Results 101 to 110 of about 31,025 (283)

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

Tissue‐Stimulator Platform for Electrically Stimulating Pancreatic β‐Cells for Long‐Term Functional Regulation

Advanced Functional Materials, EarlyView.
We present a tissue‐stimulator platform for seamless electrode integration with pancreatic tissue, applying uniform electrical stimulation through optimized design with biohybrid 3D printing. Advantageous effects of electrical stimulation on β‐cell function were observed, including enhanced calcium signaling, islet morphology, and maturation.
Jihwan Kim, Uijung Yong, Myungji Kim, Jaewook Kim, Yeonggwon Jo, In Kyong Shim, Song Cheol Kim, Jinah Jang   +7 more
wiley   +1 more source

Advances of 3D bioprinting technology for periodontal tissue regeneration

iScience
Summary: 3D bioprinting technology for periodontal tissue regeneration is an advanced manufacturing technique that utilizes three-dimensional (3D) printing principles to fabricate intricate, viable structures that are specifically devised to meet with ...
Huanhuan Chen, Yu Wang, Yue Lai, Chenda Meng, Xiner Ning, Tianmin Xu, Guangying Song, Yunfan Zhang, Yifan Lin, Bing Han   +9 more
doaj   +1 more source

3D biofabrication for tubular tissue engineering [PDF]

, 2018
The therapeutic replacement of diseased tubular tissue is hindered by the availability and suitability of current donor, autologous and synthetically derived protheses.
Holland, Ian, Liu, Dongsheng, Logan, Jack, McCormick, Christopher, Shi, Jiezhong, Shu, Wenmiao   +5 more
core   +1 more source

Assembly of Cell‐Seeded 3D Printed Hydrogel Modules with Perfusable Channel Networks

Advanced Functional Materials, EarlyView.
Macroscale assembly was utilized to prepare perfusable tissue constructs from individually 3D printed hydrogel modules with embedded branched channel networks and port arrays for cell seeding. Novel multi‐material bioreactors were fabricated to facilitate the gluing of individual modules and the perfusion culture of assembled modular constructs seeded ...
Zachary J. Geffert, Daniel Fougnier, Bo Van Durme, Jenna Grutzmacher, Ryan Clarke, Susan Cao, Zhenghao Li, Ujjwal Aryal, Jason A. Horton, Sandra Van Vlierberghe, Pranav Soman   +10 more
wiley   +1 more source

Advancements of 3D bioprinting in regenerative medicine: Exploring cell sources for organ fabrication

Heliyon
3D bioprinting has unlocked new possibilities for generating complex and functional tissues and organs. However, one of the greatest challenges lies in selecting the appropriate seed cells for constructing fully functional 3D artificial organs. Currently,
Yue Ma, Bo Deng, Runbang He, Pengyu Huang   +3 more
doaj   +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

Computational Modeling Meets 3D Bioprinting: Emerging Synergies in Cardiovascular Disease Modeling

Advanced Healthcare Materials, EarlyView.
Emerging advances in three‐dimensional bioprinting and computational modeling are reshaping cardiovascular (CV) research by enabling more realistic, patient‐specific tissue platforms. This review surveys cutting‐edge approaches that merge biomimetic CV constructs with computational simulations to overcome the limitations of traditional models, improve ...
Tanmay Mukherjee, Mehdi Salar Amoli, Sarah Rezapourdamanab, Lama Rita El Shammas, Martin L. Tomov, Emilio A. Mendiola, Vahid Serpooshan, Reza Avazmohammadi   +7 more
wiley   +1 more source

Review of 3D printable hydrogels and constructs

Materials & Design, 2018
Three dimensional (3D) bioprinting technologies with appropriate bioinks are potentially able to fabricate artificial tissues or organs with precise control.
Huijun Li, Cavin Tan, Lin Li
doaj   +1 more source

Aqueous Two‐Phase Bioinks for Discrete Packing and Compartmentalization of 3D Bioprinted Cells

Advanced Healthcare Materials, EarlyView.
Aqueous two‐phase systems (ATPS) enable the formation of biomimetic interfaces crucial for tissue engineering. However, clinical translation remains limited by the challenge of precisely controlling cellular compartmentalization. Here, we developed ATPS biomaterial inks for 3D bioprinting allowing tuneable droplet formation via NaCl modulation.
Martina Marcotulli, Arianna Iacomino, Federico Serpe, Lucia Iafrate, Marco Bastioli, Giorgia Montalbano, Biagio Palmisano, Silvia Franco, Roberta Angelini, Alessandro Corsi, Mara Riminucci, Giancarlo Ruocco, Chiara Scognamiglio, Andrea Barbetta, Gianluca Cidonio   +14 more
wiley   +1 more source