, Jaime
González-Ortega, Omar
Palestino, Gabriela
description [Display omitted] •Porous silicon microparticles improve hydrogel swelling capabilities.•Drug dosage can be controlled by the amount ofmicroparticles and crosslinking nature.•Drug release mechanism of porous silicon-based gelatin hydrogels follows an anomalous behavior.•Porous silicon particles increase the elastic properties of gelatin hydrogel composites. In this work new gelatin-based porous silicon hydrogel composites were developed. Porous silicon microparticles (PSip) with average size of 3 µm and average pore dimensions of 50 nm were used as crosslinking agents. Thermally oxidized or aldehyde functionalized PSip were mixed with a gelatin biopolymer to obtain physically or chemically cross-linked hydrogel composites. The resulting hydrogel networks showed important property enhancements such as improved mechanical stiffness, higher hydrolytic stability, and swelling capability; attributed to the PSip capacity of producing multiple bonds within the hydrogel network. The gelatin composites were evaluated as drug delivery systems using tramadol (TR) as model drug. Kinetics studies showed a TR release up to 20 h for the physically produced composite and up to 30 h for the chemically produced when compared to the hydrogel controls (5 h). Cytotoxicity studies of oxidized and functionalized PSip demonstrated a cell viability above 85%, which supports the use of gelatin-based PSip composites for drug release by topic or oral routes.
doi_str_mv 10.1016/j.eurpolymj.2018.09.033
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source Elsevier ScienceDirect Journals Complete
subjects Biopolymers
Composite
Composite materials
Controlled release
Crosslinking
Drug delivery systems
Drug release
Gelatin
Hydrogel
Hydrogels
Microparticles
Organic chemistry
Porous materials
Porous silicon
Silicon
Stiffness
Toxicity
Tramadol
title Gelatin-based porous silicon hydrogel composites for the controlled release of tramadol
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