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Q1. A rectangular water tank of length 10m and width 6m has a free surface 15m above a 300mm diameter sharp edged nozzle that discharges to atmosphere. Ignoring friction, calculate: a). Velocity through the nozzle (m/s) b). Actual discharge of the nozzle (discharge coefficient of nozzle : 0.96) (m³/s) c). Mass flow rate of the nozzle (kg/s) %D

Q1. A rectangular water tank of length 10m and width 6m has a free surface 15m above a 300mm diameter sharp edged nozzle that discharges to atmosphere. Ignoring friction, calculate: a). Velocity through the nozzle (m/s) b). Actual discharge of the nozzle (discharge coefficient of nozzle : 0.96) (m³/s) c). Mass flow rate of the nozzle (kg/s) %D

Structural Analysis
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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Q1. A rectangular water tank of length 10m and width 6m has a free surface 15m above a 300mm diameter sharp edged nozzle that discharges to atmosphere. Ignoring friction, calculate: a). Velocity through the nozzle (m/s) b). Actual discharge of the nozzle (discharge coefficient of nozzle 0.96) (m3/s) %D c). Mass flow rate of the nozzle (kg/s) d). If the nozzle were connected to a delivery pipe, what diameter would the pipe need to be to give a velocity in the pipe of 20 m/s? (m) Part a). is shown as Q1, Part b). as Q2, Part c). as Q3, Part d). as Q4
Transcribed Image Text:Q1. A rectangular water tank of length 10m and width 6m has a free surface 15m above a 300mm diameter sharp edged nozzle that discharges to atmosphere. Ignoring friction, calculate: a). Velocity through the nozzle (m/s) b). Actual discharge of the nozzle (discharge coefficient of nozzle 0.96) (m3/s) %D c). Mass flow rate of the nozzle (kg/s) d). If the nozzle were connected to a delivery pipe, what diameter would the pipe need to be to give a velocity in the pipe of 20 m/s? (m) Part a). is shown as Q1, Part b). as Q2, Part c). as Q3, Part d). as Q4
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