Veröffentlichungen

Veröffentlichungen des ITV

Veröffentlichungen

  1. 2023

    1. M. Sontheimer, A. Kronenburg, und O. T. Stein, „A comparative study of two-phase coupling models for a sparse-Lagrangian particle method“, Proc. Combust. Inst., Bd. 39, (2023).
    2. W. Qian, X. Hui, B. Wang, A. Kronenburg, C.-J. Sung, und Y. Lin, „An investigation into oxidation-induced fragmentation of soot aggregates by Langevin dynamics simulations“, Fuel, Bd. 334, S. 126547, (2023).

  2. 2022

    1. S. Yao, A. Kronenburg, A. Shamooni, O. T. Stein, und W. Zhang, „Gradient Boosted Trees for Combustion Chemistry Integration“, Applications Energy Combust. Sci., Bd. 11, S. 100077, (2022).
    2. A. Shamooni, O. T. Stein, A. Kronenburg, A. M. Kempf, P. Debiagi, T. Li, A. Dreizler, B. Böhm, und C. Hasse, „Fully-resolved simulations of volatile combustion and NOx formation from single coal particles in recycled flue gas environments“, Proc. Combust. Inst., (2022).
    3. N. Iaroslavtceva, A. Kronenburg, und O. T. Stein, „Multiple Mapping Conditioning Mixing Time Scales for Turbulent Premixed Flames“, Flow, Turbul. Combust., Okt. (2022).
    4. T. D. Luu, A. Shamooni, O. T. Stein, A. Kronenburg, S. Popp, H. Nicolai, H. Schneider, X. Wen, und C. Hasse, „Flame characterisation of gas-assisted pulverised coal combustion using FPV-LES“, Proc. Combust. Inst., (2022).
    5. S. Yao, A. Kronenburg, und O. T. Stein, „Efficient modeling of the filtered density function in turbulent sprays using ensemble learning“, Combust. Flame, Bd. 237, S. 111722, (2022).
    6. J. Zhang, Z. Xia, L. Ma, O. T. Stein, Y. Feng, T. D. Luu, und A. Kronenburg, „Sensitivity of flame structure and flame speed in numerical simulations of laminar aluminum dust counterflow flames“, Combust. Flame, Bd. 245, S. 112363, (2022).
    7. X. Wen, A. Shamooni, H. Nicolai, O. T. Stein, A. Kronenburg, A. M. Kempf, und C. Hasse, „Flame structure analysis and flamelet modeling of turbulent pulverized solid fuel combustion with flue gas recirculation“, Proc. Combust. Inst., (2022).
    8. J. Kirchmann, F. J. W. A. Martins, A. Kronenburg, A. Kumar, und F. Beyrau, „Investigation of elastic light scattering in flame spray pyrolysis modelled by a stochastic particle approach“, Proc. Combust. Inst., (2022).
    9. M. Karsch, A. Kronenburg, und O. T. Stein, „Coagulation rate coefficients for fractal-like agglomerates in the diffusive and ballistic limits“, Chemical Engineering Research and Design, Bd. 187, S. 611--622, Nov. (2022).
    10. W. Qian, A. Kronenburg, X. Hui, Y. Lin, und M. Karsch, „Effects of agglomerate characteristics on their collision kernels in the free molecular regime“, Journal of Aerosol Science, Bd. 159, S. 105868, (2022).
    11. J. Zhang, O. T. Stein, T. D. Luu, A. Shamooni, Z. Xia, Z. Luo, L. Ma, Y. Feng, und A. Kronenburg, „Detailed modeling of aluminum particle combustion – From single particles to cloud combustion in Bunsen flames“, Chinese Journal of Aeronautics, Bd. 35, Nr. 5, S. 319–332, (2022).
    12. J. Zhang, Z. Xia, O. T. Stein, L. Ma, F. Li, Y. Feng, Z. Zhang, und A. Kronenburg, „Combustion characteristics of aluminum particle jet flames in a hot co-flow“, Chemical Engineering Journal, Bd. 442, S. 135876, (2022).
    13. N. Iaroslavtceva, A. Kronenburg, und O. T. Stein, „PDF mixing time scales for premixed combustion in the laminar flame limit“, Proc. Combust. Inst., Nov. (2022).

