This preliminary program is subject to change.

Dynamics and Modeling of Particulate Systems II


Description:
The session will focus on the advancement of chemical engineers ability to understand, predict, design, and thus optimize particulate systems. Advances in experimental methods, numerical simulations and granular theories have the potential to improve nucleation and aggregation/agglomeration/coalescence dynamics in particulate systems (including solid/liquid and solid/gas) and thus control size and topography (e.g., fractal dimension) of products. Increasing computational power and new numerical/analytical techniques from Applied Mechanics have allowed for increasingly complex particulate systems to be modeled and have set the stage for future work in such diverse areas as mixing/segregation, granulation, fluidization, and pneumatic conveying, to name but a few.

Sponsor:
Solids Flow, Handling and Processing


Chair:
Deliang Shi
Researh Engineer
SC Johnson
Collaborative Sciences R&D
1525 Howe Street
Racine, WI 53403-2236
Phone Number: 262 260 4617
Fax Number: (262) 260-2820
Email: DShi@scj.com

Co-Chair:
Madhusudhan Kodam
The Dow Chemical Company
Engineering Sciences- Solids Processing
The Dow Chemical Company
Midland, MI 48667
Fax Number: 989-636-4616
Email: MKodam@dow.com


Papers:
Towards a Refined Theory for Liquid Transfer in Dense and Dilute Particle Beds
Stefan Radl, Graz University of Technology; Matthew Girardi, Princeton University; Charles Radeke, Research Center Pharmaceutical Engineering (RCPE); Johannes G. Khinast, Graz University of Technology; Sankaran Sundaresan, Princeton University
Responsive Discrete Element Model for Preparation of Advanced Materials by Mechanical Milling Using an Attritor Mill
Priya R. Santhanam, New Jersey Institute of Technology; Edward L. Dreizin, New Jersey Institute of Technology
Assessment of Collision-Less Vs. Collisional Simulation of Lunar Regolith Ejection During Spacecraft Landing
Kyle Berger, University of Colorado Boulder; Philip Metzger, Granular Materials and Regolith Operations Laboratory; Christine M. Hrenya, University of Colorado at Boulder
Development of an Accurate Granular Normal Contact Force Model Based On a Non-Newtonian Liquid Filled Dashpot
Ebrahim Alizadeh, Ecole Polytechnique de Montreal; Francois Bertrand, Ecole Polytechnique de Montreal; Jamal Chaouki, Ecole Polytechnique de Montreal
Population Density Dependence of Mechanical Multi-Particle Interactions
Maxx Capece, New Jersey Institute of Technology; Rajesh Davé, New Jersey Institute of Technology
See more of this Group/Topical: Particle Technology Forum