Department of Thermal Technology, University of Life Sciences, Doswiadczalna 44, 20-280 Lublin, Poland
Bibliografia
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2. Bond F.C. 1952. The third theory of comminution. AIM Transactions 193, 484-494.
3. Charles R.J., 1957. Energy-size reduction relationships in comminution. Trans. AIME, Mineral Engineering 208, 80-88.
4. Djantou E.B., Mbofung C.M., Scher J., Desobry S. 2007. A modelling approach to determine the effect of pre-treatment on the grinding ability of dried mangoes for powder production (Mangifera indica var Kent). Journal of Food Engineering 80, 668-677.
5. Dziki D. 2008. Crushing of wheat kerenl and its con-sequence on the grinding process. Powder Technology 185, 181-186.
6. Dziki D., Laskowski J. 2006. Influence of wheat grain mechanical properties on grinding energy requirements. TEKA Commission of Motorization and Power Industry in Agriculture VI A,45-52.
7. Fellows P. 2000. Food Processing Technology. Principles and Practice. CRC Press, New York. 98-99.
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9. Goswami T.K., Singh M. 2003. Role of feed rate and temperature in attrition grinding of cumin. Journal of Food Engineering 59(2-3), 285-290.
10. Hukki R.T. 1962. Proposal for a solomnic settlement between the theories of von Rittiger, Kick and Bond. Transaction of the. AIME 220, 403-408.
11. Kick, F. 1885. Das Gesetz der Proportionalem Wider-stand und Seine Anwendung (Principle of Proportional Resistance and Its Application). Leipzig, Germany: Felix.
12. Kusińska E., Zawiślak K., Sobczak P. 2008. Energy consumption of maize grain crushing depending on moisture content. TEKA Commission of Motorization and Power Industry in Agriculture VIII, 129-134.
13. Li S., Ge S., Huang Z., Wang Q., Zhao, H., & Pan, H. (1991). Cryogenic grinding technology for traditional Chinese herbal medicine. Cryogenics 31, 136-137.
14. Morrell S. 2004. An alternative energysize relationship to that proposed by Bond for the design and optimization of grinding circuits. International Journal of Mineral Process 74, 133-141.
15. Perry R.H. 1997. Perry’s chemical engineers’ hand-book. Seventh edition. The McGraw-Hill Companies. Section 20 p. 13.
16. Pujol R., Letang C., Lempereur I., Chaurand M., Ma-bille F., Abecassis J. 2000. Description of a micromill with instrumentation for measuring grinding characteristics of wheat grain. Cereal Chemistry 77(4):421-427.
17. Sokołowski M. 1995. Energia rozdrabniania. Instytut mecha-nizacji budownictwa i górnictwa skalnego. Warszawa, s. 50.
18. Stamboliadis E.Th. 2002. A contribution to the relationship of energy and particle size in the comminution of brittle particulate materials. Minerals Engineering 15:707-713.
19. Velu V., Nagender A., Prabhakara Rao P.G., Rao D.G. 2006. Dry milling characteristic of microwave dried maize grains. Journal of Food Engineering. 74:30-36.
20. Walde S.G., Balaswamy K., Velu V., Rao D.G. 2002. Microwave drying and grinding characteristics of wheat (Triticum aestivum). Journal of Food Engineering 55:271-276.