Results 41 to 50 of about 10,544 (217)

Tissue engineering by decellularization and 3D bioprinting [PDF]

, 2017
Discarded human donor organs have been shown to provide decellularized extracellular matrix (dECM) scaffolds suitable for organ engineering. The quest for appropriate cell sources to satisfy the need of multiple cells types in order to fully repopulate ...
Campistol Plana, Josep M., Fernández Avilés, F., Garreta, Elena, Montserrat, Núria, Oria, Roger, Pla Roca, Mateu, Prado, Patricia, Samitier i Martí, Josep, Tarantino, Carolina   +8 more
core   +1 more source

High‐Resolution and Real‐Time In Situ Generation of Cellular Spheroids by Laser‐Assisted Bioprinting for Guided Microvascularization

Advanced Functional Materials, EarlyView.
Micro‐injection laser‐assisted bioprinting enables ultrafast and precise patterning of small endothelial cell spheroids by injecting a highly concentrated single‐cell suspension into GelMA/ColMA hydrogels. In co‐culture with fibroblasts, controlled pre‐vasculogenic network formation is obtained at microscale resolution.
Charles Handschin, Katharina Wulz, Clotilde Jugie, Marie‐Laure Stachowicz, Shane Fennell, Aurélien Mazet, Malou Lea, Nathalie Dusserre, Jean‐Christophe Fricain, Hugo Oliveira   +9 more
wiley   +1 more source

3D bioactive composite scaffolds for bone tissue engineering [PDF]

, 2017
Bone is the second most commonly transplanted tissue worldwide, with over four million operations using bone grafts or bone substitute materials annually to treat bone defects.
Aebi, Ahmed, Ahn, Aho, Aibe, Akmal, Alan, Albrektsson, Alge, Allen, Amaral, Amini, An, Anitha, Anthony, Aravamudhan, Arcos, Armstrong, Ashman, Babiker, Bacakova, Baino, Baldwin, Baraniak, Barnes, Barrere, Bartosh, Bassi, Bellis, Beutner, Bianco, Bidarra, Boccaccio, Bohner, Bohner, Bonfield, Bonjour, Bose, Bose, Bose, Bose, Boskey, Boskey, Breuls, Brydone, Byambaa, Calabrese, Calabrese, Cao, Cao, Cao, Chan, Chandaroy, Chang, Chang, Chen, Chen, Chen, Chen, Chen, Chen, Cheng, Cheng, Chesnutt, Chimene, Choi, Chou, Cipitria, Cohen, Collins, Colnot, Cooke, Cornelissen, Cornelius, Correia, Costa-Pinto, Costa-Pinto, Cui, Cui, Cui, Dahlan, Dai, Daly, Dehghani, Dessi, Dhivya, Di Biase, Dickson, DiMasi, Dimitriou, Ding, Ding, Ding, Do, Doi, Dong, Douglas, Dubbini, Ehlers, Eqtesadi, Evans, Evans, Fan, Faour, Fathi, Faulkner-Jones, Fedorovich, Fedorovich, Fellah, Feng, Feng, Fennema, Ferry, Fu, Furukawa, Gao, Gao, Garcia-Gareta, Gbureck, Geng, Gentile, Gleeson, Gloria, Goncalves, Gonçalves, Gou, Greenwald, Griffin, Grigolo, Guo, Gurkan, Guvendiren, Gyawali, Habibovic, Habraken, Haider, Han, Handschel, Harley, Harley, Hench, Hench, Hench, Hench, Hersel, Higgins, Hing, Hiraoka, Ho, Hollister, Hollister, Hollister, Hollister, Holmes, Hou, Houzhu, Howk, Hsu, Hu, Hua, Huang, Huang, Huang, Huang, Huang, Huang, Huiskes, Hulbert, Hunter, Hutmacher, Hutmacher, Hutmacher, Hwang, Ilharreborde, Illich, Intranuovo, Ishida, Ishii, Jakus, Jakus, Ji, Jiang, Jiang, Jiao, Jin, Jin, Jing, Johnson, Jones, Jones, Jones, Jose, Jose, Kahle, Kaigler, Kane, Kang, Kao, Kapferer, Karageorgiou, Karp, Kasoju, Kavya, Kedong, Kelly, Keriquel, Khanarian, Khattak, Khor, Kim, Kim, Kim, Kim, Kim, Kim, Kim, Kim, Ko, Koch, Kogan, Kokubo, Kolesky, Kruth, Kuboki, Kumar, Kuo, Kurien, Kurtz, Kweon, Lai, Lauren, Leblanc, Lee, Lee, Lee, Lee, Lee, Lee, Lee, LeGeros, Lei, Leong, Levengood, Li, Li, Li, Li, Li, Li, Li, Li, Liang, Liao, Liliang, Lippens, Liu, Liu, Lloyd, Loh, Lopes, Lopez-Heredia, Lou, Lowry, Luo, Lyons, Lyons, Ma, Maglione, Maitz, Malafaya, Mandal, Manferdini, Manke, Maquet, Marcacci, Marco, Markstedt, Marra, Mastrogiacomo, Matsuno, Matthews, Maurus, McMahon, McNamara, Meagher, Melchels, Meng, Michael, Middleton, Miguez-Pacheco, Miri, Mironov, Mironov, Mohseni, Mondrinos, Mooney, Morgan, Mountziaris, Mouthuy, Muller, Munarin, Murphy, Murphy, Muschler, Nair, Nie, Nie, O'Brien, O'Keefe, Oh, Oliveira, Orciani, Orlovskii, Ossipov, Ozbolat, Pan, Parenteau-Bareil, Park, Park, Park, Pasold, Patel, Pati, Patra, Patti, Paul, Peng, Pierschbacher, Polo-Corrales, Prabhakaran, Priya, Puppi, Radhakrishnan, Rahaman, Rajan Unnithan, Rakovsky, Ramaswamy, Ravi, Ren, Ren, Rezwan, Riccardo, Robey, Rodgers, Roohani-Esfahani, Roosa, Rosa, Rouahi, Salerno, Salgado, Saltarrelli, Samorezov, Sandino, Sarac, Saravanan, Sargeant, Saunders, Schantz, Shafiee, Sheikh, Shen, Shengxiang, Shi, Shie, Shikinami, Shin, Shu, Shuai, Shuai, Simon, Smith, Sofia, Solchaga, Spalazzi, Staiger, Stanton, Stolzing, Sui, Sun, Tabriz, Tallawi, Tampieri, Tan, Tan, Tanataweethum, Tarafder, Thadavirul, Thaller, Tharmalingam, Thein-Han, Thompson, Tian, Tian, Tierney, Ting, Tripathi, Tsimbouri, Tsuruga, Ulery, Vaccaro, Vaithilingam, Ventola, Verheyen, Verheyen, Vermeulen, Vila, Villa, Walthers, Wang, Wang, Wang, Wang, Wang, Wang, Wang, Webber, Wei, Wernike, Westhauser, Whang, Whang, White, Williams, Williams, Williams, Woo, Woodruff, Wu, Wu, Wu, Wu, Wu, Wu, Xavier, Xia, Xia, Xie, Xu, Xue, Yamaguchi, Yan, Yan, Yan, Yang, Yang, Yao, Yaszemski, Yoon, Young, Yu, Yu, Yun, Zein, Zeltinger, Zhang, Zhang, Zhang, Zhang, Zhang, Zhang, Zhang, Zhang, Zhao, Zhou, Zhu   +464 more
core   +2 more sources

