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Growth factor-free, peptide-functionalized gelatin hydrogel promotes arteriogenesis and attenuates tissue damage in a murine model of critical limb ischemia

Critical limb ischemia (CLI) occurs when blood flow is restricted through the arteries, resulting in ulcers, necrosis, and chronic wounds in the downstream extremities. The development of collateral arterioles (i.e. arteriogenesis), either by remodeling of pre-existing vascular networks or de novo g...

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Autores principales: Curry, Corinne W., Sturgeon, Sarah M., O’Grady, Brian J., Yates, Alexis K., Kjar, Andrew, Paige, Hayden A., Mowery, Lucas S., Katdare, Ketaki A., Patel, Riya V., Mlouk, Kate, Stiefbold, Madison R., Vafaie-Partin, Sidney, Kawabata, Atsuyuki, McKee, Rachel M., Moore-Lotridge, Stephanie, Hawkes, Adrienne, Kusunose, Jiro, Gibson-Corley, Katherine N., Schmeckpeper, Jeffrey, Schoenecker, Jonathan G., Caskey, Charles F., Lippmann, Ethan S.
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Cold Spring Harbor Laboratory 2023
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10245920/
https://www.ncbi.nlm.nih.gov/pubmed/37292898
http://dx.doi.org/10.1101/2023.05.24.542150
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author Curry, Corinne W.
Sturgeon, Sarah M.
O’Grady, Brian J.
Yates, Alexis K.
Kjar, Andrew
Paige, Hayden A.
Mowery, Lucas S.
Katdare, Ketaki A.
Patel, Riya V.
Mlouk, Kate
Stiefbold, Madison R.
Vafaie-Partin, Sidney
Kawabata, Atsuyuki
McKee, Rachel M.
Moore-Lotridge, Stephanie
Hawkes, Adrienne
Kusunose, Jiro
Gibson-Corley, Katherine N.
Schmeckpeper, Jeffrey
Schoenecker, Jonathan G.
Caskey, Charles F.
Lippmann, Ethan S.
author_facet Curry, Corinne W.
Sturgeon, Sarah M.
O’Grady, Brian J.
Yates, Alexis K.
Kjar, Andrew
Paige, Hayden A.
Mowery, Lucas S.
Katdare, Ketaki A.
Patel, Riya V.
Mlouk, Kate
Stiefbold, Madison R.
Vafaie-Partin, Sidney
Kawabata, Atsuyuki
McKee, Rachel M.
Moore-Lotridge, Stephanie
Hawkes, Adrienne
Kusunose, Jiro
Gibson-Corley, Katherine N.
Schmeckpeper, Jeffrey
Schoenecker, Jonathan G.
Caskey, Charles F.
Lippmann, Ethan S.
author_sort Curry, Corinne W.
collection PubMed
description Critical limb ischemia (CLI) occurs when blood flow is restricted through the arteries, resulting in ulcers, necrosis, and chronic wounds in the downstream extremities. The development of collateral arterioles (i.e. arteriogenesis), either by remodeling of pre-existing vascular networks or de novo growth of new vessels, can prevent or reverse ischemic damage, but it remains challenging to stimulate collateral arteriole development in a therapeutic context. Here, we show that a gelatin-based hydrogel, devoid of growth factors or encapsulated cells, promotes arteriogenesis and attenuates tissue damage in a murine CLI model. The gelatin hydrogel is functionalized with a peptide derived from the extracellular epitope of Type 1 cadherins. Mechanistically, these “GelCad” hydrogels promote arteriogenesis by recruiting smooth muscle cells to vessel structures in both ex vivo and in vivo assays. In a murine femoral artery ligation model of CLI, delivery of in situ crosslinking GelCad hydrogels was sufficient to restore limb perfusion and maintain tissue health for 14 days, whereas mice treated with gelatin hydrogels had extensive necrosis and autoamputated within 7 days. A small cohort of mice receiving the GelCad hydrogels were aged out to 5 months and exhibited no decline in tissue quality, indicating durability of the collateral arteriole networks. Overall, given the simplicity and off-the-shelf format of the GelCad hydrogel platform, we suggest it could have utility for CLI treatment and potentially other indications that would benefit from arteriole development.
