Problem 1CP: Explain the fundamental differences between a flow domain and a control volume. Problem 2CP: What does it mean when we say that two more differential equations are coupled? Problem 3CP: The divergence theorem is v.cdv=A c . n dA Problem 4CP Problem 5CP Problem 6CP Problem 7P Problem 8P Problem 9P: Let vector G=2xzi12x2jz2kk . Calculate the divergance of G , and simplify as much as possible, Is... Problem 10P Problem 11P Problem 12P Problem 13P Problem 15EP: Alex is measuring the time-averaged velocity components in a pump using a laser Doppler velocimeter... Problem 16P: Let vector c be given G=4xziy2i+yzkand let V be the volume of a cube of unit length with its corner... Problem 17P: The product rule can be applied to the divergence to the divergence of scalar f times vector G as:... Problem 18P Problem 19P Problem 20CP Problem 21CP: In this chapter we derive the continuity equation in two way: by using the divergence theorem and by... Problem 22P: Repeat Example 9-1(gas compressed in a cylinder by a piston), but without using the continuity... Problem 23P: Consider the steady, two-dimensional velocity field given by V=(u,v)=(1.6+2.8x)i+(1.52.8y)j . Verfy... Problem 24P: The compressible from of the continuity equation is (/t)+(V)=0 . Expand this equation as far... Problem 25P: In Example 9-6 we derive the equation for volumetric stain rate, (1/V)(DV/Dt)=V . Write this as a... Problem 26P: Consider a spiraling line vortex/sink flow in the xy-plane as sketached in Fig. 9-26.The... Problem 27P: Verify that the steady; two-dimensional, incompressible velocity filed of Prob. 9-13 satisfies the... Problem 28P: Consider steady flow of water through an axisymmetric garden hose nozzle (Fig. 9-28). Suppose the... Problem 29P: Consider the following steady, three-dimensional velocity field in Cartesian coodinates:... Problem 30P: Consider the following steady, three-dimensional velocity field in Cartesian coordinates:... Problem 31P: Two velocity components of a steady, incompressible flow field are known: u=2ax+bx+cy2 and v=azbyz2... Problem 32P: Imagine a steady, two-dimensional, incompressible flow that is purely circular in the xy-or rplane .... Problem 33P: The u velocity component of a steady, two-dimensional, incompressible flow is u=3ax22bxy , where a... Problem 34P: Imagine a steady, two-dimensional, incompressible flow that is purely radial in the xy-or- r -plane.... Problem 35P: The u velocity component of a steady, two-dimensional, incompressible flow field is u=ax+b ,where a... Problem 37CP: What is significant about curves of constant stream function? Explain why the stream function is... Problem 38CP: In CFD lingo, the stream function is often called a non-primitive variable, while velocity and... Problem 39CP Problem 40CP Problem 41P Problem 42P Problem 44P Problem 45P Problem 46P: As a follow-up to Prob. 9-45, calculate the volume flow rate per unit width into the page of Fig.... Problem 47EP: Consider the Couette flow of Fig.9-45. For the case in which V=10.0ft/s and h=1.20in, plot several... Problem 48P Problem 49P: AS a follow-up to Prob. 9-48, calculate the volume flow rate per unit width into the page of Fig.... Problem 50P: Consider the channel flow of Fig. 9-45. The fluid is water at 20C . For the case in which... Problem 51P: In the field of air pollution control, one often needs to sample the quality of a moving airstream.... Problem 52P: Suppose the suction applied to the sampling prob.9-51 were too weak instead strong. Sketch what the... Problem 53P Problem 54P: Flow separates at a shap corner along a wall and froms a recirculating and a recirculating separtion... Problem 55P Problem 56P Problem 58P Problem 59P Problem 60P Problem 61P Problem 62P Problem 63EP Problem 64P Problem 65EP Problem 66P Problem 68EP Problem 69P Problem 71P Problem 72P Problem 73P Problem 74P Problem 75P Problem 76CP: Wht in the main distionction between Newtormine fluid and a non-Newtonian flud? Name at lest