Externally triggered release of growth factors - A tissue regeneration approach

Tissue regeneration aims to achieve functional restoration following injury by creating an environment to enable the body to self-repair. Strategies for regeneration rely on the introduction of biomaterial scaffolding, cells and bioactive molecules into the body, at or near the injury site. Of these...

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Veröffentlicht in:Journal of controlled release 2021-04, Vol.332, p.74-95
Hauptverfasser: Cheah, Ernest, Wu, Zimei, Thakur, Sachin S., O'Carroll, Simon J., Svirskis, Darren
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container_end_page 95
container_issue
container_start_page 74
container_title Journal of controlled release
container_volume 332
creator Cheah, Ernest
Wu, Zimei
Thakur, Sachin S.
O'Carroll, Simon J.
Svirskis, Darren
description Tissue regeneration aims to achieve functional restoration following injury by creating an environment to enable the body to self-repair. Strategies for regeneration rely on the introduction of biomaterial scaffolding, cells and bioactive molecules into the body, at or near the injury site. Of these bioactive molecules, growth factors (GFs) play a pivotal role in directing regenerative pathways for many cell populations. However, the therapeutic use of GFs has been limited by the complexity of biological injury and repair, and the properties of the GFs themselves, including their short half-life, poor tissue penetration, and off-target side effects. Externally triggered delivery systems have the potential to facilitate the delivery of GFs into the target tissues with considerations of the timing, sequence, amount, and location of GF presentation. This review briefly discusses the challenges facing the therapeutic use of GFs, then, we discuss approaches to externally trigger GF release from delivery systems categorised by stimulation type; ultrasound, temperature, light, magnetic fields and electric fields. Overall, while the use of GFs for tissue regeneration is still in its infancy, externally controlled GF delivery technologies have the potential to achieve robust and effective solutions to present GFs to injured tissues. Future technological developments must occur in conjunction with a comprehensive understanding of the biology at the injury site to ensure translation of promising technologies into real world benefit. [Display omitted] •Growth factors direct regenerative pathways in many tissues.•Limited current use of growth factors due to challenges presenting them to tissues.•Externally triggers can control growth factor presentation to tissues.•Ultrasound, temperature, light, magnetic and electric field stimuli are discussed.•The exciting potential for translation requires an understanding of injury biology.
doi_str_mv 10.1016/j.jconrel.2021.02.015
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Strategies for regeneration rely on the introduction of biomaterial scaffolding, cells and bioactive molecules into the body, at or near the injury site. Of these bioactive molecules, growth factors (GFs) play a pivotal role in directing regenerative pathways for many cell populations. However, the therapeutic use of GFs has been limited by the complexity of biological injury and repair, and the properties of the GFs themselves, including their short half-life, poor tissue penetration, and off-target side effects. Externally triggered delivery systems have the potential to facilitate the delivery of GFs into the target tissues with considerations of the timing, sequence, amount, and location of GF presentation. This review briefly discusses the challenges facing the therapeutic use of GFs, then, we discuss approaches to externally trigger GF release from delivery systems categorised by stimulation type; ultrasound, temperature, light, magnetic fields and electric fields. Overall, while the use of GFs for tissue regeneration is still in its infancy, externally controlled GF delivery technologies have the potential to achieve robust and effective solutions to present GFs to injured tissues. Future technological developments must occur in conjunction with a comprehensive understanding of the biology at the injury site to ensure translation of promising technologies into real world benefit. [Display omitted] •Growth factors direct regenerative pathways in many tissues.•Limited current use of growth factors due to challenges presenting them to tissues.•Externally triggers can control growth factor presentation to tissues.•Ultrasound, temperature, light, magnetic and electric field stimuli are discussed.•The exciting potential for translation requires an understanding of injury biology.</description><identifier>ISSN: 0168-3659</identifier><identifier>EISSN: 1873-4995</identifier><identifier>DOI: 10.1016/j.jconrel.2021.02.015</identifier><identifier>PMID: 33600882</identifier><language>eng</language><publisher>Netherlands: Elsevier B.V</publisher><subject>Chronopharmaceutics ; Protein delivery ; Pulsatile ; Smart materials ; Spatiotemporal control ; Trophic factors</subject><ispartof>Journal of controlled release, 2021-04, Vol.332, p.74-95</ispartof><rights>2021 Elsevier B.V.</rights><rights>Copyright © 2021 Elsevier B.V. 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subjects Chronopharmaceutics
Protein delivery
Pulsatile
Smart materials
Spatiotemporal control
Trophic factors
title Externally triggered release of growth factors - A tissue regeneration approach
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