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Particulate technology

Adams MJ,Mullier MA,Seville JPK (1987) In Briscoe BJ, Adams MJ (eds) Tribology in particulate technology. Adam Hilger, Bristol, p 375... [Pg.151]

Centre for Bulk Solids and Particulate Technologies, Faculty of Engineering, University of Wollongong, Wollongong NSW 2522, Australia... [Pg.323]

Briscoe, B. J. and Evans, P. D. (1987). The Wear of Polymers by Particle Flows. In Tribology in Particulate Technology. Ed. Briscoe and Adams. Philadelphia Adam Hilger. [Pg.292]

Hinze, J. O. (1972). Turbulent Fluid and Particle Interaction. Prog. Heat Mass Transfer, 6,433. Hutchings, I. M. (1987). Surface Impact Damage. In Tribology in Particulate Technology. [Pg.292]

I. M. Hutchings, Surface Impact Damage, in Tribology in Particulate Technology, Briscoe and Adams eds., Adam Hilger, Philadelphia, 1987. [Pg.925]

Schubert, H. 1984. Capillary forces - modelling and application in particulate technology. Powder Tech. (47) 105-116. [Pg.598]

Schubert H (1984) Capillary Forces-Modeling and Application in Particulate Technology. J Powder Tech 37 105 Komarek KR (1967) Selecting Binders and Lubricants for Agglomeration Processes. J Chem Eng J 25 154. [Pg.33]

Orr, C. (1966) Particulate Technology, Macmillan Publishing, New York. Nasr-El-Din, H.A. (1996) in Suspensions, Fundamentals and Applications in die Petroleum Industry (ed. L.L,... [Pg.258]

FCC is by far the most important petrochemical process that involves the broadest scope of particulate technology. Although the chemistry of the FCC process is rather complex, many of the operational problems are in fact associated with handling fluid-particle systems and related mechanical issues, such as erosion. In particular, the reactor/regenerator section of the FCC unit includes many aspects of fluid-particle systems that are critical to FCC design and operation. [Pg.385]

Extrusion and injection molding are both widely used as shaping processes in particulate technology. This is because, unlike pressing processes, they allow the formation of complex shapes from particulate feed stocks in cost-effective, almost-continuous processes. In addition, the bodies produced by these routes can often be close to their final shape (near net shaped) requiring little finishing. A key element in both processes is the formulation of a plastically deformable body or paste which will flow in a predictable way under an applied pressure gradient and temperature. [Pg.265]

Stanley-Wood, N.G. (1987) Uniaxial powder compaction. In Tribology in Particulate Technology (eds B.J. Briscoe M.J. Adams). Adam Hilger, Bristol, UK. [Pg.66]

University of Florida (January 1999) Flow regimes in bulk storage hoppers. In Educatiorml Resources for Particulate Technology, Vol. 1, No. 1, Art 3. [Pg.220]


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See also in sourсe #XX -- [ Pg.135 ]




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