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12 results on '"Santini, Maurizio"'

4. Celebration of Professor Bernhard Weigand on his 60th birthday

Author

Chu, Xu, primary, Yang, Guang, additional, Terzis, Alexandros, additional, Vaikuntanathan, Visakh, additional, Wang, Wenkang, additional, Li, Zhouhang, additional, Lamanna, Grazia, additional, Fest-Santini, Stephanie, additional, Santini, Maurizio, additional, Cossali, Gianpietro Elvio, additional, Ligrani, Phillip, additional, Younis, Bassam A., additional, Crawford, Michael, additional, Ott, Peter, additional, Köhler, Jürgen, additional, Rohde, Christian, additional, Munz, Claus-Dieter, additional, Helmig, Rainer, additional, and Zhao, Tianshou, additional

Published
2022
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8. Turbulence and Cavitation Suppression by Quaternary Ammonium Salt Additives

Author

Naseri, Homa, primary, Trickett, Kieran, additional, Mitroglou, Nicholas, additional, Karathanassis, Ioannis, additional, Koukouvinis, Phoevos, additional, Gavaises, Manolis, additional, Barbour, Robert, additional, Diamond, Dale, additional, Rogers, Sarah E., additional, Santini, Maurizio, additional, and Wang, Jin, additional

Published
2018
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12. Characterisation of water-oil drainage process through a reservoir rock sample by digital core analysis

Author

Marzio Piller, Gianni Schena, Diego Casagrande, Maurizio Santini, Casagrande, Diego, Piller, Marzio, Santini, Maurizio, and Schena, Gianni

Subjects
Capillary pressure, volume of fluid, Mineralogy, relative permeability, digital rock, pore-scale simulation, Relative permeability, digital rock, two-phase flow, steady-state, drainage process, water-oil system, Volume of fluid method, Settore ING-IND/10 - Fisica Tecnica Industriale, Drainage, pore-scale simulation, two-phase flow, Steady state, relative permeability, Sample (graphics), Petroleum reservoir, steady-state, drainage process, water-oil system, General Energy, Two-phase flow, Geology
Abstract

Oil-water relative permeability and capillary pressure of a water-wet digital core are computed using the finite-volume/volume of fluid method and mimicking traditional laboratory steady-state experiments carried out on a water saturated sample. Commercial software is used for immiscible multiphase fluid flow simulations, carried out on a low-cost multicore workstation, and the porescale data are upscaled to derive relative permeability and capillary pressure curves as function of water saturation. The digital sample is obtained by high resolution X-ray computed tomography scanning. [Received: March 13, 2013; Accepted: June 25, 2013]

Published
2014

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