Andere Kunden interessierten sich auch für
![Dielectrophoresis Microfluidics for Advanced Particle Separation]( "Dielectrophoresis Microfluidics for Advanced Particle Separation")
Dielectrophoresis Microfluidics for Advanced Particle Separation40,99 €![Particle-Laden Turbulent Pipe Flows]( "Particle-Laden Turbulent Pipe Flows")
Particle-Laden Turbulent Pipe Flows41,99 €![A numerical method for interface-resolving simulations of particle-laden flows with collisions]( "A numerical method for interface-resolving simulations of particle-laden flows with collisions")
A numerical method for interface-resolving simulations of particle-laden flows with collisions24,80 €![Natural and forced convection simulations of a concentrating solar power receiver]( "Natural and forced convection simulations of a concentrating solar power receiver")
Natural and forced convection simulations of a concentrating solar power receiver27,95 €![Particle Size Measurement]( "Particle Size Measurement")
Particle Size Measurement153,99 €![Particle Filter Retrofit for all Diesel Engines]( "Particle Filter Retrofit for all Diesel Engines")
Particle Filter Retrofit for all Diesel Engines69,00 €![Particles in Wall-Bounded Turbulent Flows: Deposition, Re-Suspension and Agglomeration]( "Particles in Wall-Bounded Turbulent Flows: Deposition, Re-Suspension and Agglomeration")
Particles in Wall-Bounded Turbulent Flows: Deposition, Re-Suspension and Agglomeration75,99 €
Doctoral Thesis / Dissertation from the year 2013 in the subject Engineering - Mechanical Engineering, grade: 1, University of Linz (Department on Particulate Flow Modelling), language: English, abstract: The numerical hybrid model EUgran+, which is an Eulerian-Eulerian granular phase model extended with models from the Eulerian-Lagrangian model for dense rapid particulate flows, is modified to account for poly-dispersed particle diameter distributions. These modifications include the implementation of I) a new poly-dispersed drag law and of II) new particle boundary conditions distinguishing between sliding and non-sliding particle-wall collisions and III) a new implementation of the population balance equation in the agglomeration model using the Eulerian-Lagrangian approach, referred to as Bus-stop model. Further, the applicability of the EUgran+ model is extended to cover dilute to dense poly-disperse particulate flows. Furthermore, this provides an improvement in the numerical simulation of dust separation and the formation of particle strands in industrial scale cyclones. In this PHD thesis, the EUgran+Poly model is validated at 3 specific cases with different mass loadings: I) poly-dispersed particle conveying in a square pipe with a 90 degree bend at low mass loading (L = 0:00206); II) a particle conveying case in a rectangular pipe with a double-loop at high mass loading (L = 1:5); III) in a vertical pipe the implementation of the agglomeration model is validated. To show the applicability of the presented models a simulation of an industrial cyclone in experimental scale is presented. The validation and application shows that considering a poly-disperse Eulerian-Eulerian granular phase improves the accordance of the simulation results with measurements significantly. Finally, the hybrid model is a good compromise for a computational efficient simulation of particulate transport and separation with differe