Reactive Bubbly Flows

1. Introduction<div>2. Description of the main topics</div><div>2.1 Chemical Systems for the investigation of Reactive Bubbly Flows:</div><div>2.1.1 Laurini, L.; Hoffmann, A.; Herres-Pawlis, S.: Control of the formation and</div><div>reaction of copper-oxygen/nitrogen monoxide adduct complexes in multiphase</div><div>streams</div><div>2.1.2. Aas, B.; Oßberger, M.; Klüfers, P.: In-situ characterizable nitrosyl-iron</div><div>complexes with controllable reactivity in multiphase reaction media</div><div>2.1.3 Miska, A.; Schindler, S.: Formation, reactivity tuning and kinetic</div><div>investigations of iron "dioxygen" intermediate complexes and derivatives in</div><div>multiphase flow reactions</div><div>2.2. Experimental Methods for reactive bubbly flows:</div><div>2.2.1 Haase, K.; Kähler, C.: Analysis of mixing und mass transport processes in</div><div>bubble swarms under the influence of bubble-induced turbulence</div><div>2.2.2 Kipping, R., Hampel, U.: Experimental studies on the hydrodynamics, mass</div><div>transfer and reaction in bubble swarms with ultrafast X-ray tomography and local</div><div>probes</div><div>2.2.3 Kemper, P.; Thöming, J.: Spatially resolved experimental analysis and</div><div>modeling of mass transfer from rising gas bubbles under influence of swarm</div><div>turbulence with superimposed chemical reaction</div><div>2.3.4 Guhathakurta, J.; Grottke, D.; Simon, S.; Rinke. G.: Investigation of the</div><div>influence of transport processes on chemical reactions in bubble flows using spaceresolved</div><div>in-situ analytics and simultaneous characterization of bubble dynamics in</div><div>real-time</div><div>2.3 Experiments in Reactive Bubbly Flows</div><div>2.3.1 Gast, S.; Nieken, U.: Exemplary determination and verification of kinetics of</div><div>a gas-liquid reaction Simulation und Modelling</div><div>2.3.2 Merker, D.; Kraume, M.: Mass transfer around gas bubbles in reacting liquids</div><div>2.3.3 Kexel, F.; Kastens, S.; Timmermann, J.; Schlüter, M.: Experimental</div><div>investigation of reactive bubble flows-influence of boundary layer dynamics on</div><div>mass transfer and chemical reactions</div><div>2.3.4 Ziegenbalg, D.: Photochemical reactions as switchable tools for the</div><div>fundamental investigation of mass transfer processes in gas-liquid-flows</div><div>2.3.5 Zähringer, K.: Experimental characterization of gas-liquid transport processes</div><div>in a reaction bubble column using a neuralization reaction</div><div>2.3.6 Brücker, C.: Combined volumetric PIV-LIF measurements of the correlation</div><div>between bubble cluster dynamics and mixing in a co-moving frame of a</div><div>stable/unstable bubble plume</div><div>2.4 Numerical Methods for Reactive Bubbly Flows</div><div>2.4.1 Weiner, A.; Bothe, D.: Direct numerical simulation of multi-physics reactive</div><div>mass transfer at single multiple bubbles</div>2.4.2 Hillenbrand, D.; Marschall H.: Development and application of a direct<div>numerical method for reactive transport processes in bubble systems</div><div>2.4.3 Muniz, M.; Sommerfeld, M.: Modelling the influence of bubble dynamics on</div><div>motion, mass transfer and chemical reaction</div><div>2.4.4 Mierka, O.; Turek, S.: Numerical simulation techniques for the efficient and</div><div>accurate treatment of local fluidic transport processes together with chemical</div><div>reactions</div><div>2.4.5 Rzehak, R.: Euler-Euler-Modellierung reaktiver Strömung in Blasensäulen</div><div>2.4.6 Hlawitschka, M.: Multiscale investigations of reactive bubble flows …</div><div>3. Determination of kinetics for reactive bubbly flows using superfocus mixers</div><div>(Herres-Pawlis, Rinke, Simon, Turek, Schlüter)</div><div>4. Visualization and quantitative analysis of consecutive reactions in Taylor bubble</div><div>flows (Schlüter, Herres-Pawlis, Klüfers, Turek)</div><div>5. Chemical reactions on freely ascending single bubbles (Bothe, Kraume, Marschall,</div><div>Herres-Pawlis, Klüfers, Schindler, Schlüter)</div><div>6. Chemical reactions in bubbly flows (Hampel, Tuttlies, Kähler, Simon, Sommerfeld,</div><div>Hlawitschka, Rzehak)</div><div>7. Investigation of reactive bubbly flows in technical apparatuses (Nieken, Herres-</div><div>Pawlis, Schlüter)</div><div>8. Further demand in fundamental research (Schlüter, Herres-Pawlis, Bothe, Nieken)</div>