
doi: 10.1002/nme.1287
handle: 10454/2793
Summary: The pharmaceutical powder and tableting process is simulated using a combined finite-discrete element method and contact dynamics for irregular-shaped particles. The particle-scale formulation and two-stage contact detection algorithm which has been developed for the proposed method enhances the overall calculation efficiency for particle interaction characteristics. The irregular particle shapes and random sizes are represented as a pseudo-particle assembly having a scaled up geometry but based on the variations of real powder particles. Our simulations show that particle size, shapes and material properties have a significant influence on the behaviour of compaction and deformation.
Finite element methods applied to problems in solid mechanics, pseudo-particle assembly, Finite element analysis, tableting, Viscoelasticity, Pharmaceutical powder, Other numerical methods in solid mechanics, Contact in solid mechanics, Elasticity, Discrete element method, Random structure in solid mechanics, contact dynamics, Tableting
Finite element methods applied to problems in solid mechanics, pseudo-particle assembly, Finite element analysis, tableting, Viscoelasticity, Pharmaceutical powder, Other numerical methods in solid mechanics, Contact in solid mechanics, Elasticity, Discrete element method, Random structure in solid mechanics, contact dynamics, Tableting
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