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spelling pubmed-102459202023-06-08 Growth factor-free, peptide-functionalized gelatin hydrogel promotes arteriogenesis and attenuates tissue damage in a murine model of critical limb ischemia Curry, Corinne W. Sturgeon, Sarah M. O’Grady, Brian J. Yates, Alexis K. Kjar, Andrew Paige, Hayden A. Mowery, Lucas S. Katdare, Ketaki A. Patel, Riya V. Mlouk, Kate Stiefbold, Madison R. Vafaie-Partin, Sidney Kawabata, Atsuyuki McKee, Rachel M. Moore-Lotridge, Stephanie Hawkes, Adrienne Kusunose, Jiro Gibson-Corley, Katherine N. Schmeckpeper, Jeffrey Schoenecker, Jonathan G. Caskey, Charles F. Lippmann, Ethan S. bioRxiv Article Critical limb ischemia (CLI) occurs when blood flow is restricted through the arteries, resulting in ulcers, necrosis, and chronic wounds in the downstream extremities. The development of collateral arterioles (i.e. arteriogenesis), either by remodeling of pre-existing vascular networks or de novo growth of new vessels, can prevent or reverse ischemic damage, but it remains challenging to stimulate collateral arteriole development in a therapeutic context. Here, we show that a gelatin-based hydrogel, devoid of growth factors or encapsulated cells, promotes arteriogenesis and attenuates tissue damage in a murine CLI model. The gelatin hydrogel is functionalized with a peptide derived from the extracellular epitope of Type 1 cadherins. Mechanistically, these “GelCad” hydrogels promote arteriogenesis by recruiting smooth muscle cells to vessel structures in both ex vivo and in vivo assays. In a murine femoral artery ligation model of CLI, delivery of in situ crosslinking GelCad hydrogels was sufficient to restore limb perfusion and maintain tissue health for 14 days, whereas mice treated with gelatin hydrogels had extensive necrosis and autoamputated within 7 days. A small cohort of mice receiving the GelCad hydrogels were aged out to 5 months and exhibited no decline in tissue quality, indicating durability of the collateral arteriole networks. Overall, given the simplicity and off-the-shelf format of the GelCad hydrogel platform, we suggest it could have utility for CLI treatment and potentially other indications that would benefit from arteriole development. Cold Spring Harbor Laboratory 2023-05-25 /pmc/articles/PMC10245920/ /pubmed/37292898 http://dx.doi.org/10.1101/2023.05.24.542150 Text en https://creativecommons.org/licenses/by-nc-nd/4.0/This work is licensed under a Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 International License (https://creativecommons.org/licenses/by-nc-nd/4.0/) , which allows reusers to copy and distribute the material in any medium or format in unadapted form only, for noncommercial purposes only, and only so long as attribution is given to the creator.
spellingShingle Article
Curry, Corinne W.
Sturgeon, Sarah M.
O’Grady, Brian J.
Yates, Alexis K.
Kjar, Andrew
Paige, Hayden A.
Mowery, Lucas S.
Katdare, Ketaki A.
Patel, Riya V.
Mlouk, Kate
Stiefbold, Madison R.
Vafaie-Partin, Sidney
Kawabata, Atsuyuki
McKee, Rachel M.
Moore-Lotridge, Stephanie
Hawkes, Adrienne
Kusunose, Jiro
Gibson-Corley, Katherine N.
Schmeckpeper, Jeffrey
Schoenecker, Jonathan G.
Caskey, Charles F.
Lippmann, Ethan S.
Growth factor-free, peptide-functionalized gelatin hydrogel promotes arteriogenesis and attenuates tissue damage in a murine model of critical limb ischemia
title Growth factor-free, peptide-functionalized gelatin hydrogel promotes arteriogenesis and attenuates tissue damage in a murine model of critical limb ischemia
title_full Growth factor-free, peptide-functionalized gelatin hydrogel promotes arteriogenesis and attenuates tissue damage in a murine model of critical limb ischemia
title_fullStr Growth factor-free, peptide-functionalized gelatin hydrogel promotes arteriogenesis and attenuates tissue damage in a murine model of critical limb ischemia
title_full_unstemmed Growth factor-free, peptide-functionalized gelatin hydrogel promotes arteriogenesis and attenuates tissue damage in a murine model of critical limb ischemia
title_short Growth factor-free, peptide-functionalized gelatin hydrogel promotes arteriogenesis and attenuates tissue damage in a murine model of critical limb ischemia
title_sort growth factor-free, peptide-functionalized gelatin hydrogel promotes arteriogenesis and attenuates tissue damage in a murine model of critical limb ischemia
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10245920/
https://www.ncbi.nlm.nih.gov/pubmed/37292898
http://dx.doi.org/10.1101/2023.05.24.542150
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