Oxygenation and Temperature Conditioning Alter the Vascular Morphology of Microvascular Constructs

Revascularization remains a challenge for regenerative medicine strategies. Extensive research has been done to identify key moments of the dynamic wound healing cascade where targeted therapies can elicit a proregenerative response. However, the influence of oxygenation, temperature, and their temporal variation during healing are often challenging to promote tissue regeneration. This study investigated the effects of temporally varied oxygenation and temperature conditions on angiogenesis using an <i>in vitro</i> model of rat-derived, intact microvascular fragments in a collagen type-I hydrogel. By generating culture conditions that are similar to the accepted wound healing time course, the angiogenic response depended critically on both the timing of stimulus initiation and the magnitude of deviation from model conditions. Dynamic stimuli activated distinct biological pathways, as evidenced by qPCR analysis, revealing mechanistic links between environmental perturbations and the angiogenic response. This work emphasizes the need for regenerative medicine strategies to consider varying environmental stimuli to improve revascularization outcomes.

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Journal
Tissue Engineering Part A
Published
2025-10-08
DOI
https://doi.org/10.1177/19373341251364552
Primary Topic
Angiogenesis and VEGF in Cancer
Type
article
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article

Oxygenation and Temperature Conditioning Alter the Vascular Morphology of Microvascular Constructs

Genevieve E. Romanowicz, Adam Rauff, Kelly Leguineche, A. Bürger et al.
Tissue Engineering Part A
Angiogenesis and VEGF in Cancer
article

Oxygenation and Temperature Conditioning Alter the Vascular Morphology of Microvascular Constructs

Genevieve E. Romanowicz, Adam Rauff, Kelly Leguineche, A. Bürger, Angela Lin, Robert E. Guldberg, Keith Jones, Ethan Dinh, Samuel R. Nightheart
article en

Abstract

Revascularization remains a challenge for regenerative medicine strategies. Extensive research has been done to identify key moments of the dynamic wound healing cascade where targeted therapies can elicit a proregenerative response. However, the influence of oxygenation, temperature, and their temporal variation during healing are often challenging to promote tissue regeneration. This study investigated the effects of temporally varied oxygenation and temperature conditions on angiogenesis using an <i>in vitro</i> model of rat-derived, intact microvascular fragments in a collagen type-I hydrogel. By generating culture conditions that are similar to the accepted wound healing time course, the angiogenic response depended critically on both the timing of stimulus initiation and the magnitude of deviation from model conditions. Dynamic stimuli activated distinct biological pathways, as evidenced by qPCR analysis, revealing mechanistic links between environmental perturbations and the angiogenic response. This work emphasizes the need for regenerative medicine strategies to consider varying environmental stimuli to improve revascularization outcomes.

Tissue Engineering Part AVol. 32(3-4)
University of Oregon (US), Oregon Center For Applied Science (United States) (US)
Openalex Percentile: Top 79%
Angiogenesis and VEGF in Cancer
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Oxygenation and Temperature Conditioning Alter the Vascular Morphology of Microvascular Constructs — Genevieve E. Romanowicz, Adam Rauff, et al. · Tissue Engineering Part A (2025) | TGRS Research Map | TGRS