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Thus, it may be be seen for 1, 3, 5, 7, and 10 wt. Microtensile testing results can from a sample with 10 vol agglomerates. 10.0MP resolution offers excellent details for images projected on large screens or when printing with large-format applications.
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Therefore, degradation of borate bioactive glass coatings is inversely related to their fracture toughness when coated onto Ti6A4V substrates. For 7 0.048 0.20 2.8 4.1 example, a 5 wt CNF-HIPS polymer nanocomposite 10 0.069 0.30 3.0 4.6 would have a maximum modulus of 2.9 GPa, which is 123 6358 J Mater Sci (2010) 45:63536364 only about 11 greater than the 2.6 GPa that was obtained characterization approach. The new OptixCam Summit K2 Series 10.0MP digital microscope camera is specifically designed as a cost-effective and versatile solution for the wide-ranging imaging requirements of life science researchers, healthcare professionals, industrial inspectors and other disciplines. The drop in G IC and G IIC occurred even more rapidly for other coating/substrate systems. The toughest coating/substrate system (one composed of the glass containing 25 mol% SrO) lost 80% and 85% of its G IC and G IIC, respectively, in less than 24 h of degradation. After drying, the bilayer DCB specimens were created and subjected to nearly mode I and mode II fracture tests. The extent of dissolution was consistent with the hypothesis that the compressive residual stress tends to reduce the dissolution rate of bioactive glasses. The weight loss of each glass composition was measured and it was found that the dissolution rate significantly decreased with increasing SrO content. Three borate-based bioactive glass coatings with increasing amounts of incorporated SrO (0, 15 and 25 mol%) were enamelled onto Ti6Al4V substrates and then immersed in de-ionized water for 2, 6 and 24 h. This paper uses bilayer double cantilever (DCB) specimens to determine G IC and G IIC, the critical mode I and mode II strain energy release rates, respectively, of bioactive coating/Ti6Al4V substrate systems degraded to different extents. It has been reported that the adhesion of bioactive glass coatings to Ti6Al4V reduces after degradation, however, this effect has not been quantified.