  3. 2021

    1. J. Kirchmann, A. Kronenburg, O. T. Stein, und M. J. Cleary, „Two-phase sparse-Lagrangian MMC-LES of dilute ethanol spray flames“, Proc. Combust. Inst., Bd. 38, S. 3343–3350, (2021).
    2. T. D. Luu, A. Shamooni, O. T. Stein, A. Kronenburg, S. Popp, H. Nicolai, H. Schneider, X. Wen, und C. Hasse, „Analysis of heat transfer effects in flamelet/progress variable LES of gas-assisted pulverised coal flames“, in 30. Deutscher Flammentag 2021, 28-29 Sept, Hannover-Garbsen, Germany, (2021).
    3. G. Neuber, A. Kronenburg, O. T. Stein, C. E. Garcia, B. A. O. Williams, F. Beyrau, und M. J. Cleary, „Sparse-Lagrangian PDF Modelling of Silica Synthesis from Silane Jets in Vitiated Co-flows with Varying Inflow Conditions“, Flow, Turbul. Combust., Bd. 106, S. 1167–1194, (2021).
    4. A. Shamooni, P. Debiagi, B. Wang, T. D. Luu, O. T. Stein, A. Kronenburg, G. Bagheri, A. Stagni, A. Frassoldati, T. Faravelli, A. M. Kempf, X. Wen, und C. Hasse, „Carrier-phase DNS of detailed NOx formation in early-stage pulverized coal combustion with fuel-bound nitrogen“, Fuel, Bd. 291, S. 119998, (2021).
    5. M. Sontheimer, A. Kronenburg, und O. T. Stein, „Two-phase coupling for MMC-LES of spray combustion“, Proc. Combust. Inst., Bd. 38, S. 3361–3369, (2021).
    6. D. D. Loureiro, A. Kronenburg, J. Reutzsch, B. Weigand, und K. Vogiatzaki, „Droplet size distributions in cryogenic flash atomization“, International Journal of Multiphase Flow, Bd. 142, S. 103705, (2021).
    7. J. W. Gärtner, Y. Feng, A. Kronenburg, und O. T. Stein, „Numerical Investigation of Spray Collapse in GDI with OpenFOAM“, Fluids, Bd. 6, Nr. 3, (2021).
    8. X. Wen, A. Shamooni, O. T. Stein, A. Kronenburg, L. Cai, H. Pitsch, A. M. Kempf, und C. Hasse, „Detailed analysis of early-stage NOx formation in turbulent pulverized coal combustion with fuel-bound nitrogen“, Proc. Combust. Inst., Bd. 38, S. 4111–4119, (2021).
    9. S. Yao, B. Wang, A. Kronenburg, und O. T. Stein, „Conditional scalar dissipation rate modelling for turbulent spray flames using artificial neural networks“, Proc. Combust. Inst., Bd. 38, Nr. 3371–3378, (2021).
    10. M. Sontheimer, A. Kronenburg, und O. T. Stein, „Effects of PSI-cell modeling on subgrid-scale mixture fraction variance for LES of spray combustion“, in 30. Deutscher Flammentag, 28-29 Sept, Hannover-Garbsen, Germany, (2021).
    11. C. Straub, A. Kronenburg, O. T. Stein, S. Galindo-Lopez, und M. J. Cleary, „Mixing time scale models for multiple mapping conditioning with two reference variables“, Flow, Turbul. Combust., Bd. 106, S. 1143–1166, (2021).
    12. J. Xing, K. Luo, Y. Chen, O. T. Stein, A. Kronenburg, K. H. Luo, C. Hasse, und J. Fan, „Large eddy simulation of Cambridge bluff-body coal (CCB2) flames with a flamelet progress variable model“, Proc. Combust. Inst., Bd. 38, S. 5347–5354, (2021).
    13. D. Meller, T. Lipkowicz, M. Rieth, O. T. Stein, A. Kronenburg, C. Hasse, und A. M. Kempf, „Numerical Analysis of a Turbulent Pulverized Coal Flame Using a Flamelet/Progress Variable Approach and Modeling Experimental Artifacts“, Energy & Fuels, Bd. 35, S. 7133–7143, (2021).
    14. B. Wang, A. Shamooni, O. T. Stein, A. Kronenburg, A. M. Kempf, P. Debiagi, und C. Hasse, „Investigation of Turbulent Pulverized Solid Fuel Combustion with Detailed Homogeneous and Heterogeneous Kinetics“, Energy & Fuels, Bd. 35, S. 7077–7091, (2021).
    15. F. J. W. A. Martins, A. Kronenburg, und F. Beyrau, „Single-shot two-dimensional multi-angle light scattering (2D-MALS) technique for nanoparticle aggregate sizing“, Applied Physics B, Bd. 127, Nr. 4, S. 51, (2021).
    16. F. J. W. A. Martins, J. Kirchmann, A. Kronenburg, und F. Beyrau, „Quantification and mitigation of PIV bias errors caused by intermittent particle seeding and particle lag by means of large eddy simulations“, Measurement Science and Technology, Bd. 32, Nr. 10, S. 104006, Juni (2021).
    17. X. Wen, H. Nicolai, O. T. Stein, J. Janicka, A. Kronenburg, und C. Hasse, „Effects of air and oxy-fuel atmospheres on flamelet modeling of pollutant formation in laminar counterflow solid fuel flames“, Fuel, Bd. 285, S. 119079, (2021).
    18. J. Kirchmann, F. J. W. A. Martins, A. Kumar, A. Kronenburg, und F. Beyrau, „Assessment of a Stochastic Particle Approach for IPC Spray Flame Synthesis using Synthetic ELS Signals“, in 30. Deutscher Flammentag 2021, 28-29 Sept, Hannover-Garbsen, Germany, Hannover-Garbsen, (2021).
    19. A. Rees, M. Oschwald, J. W. Gärtner, und A. Kronenburg, „Difficulties in Defining the Degree of Superheat in Flash Boiling Liquid Nitrogen Sprays“, in ICLASS Edinburgh 2021, Edinburgh, (2021).
    20. M. Sontheimer, A. Kronenburg, und O. T. Stein, „Grid dependence of evaporation rates in Euler–Lagrange simulations of dilute sprays“, Combust. Flame, Bd. 232, S. 111515, (2021).

  4. 2020

    1. Y. Chen, O. T. Stein, A. Kronenburg, J. Xing, K. Luo, K. H. Luo, und C. Hasse, „Analysis of Gas-Assisted Pulverized Coal Combustion in Cambridge Coal Burner CCB1 Using FPV-LES“, Energy & Fuels, Bd. 34, S. 7477–7489, (2020).
    2. D. D. Loureiro, J. Reutzsch, A. Kronenburg, B. Weigand, und K. Vogiatzaki, „Primary breakup regimes for cryogenic flash atomization“, International Journal of Multiphase Flow, Bd. 132, S. 103405, (2020).
    3. D. D. Loureiro, J. Reutzsch, A. Kronenburg, B. Weigand, und K. Vogiatzaki, „Towards full resolution of spray break-up in flash atomization conditions using DNS“, in High Performance Computing in Science and Engineering ’19, (2020), S. 209–224.
    4. F. Salehi, M. J. Cleary, A. R. Masri, und A. Kronenburg, „Large eddy simulation of polydispersed inertial particles using two-way coupled PDF-PBE“, International Journal of Heat and Fluid Flow, Bd. 83, S. 108585, (2020).
    5. X. Wen, M. Rieth, A. Scholtissek, O. T. Stein, H. Wang, K. Luo, A. M. Kempf, A. Kronenburg, J. Fan, und C. Hasse, „A comprehensive study of flamelet tabulation methods for pulverized coal combustion in a turbulent mixing layer — Part I: A priori and budget analyses“, Combust. Flame, Bd. 216, S. 439–452, (2020).
    6. S. Hirschmann, A. Kronenburg, C. W. Glass, und D. Pflüger, „Load-Balancing for Large-Scale Soot Particle Agglomeration Simulations“, in Parallel Computing: Technology Trends, (2020), S. 147--156.
    7. X. Wen, M. Rieth, A. Scholtissek, O. T. Stein, H. Wang, K. Luo, A. Kronenburg, J. Fan, und C. Hasse, „A comprehensive study of flamelet tabulation methods for pulverized coal combustion in a turbulent mixing layer—Part II: Strong heat losses and multi-mode combustion“, Combust. Flame, Bd. 216, S. 453–467, (2020).
    8. S. Yao, B. Wang, A. Kronenburg, und O. T. Stein, „Modeling of sub-grid conditional mixing statistics in turbulent sprays using machine learning methods“, Physics of Fluids, Bd. 32, Nr. 11, S. 115124, (2020).
    9. J. W. Gärtner, A. Kronenburg, A. Rees, J. Sender, M. Oschwald, und G. Lamanna, „Numerical and experimental analysis of flashing cryogenic nitrogen“, International Journal of Multiphase Flow, Bd. 130, S. 103360, (2020).
    10. F. J. W. A. Martins, J. Kirchmann, A. Kronenburg, und F. Beyrau, „Experimental investigation of axisymmetric, turbulent, annular jets discharged through the nozzle of the SPP1980 SpraySyn burner under isothermal and reacting conditions“, Experimental Thermal and Fluid Science, Bd. 114, S. 110052, (2020).
    11. J. W. Gärtner, A. Kronenburg, und T. Martin, „Efficient WENO library for OpenFOAM“, SoftwareX, Bd. 12, S. 100611, (2020).