three... Problem 77CP Problem 78CP: What are constitutive equations, and to the fluid mechanics equation are applied? Problem 79CP: An airplane flies at constant velocity Vairplane (Fig. P9-79C). Dissuss the velocity boundary... Problem 80CP: Define or describe each type of fluid: (a) viscoelastic fluid (b) pseudoplastic fluid (c) dilatant... Problem 81CP: The general cool volume from of linearmomentum equation is CVgdV+csijndA= cv t( V)dV+ CS( V)VndA... Problem 82P: Consider the steady, two-dimensional, incompressible velocity field, V=(u,v)=(ax+b)i+(ay+c)j, where... Problem 83P: Consider the following steady, two-dimensional, incompressible velocity field:... Problem 84P: Consider the following steady, two-dimensional, incompressible velocity field:... Problem 85P: Consider liquid in a cylindrical tank. Both the tank and the liquid rotate as a rigid body (Fig.... Problem 86P: Engine oil at T=60C is forced to flow between two very large, stationary by a thin gap height... Problem 87P: Consider steady, two-dimensional, incompressible flow due to a spiraling line vortex/sink flow... Problem 88P: Consider steady, incompressible, parallel, laminar flow falling between two infinite vertical walls... Problem 89P Problem 90P Problem 91P Problem 92P: The first viscous terms in -comonent of the Navier-Stokes eqation (Eq.9-62c) are [1rr(rur)gr2] .... Problem 93P: An incompressible Newtonian liquid is confined between two concentric circular cylinders of infinite... Problem 94P Problem 95P Problem 96P Problem 97P Problem 98P: Consider steady, incompressible, laminar flow of a Newtonian fluid in an infinitely lons round pipe... Problem 99P: Consider again the pipe annulus sketched in Fig 9-98. Assume that the constant everywhere (there is... Problem 100P: Repeat Prob. 9-99 except swap the stationary and moving cylinder. In particular, let the inner... Problem 101P: Consider a modified form of Couette flow in which there are two immiscible fluids sandwiched between... Problem 102P: Consider dimensionless velocity distribution in Couette flow (which is also called generalized... Problem 103P: Consider steady, incompressible, laminar flow of a Newtonian fluid in an infinitely long round pipe... Problem 104P Problem 105P Problem 106P Problem 107CP Problem 108CP Problem 109CP: Discuss the relationship between volumetric strain rate and the continuity equation. Base your... Problem 110CP Problem 111CP Problem 112P Problem 113P Problem 114P: Look up the definition of Poisson’s equation in one of your math textbooks or on the Internet. Write... Problem 115P Problem 116P Problem 117P Problem 118P: For each of the listed equation, write down the equation in vector from and decide if it linear or... Problem 119P Problem 120P Problem 121P: A block slides down along, straight inclined wall at speed V,riding on a thin film of oil of... Problem 123P: Water flows down a long, straight, inclined pipe of diameter D and length L (Fig. 9-123). There is... Problem 124P Problem 125P Problem 126P Problem 128P Problem 129P: The Navier-Stokes equation is also known as (a) Newton’s first law (b) Newton’s second law (c)... Problem 130P: Which choice is not correct regarding the Navier-Stokes equation? (a) Nonlinear equat3n (b) Unsteady... Problem 131P: In thud flow analyses, which boundary condition can be expressed as Vfluid=Vwall? (a) No-slip (b)... Problem 132P: Which choice is the genera1 differential equation form of the continuity equation for a control... Problem 133P: Which choice is the differential , incompressible, two-dimensional continuity equation in Cartesian... Problem 134P: A steady, two-dimensional, incompressible flow field in the xy-plane has a stream function given by... Problem 135P: A steady, two-dimensional, incompressible flow field in the xy-plane has a stream function given by... Problem 136P: A steady velocity field is given by V=(u,v,w)=2ax2yi+3bxy2j+cyk , where a, b, and c are constants.... Problem 137P format_list_bulleted