1.Natural Tissues as Biomaterials.
Journal of the Korean Medical Association 1997;40(4):451-458
No abstract available.
Biocompatible Materials*
2.Dental biomaterials for chairside CAD/CAM: State of the art.
Hugo LAMBERT ; Jean Cédric DURAND ; Bruno JACQUOT ; Michel FAGES
The Journal of Advanced Prosthodontics 2017;9(6):486-495
The wide use of chairside CAD/CAM restorations has increased the diversity of the restorative material. For the practitioner, the selection of the appropriate material is difficult amongst the variety offered by the market. Information on the characteristics of the products can be difficult to assess due to the lack of up-to-date classification and the lack of reliability of manufacturer's advertising. The purpose of this article is to structure the data on restorative materials provided by various sources in order for the practitioner to choose the product most suited to the clinical situation. The objective is to classify chairside CAD/CAM materials and to define their characteristics and indications.
Biocompatible Materials*
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Ceramics
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Classification
3.Applications of polylactide and its copolymers in medical device fields.
Xuefei QI ; Xiubing PANG ; Kan WU
Chinese Journal of Medical Instrumentation 2014;38(4):274-277
Polylactide and its copolymers are a kind of biomedical material andhave been approved by U.S. Food and Drug Administration. This paper briefly introduces its applications in surgical suture, orthopedics, plastic surgery, ophthalmology and other medical device fields, and also analyzes its development in our country.
Biocompatible Materials
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Polyesters
5.Preparation Method of Silk Fibroin and Its Application in Field of Biomedical Materials.
Chinese Journal of Medical Instrumentation 2021;45(3):301-304
Silk fibroin has the characteristics of good biocompatibility, mechanical properties, degradation performance and easy shaping, which makes silk fibroin become the focus of biomedical material preparation and research, and has received extensive attention. This article reviews the prior art methods of silk fibroin degumming, dissolution and regeneration processing. The specific applications of silk fibroin materials in the field of biomedical materials are reviewed, and the application prospects of silk fibroin in the field of biomedical materials are prospected.
Biocompatible Materials
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Fibroins
6.Research progresses in endovascular stent biomaterials.
Zhen-xin ZHAO ; Dao-zhi LIU ; Yi ZHANG
Chinese Journal of Medical Instrumentation 2005;29(6):391-395
This essay is to make brief comments on the physical characteristics, biocompatibility, corrosion resistance, clinical information, existent problems of endovascular stent biomaterials and the developing tendency in future.
Angioplasty
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instrumentation
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Biocompatible Materials
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Stents
7.Evaluation of insertion of torque and pull-out strength of mini-screws according to different thickness of artificial cortical bone.
Young Youn SONG ; Jung Yul CHA ; Chung Ju HWANG
Korean Journal of Orthodontics 2007;37(1):5-15
OBJECTIVE: The purpose of this study was to evaluate the mechanical performance of mini-screws during insertion into artificial bone with use of the driving torque tester (Biomaterials Korea, Seoul, Korea), as well as testing of Pull-out Strength (POS). METHODS: Experimental bone blocks with different cortical bone thickness were used as specimens. Three modules of commercially available drill-free type mini-screws (Type A; pure cylindrical type, Biomaterials Korea, Seoul, Korea, Type B; partially cylindrical type, Jeil Medical, Seoul, Korea, Type C; combination type of cylindrical and tapered portions, Ortholution, Seoul, Korea), were used. RESULTS: Difference in the cortical bone thickness had little effect on the maximum insertion torque (MIT) in Type A mini-screws. But in Type B and C, MIT increased as the cortical bone thickness increased. MIT of Type C was highest in all situations, then Type B and Type A in order. Type C showed lower POS than Type A or B in all situations. There were statistically significant correlations between cortical bone thickness and MIT, and POS for each type of the mini-screws. CONCLUSION: Since different screw designs showed different insertion torques with increases in cortical bone thickness, the best suitable screw design should be selected according to the different cortical thicknesses at the implant sites
Biocompatible Materials
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Korea
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Seoul
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Torque*
8.Novel scaffold materials for tissue engineering.
Shan DING ; Lihua LI ; Changren ZHOU
Journal of Biomedical Engineering 2002;19(1):122-126
In this paper, the resorbable and degradable biomaterials often used in recent years are reviewed. These materials include natural and synthetical ones such as collagen, protein fiber, chitosan, polylactic acid (PLA), polyglycolic acid(PGA), polyanlydrides, etc.
Biocompatible Materials
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Biodegradation, Environmental
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Biomedical Engineering
9.Research Progress of Silk Fibroin As a Drug Delivery Materials.
Lijing JI ; Jing KE ; Lan JIA ; Li GUO ; Jingxin ZHU
Journal of Biomedical Engineering 2015;32(6):1364-1368
Recently, drug delivery materials have become the hotspot of medical study. Suitable delivery material plays an important role in constructing an excellent drug delivery system. Silk fibroin is a naturally occurring protein polymer with excellent biocompatibility, remarkable mechanical properties, biodegradability and outstanding processability. Due to its unique properties, silk fibroin has become a favorable carrier material for the incorporation and delivery of a range of therapeutic agents. Based on the structure and characteristics of silk fibroin, this article provides an overview of the recent research progress of silk fibroin used as drug delivery materials.
Biocompatible Materials
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Drug Delivery Systems
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Fibroins
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chemistry
10.Influencing Factors on the Properties of Bone Scaffolds and Their Manufacturing Techniques.
Journal of Biomedical Engineering 2015;32(2):480-484
To serve as carriers of cells and bioactive molecules, three-dimensional scaffolds play a key role in bone defect repair. The chemical component and microstructure of the scaffold can affect the mechanical properties and seed cells. A variety of fabrication techniques have been used in producing scaffolds, some made random porous structure, some created well-designed structure using rapid prototyping methods, and others prepared bio-derived materials as scaffolds. However, scaffolds may vary in their inner structure, mechanical properties and repairing efficiency as well because of different manufacturing methods. In this review, we overview the main achievements concerning the effects of material and microstructure on the mechanical performance, seed cells and defect repair of bone scaffolds.
Biocompatible Materials
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Bone and Bones
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Porosity
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Tissue Scaffolds