  5. 2019

    1. J. Kirchmann, A. Kronenburg, O. T. Stein, und M. J. Cleary, „Sparse-Lagrangian MMC-LES of dilute ethanol spray flames“, in 29. Deutscher Flammentag 2019, 17-18 June, Bochum, Germany, (2019).
    2. S. Kumar Ghai, S. De, und A. Kronenburg, „Numerical simulations of turbulent lifted jet diffusion flames in a vitiated coflow using the stochastic multiple mapping conditioning approach“, Proc. Combust. Inst., Bd. 37, S. 2199–2206, (2019).
    3. B. Wang, A. Kronenburg, und O. T. Stein, „Modelling sub-grid passive scalar statistics in moderately dense evaporating sprays“, Flow, Turbul. Combust., Bd. 103, S. 519–535, (2019).
    4. D. Loureiro, J. Reutzsch, A. Kronenburg, B. Weigand, und K. Vogiatzaki, „Resolving breakup in flash atomization conditions using DNS“, in 10th Int’l Conf. Multiphase Flow 2019, 19-24 May 2019, Rio de Janeiro, Brazil, (2019).
    5. D. Dietzel, T. Hitz, C.-D. Munz, und A. Kronenburg, „Numerical simulation of the growth and interaction of vapour bubbles in superheated liquid jets“, International Journal of Multiphase Flow, Bd. 121, S. 103112, (2019).
    6. O. T. Stein und H. Watanabe, „Target Flames: CRIEPI coal jet flame“, in Proc. 3rd Internat. Workshop on Coal and Biomass Conversion (CBC3), Aachen, Germany, (2019).
    7. C. Straub, A. Kronenburg, O. T. Stein, S. Galindo-Lopez, und M. J. Cleary, „Mixing time scale models for multiple mapping conditioning of partially premixed flames“, in Proc. 11th Medit. Combust. Symp., Tenerife, Spain, (2019).
    8. M. Sontheimer, A. Kronenburg, und O. T. Stein, „Analysis of the particle-source-in-cell model for LES of spray combustion“, in 29. Deutscher Flammentag 2019, 17-18 June, Bochum, Germany, (2019).
    9. M. Sontheimer, A. Kronenburg, und O. T. Stein, „Analysis of Multiphase MMC Coupling Using DNS of a Reacting Double Shear Layer“, in Proc. 9th Europ. Combust. Meeting, Lisboa, Portugal, (2019).
    10. X. Wen, O. T. Stein, P. Debiagi, A. Scholtissek, A. Kronenburg, A. M. Kempf, und C. Hasse, „Detailed simulations for flamelet modelling SOx formation from coal“, in Proc. Appl. Math. Mech., 24th May 2019, Vienna, Austria, (2019).
    11. F. Salehi, M. J. Cleary, A. R. Masri, und A. Kronenburg, „PDF-PBE modelling of polydisperse inertial particles in a turbulent recirculating flow“, International Journal of Multiphase Flow, Bd. 117, S. 42–52, (2019).
    12. X. Wen, P. Debiagi, O. T. Stein, A. Kronenburg, A. M. Kempf, und C. Hasse, „Flamelet tabulation methods for solid fuel combustion with fuel-bound nitrogen“, Combust. Flame, Bd. 209, S. 155–166, (2019).
    13. G. Neuber, C. E. Garcia, A. Kronenburg, B. A. O. Williams, F. Beyrau, O. T. Stein, und M. J. Cleary, „Sparse-Lagrangian PDF modelling of particulate flame synthesis in turbulent reacting flows“, in Proc. 11th Medit. Combust. Symp., Tenerife, Spain, (2019).
    14. C. Straub, A. Kronenburg, O. T. Stein, R. S. Barlow, und D. Geyer, „Modelling stratified flames with and without shear using multiple mapping conditioning“, Proc. Combust. Inst., Bd. 37, S. 2317–2324, (2019).
    15. G. Neuber, C. E. Garcia, A. Kronenburg, B. A. O. Williams, F. Beyrau, O. T. Stein, und M. J. Cleary, „Joint experimental and numerical study of silica particulate synthesis in a turbulent reacting jet“, Proc. Combust. Inst., Bd. 37, S. 1213–1220, (2019).
    16. G. L. Tufano, O. T. Stein, A. Kronenburg, G. Gentile, A. Stagni, A. Frassoldati, T. Faravelli, A. M. Kempf, M. Vascellari, und C. Hasse, „Fully-resolved simulations of coal particle combustion using a detailed multi-step approach for heterogeneous kinetics“, Fuel, Bd. 240, S. 75–83, (2019).
    17. X. Wen, O. T. Stein, G. L. Tufano, A. Kronenburg, A. Scholtissek, und C. Hasse, „Multi-dimensional and transient effects on flamelet modeling for turbulent pulverized coal combustion“, Fuel, Bd. 255, S. 115772, (2019).
    18. L. Zhao, M. J. Cleary, O. T. Stein, und A. Kronenburg, „A two-phase MMC-LES model for pyrolysing solid particles in a turbulent flame“, Combust. Flame, Bd. 209, S. 322–336, (2019).
    19. B. Wang, A. Kronenburg, und O. T. Stein, „A new perspective on modelling passive scalar conditional mixing statistics in turbulent spray flames“, Combust. Flame, Bd. 208, S. 376–387, (2019).
    20. D. Dietzel, T. Hitz, C.-D. Munz, und A. Kronenburg, „Single vapour bubble growth under flash boiling conditions using a modified HLLC Riemann solver“, International Journal of Multiphase Flow, Bd. 116, S. 250–269, (2019).
    21. M. Smiljanic, R. Weeber, D. Pflüger, C. Holm, und A. Kronenburg, „Developing coarse-grained models for agglomerate growth“, The European Physical Journal Special Topics, Bd. 227, S. 1515–1527, März (2019).
    22. M. Rieth, A. M. Kempf, O. T. Stein, A. Kronenburg, C. Hasse, und M. Vascellari, „Evaluation of a flamelet/progress variable approach for pulverized coal combustion in a turbulent mixing layer“, Proc. Combust. Inst., Bd. 37, S. 2927–2934, (2019).
    23. J. W. Gärtner, A. Rees, A. Kronenburg, J. Sender, M. Oschwald, und D. D. Loureiro, „Large Eddy Simulation of Flashing Cryogenic Liquid with a Compressible Volume of Fluid Solver“, in ILASS, 2019, 2-4 Sept., Paris, France, (2019).
    24. O. T. Stein, C. Hasse, und K. Luo, „Target Flames: Cambridge Coal Burner“, in Proc. 3rd Internat. Workshop on Coal and Biomass Conversion (CBC3), Aachen, Germany, (2019).
    25. G. Neuber, F. Fuest, J. Kirchmann, A. Kronenburg, O. T. Stein, S. Galindo-Lopez, M. J. Cleary, R. S. Barlow, B. Coriton, J. H. Frank, und J. A. Sutton, „Sparse-Lagrangian MMC modelling of the Sandia DME flame series“, Combust. Flame, Bd. 208, S. 110–121, (2019).

