9. As shown in Figure 5.30, the jet flow of water with flow rate Q and...
9. As shown in Figure 5.30, the jet flow of water with flow
rate Q and diameter d is angle θ.
Is hitting the stationary plate of. Find the force and the
direction required to support this stationary plate. Also, find Q1,
Q2, and F when θ = 60°, d = 25 mm, and Q = 0.12 m3/s.
9. 4 ahald Q2
Problem 1) A jet of water is hitting an oblique stationary plate, and the flow Q is divided into two flows aQand (1-a)Q, as shown in the figure (a) what is the relation between ? and ?. Assume no friction is involved. [Hint: there is no tangential force on the plate, due to the absence of friction.] b) If e-45°, V-30m/s, m-5kg/s, determine the force exerted perpendicular to the plate by the fluid. jet Ct
A jet of water impacts a flat plane oriented at an angle as
shown. The flow is in the horizontal xy plane. The cross-sectional
area of the jet is 1.7 in2 and the velocity is 16 ft/s. The angle θ
is 67°.
Assume negligible friction. This assumption lets you (1) use
the Bernoulli equation to determine v2 and v3, and (2) determine
the direction of the force apriori (no friction means no shear
along the surface of the plate):
(a)...
1 (a) A steady stream of water jet discharges from the nozzle with a uniform velocity of 10 m/s at angle 60° as shown in Figure 1. The jet strikes a horizontal plate 2 m above the nozzle exit. Upon impact, part of the flow is guided towards the left while the remainder towards the right, and the plate is suspended in the air. The weight of the plate is 25 N. Assume frictionless flow along the plate and weight...
Q3-(35 P) Water with a flow rate of Q=16.33 l/s flows downwards in vertical direction leaving 2 sections. The water jet with a speed of V2=12.3 m/s from 2 sections, is placed on a plate at an angle of 30 degrees to the WWW WA MAMI horizontal, located just below the pipe.Since it is divided into two arms by multiplying with V3 speed neglecting the load losses; www a) Find the pressure in section 1. b) Eind the cross sections...
(6) A horizontal free water jet of diameter D=2" and flow rate Q=0.4 cfs strikes a curved vane such that the jet is deflected up at an angle of =28° to the horizontal by a vane. Assuming the jet velocity does not change calculate the vertical and horizontal forces applied to the vane (ignore the weight of the water).
a 50-mm-diameter jet of water impacts a vane at a
velocity of 20 m/s as shown in Figure 4.78. The vane has a mass of
90 kg, and it deflects the jet through a 55° angle. The vane is
constrained to move in the direction of the incoming jet, and there
is no force opposing the motion of the vane. Determine the
acceleration of the vane when it was first released. Assume water
at 20°C
Mecánica de fluidos Problemas A...
Two types of gasoline are blended together by passing them
through a horizontal “wye” as shown in the figure below. Given:
D3=D1=0.2 m, D2=0.1 m; Flow rate at section (1): Q1=0.03 m3 /s;
Flow rate at section (2): Q2=0.0034 m3 /s; Pressure at section (3):
P3=145 kPa; Density of gasoline: ρ=1000 kg/m3 ; Angles θ1=30°,
θ2=45° a) Ignoring losses due to friction, determine the pressure
at section (1) and section (2), in kPa. Neglect the difference in
elevation between the...
Objective To determine the force generated by a jet of water striking on a surface Description of apparatus The supply is led to a vertical pipe terminating in a tapered nozzle. This produces a jet of water which impinges on the vane in the form of a Flat Plate, Hemispherical Cup, Conical Plate or 30° Angled Plate. The nozzle and vane are contained within a transparent cylinder; at the base of the cylinder there is an outlet by which the...
X=1
1- 75mm diameter jet of water having a velocity of (25+X) m/s strikes a flat plate shown in Figure (1), which is inclined at 30° to the jet (e). Find the force normal to the surface of the plate X your last ID digit (ifyour ID is 13889, then X-9) ut Figure-1 50 2- Water at 10'C flow from a large reservoir to a small one through a 5-cm-diameter PVC piping system shown in Figure (2). Determine the elevation...