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Dive into the research topics where Khalid Mateen is active.

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Featured researches published by Khalid Mateen.


Oil and gas facilities | 2015

Degradation (or Lack Thereof) and Drag Reduction of HPAM Solutions During Transport in Turbulent Flow in Pipelines

Stephane Jouenne; Jérôme Anfray; Philippe Cordelier; Khalid Mateen; David Levitt; Inès Souilem; Philippe Marchal; Cécile Lemaitre; Lionel Choplin; Jonathon Nesvik; Tom E. Waldman

Rules of thumb that are used in the industry for polymer-flooding projects tend to limit the distance over which hydrolyzed poly-acrylamide polymers can be transported in pipelines without under-going significant degradation. However, in sensitive environments, such as offshore facilities where footprint minimization is required, centralization of the polymer-hydration process and long-distance transport may be desirable. More-reliable rules are required to de-sign the pipe network and to estimate mechanical degradation of polymers during transport in turbulent conditions.In this work, we present evidence in the form of empirical large-scale pipeline experiments and theoretical development refuting the claim that polymer pipeline transport is limited by mechanical degradation. Our work concludes that mechanical degradation oc-curs at a critical velocity, which increases as a function of pipe di-ameter. Provided the critical velocity is not reached in a given pipe, there is no limit to the distance over which polymer solution can be transported. In addition, the drag reduction of viscous polymer solutions was measured as a function of pipe length, pipe diameter, fluid ve-locity, and polymer concentration. An envelope was defined to fix the minimum and maximum drag reductions expected for a given velocity in larger pipes. For pipes with diameters varying between 14 and 22 in. at a velocity greater than 1 m/s, the drag-reduction percentage is anticipated to be between 55 and 80%. A more- refined model was developed to predict drag reduction with less uncertainty. In conclusion, classical design rules applied for water transport (fluid velocity < 3 m/s) can be applied to the design of a polymer network. Therefore, for tertiary polymer projects, the existing water-injection network should be compatible with the mechanical requirements of polymer transportation. For secondary polymer projects, changing the rules of design by taking into account the high level of drag reduction should bring some economy to the pipe design and installation


Spe Journal | 2015

Modeling Techniques for Foam Flow in Porous Media

Kun Ma; Guangwei Ren; Khalid Mateen; Danielle Morel; Philippe Cordelier


SPE Improved Oil Recovery Symposium | 2014

Literature Review of Modeling Techniques for Foam Flow Through Porous Media

Kun Ma; Guangwei Ren; Khalid Mateen; Danielle Morel; Philippe Cordelier


SPE International Conference on Oilfield Chemistry | 2017

Low-Interfacial-Tension Foaming System for Enhanced Oil Recovery in Highly Heterogeneous/Fractured Carbonate Reservoirs

Pengfei Dong; Maura Puerto; Kun Ma; Khalid Mateen; Guangwei Ren; Gilles Bourdarot; Danielle Morel; Maurice Bourrel; Sibani Lisa Biswal; George J. Hirasaki


Journal of Non-newtonian Fluid Mechanics | 2018

Modeling foam flow at achievable flow rates in the subterranean formation using the population-balance approach and implications for experimental design

Kun Ma; Khalid Mateen; Guangwei Ren; Gilles Bourdarot; Danielle Morel


Abu Dhabi International Petroleum Exhibition & Conference | 2016

Modeling Foam Flow at Achievable Reservoir Flow Rates Using the Population-Balance Approach and Implications for Experimental Design

Kun Ma; Khalid Mateen; Guangwei Ren; Gilles Bourdarot; Danielle Morel


SPE Improved Oil Recovery Conference | 2018

Ultralow-Interfacial-Tension Foam Injection Strategy Investigation in High Temperature Ultra-High Salinity Fractured Carbonate Reservoirs

Pengfei Dong; Maura Puerto; Kun Ma; Khalid Mateen; Guangwei Ren; Gilles Bourdarot; Danielle Morel; Sibani Lisa Biswal; George J. Hirasaki


SPE Improved Oil Recovery Symposium | 2014

Micro-Scale Experiment and CFD Modeling of Viscoelastic Polymer; Trapped Oil Displacement and Deformation at the Dead-End

Ali Afsharpoor; Kun Ma; Aurelien Duboin; Khalid Mateen; Stephane Jouenne; Philippe Cordelier


Spe Journal | 2018

Low-IFT Foaming System for Enhanced Oil Recovery in Highly Heterogeneous/Fractured Oil-Wet Carbonate Reservoirs

Pengfei Dong; Maura Puerto; Guoqing Jian; Kun Ma; Khalid Mateen; Guangwei Ren; Gilles Bourdarot; Danielle Morel; Maurice Bourrel; Sibani Lisa Biswal; George J. Hirasaki


SPE Improved Oil Recovery Conference | 2018

Modeling Polymer Enhanced Foam Flow in Porous Media Using An Improved Population-Balance Foam Model

Haishan Luo; Kun Ma; Khalid Mateen; Guangwei Ren; Gilles Bourdarot; Danielle Morel; Carolina Romero

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