The Journal of Chemical Physics · 1969 · 22 citations · 7 references
EngineeringChemical EngineeringChemistryFluid DynamicsFluid MechanicsPolymer ChemistryFlow BehaviorPolymer PhysicsPolymer RheologyRheological ModelingRheology Of Complex FluidsTransport In PolymersElongational FlowHydrodynamic ModellingPolymer Solution Flow BehaviorPolymer Solution RheologyPolymer Solution ViscosityPolymeric Fluid DynamicsRheology Of Polymer SolutionsViscosity
Kramers' method for describing the hydrodynamic behavior of a dilute solution of polymer molecules has been extended to include the “bead–spring” models. The connection between previous results of Kramers (for the bead–rod model), and of Rouse and Zimm (for the bead–spring model) is established. Finally, an expression is obtained for the elongational viscosity; it is found that the elongational viscosity increases with elongational rate, as was found earlier by Lodge (for a network theory) and by Roscoe (for a theory of suspensions).
7
<i>The Physics of Rubber Elasticity</i>
L. R. G. Treloar, D. J. Montgomery · Physics Today · 1959 · 3.8K citations
Natural Sciences, Materials Engineering, Materials Science +17
Steady Extension of Incompressible Simple Fluids
Bernard D. Coleman, Walter Noll · The Physics of Fluids · 1962 · 114 citations
Engineering, Physics, Fluid Dynamics +15