Water moves through a constricted pipe in steady, ideal flow. At the lower point shown in the figure below, the pressure is1.70 x 10° Pa and the pipe radius is 2.50 cm. At the higher point located at y = 2.50 m, the pressure is 1.30 × 10° Pa andthe pipe radius is 1.30 cm.P2P(a) Find the speed of flow in the lower section.5.79Your response differs from the correct answer by more than 100%. m/s(b) Find the speed of flow in the upper section.m/s(c) Find the volume flow rate through the pipe.m³/s

(a) Write the continuity equation between the lower and the upper point. A1v1=A2v2 Here, A1 is the…

Water moves through a constricted pipe in steady, ideal flow. At the lower point shown in the figure below, the pressure is 1.70 x 10° Pa and the pipe radius is 2.50 cm. At the higher point located at y = 2.50 m, the pressure is 1.30 × 10° Pa and the pipe radius is 1.30 cm. P (a) Find the speed of flow in the lower section. 5.79 Your response differs from the correct answer by more than 100%. m/s (b) Find the speed of flow in the upper section. m/s (c) Find the volume flow rate through the pipe. m³/s

Water moves through a constricted pipe in steady, ideal flow. At the lower point shown in the figure below, the pressure is 1.70 x 10° Pa and the pipe radius is 2.50 cm. At the higher point located at y = 2.50 m, the pressure is 1.30 × 10° Pa and the pipe radius is 1.30 cm. P (a) Find the speed of flow in the lower section. 5.79 Your response differs from the correct answer by more than 100%. m/s (b) Find the speed of flow in the upper section. m/s (c) Find the volume flow rate through the pipe. m³/s

Elements Of Electromagnetics

7th Edition

ISBN:9780190698614

Author:Sadiku, Matthew N. O.

Publisher:Sadiku, Matthew N. O.

ChapterMA: Math Assessment

Section: Chapter Questions

Problem 1.1MA

See similar textbooks

Similar questions

2
Q1. Complete the following: Theory states that if: Re 3000 2000 < Re < 3000 Q2. Show the sample calculation for (Area m', velocity m/s and Re) Hint: Diameter of Tube =12mm Q3. Complete the following table: Case Flow condition Flow Rate RE Agree or Not No. (L/min) with Theo. 1. 2. 3.
Solution. Please should correct
I need solve this in quickly time please
Water with a density of 1 g/cm³ flows through a horizontal pipe. The pipe cross-section tapers from 80 cm² to 40 cm² at a reducer. The static pressure before the reducer is 4 bar and the flow velocity is 4 m/s. The flow is incompressible and frictionless (inviscid). What static pressure is measured after the reducer?
Steady, incompressible and inviscid water flows inside the given system, if the force F is needed to hold the system stationary, what is the work W (W=F x L) joule is needed to move the system a distance L=15.5 m. V1=3 m/s 2 A1=0.1 m p1=200 kpa 1 2 m F 2 2 A2=0.2 m
I need both handwritten otherwise I'll dislike
1. A 100-mm diameter plunger (section 1) is being pushed at 60 mm/s into a tank filled with a fluid with a fluid of SG = 0.68. If the fluid is incompressible, how many pounds per second is being forced out at section 2, D2 = 20 mm? Answer: 0.707 lbf/s
Three pipes A, B, and C are interconnected as shown in figure 1. The pipe dimensions are as follows: Pipeline D(cm) L (m) ƒA 15 300 0.01B 10 240 0.01C 20 600 0.005 Find the rate at which water will flow in each pipe, ignoring the shock losses at P and entry to pipelines A and B.
3.3. Hagen-Poiseuille Flow: Fluid flows through a variable-diameter pipe as shown in the figure above. The pipe dimensions, flow rate, and fluid properties are as follows: L₁ L₂ L3 = 4 cm A₁ = 1 cm², A₂ = 4 cm². A3 = 0.25 cm² Q = 100 cm³/s p= 1.06 g/cm³ u = 3.5 cP segment 1 20₁ A₁ A₂ segment 2 L₂ Ap segment 3 L3 A3 → Use conservation of mass, the Hagen-Poiseuille relationship, and the electrical circuit analogy to answer the following: a) What should the total pressure drop be across the length of this variable-diameter pipe in order to provide the given flow rate Q? (Use the Hagen-Poiseuille relation and the electrical analogy; each segment is a resistor.) b) What is the average velocity u for each segment? (Mass conservation.) c) What is the Reynolds number (Re = – PHD) for each segment? d) What are the velocities at the centerline and at the wall for each segment?
Q5.2
help