Abstract
Carbon black pigments are manufactured today mainly by modern chemical processes in industrial scale production. They are the most important representatives of black pigments. Carbon black pigments have a number of advantages compared with other inorganic black pigments and with black organic colorants. Hiding power, color stability, solvent resistance, acid and alkali resistance as well as thermal stability are excellent good properties that are not achieved from other blacks. Carbon black pigments are applied in most of the pigment relevant systems, such as printing inks, paints and coatings, plastics, and cosmetics. They are produced by several industrial processes. Furnace blacks, channel blacks and gas blacks have the highest importance among the various carbon blacks. Particle size, particle size distribution, surface quality and structure determine the coloristic and application technical properties of the individual pigments. Oxidative aftertreatment is used in many cases to modify the surface of the pigments concerning the stability and the compatibility with the application system. Particle management, aftertreatment and the provision of pigment preparations are suitable ways for the improvement of the pigments and the optimization of the dosage form.
References
1. Ferch H. Pigmentruße. Hannover: Vincentz Verlag, 1995.Search in Google Scholar
2. Mathias J. In Kittel - Lehrbuch der Lacke und Beschichtungen. Spille J, editor. vol. 5. 2nd ed. Stuttgart/Leipzig: S. Hirzel Verlag, 2003:214.Search in Google Scholar
3. Pfaff G. In Winnacker – Küchler, Chemische Technik, Prozesse und Produkte. Dittmeyer R, Keim W, Kreysa G, Oberholz A, editors. vol. 7. 5th ed. Weinheim: Wiley-VCH Verlag, 2004:358.Search in Google Scholar
4. Stroh P. In industrial inorganic pigments. Buxbaum G, Pfaff G, editors. 3rd ed. Weinheim: Wiley-VCH Verlag, 2005:163.10.1002/3527603735.ch4Search in Google Scholar
5. Pfaff G. Inorganic pigments. Berlin/Boston: WalterdeGruyterGmbH, 2017:167.10.1515/9783110484519-005Search in Google Scholar
6. Boehm HP. Struktur und Oberflächeneigenschaften von Rußen. Farbe + Lack. 1973;79:419.Search in Google Scholar
7. Patent US. 3,010,794 (Cabot Corp.) 1958; Patent US 3,010,795 (Cabot Corp.). 1958.Search in Google Scholar
8. Patent DE. 15 92 853 (Cities Service Co.). 1967.10.1088/0370-1328/92/4/302Search in Google Scholar
9. Patent DE. 895 286 (Degussa) 1951; Patent DE 11 29 459 (Degussa). 1960.Search in Google Scholar
10. Patent US. 3,649,207 (Ashland Oil & Refining Co.) 1969; Patent US 3,986,836 (Phillips Petroleum Co.). 1974.Search in Google Scholar
11. Kühner G, Dittrich G. Untersuchungen zum Furnaceruß-Prozeß an einem Modellreaktor. Chem Ing Tech. 1972;44:11.10.1002/cite.330441106Search in Google Scholar
12. Patent DE. 742 664 (Degussa) 1940; Patent US 2,420,810 (Cabot Corp.). 1941.Search in Google Scholar
13. Patent GB. 895 990 (Degussa). 1958.Search in Google Scholar
14. Patent US. 2,439,442 (Cabot Corp.). 1943.Search in Google Scholar
15. Patent US. 3,383,232 (Cabot Corp.) 1968; Patent US 3,870,785 (Phillips Petroleum Co.). 1975.Search in Google Scholar
16. Bode R, Ferch H, Koth D, Schumacher W. Schwarzgradskala für Pigmentruße. Farbe + Lack. 1979;85:7.Search in Google Scholar
17. Kuempel ED, Sorahan T. In views and expert opinions of an IARC/NORA expert group meeting, Lyon, France, 30 June – 2 July 2009. IARC technical publication No. 42. vol. 42. Lyon, France: International Agency for Research on Cancer, 2010:61.Search in Google Scholar
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