| 1 |
A density-dependent modified Drucker-Prager Cap model for die compaction of Ag57.6-Cu22.4-Sn10-In10 mixed metal powders
Zhou MC, Huang SY, Hu JH, Lei Y, Xiao Y, Li B, Yan SW, Zou FL
Powder Technology, 305, 183, 2017 |
| 2 |
Experiment and finite element analysis of compaction densification mechanism of Ag-Cu-Sn-In mixed metal powder
Zhou MC, Huang SY, Hu JH, Lei Y, Zou FL, Yan SW, Yang M
Powder Technology, 313, 68, 2017 |
| 3 |
Fast modeling of clam-shell drop morphologies on cylindrical surfaces
Lu ZP, Ng TW, Yu Y
International Journal of Heat and Mass Transfer, 93, 1132, 2016 |
| 4 |
Effect of roll compactor sealing system designs: A finite element analysis
Mazor A, Perez-Gandarillas L, de Ryck A, Michrafy A
Powder Technology, 289, 21, 2016 |
| 5 |
Determination of the constants of cap model for compaction of three metal powders
Majzoobi GH, Jannesari S
Advanced Powder Technology, 26(3), 928, 2015 |
| 6 |
Physical interpretations for cap parameters of the modified Drucker-Prager cap model in relation to the deviator stress curve of a particulate compact in conventional triaxial testing
Shin H, Kim JB
Powder Technology, 280, 94, 2015 |
| 7 |
Simplified modeling of the influence of surfactants on the rise of bubbles in VOF-simulations
Fleckenstein S, Bothe D
Chemical Engineering Science, 102, 514, 2013 |
| 8 |
Finite Element Method (FEM) modeling of the powder compaction of cosmetic products: Comparison between simulated and experimental results
Diarra H, Mazel V, Boillon A, Rehault L, Busignies V, Bureau S, Tchoreloff P
Powder Technology, 224, 233, 2012 |
| 9 |
Numerical Investigation of Stress Distribution during Die Compaction of Food Powders
Prigge JD, Sommer K
Particulate Science and Technology, 29(1), 40, 2011 |
| 10 |
High-pressure compaction modelling of calcite (CaCO3) powder compact
Berg S, Haggblad HA, Jonsen P
Powder Technology, 206(3), 259, 2011 |
