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dc.contributor.advisorPreisig, Heinz A.
dc.contributor.authorMekonnen, Abel Tenu
dc.date.accessioned2016-11-10T15:00:46Z
dc.date.available2016-11-10T15:00:46Z
dc.date.created2016-07-16
dc.date.issued2016
dc.identifierntnudaim:14547
dc.identifier.urihttp://hdl.handle.net/11250/2420578
dc.description.abstractResults of the simulations showed that the conductivity sensor has a high pressure drop due to different cross sectional areas in some parts; the main effects are due to the rozita and cone part. Hence, there is a need for an improvement of either the rozita and cone parts or design completely a new sensor. Evolution and distribution of the tracer cloud passing through the sensor is affected by the shape and size of the injection tube and the tracer flow direction. The 90 degree bent cylinder with needle shape at one end of the injector gives unexpected result, as the tracer cloud is formed at the top of the pipe and not as expected at the bottom. This result also contradicts result from previous work of Oscar Pujol, which gives a tracer cloud formation at the center of the pipe near the tip of the injector for the same injector design. The second injector design gives a good mixing and distribution of the tracer. Based on the simulation I recommended to adding a mixer after the injector and before the sensor inlet in order to improve the mixing and distribution of the tracer concentration.
dc.languageeng
dc.publisherNTNU
dc.subjectChemical Engineering
dc.titleModelling a tracer injection and sensor manifold
dc.typeMaster thesis
dc.source.pagenumber103


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