Obtaining and Characterizing Phosphatic Porcelain
Abstract
The research aimed to obtain phosphate porcelain, by using the ash resulting from burning bones from meat processing plants. The applied processing technology allows obtaining fine ceramics at lower temperatures than the one used in the case of feldspar porcelain, having as effect the increase of the durability of the firing furnaces and the realization of the products at lower production costs. Five series of phosphate porcelain samples were performed in laboratory conditions, with different compositions, by firing at a temperature of 1250 ℃, temperatures lower than those necessary for the firing of feldspar porcelain of 1350-1450 ℃. The porosity and density of the samples were determined and the microstructural analysis of the materials made in the five research variants was made.
Downloads
References
[2]. ***, https://www.scribd.com/doc/55666092/EvolutiaCeramicii.
[3]. ***, Dalea I., O istorie a artei ceramice, Editura Meridiane 1987.
[4]. Suter C., Istoria Artei Plastice, vol. 1, Editura Didactica și Pedagogica, Bucuresti.
[5]. Slatineanu B., Ceramica Romaneasca, Studii de arta, Editura de stat, 1958.
[6]. Marincas L., Procedee de fabricare în industria ceramicii, 2006.
[7]. Baltă P., Tehnologia sticlei, Editura tehnică, 1984.
[8]. Patrick Naylor W., Introduction to Metal-Ceramic Technology, Third Edition, 2017.
[9]. Cai Z., Bunce N., Nunn M. E., Okabe T., Porcelain adherence to dental cast CP titanium: effects of surface modifications, Biomaterials, 22 (9), 979-86, 2001 May.
[10]. Hench L. L., Bioceramics J. Am. Cer. Soc., 81 (7), p. 1705-1728, 1998.
[11]. Hench L. L., Wilson J., An Introduction to Bioceramics, Advanced Series in Ceramics, vol. 1, World Scientific Publishing, 1993.
[12]. Craig R. G., Restorative Dental Materials, Mosby, 1997.
[13]. Forna Norina Consuela, Protetica Dentara, Editura Univers Enciclopedic, Bucuresti, 2011.
[14]. ***, https://ro.wikipedia.org/wiki/Por%C8%9Belan.
