The flow rate in a 300 mm diameter pipeis 0.226 m³/s. The flow is known to beturbulent and the centerline velocity is3.66 m/s. The density of liquid flowing is900 kg/m³.850-Determine the friction factor.c) 0.03411d) 0.04158a) 0.02655b) 0.01168Determine the head loss per meterlength of pipe.a) 0.08 m.b) 0.06 m.-c) 0.02 m.d) 0.04 m.Determine the shearing stress at thewalls of the pipe.a) 12.71 N/m2c) 14.57 N/m²b) 17.54 N/m2 d) 16.47 N/m²

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The flow rate in a 300 mm diameter pipe is 0.226 m³/s. The flow is known to be turbulent and the centerline velocity is 3.66 m/s. The density of liquid flowing is 900 kg/m³. 850 - Determine the friction factor. a) 0.02655 c) 0.03411 b) 0.01168 d) 0.04158 Determine the head loss per meter length of pipe. a) 0.08 m. b) 0.06 m. c) 0.02 m. d) 0.04 m. 3 Determine the shearing stress at the walls of the pipe. a) 12.71 N/m2 c) 14.57 N/m² b) 17.54 N/m2 d) 16.47 N/m²

The flow rate in a 300 mm diameter pipe is 0.226 m³/s. The flow is known to be turbulent and the centerline velocity is 3.66 m/s. The density of liquid flowing is 900 kg/m³. 850 - Determine the friction factor. a) 0.02655 c) 0.03411 b) 0.01168 d) 0.04158 Determine the head loss per meter length of pipe. a) 0.08 m. b) 0.06 m. c) 0.02 m. d) 0.04 m. 3 Determine the shearing stress at the walls of the pipe. a) 12.71 N/m2 c) 14.57 N/m² b) 17.54 N/m2 d) 16.47 N/m²

Structural Analysis

6th Edition

ISBN:9781337630931

Author:KASSIMALI, Aslam.

Publisher:KASSIMALI, Aslam.

Chapter2: Loads On Structures

Section: Chapter Questions

Problem 1P

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