Results 81 to 90 of about 436,421 (289)

Engineering the Hierarchical Porosity of Granular Hydrogel Scaffolds Using Porous Microgels to Improve Cell Recruitment and Tissue Integration

Advanced Functional Materials, Volume 35, Issue 12, March 18, 2025.
By fabricating and covalently assembling gelatin methacryloyl (GelMA) porous microgels, a new class of granular hydrogel scaffolds with hierarchical porosity is developed. These scaffolds have a significantly higher void fraction than their counterparts made up of nonporous microgels, enhancing cell recruitment and tissue integration. This research may
Alexander Kedzierski, Sina Kheirabadi, Arian Jaberi, Zaman Ataie, Catherine L. Mojazza, Marisa L. Williamson, Anton M. Hjaltason, Aneesh Risbud, Yuanhui Xiang, Amir Sheikhi   +9 more
wiley   +1 more source

Increased neointimal thickening in dystrophin-deficient mdx mice.

PLoS ONE, 2012
BackgroundThe dystrophin gene, which is mutated in Duchenne muscular dystrophy (DMD), encodes a large cytoskeletal protein present in muscle fibers. While dystrophin in skeletal muscle has been extensively studied, the function of dystrophin in vascular ...
Uwe Rauch, Annelie Shami, Feng Zhang, Virginie Carmignac, Madeleine Durbeej, Anna Hultgårdh-Nilsson   +5 more
doaj   +1 more source

Cyclosporin A inhibits PGE2 release from vascular smooth muscle cells [PDF]

, 1987
The influence of the fungoid undecapeptide cyclosporin A (CyA) on PGE2 release from cultured rat aortic smooth muscle cells was investigated in this study.
Koch, K. M., Kurtz, Armin, Kühn, K., Pfeilschifter, J.   +3 more
core   +1 more source

The Emerging 4D Printing of Shape‐Memory Thermomorphs for Self‐Adaptative Biomedical Implants

Advanced Functional Materials, EarlyView.
4D printing enables the creation of smart implants that adapt to changing conditions in the human body over time. At the core of this technology are shape‐memory thermomorphs (SMTMs). This review offers an in‐depth analysis of 4D printing with SMTMs, emphasizing the latest advancements in smart materials, stimuli, programming principles, and their ...
Aixiang Ding, Fang Tang, Eben Alsberg
wiley   +1 more source

EDHF: An update [PDF]

, 2009
The endothelium controls vascular tone not only by releasing NO and prostacyclin, but also by other pathways causing hyperpolarization of the underlying smooth muscle cells.
Félétou, M, VanHoutte, PM
core   +1 more source

Biologically‐Inspired Melt Electrowriting for the Generation of Highly Biomimetic Functional Myocardium

Advanced Functional Materials, EarlyView.
In this work, melt electrowriting is used to fabricate a 3D printed scaffold design that generates engineered cardiac tissues with in‐plane contraction, mimicking natural myocardium. It is shown that these tissues display advanced maturation and functionality.
Olalla Iglesias‐García, María Flandes‐Iparraguirre, Pilar Montero‐Calle, Ricardo M. Rosales, Asier Ullate‐Agote, Andrea Sánchez‐Bueno, Eduardo Larequi, Ilazki Anaut‐Lusar, Nicolás Laita, Aida Oliván‐Viguera, Elena Iglesias, Gloria Abizanda, Patxi San Martín‐Úriz, Paula Aguirre‐Ruiz, Xabier L. Aranguren, Manuel García de Yébenes, Juan José Gavira, Miguel Ángel Martínez, Estefanía Peña, Manuel Doblaré, Elena M. de‐Juan‐Pardo, Esther Pueyo, Felipe Prosper, Manuel M. Mazo Vega   +23 more
wiley   +1 more source

Gasdermin D affects aortic vascular smooth muscle cell pyroptosis and Ang II-induced vascular remodeling

