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Ceramic-polymer nanocomposites

Fig. 4 (a) Scheme of a flexible ferroelectric ceramic polymer nanocomposite layer, laminated on a flexible transistor backplane. In the piezoelectric sensor pixel, the polarization in the ceramic nanoparticles and polymer are antiparallel, while in the pyroelectric, pixel polarizations are parallel, (b) Equivalent circuit of a sensing pixel, (c) Photograph of a simple prototype with one temperature and one pressure sensor (Reprinted with permission (Graz et al. 2009))... [Pg.539]

Liu, H. and T. J. Webster. 2010. Ceramic/polymer nanocomposites with tunable drug delivery capability at specific disease sites. J Biomed Mater Res A 93(3) 1180-92. [Pg.213]

Liu, H., Webster, T.J., 2007. Ceramic/polymer nanocomposite tissue engineering scaffolds for more effective orthopedic applications from 2D surfaces to novel 3D architectures. Materials Research Society 950 (i), 1-6. [Pg.24]

Ceramic-polymer nanocomposites for bone-tissue regeneration... [Pg.331]

This chapter reviews biomedical grade ceramic-polymer nanocomposites, focussing on their impact and recent trends in the field of bone grafting and bone-tissue regeneration. [Pg.331]

Biomaterials must be properly selected because their physical, mechanical and biological properties will determine, to a great extent, the properties of the tissue-engineering scaffold. In Section 15.4, the main characteristics of monolithic biomaterials, precisely ceramics and polymers, are depicted, whereas in Section 15.5 the potential of ceramic-polymer nanocomposites in bone-tissue regeneration is illustrated. [Pg.336]

Nanomaterials are often reported to possess snperior properties over their microscale connterpart. Moreover, natnral bone is a typical example of a nanocomposite material (see Section 15.2). Therefore, the design of a bone graft in the form of nanocomposite is perceived beneficial over monolithic and microcomposite materials. The main advantages presented by ceramic-polymer nanocomposites for regenerative medicine, as compared to conventional ones, are listed below ... [Pg.345]

Ceramic-polymer nanocomposites are generally processed through three different methods (1) conventional mixing (2) self-assembly approach and (3) tissue-engineering approach. [Pg.346]

Ceramic-polymer nanocomposites for tissue regeneration state of the art and possible applications... [Pg.347]


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See also in sourсe #XX -- [ Pg.251 , Pg.331 ]




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