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authorClaudius "keldu" Holeksa <mail@keldu.de>2025-11-11 15:07:27 +0100
committerClaudius "keldu" Holeksa <mail@keldu.de>2025-11-11 15:07:27 +0100
commitc7cf0a81bdd0121dd48e49e8251ec4b99789e78a (patch)
tree7de918eeb7b5dc97d9370e833c22a496a22fdfc5 /typst
parent2238f24eb7527ab4044ac03fbf354f65a05fd849 (diff)
downloadphd-fluid_mechanics_report-c7cf0a81bdd0121dd48e49e8251ec4b99789e78a.tar.gz
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@@ -24,7 +24,8 @@ Flow in porous subsurface structures often is dominated by low velocity and high
often referred to as Stokes flow or creeping flow.
It occurs when the viscous forces are significantly larger compared to inertial forces.
For the understanding of porous media, where particle transport, bridging and clogging phenomena are critical to the use of subsurface
-reservoirs. Understanding the behaviour of particles in Stokes flow is key to analyzing these phenomena emerging over time.
+reservoirs. Be it either for carbohydrate resource recovery or storage of CO2. Understanding the behaviour of particles in Stokes flow
+is key to analyzing more complex phenomena emerging over time such as permeability reduction over periods of time.
For the understanding of near-well injections multiple elements such as multiphase behaviour, particle-solid interaction and
the geometry of the porous structure is required.