  6. 2018

    1. M. Rieth, M. Rabacal, A. M. Kempf, A. Kronenburg, und O. T. Stein, „Carrier-phase DNS of biomass particle ignition and volatile burning in a turbulent mixing layer“, Chem. Eng. Trans., Bd. 65, S. 37–42, (2018).
    2. M. Smiljanic, A. Kronenburg, R. Weeber, C. Holm, und D. Pfüger, „Towards a coarse-grained approach for nanoparticle agglomeration“, in Proc. 6th Internat. Conf. on Population Balance Mod., Ghent, Belgium, (2018).
    3. C. Straub, A. Kronenburg, O. T. Stein, G. Kuenne, J. Janicka, R. S. Barlow, und D. Geyer, „Multiple mapping conditioning coupled with an artificially thickened flame model for turbulent premixed combustion“, Combust. Flame, Bd. 196, S. 325–336, (2018).
    4. D. Loureiro, J. Reutzsch, D. Dietzel, A. Kronenburg, B. Weigand, und K. Vogiatzaki, „DNS of multiple bubble growth and droplet formation in superheated liquids“, in 14th Triennial Int’l Conf. Liquid Atomization Spray Systems (ICLASS), Chicago, USA, (2018).
    5. B. Wang, A. Kronenburg, G. L. Tufano, und O. T. Stein, „Fully resolved DNS of droplet array combustion in turbulent convective flows and modelling for mixing fields in inter-droplet space“, Combust. Flame, Bd. 189, S. 347–366, (2018).
    6. N. Khan, M. J. Cleary, O. T. Stein, und A. Kronenburg, „A two-phase MMC–LES model for turbulent spray flames“, Combust. Flame, Bd. 193, S. 424–439, (2018).
    7. S. Galindo-Lopez, F. Salehi, M. J. Cleary, A. R. Masri, G. Neuber, O. T. Stein, A. Kronenburg, A. Varna, E. R. Hawkes, B. Sundaram, A. Y. Klimenko, und Y. Ge, „A Stochastic Multiple Mapping Conditioning Computational Model in OpenFOAM for Turbulent Combustion“, Computers & Fluids, Bd. 172, S. 410–425, (2018).
    8. G. L. Tufano, O. T. Stein, B. Wang, A. Kronenburg, M. Rieth, und A. M. Kempf, „Coal particle volatile combustion and flame interaction. Part I: Characterization of transient and group effects“, Fuel, Bd. 229, S. 262–269, (2018).
    9. Y. Chen, O. T. Stein, A. Kronenburg, M. Vascellari, C. Hasse, und K. H. Luo, „Flamelet progress variable modelling of pulverized coal devolatilisation and burning in opposed jets“, in Conf. on Modelling Fluid Flow (CMFF), Budapest, Hungary., (2018).
    10. H. Jin, K. Luo, O. T. Stein, H. Watanabe, und X. Ku, „Coal and Biomass Combustion“, Journal of Combustion, Article ID 9654923, (2018).
    11. M. Rieth, A. M. Kempf, A. Kronenburg, und O. T. Stein, „Carrier-phase DNS of pulverized coal particle ignition and volatile burning in a turbulent mixing layer“, Fuel, Bd. 212, S. 364–374, (2018).
    12. S. Vo, A. Kronenburg, O. T. Stein, und M. J. Cleary, „MMC-LES of a syngas mixing layer using an anisotropic mixing time scale model“, Combust. Flame, Bd. 189, S. 311–314, (2018).
    13. G. L. Tufano, O. T. Stein, B. Wang, A. Kronenburg, M. Rieth, und A. M. Kempf, „Coal particle volatile combustion and flame interaction. Part II: Effects of particle Reynolds number and turbulence“, Fuel, Bd. 234, S. 723–731, (2018).
    14. B. Wang, H. Chu, A. Kronenburg, und O. T. Stein, „A Resolved Simulation Study on the Interactions Between Droplets and Turbulent Flames Using OpenFOAM“, in High Performance Computing in Science and Engineering ’17, (2018), S. 205–220.

