Biomaterial Enhanced Regeneration Design Research for Skin and Load Bearing Applications

Biomaterial enhanced regeneration (BER) falls mostly under the broad heading of Tissue Engineering: the use of materials (synthetic and natural) usually in conjunction with cells (both native and genetically modified as well as stem cells) and/or biological response modifiers (growth factors and cyt...

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Main Author: Dale S. Feldman
Format: Article
Language:English
Published: MDPI AG 2019-01-01
Series:Journal of Functional Biomaterials
Subjects:
Online Access:https://www.mdpi.com/2079-4983/10/1/10
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spelling doaj-98c6a2f748ae4abcae7e4290265f63f52020-11-24T21:58:28ZengMDPI AGJournal of Functional Biomaterials2079-49832019-01-011011010.3390/jfb10010010jfb10010010Biomaterial Enhanced Regeneration Design Research for Skin and Load Bearing ApplicationsDale S. Feldman0UAB, Department of Biomedical Engineering, University of Alabama at Birmingham, Birmingham 35294, AL, USABiomaterial enhanced regeneration (BER) falls mostly under the broad heading of Tissue Engineering: the use of materials (synthetic and natural) usually in conjunction with cells (both native and genetically modified as well as stem cells) and/or biological response modifiers (growth factors and cytokines as well as other stimuli, which alter cellular activity). Although the emphasis is on the biomaterial as a scaffold it is also the use of additive bioactivity to enhance the healing and regenerative properties of the scaffold. Enhancing regeneration is both moving more toward regeneration but also speeding up the process. The review covers principles of design for BER as well as strategies to select the best designs. This is first general design principles, followed by types of design options, and then specific strategies for applications in skin and load bearing applications. The last section, surveys current clinical practice (for skin and load bearing applications) including limitations of these approaches. This is followed by future directions with an attempt to prioritize strategies. Although the review is geared toward design optimization, prioritization also includes the commercializability of the devices. This means a device must meet both the clinical performance design constraints as well as the commercializability design constraints.https://www.mdpi.com/2079-4983/10/1/10Biomaterial enhanced regenerationskin regenerationfracture fixationdegradable/regenerative scaffolds
collection DOAJ
language English
format Article
sources DOAJ
author Dale S. Feldman
spellingShingle Dale S. Feldman
Biomaterial Enhanced Regeneration Design Research for Skin and Load Bearing Applications
Journal of Functional Biomaterials
Biomaterial enhanced regeneration
skin regeneration
fracture fixation
degradable/regenerative scaffolds
author_facet Dale S. Feldman
author_sort Dale S. Feldman
title Biomaterial Enhanced Regeneration Design Research for Skin and Load Bearing Applications
title_short Biomaterial Enhanced Regeneration Design Research for Skin and Load Bearing Applications
title_full Biomaterial Enhanced Regeneration Design Research for Skin and Load Bearing Applications
title_fullStr Biomaterial Enhanced Regeneration Design Research for Skin and Load Bearing Applications
title_full_unstemmed Biomaterial Enhanced Regeneration Design Research for Skin and Load Bearing Applications
title_sort biomaterial enhanced regeneration design research for skin and load bearing applications
publisher MDPI AG
series Journal of Functional Biomaterials
issn 2079-4983
publishDate 2019-01-01
description Biomaterial enhanced regeneration (BER) falls mostly under the broad heading of Tissue Engineering: the use of materials (synthetic and natural) usually in conjunction with cells (both native and genetically modified as well as stem cells) and/or biological response modifiers (growth factors and cytokines as well as other stimuli, which alter cellular activity). Although the emphasis is on the biomaterial as a scaffold it is also the use of additive bioactivity to enhance the healing and regenerative properties of the scaffold. Enhancing regeneration is both moving more toward regeneration but also speeding up the process. The review covers principles of design for BER as well as strategies to select the best designs. This is first general design principles, followed by types of design options, and then specific strategies for applications in skin and load bearing applications. The last section, surveys current clinical practice (for skin and load bearing applications) including limitations of these approaches. This is followed by future directions with an attempt to prioritize strategies. Although the review is geared toward design optimization, prioritization also includes the commercializability of the devices. This means a device must meet both the clinical performance design constraints as well as the commercializability design constraints.
topic Biomaterial enhanced regeneration
skin regeneration
fracture fixation
degradable/regenerative scaffolds
url https://www.mdpi.com/2079-4983/10/1/10
work_keys_str_mv AT dalesfeldman biomaterialenhancedregenerationdesignresearchforskinandloadbearingapplications
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