In Situ 3D Bioprinting: Impact of Cross‐Linking on the Adhesive Properties of Hydrogels

Advanced Functional Materials, EarlyView.
In situ 3D bioprinting enables the direct deposition of cell‐laden, adhesive biomaterials for on‐site tissue regeneration. This review provides a comprehensive overview of how cross‐linking influences the bioadhesive properties of hydrogels used in 3D bioprinting, highlighting cross‐linking triggers, bioadhesion mechanisms, polymer interpenetration ...
Odile Romero Fernandez, Mulazim Hussain Asim, Shumaila Arshad, Gergely Kali, Andreas Bernkop‐Schnürch   +4 more
wiley   +1 more source

Scaffolds Bioink for Three-Dimensional (3D) Bioprinting

Food Science of Animal Resources
Rapid population growth and a corresponding increase in the demand for animal-derived proteins have led to food supply challenges and the need for alternative and sustainable meat production methods.
Jin-Hee An, Hack-Youn Kim
doaj   +1 more source

Precise stacking of decellularized extracellular matrix based 3D cell-laden constructs by a 3D cell printing system equipped with heating modules [PDF]

, 2019
Three-dimensional (3D) cell printing systems allow the controlled and precise deposition of multiple cells in 3D constructs. Hydrogel materials have been used extensively as printable bioinks owing to their ability to safely encapsulate living cells ...
Ahn, Geunseon, Cho, Dong-Woo, Jin, Songwan, Kang, Donggu, Kim, Changhwan, Kim, Jun-Young, Lee, Jeong-Seok, Min, Kyung-Hyun, Shim, Jin-Hyung, Won, Joo-Yun, Yun, Won-Soo   +10 more
core   +1 more source

Sensorized Engineered Tissues with Built‐in Thermoregulation and Nutrient Supply

Advanced Functional Materials, EarlyView.
This work introduces a granular hydrogel‐based tissue engineering platform that includes a closed‐loop temperature control to maintain 37°C and sustainably releases nutrients, thereby enabling cells to retain a high viability even if stored at room temperature for up to 24 h.
Antonia Georgopoulou, Jakob Schreiner, Miriam Filippi, Aiste Balciunaite, Robert K. Katzschmann, Esther Amstad   +5 more
wiley   +1 more source

3D bioprinting for tissue engineering: Stem cells in hydrogels [PDF]

, 2016
Surgical limitations require alternative methods of repairing and replacing diseased and damaged tissue. Regenerative medicine is a growing area of research with engineered tissues already being used successfully in patients. However, the demand for such
Birchall, MA, Mehrban, N, Teoh, GZ
core   +1 more source

Shaping of Biohybrid Functional Living Materials

Advanced Functional Materials, EarlyView.
This work demonstrates a strategy for shaping living mycelium into functional materials by directing its natural growth. Nanoparticles armor hyphae, micron‐scale particles entangle within the network, and printed hydrogel architectures steer expansion, creating defined geometries.
Sarah Schyck, Mark Ablonczy, Sourav Patranabish, Kunal Masania   +3 more
wiley   +1 more source

A Review of Hydrogels in Droplet-based Bio-Fabrication Techniques [PDF]

, 2016
The Rapid Prototyping (RP) technologies with hydrogels as biomaterials have gained tremendous popularity in Tissue Engineering applications for scaffold development, especially for the soft scaffold developments.
Ansari, S, Date, M, Rath, Subha Narayan, Simhambhatla, S   +3 more
core   +2 more sources