Common biocompatible polymeric materials for tissue engineering and regenerative medicine

被引:114
作者
Asadi, Nahideh [1 ,2 ]
Del Bakhshayesh, Azizeh Rahmani [2 ,3 ,4 ]
Davaran, Soodabeh [1 ,4 ]
Akbarzadeh, Abolfazi [1 ,5 ,6 ]
机构
[1] Tabriz Univ Med Sci, Fac Adv Med Sci, Dept Med Nanotechnol, Tabriz, Iran
[2] Tabriz Univ Med Sci, Student Res Comm, Tabriz, Iran
[3] Tabriz Univ Med Sci, Fac Adv Med Sci, Dept Tissue Engn, Tabriz, Iran
[4] Tabriz Univ Med Sci, Drug Appl Res Ctr, Tabriz, Iran
[5] Tabriz Univ Med Sci, Biotechnol Res Ctr, Tabriz, Iran
[6] USERN, Tabriz, Iran
关键词
Natural and synthetic polymer; Tissue engineering; Scaffold; ENHANCED MECHANICAL-PROPERTIES; IN-VITRO; HYBRID HYDROGELS; CROSS-LINKING; CELLULOSE NANOCRYSTALS; NANOFIBROUS SCAFFOLDS; COMPOSITE SCAFFOLDS; POLYURETHANE; GELATIN; FABRICATION;
D O I
10.1016/j.matchemphys.2019.122528
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
Polymers play a vital role as a scaffold in tissue engineering. Polymers, as biomaterials, can mimic the extracellular matrix (ECM) of cells and improve the biological behavior of cells in vitro and in vivo. In the meantime, biodegradable polymers are especially important for use in tissue engineering, since they can be removed from the environment in a manner consistent with cell growth and the formation of new tissue. For this purpose and depending on the type of tissue, there are various types of synthetic and biological polymers that can be used. Since, biological and synthetic materials alone have advantages and disadvantages, to improve the physicochemical and biological properties, various materials can be used together and in a composite form. This paper discusses the types of synthetic, non-synthetic (natural) and hybrid polymers that can be used in tissue engineering. It also provides information on the applications of polymers to prepare scaffolds and their interactions with cells and ways to improve their biological properties.
引用
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页数:11
相关论文
共 117 条
[1]   Fabrication and enhanced mechanical properties of porous PLA/PEG copolymer reinforced with bacterial cellulose nanofibers for soft tissue engineering applications [J].
Abu Ghalia, Mustafa ;
Dahman, Yaser .
POLYMER TESTING, 2017, 61 :114-131
[2]   Development of three-dimensional piezoelectric polyvinylidene fluoride-graphene oxide scaffold by non-solvent induced phase separation method for nerve tissue engineering [J].
Abzan, Nadia ;
Kharaziha, Mahshid ;
Labbaf, Sheyda .
MATERIALS & DESIGN, 2019, 167
[3]   Synergistic effects of crosslinking and chitosan molecular weight on the microstructure, molecular mobility, thermal and sorption properties of porous chitosan/gelatin/hyaluronic acid scaffolds [J].
Acevedo, Cristian A. ;
Sanchez, Elizabeth ;
Diaz-Calderon, Paulo ;
Blaker, Jonny J. ;
Enrione, Javier ;
Quero, Franck .
JOURNAL OF APPLIED POLYMER SCIENCE, 2017, 134 (18)
[4]   Surface modification and endothelialization of polyurethane for vascular tissue engineering applications: a review [J].
Adipurnama, Iman ;
Yang, Ming-Chien ;
Ciach, Tomasz ;
Butruk-Raszeja, Beata .
BIOMATERIALS SCIENCE, 2017, 5 (01) :22-37
[5]  
Ahamad N, 2017, 2017 INTERNATIONAL CONFERENCE ON POWER AND EMBEDDED DRIVE CONTROL (ICPEDC), P8, DOI 10.1109/ICPEDC.2017.8081051
[6]   Approaches in biotechnological applications of natural polymers [J].
Albuquerque, Priscilla B. S. ;
Coelho, Luana C. B. B. ;
Teixeira, Jose A. ;
Carneiro-da-Cunha, Maria G. .
AIMS MOLECULAR SCIENCE, 2016, 3 (03) :386-425
[7]   Three-Dimensional Graphene Foams: Synthesis, Properties, Biocompatibility, Biodegradability, and Applications in Tissue Engineering [J].
Amani, Hamed ;
Mostafavi, Ebrahim ;
Arzaghi, Hamidreza ;
Davaran, Soodabeh ;
Akbarzadeh, Abolfazl ;
Akhavan, Omid ;
Pazoki-Toroudi, Hamidreza ;
Webster, Thomas J. .
ACS BIOMATERIALS SCIENCE & ENGINEERING, 2019, 5 (01) :193-214
[8]  
Annabi N, 2010, TISSUE ENG PART B-RE, V16, P371, DOI 10.1089/ten.TEB.2009.0639
[9]  
[Anonymous], J BIOMED MAT RES A
[10]  
[Anonymous], J BIOL ENG