Water flows in pipes A and B and converges into pipe C as shown in the figure. If the flowrate at pipe C is 50 L/s and the velocity at pipe A is 4 m/s, determine the velocity (in m/s) ofwater at pipe B.da = 100 mmdc = 300 mmBdB = 200 mma. 0.019b.0.031c.0.592d.0.707The 75-mm water main pipe in your street has a pressure of 200 kPa and carries 25 lps offlow. You want to store water into an elevated tank, 12 m above the water main, so there isadequate flow in your 3rd level bathroom. Assume the total losses from the water main tothe water tank is 10 m. Determine the rated power (in kW) of a household pump required ifthe pump has an efficiency of 80% and the air pressure in the partially full tank is 300 kPa.The flow through the pump is 3 lps.a.6.00b.1.12c.9.37d.0.72

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Water flows in pipes A and B and converges into pipe C as shown in the figure. If the flow rate at pipe C is 50 L/s and the velocity at pipe A is 4 m/s, determine the velocity (in m/s) of water at pipe B. da = 100 mm dc = 300 mm B a.0.019 b.0.031 c.0.592 d.0.707 dB = 200 mm

Water flows in pipes A and B and converges into pipe C as shown in the figure. If the flow rate at pipe C is 50 L/s and the velocity at pipe A is 4 m/s, determine the velocity (in m/s) of water at pipe B. da = 100 mm dc = 300 mm B a.0.019 b.0.031 c.0.592 d.0.707 dB = 200 mm

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

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