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CFD simulation of creeping flows in a novel printed-circuit heat exchanger

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dc.contributor.author Al Hassan, Tamara Ali
dc.date.accessioned 2021-09-23T08:57:03Z
dc.date.available 2021-09-23T08:57:03Z
dc.date.issued 2019
dc.date.submitted 2019
dc.identifier.other b25757039
dc.identifier.uri http://hdl.handle.net/10938/23117
dc.description Thesis. M.S. American University of Beirut. Baha and Walid Bassatne Department of Chemical Engineering and Advanced Energy, 2019. ET:7082.
dc.description Advisor : Dr. Fouad Azizi, Associate Professor, Chemical and Petroleum Engineering ; Committee members : Dr. Walid Saad, Associate Professor, Chemical and Petroleum Engineering ; Dr. Marwan Darwish, Professor, Mechanical Engineering ; Dr. Charbel Habchi, Assistant Professor, Mechanical Engineering, Notre Dame University.
dc.description Includes bibliographical references (leaves 95-101)
dc.description.abstract Many mixing processes make use of micro-structures to enhance the blending effect of viscous fluids at low Reynolds numbers. These mixers can be either actively or passively driven. The current work focuses on split and recombine micro-mixers which can be employed as heat exchangers, reactors, simple mixers, or all of that combined. In this work, a comprehensive examination of different structures, along with a newly proposed one will be presented. In order to highlight the performance of the proposed mixer under creeping flow conditions, the various designs were compared against each other in terms of pressure drop and mixing quality for Reynolds numbers ranging between 0.001 up to 10. For this reason, a finite element solver, Ansys Polyflow, was used to calculate the pressure drop, Fanning friction factor, concentration profile, and segregation scales. Results show that the newly proposed mixer exhibits a superior performance by means of a better mixing quality and a lower energy consumption rate.
dc.format.extent 1 online resource (xiii, 101 leaves) : illustrations (some color)
dc.language.iso en
dc.subject.classification ET:007082
dc.subject.lcsh Computational fluid dynamics.
dc.subject.lcsh Computer simulation.
dc.subject.lcsh Finite element method.
dc.subject.lcsh Mathematical models.
dc.title CFD simulation of creeping flows in a novel printed-circuit heat exchanger
dc.type Thesis
dc.contributor.department Baha and Walid Bassatne Department of Chemical Engineering and Advanced Energy
dc.contributor.faculty Maroun Semaan Faculty of Engineering and Architecture.
dc.contributor.institution American University of Beirut.


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