  7. 2017

    1. L. F. Zhao, M. J. Cleary, O. T. Stein, und A. Kronenburg, „On the use of sparse-Lagrangian MMC-LES for simulation of a piloted coal jet“, in 11th Asia-Pacific Conference on Combustion, Dec 10-14 2017, Sydney, Australia, (2017).
    2. O. T. Stein, K. Tainaka, und H. Watanabe, „Target Flames: CRIEPI coal jet flame“, in Proc. 2nd Internat. Workshop on Coal and Biomass Conversion (CBC2), Orlando, FL, USA, (2017).
    3. G. L. Tufano, O. T. Stein, R. Knappstein, J. Janicka, und A. Kronenburg, „Resolved flow simulation of pulverized coal particle combustion past a premixed flame front“, in Proc. 8th Europ. Combust. Meeting, Dubrovnik, Croatia, (2017).
    4. C. Straub, A. Kronenburg, O. T. Stein, G. Kuenne, und K. Vogiatzaki, „Modelling of turbulent premixed stratified combustion with multiple mapping conditioning mixing model“, in Proc. 8th Europ. Combust. Meeting, Dubrovnik, Croatia, (2017).
    5. M. Rieth, A. G. Clements, M. Rabaçal, F. Proch, O. T. Stein, und A. M. Kempf, „Flamelet LES modeling of coal combustion with detailed devolatilization by directly coupled CPD“, Proc. Combust. Inst., Bd. 36, S. 2181–2189, (2017).
    6. A. Kronenburg und O. T. Stein, „LES-CMC of a Partially Premixed, Turbulent Dimethyl Ether Jet Diffusion Flame“, Flow, Turbul. Combust., Bd. 98, S. 803–816, (2017).
    7. G. Inci, A. Kronenburg, R. Weeber, und D. Pflüger, „Langevin Dynamics Simulation of Transport and Aggregation of Soot Nano-particles in Turbulent Flows“, Flow, Turbul. Combust., S. 1065–1085, (2017).
    8. S. Vo, A. Kronenburg, O. T. Stein, und E. R. Hawkes, „Direct numerical simulation of non-premixed syngas combustion using OpenFOAM“, in High Performance Computing in Science and Engineering ’16, Stuttgart, (2017), S. 245–257.
    9. S. Vo, A. Kronenburg, O. T. Stein, und M. J. Cleary, „Large eddy simulation of nanoparticle nucleation using multiple mapping conditioning“, in Proc. 8th Europ. Combust. Meeting, Dubrovnik, Croatia, (2017).
    10. S. Vo, O. T. Stein, A. Kronenburg, und M. J. Cleary, „Assessment of mixing time scales for a sparse particle method“, Combust. Flame, Bd. 179, S. 280–299, (2017).
    11. F. Salehi, M. J. Cleary, A. R. Masri, und A. Kronenburg, „PDF-PBE for Particle Dispersion in a Turbulent Round Jet“, in 11th Asia-Pacific Conference on Combustion, Dec 10-14 2017, Sydney, Australia, (2017).
    12. S. Vo, A. Kronenburg, O. T. Stein, und M. J. Cleary, „Multiple mapping conditioning for silica nanoparticle nucleation in turbulent flows“, Proc. Combust. Inst., Bd. 36, S. 1089–1097, (2017).
    13. M. Vascellari, G. L. Tufano, O. T. Stein, A. Kronenburg, A. M. Kempf, A. Scholtissek, und C. Hasse, „A flamelet/progress variable approach for modeling coal particle ignition“, Fuel, Bd. 201, S. 29–38, (2017).
    14. D. Dietzel, T. Hitz, C.-D. Munz, und A. Kronenburg, „Expansion rates of bubble clusters in superheated liquids“, in ILASS – Europe 2017, 28th Conf. Liquid Atomization Spray Systems, Sep. 6-8. 2017, Valencia, Spain, (2017).
    15. B. Wang, A. Kronenburg, D. Dietzel, und O. T. Stein, „Assessment of scaling laws for mixing fields in inter-droplet space“, Proc. Combust. Inst., Bd. 36, S. 2451–2458, (2017).
    16. G. Neuber, A. Kronenburg, O. T. Stein, und M. J. Cleary, „MMC-LES modelling of droplet nucleation and growth in turbulent jets“, Chem. Eng. Sci., Bd. 167, S. 204–218, (2017).

  8. 2016

    1. G. L. Tufano, O. T. Stein, A. Kronenburg, A. Frassoldati, T. Faravelli, L. Deng, A. M. Kempf, M. Vascellari, und C. Hasse, „Resolved flow simulation of pulverized coal particle devolatilization and ignition in air- and O2/CO2-atmospheres“, Fuel, Bd. 186, S. 285–292, (2016).
    2. B. Wang, A. Kronenburg, und O. T. Stein, „Assessment of scaling laws for mixing fields in interdroplet space in reacting flows“, in 27th Europ Conf. on Liquid Atomiz. Spray Syst. (ILASS), Brighton, UK, (2016).
    3. C. Straub, S. De, A. Kronenburg, und K. Vogiatzaki, „The effect of timescale variation in multiple mapping conditioning mixing of PDF calculations for Sandia Flame series D–F“, Combust. Theo. Mod., Bd. 20, S. 894–912, (2016).
    4. G. Neuber, A. Kronenburg, O. T. Stein, M. J. Cleary, B. Coriton, und J. H. Frank, „Sparse-Lagrangian MMC modelling of the Sandia DME (D-F) jet flames“, in 36th Internat. Combust. Symp., Seoul, Republic of Korea, (2016).
    5. G. Neuber, J. Kirchmann, A. Kronenburg, O. T. Stein, und M. J. Cleary, „Sparse-Lagrangian MMC modelling of a partially-premixed DME/air flame series“, in 11th Internat. ERCOFTAC Symp. Eng. Turb. Model. & Meas. (ETMM), Palermo, Italy, (2016).

