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Udo Lantermann
Udo Lantermann
Bestätigte E-Mail-Adresse bei uni-due.de
Titel
Zitiert von
Zitiert von
Jahr
Numerical modelling and prediction of cavitation erosion
A Peters, H Sagar, U Lantermann, O el Moctar
Wear 338, 189-201, 2015
982015
Numerical prediction of cavitation erosion on a ship propeller in model-and full-scale
A Peters, U Lantermann, O el Moctar
Wear 408, 1-12, 2018
792018
Particle Monte Carlo and lattice-Boltzmann methods for simulations of gas–particle flows
U Lantermann, D Hänel
Computers & Fluids 36 (2), 407-422, 2007
692007
Modeling and computation of cavitation in vortical flow
M Abdel-Maksoud, D Hänel, U Lantermann
International Journal of Heat and Fluid Flow 31 (6), 1065-1074, 2010
412010
RANS-based simulated ship maneuvering accounting for hull-propulsor-engine interaction
O el Moctar, U Lantermann, P Mucha, J Höpken, TE Schellin
Ship technology research 61 (3), 142-161, 2014
402014
Lattice boltzmann simulations of complex multiphase flows
M Krafczyk, P Lehmann, O Filippova, D Hänel, U Lantermann
Multifield Problems: State of the art, 50-57, 2000
242000
Simulation of an internal nozzle flow using an Euler-Lagrange method
A Peters, U Lantermann, O el Moctar
72018
Numerical modelling and prediction of erosion induced by hydrodynamic cavitation
A Peters, U Lantermann, O El Moctar
Journal of Physics: Conference Series 656 (1), 012054, 2015
72015
Simulation der Transport-und Depositionsvorgänge von Nanopartikeln in der Gasphase mittels Partikel-Monte-Carlo-und Lattice-Boltzmann-Methoden
U Lantermann
Duisburg, Essen, Univ., Diss., 2006, 2006
72006
An efficient and accurate approach for zero-frequency added mass for maneuvering simulations in deep and shallow water
O el Moctar, U Lantermann, G Chillcce
Applied Ocean Research 126, 103259, 2022
62022
Generalized lattice‐BGK concept for thermal and chemically reacting flows at low Mach numbers
D Hänel, U Lantermann, R Kaiser, I Wlokas
International journal for numerical methods in fluids 51 (4), 351-369, 2006
62006
Vorticity Confinement methods for cavitating flows
T Hachmann, U Lantermann, M Abdel-Maksoud, D Hänel
32009
Simulation of particle transport and structure formation by deposition
D Hänel, U Lantermann
Traffic and Granular Flow’03, 503-512, 2005
32005
Finite volume-based Lattice-Boltzmann method for general grids
U Lantermann, D Hänel, R Kaiser
KRÖNER, D.(Hrsg.): Finite Volumes for Complex Applications III–Problems and …, 2002
32002
Nu-merische methoden zum manövrierverhalten von schiffen
BO El Moctar, U Lantermann, P Mucha
Kolloquium Wechselwirkung Schif/Wasserstraße mit Auswirkungen auf Nautik und …, 2015
22015
Application of vortex confinement method in combination with two-way euler-lagrangian coupling approach for the prediction of cavitating propeller tip vortex flows
T Hachmann, M Abdel-Maksoud, D Hänel, U Lantermann
SMP, 2011
22011
Experimental and numerical investigations of effects of ship superstructures on wind-induced loads for benchmarking
O El Moctar, U Lantermann, V Shigunov, TE Schellin
Physics of Fluids 35 (4), 2023
12023
Lattice Boltzmann Simulations in Chemical Engineering
D Hänel, U Lantermann, R Kaiser
Computational Fluid Dynamics 2004: Proceedings of the Third International …, 2006
12006
An efficient and accurate approach for zero-frequency added mass for maneuvering simulations in deep and shallow water (vol 126, 103259, 2022)
O el Moctar, U Lantermann, G Chillcce
APPLIED OCEAN RESEARCH 128, 2022
2022
Corrigendum to'An efficient and accurate approach for zero-frequency added mass for maneuvering simulations in deep and shallow water'[Appl. Ocean Res. 126 (2022) 103259]
O el Moctar, U Lantermann, G Chillcce
Applied Ocean Research 128, 103335, 2022
2022
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