


Question 5:A double wedge-shaped body is placed in a M-1.9 flow as shown in the figure...
A body is shaped as a portion of a half-body as shown in the
figure 2 below. Air flows over this half –body and the value of the
stream function at the stagnation point is (ψst = 15.7
)
it ρair = 1.23 kg/m3, determine:
a) the value of ( b) , see the figure
b) the pressure difference p2 – p3
A body is shaped as a portion of a half-body as shown in the the stream funetion at...
Consider the supersonic flow over a 5° half-angle wedge at zero
angle of attack, as sketched in figure below. The freestream Mach
number ahead of the wedge is 2.0, and the freestream pressure and
density are 1.01 × 105 N/m2 and 1.23 kg/m3, respectively (this
corresponds to standard sea level conditions). The pressures on the
upper and lower surfaces of the wedge are constant with distances
and equal to each other, namely, Pu = Pl = 1.31 × 105 N/m2....
4. Drag Coefficient. Fluid flows past the two-dimensional triangular wedge shown in Figure 3. The equilateral triangle has side length a, and a span length of 1 unit out of the plane. The pressures on both the front faces are constant values PA as shown in the figure, and constant value PB on the back face. The average shear stress on each of the front faces is Tavg Assume that the drag due to pressure is equal to the drag...
Question 2.10 A two-dimensional wedge-shaped airfoil, with chord, c, consists of straight-line segments with wedge angles, θ¡et and θaf, at the leading and trailing edges, as defined in the figure and given in the table below. The airfoil operates at an angle of attack, α, and it is moving through air at a supersonic speed, M. The atmospheric temperature and pressure far upstream of the airfoil are T and p as specified in the table The various flow regions are...
Can you please do this question correctly. Thanks!!
08 Question 2.7 Two possibilities are considered for the design of a two-dimensional jet engine inlet as shown in the figures (a-b) below. The inlet is to operate at the Mach number Mi, shown in the table below. In the first design configuration, shown in figure (a), the deceleration of the flow takes place through a normal shock. For the second case, shown in figure (b), a wedge-shaped diffuser is used to...
50 mph A long semi-circular hut with a 2.44 m (8 ft) radius is exposed to extreme windy conditions in a desert. The wind blows uniformly at a speed of 22.4 m/s (50 mph) as shown in the figure. The upstream pressure is atmospheric (gage pressure = 0). Determine the resultant drag and lift forces exerted on the hut due to the wind Assume the pressure inside the hut is also at atmospheric pressure Problem Description Questions What are the...
3. (10 points) A laminar flow meter, as shown in Figure, is used to measure the steady flow rate of 15.6 °C water through an 0.824-inch pipe. One hundred and twenty (120) tubes with an inner diameter of 0.013" and a length of 2.756" are used as the laminar tubes. The measured pressure drop, Pi-P2, is equal to 4800 pa. Determine the water flow rate. Number of holes n = 120 IOI 그다 i 11 11 1111 Single hole diameter...
2. Water flows over a flat surface at 8 m/s, as shown in figure. A pump draws off water through a narrow slit at a volume rate of 0.2 m2/s per meter length of the slit. Assume that the fluid is incompressible and inviscid and can be represented by the combination of a uniform flow and a sink. a) Based on method of superposition, propose a general expression for stream function ψ velocity potential ф, and velocity components of v,...
A Two-Body Collision with a Spring A block of mass m,-1.9 kg initially moving to the right with a speed of 3.2 m/s on a frictionless, horizontal track collides with a spring attached to a second block of mass m2 - 3.9 kg initially moving to the left with a speed of 1.8 m/s as shown in figure (a). The spring constant is 505 N/m in A moving block collides with another moving block with a spring attached: (a) before...
1. The 100 kg weight on hydraulic lift (area = 0.6 m²) shown in figure. At points A, B C and D calculate the pressure. (Ywater=9810 N/m?) Hinge 2. a) Determine the resultant force acting on the inclined circular gate. b) Find the location of center of pressure. c) Calculate the minimum weight of the block that can open the gate. (Assume that gate is weightless) (a=80 cm, water 9810 N/m) 3. The length of submerged gate AB is 5...