  9. 2015

    1. G. Neuber, Y. Gao, A. Kronenburg, O. T. Stein, und M. J. Cleary, „LES-MMC modelling of a partially-premixed turbulent DME/air jet flame“, in Proc. Austral. Combust. Symp., Melbourne, Australia, (2015).
    2. D. Dietzel, S. Fechter, C.-D. Munz, und A. Kronenburg, „Vapor bubble growth in superheated liquids“, in ICLASS 2015, 13th Triennial Conf Liquid Atomization Spray Systems, Aug. 23-27. 2015, Tainan, Taiwan, (2015).
    3. G. L. Tufano, C. Hasse, M. Vascellari, A. M. Kempf, I. Wlokas, L. Deng, A. Kronenburg, und O. Stein, „Direct numerical simulation of coal particle devolatilization and volatile combustion“, in 7th European Combustion Meeting, 7th European Combustion Meeting, (2015).
    4. S. Ukai, A. Kronenburg, und O. T. Stein, „Certain Aspects of Conditional Moment Closure for Spray Flame Modelling“, in High Performance Computing in Science and Engineering ’14, (2015), S. 335–350.
    5. X. Wen, H. Jin, O. T. Stein, J. Fan, und K. Luo, „Large Eddy Simulation of piloted pulverized coal combustion using the velocity-scalar joint filtered density function model“, Fuel, Bd. 158, S. 494–502, (2015).
    6. N. Seubert, A. Kronenburg, O. T. Stein, Y. Ge, und M. J. Cleary, „Large eddy simulation for the computation of particle characteristics in turbulent jets“, in in Proc. 9th Medit. Combust. Symp., Rhodes, Greece, (2015).
    7. B. Coriton, M. Zendehdel, S. Ukai, A. Kronenburg, O. T. Stein, S.-K. Im, M. Gamba, und J. H. Frank, „Imaging measurements and LES-CMC modeling of a partially-premixed turbulent dimethyl ether/air jet flame“, Proc. Combust. Inst., Bd. 35, S. 1251–1258, (2015).
    8. K. Vogiatzaki, S. Navarro-Martinez, S. De, und A. Kronenburg, „Mixing Modelling Framework Based on Multiple Mapping Conditioning for the Prediction of Turbulent Flame Extinction“, Flow, Turbul. Combust., Bd. 95, S. 501--517, Okt. (2015).
    9. S. Ukai, A. Kronenburg, und O. T. Stein, „Large eddy simulation of dilute acetone spray flames using CMC coupled with tabulated chemistry“, Proc. Combust. Inst., Bd. 35, S. 1667–1674, (2015).
    10. S. Vo, O. T. Stein, A. Kronenburg, und M. J. Cleary, „Analysis of MMC mixing model using DNS of an evolving double shear layer with extinction and reignition“, in Proc. 7th Europ. Combust. Meeting, Budapest, Hungary, (2015).
    11. O. T. Stein und H. Watanabe, „Target Flames: CRIEPI coal jet flame“, in Proc. 1st Internat. Workshop on Coal and Biomass Conversion (CBC1), Avignon, France, (2015).
    12. M. J. Cleary, O. T. Stein, A. Kronenburg, und R. W. Bilger, „A New Conserved Scalar Model for coal combustion“, in 8th Internat. Symp. on Coal Combust. (ISCC), Beijing, China, (2015).
    13. G. Olenik, O. T. Stein, und A. Kronenburg, „LES of swirl-stabilised pulverised coal combustion in IFRF furnace No. 1“, Proc. Combust. Inst., Bd. 35, S. 2819–2828, (2015).

  10. 2014

    1. D. Dietzel, S. Fechter, C.-D. Munz, und A. Kronenburg, „Investigation of vapor bubble growth under flash boiling conditions“, in 26th Ann. Conf. Liquid Atomization Spray Systems (ILASS Europe), Bremen, Germany, (2014).
    2. G. Inci, A. Kronenburg, und A. Arnold, „Characteristics of soot aggregation in convective environments“, in 10th Symp. Eng. Turbul. Mod. and Meas. (ETMM), Marbella, (2014).
    3. K. Vogiatzaki, S. Navarro-Martinez, S. De, und A. Kronenburg, „Modelling of a turbulent jet flame close to extinction with multiple mapping conditioning“, in 10th Symposium on Engineering Turbulence Modelling and Measurements, Marbella, Spain, (2014).
    4. M. N. Khan, L. F. Zhao, M. J. Cleary, R. W. Bilger, O. T. Stein, und A. Kronenburg, „A mixture fraction-based model for evaporation, pyrolysis and char conversion of dilute fuel dispersion“, in 19th Australasian Fluid Mech. Conf., Melbourne, Australia, (2014).
    5. G. Inci, A. Arnold, A. Kronenburg, und R. Weeber, „Modeling Nanoparticle Agglomeration using Local Interactions“, Aerosol Sci. and Technology, Bd. 48, S. 842–852, (2014).
    6. M. Rieth, F. Proch, O. T. Stein, M. W. A. Pettit, und A. M. Kempf, „Comparison of the Sigma and Smagorinsky LES models for grid generated turbulence and a channel flow“, Computers & Fluids, Bd. 99, S. 172–181, (2014).
    7. S. Vo, A. Kronenburg, O. T. Stein, Y. Ge, A. Y. Klimenko, und M. J. Cleary, „Analysis of LES-MMC modelling using DNS of a reacting mixing layer“, in 8th International Seminar on Flame Structure, Berlin, Germany, (2014).
    8. T. Ma, O. T. Stein, N. Chakraborty, und A. M. Kempf, „A posteriori testing of the flame surface density transport equation for LES“, Combust. Theo. Mod., Bd. 18, Nr. 1, S. 32–64, (2014).
    9. D. Dietzel, D. Messig, F. Piscaglia, A. Montorfano, G. Olenik, O. T. Stein, A. Kronenburg, A. Onorati, und C. Hasse, „Evaluation of scale resolving turbulence generation methods for Large Eddy Simulation of turbulent flows“, Computers & Fluids, Bd. 93, S. 116–128, (2014).
    10. S. Ukai, A. Kronenburg, und O. T. Stein, „Simulation of Dilute Acetone Spray Flames with LES-CMC Using Two Conditional Moments“, Flow, Turbul. Combust., Bd. 93, S. 405--423, (2014).