Heliyon, 2023
Vascular smooth muscle cells (VSMCs) are primarily responsible for vasoconstriction and the regulation of blood pressure1. Pyroptosis, a particular form of regulated cell death, is involved in multiple vascular injuries, including hypertensive vascular ...
Zimin Fang, Gaojun Wu, Jian Sheng, Bozhi Ye, Zhouqing Huang, Jianjiang Xu, Jianqin Zhang, Jibo Han, Bingjiang Han, Jiajun Xu   +9 more
doaj  

Endothelial dysfunction and vascular disease [PDF]

, 2009
The endothelium can evoke relaxations (dilatations) of the underlying vascular smooth muscle, by releasing vasodilator substances. The best characterized endothelium-derived relaxing factor (EDRF) is nitric oxide (NO).
Abeywardena, Aikawa, Ajayi, Alexopoulos, Alp, Anselm, Ardigo, Arehart, Argacha, Asano, Aubin, Aubin, Auch-Schwelk, Auch-Schwelk, Auch-Schwelk, Auch-Schwelk, August, Bachschmid, Barton, Basu, Bauersachs, Bechara, Behrendt, Belhassen, Bellamy, Bellien, Benndorf, Blanco-Rivero, Boban, Bode-Böger, Borg-Capra, Bos, Boulanger, Boulanger, Bouvet, Brandes, Briet, Bucala, Budhiraja, Bulckaen, Busse, Busse, Buzzard, Böger, Böger, Böhm, Cai, Camacho, Celermajer, Cernadas, Challah, Chambers, Chan, Chan, Chan, Charpie, Chauhan, Chen, Cheng, Chou, Chu, Cohen, Cohen, Coimbra, Cooke, Cosentino, Cosentino, Cox, Csiszar, Csiszar, Csiszar, Dantas, Dantas, Das, Davidge, Davidge, Davies, Davis, De Mey, De Mey, De Mey, De Vriese, DeLano, Dell’Agli, Derkach, Dhein, Dickson, Dimmeler, Dudzinski, Duffy, Duncan, Engler, Eringa, Eto, Feron, Ferreiro, Fichtlscherer, Filipe, Filser, Fisher, Fisslthaler, Flammer, Flavahan, Flavahan, Fleming, Fleming, Focardi, Fournet-Bourguignon, Frank, Fresquet, Furchgott, Furchgott, Furchgott, Furuhashi, Furuhashi, Félétou, Félétou, Félétou, Félétou, Félétou, Förstermann, Gamboa, Ganz, Gao, Garcia-Cohen, Ge, Ge, Gertz, Gill, Gisclard, Gluais, Gluais, Gluais, Goel, Gollasch, Graier, Grassi, Grisk, Gryglewski, Guns, Guzik, Halcox, Hambrecht, Han, Hanratty, Hansson, Hashikabe, Hattori, Heeba, Heiss, Herrmann, Heymes, Hibbert, Hirao, Hodgson, Holowatz, Hongo, Hoo, Houston, Houston, Hristovska, Husain, Hutri-Kahonen, Iellamo, Ignarro, Ignarro, Ignarro, Ijzerman, Ikeda, Indik, Inkster, Inoue, Iqbal, Ito, Iwama, Iwatani, Jankowski, Kagota, Kaiser, Kajiya, Kanani, Karagiannis, Kato, Katusic, Katusic, Katusic, Katusic, Katusic, Katz, Kaul, Kauser, Kennedy, Keung, Kim, Kim, Kirkby, Klöß, Knight, Koga, Koga, Kojda, Kubo, Kung, Kuriyama, Kuvin, Kähönen, Lamping, Landmesser, Landmesser, Landmesser, Lang, Lang, Lauer, Lavi, Lee, Lee, Lefèvre, Leikert, Lembo, Lesniewski, Leung, Levine, Levy, Li, Li, Li, Li, Li, Lida, Lin, Liu, Lockette, Looft-Wilson, Lopez-Sepulveda, Lu, Ludmer, Luz, Lyons, Lüscher, Lüscher, Lüscher, Lüscher, Lüscher, Lüscher, Lüscher, Lüscher, Lüscher, Macarthur, Machha, Machha, Maejima, Malo, Mancini, Marletta, Matoba, Matsumoto, Mayhan, Mayhan, Meyer, Michaud, Michel, Michel, Michel, Miller, Miller, Miller, Miller, Ming, Mitchell, Miyagawa, Moat, Mombouli, Mombouli, Mombouli, Mombouli, Moncada, Monobe, Monsalve, Montalcini, Morikawa, Moritoki, Motley, Mundy, Nagata, Nakamura, Nassar, Naya, Nietlispach, Nigris, Nigris, Nigris, Norel, Numaguchi, Obrosova, Okano, Okon, Ospina, O’Rourke, Pacher, Palm, Palmer, Palmer, Palmer, Palmer, Pannirselvam, Paulis, Pearson, Pellegrini, Perticone, Pierce, Quijano, Radomski, Rakobowchuk, Rapoport, Romero, Ross, Rossi, Roves, Rubanyi, Rubanyi, Rubanyi, Rubanyi, Rubanyi, Ryoo, Ryoo, Saifeddine, Santhanam, Santos, Sarr, Sartorio, Sata, Sbarouni, Schini, Schini, Schini, Schini-Kerth, Schroeter, Schäfer, Scott, Sekikawa, Sena, Shepherd, Shi, Shi, Shi, Shi, Shi, Shimokawa, Shimokawa, Shimokawa, Shimokawa, Shimokawa, Shimokawa, Shimokawa, Shimokawa, Shimokawa, Shimokawa, Shimokawa, Shirahase, Silva, Skott, Smith, Soares de Moura, Sousa, Spier, Spooner, Steinberg, Stepp, Stocker, Stocker, Stockley, Stuehr, Stähli, Subramanian, Sun, Suvorava, Suwaidi, Taddei, Taddei, Taddei, Taddei, Taddei, Taddei, Taddei, Tan, Tang, Tang, Tang, Tang, Tang, Tang, Taubert, Tesfamariam, Tesfamariam, Tesfamariam, Tesfamariam, Tostes, Touyz, Touyz, Traupe, Traupe, Treasure, Trochu, Tschudi, Tschudi, Uhrenholt, Uhrenholt, Ungvari, Vallance, Vallejo, Van Guilder, Van Guilder, Vanhoutte, Vanhoutte, Vanhoutte, Vanhoutte, Vanhoutte, Vanhoutte, Vanhoutte, Vanhoutte, Vanhoutte, Vanhoutte, Vanhoutte, Vanhoutte, Vanhoutte, Vanhoutte, Vanhoutte, Voetsch, von Schacky, Wallerath, Wang, Wang, Wassmann, Watts, Widder, Wilson, Wong, Wong, Xiang, Xiong, Xu, Xu, Yan, Yanagisawa, Yanagisawa, Yang, Yang, Yasuro, Yin, Zampetaki, Zerrouk, Zhang, Zhao, Zhong, Zhou, Zhou, Zhu, Zou, Zou, Álvarez, Álvarez   +460 more
core   +1 more source

3D (Bio) Printing Combined Fiber Fabrication Methods for Tissue Engineering Applications: Possibilities and Limitations

Advanced Functional Materials, EarlyView.
Biofabrication aims at providing innovative technologies and tools for the fabrication of tissue‐like constructs for tissue engineering and regenerative medicine applications. By integrating multiple biofabrication technologies, such as 3D (bio) printing with fiber fabrication methods, it would be more realistic to reconstruct native tissue's ...
Waseem Kitana, Indra Apsite, Leonid Ionov   +2 more
wiley   +1 more source

Dual control of vascular tone and remodelling by ATP released from nerves and endothelial cells [PDF]

, 2008
Purinergic signalling is important both in short-term control of vascular tone and in longer-term control of cell proliferation, migration and death involved in vascular remodelling.
Burnstock, G
core