Seaweed cellulose scaffolds derived from green macroalgae for tissue engineering

被引:57
作者
Bar-Shai, Nurit [1 ]
Sharabani-Yosef, Orna [2 ]
Zollmann, Meiron [1 ]
Lesman, Ayelet [3 ,4 ]
Golberg, Alexander [1 ]
机构
[1] Tel Aviv Univ, Porter Sch Environm & Earth Sci, Tel Aviv, Israel
[2] Tel Aviv Univ, Sch Biomed Engn, Tel Aviv, Israel
[3] Tel Aviv Univ, Sch Mech Engn, Tel Aviv, Israel
[4] Tel Aviv Univ, Ctr Phys & Chem Living Syst, Tel Aviv, Israel
关键词
3-DIMENSIONAL SCAFFOLDS; FIBER DIAMETER; CELL; FIBROBLAST; DESIGN; PROLIFERATION; ULVA;
D O I
10.1038/s41598-021-90903-2
中图分类号
O [数理科学和化学]; P [天文学、地球科学]; Q [生物科学]; N [自然科学总论];
学科分类号
070301 [无机化学]; 070403 [天体物理学]; 070507 [自然资源与国土空间规划学]; 090105 [作物生产系统与生态工程];
摘要
Extracellular matrix (ECM) provides structural support for cell growth, attachments and proliferation, which greatly impact cell fate. Marine macroalgae species Ulva sp. and Cladophora sp. were selected for their structural variations, porous and fibrous respectively, and evaluated as alternative ECM candidates. Decellularization-recellularization approach was used to fabricate seaweed cellulose-based scaffolds for in-vitro mammalian cell growth. Both scaffolds were confirmed nontoxic to fibroblasts, indicated by high viability for up to 40 days in culture. Each seaweed cellulose structure demonstrated distinct impact on cell behavior and proliferation rates. The Cladophora sp. scaffold promoted elongated cells spreading along its fibers' axis, and a gradual linear cell growth, while the Ulva sp. porous surface, facilitated rapid cell growth in all directions, reaching saturation at week 3. As such, seaweed-cellulose is an environmentally, biocompatible novel biomaterial, with structural variations that hold a great potential for diverse biomedical applications, while promoting aquaculture and ecological agenda.
引用
收藏
页数:17
相关论文
共 63 条
[1]
[Anonymous], 2012, ISOEN1099312
[2]
[Anonymous], 2009, ISOEN109935, V3, P42
[3]
Baranes-Zeevi M, 2019, POLYM ADVAN TECHNOL, V30, P2523, DOI [10.1002/pat.4673, 10.1002/patA673]
[4]
Engineering Substrate Topography at the Micro- and Nanoscale to Control Cell Function [J].
Bettinger, Christopher J. ;
Langer, Robert ;
Borenstein, Jeffrey T. .
ANGEWANDTE CHEMIE-INTERNATIONAL EDITION, 2009, 48 (30) :5406-5415
[5]
Cell infiltration and growth in a low density, uncompressed three-dimensional electrospun nanofibrous scaffold [J].
Blakeney, Bryan A. ;
Tambralli, Ajay ;
Anderson, Joel M. ;
Andukuri, Adinarayana ;
Lim, Dong-Jin ;
Dean, Derrick R. ;
Jun, Ho-Wook .
BIOMATERIALS, 2011, 32 (06) :1583-1590
[6]
Chang HI, 2011, REGENERATIVE MEDICINE AND TISSUE ENGINEERING - CELLS AND BIOMATERIALS, P569
[7]
Charlebois Daniel A., 2018, In Silico Biology, V13, P21, DOI 10.3233/ISB-180470
[8]
Effects of extracellular matrix viscoelasticity on cellular behaviour [J].
Chaudhuri, Ovijit ;
Cooper-White, Justin ;
Janmey, Paul A. ;
Mooney, David J. ;
Shenoy, Vivek B. .
NATURE, 2020, 584 (7822) :535-546
[9]
Design of marine macroalgae photobioreactor integrated into building to support seagriculture for biorefinery and bioeconomy [J].
Chemodanov, Alexander ;
Robin, Arthur ;
Golberg, Alexander .
BIORESOURCE TECHNOLOGY, 2017, 241 :1084-1093
[10]
Role of fiber diameter in adhesion and proliferation of NIH 3T3 fibroblast on electrospun polycaprolactone scaffolds [J].
Chen, Ming ;
Patra, Prabir K. ;
Warner, Steven B. ;
Bhowmick, Sankha .
TISSUE ENGINEERING, 2007, 13 (03) :579-587