  11. 2013

    1. D. Dietzel, D. Messig, F. Piscaglia, A. Montorfano, G. Olenik, O. T. Stein, A. Kronenburg, und C. Hasse, „Comparison of inflow generation methods for LES of turbulent flames“, in 14th SIAM Internat. Conf. Numerical Combust., San Antonio, USA, (2013).
    2. S. Ukai, A. Kronenburg, und O. T. Stein, „LES-CMC of a dilute acetone spray flame with pre-vapor using two conditional moments“, in Proc. 6th Europ. Combust. Meeting, Lund, Sweden, (2013).
    3. T. Ma, O. T. Stein, N. Chakraborty, und A. M. Kempf, „A posteriori testing of algebraic flame surface density models for LES“, Combust. Theo. Mod., Bd. 17, Nr. 3, S. 431–482, (2013).
    4. G. Inci und A. Kronenburg, „Particle Aggregation: A Comparison between Molecular Dynamics Simulations and Modelling by the Population Balance Equation“, in Proc. 5th Internat. Conf. on Population Balance Mod., Bangalore, India, (2013).
    5. G. Inci und A. Kronenburg, „Modelling aerosol agglomeration using molecular dynamics methodology“, in 2013 Europ. Aerosol Conf. (EAC 2013), Prague, Czech Republic, (2013).
    6. N. Seubert, A. Kronenburg, O. T. Stein, Y. Ge, und M. J. Cleary, „Mixing model effects on LES-PDF-PBE simulations of DBP droplets in a turbulent jet“, in 25th European Conference on Liquid Atomization and Spray Systems (ILASS) 2013, Chania, Crete, (2013).
    7. G. Olenik, O. T. Stein, und A. Kronenburg, „LES of an industrial scale swirled pulverised coal furnace“, in 26th German Flame Day, VDI-Tagungsband 2161:235-242, (2013).
    8. S. Ukai, A. Kronenburg, und O. T. Stein, „Simulation of dilute acetone spray flames with LES-CMC using two conditional moments“, in in Proc. 8th Medit. Combust. Symp., Cesme, Turkey, (2013).
    9. O. T. Stein, G. Olenik, A. Kronenburg, F. Cavallo Marincola, B. M. Franchetti, A. M. Kempf, M. Ghiani, M. Vascellari, und C. Hasse, „Towards Comprehensive Coal Combustion Modelling for LES“, Flow, Turbul. Combust., Bd. 90, S. 859–884, Juni (2013).
    10. S. Ukai, A. Kronenburg, und O. T. Stein, „LES-CMC of a dilute acetone spray flame“, Proc. Combust. Inst., Bd. 34, S. 1643–1650, (2013).
    11. P. Siwaborworn und A. Kronenburg, „Conservative Implementation of LES-CMC for Turbulent Jet Flames“, in High Performance Computing in Science and Engineering ’12, (2013), S. 159–173.

  12. 2012

    1. F. Bottone, A. Kronenburg, D. Gosman, und A. Marquis, „Large Eddy Simulation of Diesel Engine In-cylinder Flow“, Flow, Turbul. Combust., Bd. 88, Nr. 1, S. 233--253, März (2012).
    2. M. R. G. Zoby, A. Kronenburg, S. Navarro-Martinez, und A. J. Marquis, „Assessment of Conventional Droplet Evaporation Models for Spray Flames“, in High Performance Computing in Science and Engineering ’11, (2012), S. 209–227.
    3. J. J. Choi und A. Kronenburg, „Modelling Mixing and Particle Formation in Supercritical Antisolvent Processes“, in 10th Workshop über Sprays, Techniken der Fluidzerstäubung und Untersuchungen von Sprühvorgängen, SPRAY 2012, Berlin, Germany, (2012).
    4. C. Olbricht, O. T. Stein, J. Janicka, J. A. van Oijen, S. Wysocki, und A. M. Kempf, „LES of lifted flames in a gas turbine model combustor using top-hat filtered PFGM chemistry“, Fuel, Bd. 96, S. 100–107, (2012).
    5. N. Seubert, A. Kronenburg, O. T. Stein, Y. Ge, und M. J. Cleary, „Large Eddy simulation-probability density function modelling of nucleation and condensation of DBP droplets in a turbulent jet“, in 12th International Conference on Liquid Atomization and Spray Systems, Heidelberg, Germany, (2012).
    6. F. Bottone, A. Kronenburg, D. Gosman, und A. Marquis, „The Numerical Simulation of Diesel Spray Combustion with LES-CMC“, Flow, Turbul. Combust., Bd. 89, Nr. 4, S. 651--673, Dez. (2012).

  13. 2011

    1. G. Olenik, O. T. Stein, und A. Kronenburg, „LES of a piloted pulverized coal jet“, in 1st ERCOFTAC Conf. on Simul. of Multiphase Flows in Gasific. and Combust., Dresden, Germany, (2011).
    2. A. M. Kempf, B. J. Geurts, T. Ma, M. W. A. Pettit, und O. T. Stein, „Quality Issues in Combustion LES“, Journal of Scientific Computing, Bd. 49, Nr. 1, S. 51--64, 0 (2011).
    3. A. Kronenburg und E. Mastorakos, „The Conditional Moment Closure Model“, in Turbulent Combustion Modeling: Advances, New Trends and Perspectives, T. Echekki und E. Mastorakos, Hrsg. Dordrecht: Springer Netherlands, (2011), S. 91--117.
    4. A. Kronenburg, M. R. G. Zoby, S. Navarro-Martinez, und A. J. Marquis, „Scalar Mixing in Droplet Arrays in Stagnant and Convective Environments“, in High Performance Computing in Science and Engineering ’10, (2011), S. 191–202.
    5. F. Bottone, A. Kronenburg, A. J. Marquis, A. D. Gosman, und E. Mastorakos, „The numerical simulation of Diesel spray combustion with LES-CMC“, in in Proc. 5th Europ. Combust. Meeting, Cardiff, UK, (2011).
    6. M. R. G. Zoby, S. Navarro-Martinez, A. Kronenburg, und A. J. Marquis, „Evaporation rates of droplet arrays in turbulent reacting flows“, Proc. Combust. Inst., Bd. 33, S. 2117–2125, (2011).
    7. O. Stein, A. Kempf, T. Ma, C. Olbricht, A. Duncan, und G. D. Lewis, „Large Eddy Simulation of non-reacting gas flow in a 40 MW pulverised coal combustor“, Progress in Computational Fluid Dynamics, Bd. 11, S. 397–402, Okt. (2011).
    8. K. Vogiatzaki, S. Navarro-Martinez, und A. Kronenburg, „Modelling of Sandia Flame F with Multiple Mapping Conditioning“, in in Proc. 5th Europ. Combust. Meeting, Cardiff, UK, (2011).
    9. O. T. Stein, B. Böhm, A. Dreizler, und A. M. Kempf, „Highly-resolved LES and PIV Analysis of Isothermal Turbulent Opposed Jets for Combustion Applications“, Flow, Turbul. Combust., Bd. 87, Nr. 2, S. 425--447, 0 (2011).
    10. S. Ukai, O. T. Stein, und A. Kronenburg, „Large eddy simulations of turbulent acetone spray combustion with conditional moment closure“, in 25th German Flame Day, VDI-Tagungsband 2119:233-240, Karlsruhe, Germany, (2011).
    11. K. Vogiatzaki, A. Kronenburg, S. Navarro-Martinez, und W. P. Jones, „Stochastic multiple mapping conditioning for a piloted, turbulent jet diffusion flame“, Proc. Combust. Inst., Bd. 33, Nr. 1, S. 1523–1531, (2011).
    12. S. Navarro-Martinez und A. Kronenburg, „Flame Stabilization Mechanisms in Lifted Flames“, Flow, Turbul. Combust., Bd. 87, Nr. 2, S. 377--406, Okt. (2011).
    13. S. Ukai, O. T. Stein, und A. Kronenburg, „Large eddy simulations of turbulent evaporating acetone spray jets“, in Proc. 5th Europ. Combust. Meeting, Cardiff, UK, (2011).
    14. F. Bottone, A. Kronenburg, A. J. Marquis, A. D. Gosman, und E. Mastorakos, „The role of scalar dissipation rate models in LES-CMC of turbulent non-premixed flames“, in International Conference on Numerical Combustion, Corfu (2011), (2011).
    15. M. R. G. Zoby, S. Navarro-Martinez, A. Kronenburg, und A. J. Marquis, „Turbulent mixing in three-dimensional droplet arrays“, Int. J. Heat Fluid Flow, Bd. 32, S. 499–509, (2011).

  14. 2010

    1. F. Bottone, A. Kronenburg, A. J. Marquis, und A. D. Gosman, „An LES-CMC method for the numerical simulation of Diesel engine combustion“, in LES for internal combustion Engine Flows – LES4ICE, IFP, Paris, France (2010), (2010).
    2. M. R. G. Zoby, S. Navarro-Martinez, A. Kronenburg, und A. J. Marquis, „Turbulent mixing in three-dimensional droplet arrays“, in Proc. 8th International Symposium on Engineering Turbulence Modelling and Measurements - ETMM8, 3:794-799 (2010), (2010).
    3. O. T. Stein, G. Lewis, C. Olbricht, J. Gibbins, und A. M. Kempf, „Numerical simulation of flow and combustion in a 40MW industrial coal furnance“, in 8th Internat. ERCOFTAC Symp. Eng. Turb. Model. & Meas., Marseille, France (2010), (2010).
    4. P. Y. Vaishnavi und A. Kronenburg, „Multiple Mapping Conditioning for velocity statistics in turbulent jet flames“, Combust. Flame, Bd. 157, S. 1863–1865, (2010).
    5. F. Bottone, A. Kronenburg, A. J. Marquis, und A. D. Gosman, „Towards the Large-Eddy Simulation of Diesel engine incylinder flow“, in Proc. 8th International Symposium on Engineering Turbulence Modelling and Measurements - ETMM8, 3:418-423 (2010), (2010).
    6. M. R. G. Zoby, S. Navarro-Martinez, A. Kronenburg, und A. J. Marquis, „Gas-Phase Mixing in Droplet Arrays“, in Turbulence and Interactions, Berlin, Heidelberg, (2010), S. 409--415.

  15. 2009

    1. K. Vogiatzaki, S. Navarro-Martinez, A. Kronenburg, und W. P. Jones, „Stochastic multiple mapping conditioning for scalar mixing in Sandia Flame D“, in in Proc. 4th Europ. Combust. Meeting, Vienna, Austria, (2009).
    2. S. Navarro-Martinez und A. Kronenburg, „Numerical study of turbulent non-premixed jet flame stability“, in in Proc. 4th Europ. Combust. Meeting, Vienna, Austria, (2009).
    3. J. Floyd, A. M. Kempf, A. Kronenburg, und R. H. Ram, „A simple model for the filtered density function for a passive scalar in combustion LES“, Combust. Theo. Mod., Bd. 13, S. 559--588, (2009).
    4. M. R. G. Zoby, S. Navarro-Martinez, und A. Kronenburg, „Mixture fraction PDF and dissipation in dense sprays“, in in Proc. 4th Europ. Combust. Meeting, Vienna, Austria, (2009).
    5. K. Vogiatzaki, M. J. Cleary, A. Kronenburg, und J. H. Kent, „Modeling of scalar mixing in turbulent jet flames by multiple mapping conditioning“, Physics of Fluids, Bd. 21, Nr. 2, S. 025105, (2009).

Veröffentlichungen vor 2009/2010

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