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REFERENCES
(1) DUPUIS, M. AND BOJAREVICS, V., 2005.
Weakly coupled thermo-electric and MHD mathematical models of an aluminium
electrolysis cell, Light Metals, TMS, p. 449-454.
(2) DUPUIS, M., 2001.
Computation of accurate horizontal current density in metal pad using a full quarter
cell thermo-electric model, CIM Light Metals, p. 3-11.
(3) DUPUIS, M., 2002.
Towards the development of a 3D full cell and external busbars thermo-electric
model, CIM Light Metals, p. 25-39.
(4) DUPUIS, M. AND BOJAREVICS, V., 2005.
Impact of using selective collector bar rodding on the MHD stability of a 500 kA
aluminium electrolysis cell, CIM Light Metals, p. 19-33.
(5) URATA, N., 2005.
Wave mode coupling and instability in the interface wave in aluminum reduction
cells, TMS, p. 455-460.
(6) BOJAREVICS, V., 1989.
Physical and mathematical modeling of MHD-processes in aluminium reduction cell,
in Liquid metal magnetohydrodynamics, J. Eielpeteris and R. Moreau (eds.), p. 205-
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(7) BOJAREVICS, V. AND PERICLEOUS, K., 2006.
Comparison of MHD models for aluminium reduction cells, Light Metals, TMS, p.
347-352.
(8) DUPUIS, M. AND BOJAREVICS, V., 2006.
Busbar sizing modeling tools: comparing an ANSYSŪ based 3D model with the
versatile 1D model part of MHD-Valdis, Light Metals, TMS, p. 341-346.
(9) CHAFFY, J. LANGON, B. AND LEROY, M., 1987.
Device for connection between very high intensity electrolysis cells for the
production of aluminium comprising a supply circuit for correcting the magnetic
field, United States patent, number: 4,713,161
(10) DUPUIS, M., BOJAREVICS, V. AND RICHARD, D., 2006.
MHD and potshell mechanical design of a 740 kA cell, ALUMINIUM, to be
published.