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NTNU Department of Chemical Engineering

NTNU Department of Chemical Engineering. NTNU Department of Chemical Engineering. The CARPET program. Acronym for C FD A pplied to R eactor P roc E ss T echnology Program duration : from 2001 through 2004 Total budget : 16.9 MNOK financed by NFR

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NTNU Department of Chemical Engineering

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  1. NTNU Department of Chemical Engineering

  2. NTNU Department of Chemical Engineering The CARPET program • Acronym for CFD Applied to Reactor ProcEss Technology • Program duration : from 2001 through 2004 • Total budget : 16.9 MNOK financed by NFR • 5 NTNU Doctorates and 2 NTNU PostDoc :Experimental characterization of dispersed multiphase flows Modeling of dispersed multi-fluid flow in chemical reactors Modeling of Fluidized bed reactors Application of Large Eddie Simulation (LES) in reactor modeling Experiments on near-interface flow phenomena • 3 SINTEF research institutes (Materials Technology, Chemistry and Mathematics) • 2 NTNU departments (Chemical Engineering and Energy and Process Technology) • www.carpet.ntnu.no

  3. NTNU Department of Chemical Engineering Steering group: (Stein Tore Johansen, SINTEF Materialteknologi) Marc Dhainaut , SINTEF Materialteknologi Harald Laux, SINTEF Materialteknologi Paal Skjetne, SINTEF Kjemi Trond Kvamsdal, SINTEF Matematikk Tor Ytrehus, NTNU Energi og prosessteknikk Hugo Jakobsen, NTNU Kjemisk prosessteknologi Hallvard Svendsen, NTNU Kjemisk prosessteknologi Secretary Elisabeth Thorbjørnsen

  4. NTNU Department of Chemical Engineering • Objectives • The main goals of the program are to develop new physical models for fluid flow computations, particularly focused on models applicable to design and optimization of chemical and metallurgical processes, and to strengthen the academic education and research in these fields at NTNU and SINTEF by: • Graduating a minimum of 5 doctorates within these fields and strengthen the collaboration with international research groups through exchange on doctoral and post doc. level. • Developing model programs and experimental validation tools for a selection of specific applications. • Establish a graduate course in advanced reactor technology and multiphase flow. • Strengthen the links between the fundamental and applied research, and the Norwegian industry.

  5. NTNU Department of Chemical Engineering

  6. NTNU Department of Chemical Engineering

  7. Common fields of interest Bubble column • Investigations: • bubble coalescence • bubble breakup • population balance • flow pattern • reactions Separation equipment • Investigations: • droplet coalescence • droplet breakup • droplet entrainment • droplet deposition • population balance • high velocity flow • high pressure flow • flow pattern Fluidized bed reactor injection (gas / droplets) • Investigations: • particle interaction • reactions injection (gas) Scrubber • Investigations: • droplet coalescence • droplet breakup • population balance • high velocity flow injection (gas / droplets) • Techniques: • PIV / PTV • Probes • LDV • Techniques: • PIV / PTV • Probes • LDV Experiments Experiments NTNU Department of Chemical Engineering

  8. NTNU Department of Chemical Engineering CARPET and HiPGaS Ph.D. / Post-Doc. CARPET HiPGaS Macro scale Scrubber Reactors Thomas Braseth Trond Austrheim Kurt Schmidt Håvard Lindborg Reidar Kristofersen Cecilie Gotaas Carlos Dorao Lars Hagesæther Alexandre Brigadeau Meso scale Particle collision Film draining Coalescence Breakup Deposition Entrainment Maria Fernandino Pavel Havelka Elisabeth Torbjørnsen Thomas Helsør Micro scale Marangoni effect Colloid chemestry Coalescence

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