A large open tank contains water and is connected to a 2-m-diameter conduit as shown. A circular plug is used to seal the conduit. Determine the magnitude, direction, and location of the resultant force that acts on the plug. Take density of water equal to 1000 kg / m³. 3 m WATER D= 2m CIR CULAR PLUG I xx D4 TANK 64

A large open tank contains water and is connected to a 2-m-diameter conduit as shown. A circular plug is used to seal the conduit. Determine the magnitude, direction, and location of the resultant force that acts on the plug. Take density of water equal to 1000 kg / m³. 3 m WATER D= 2m CIR CULAR PLUG I xx D4 TANK 64

Engineering Fundamentals: An Introduction to Engineering (MindTap Course List)

5th Edition

ISBN:9781305084766

Author:Saeed Moaveni

Publisher:Saeed Moaveni

Chapter6: Fundamental Dimensions And Units

Section: Chapter Questions

Problem 48P

See similar textbooks

Similar questions

Q4. The hydrometer shown sinks 5.3 cm in water (15°C). The bulb displaces 1.0 cm3, and the stem area is 0.1 cm2. Find the weight of the hydrometer.
. A pump draws water from a reservoir and conveys it to another reservoir 30 m above. The sucLon pipe is 100 mm in diameter and 10 m long while the delivery pipe is 100 mm in diameter and 150 m long. if the velocity in the pipe is 3 m/s, the fricLon factor of the pipe 0.008, and the pump and motor efficiencies 85 % and 92 %, respecLvely. See Figure Q6.1. Calculate:(a) Gauge pressure at the pump's inlet (at C) (10)(b) Gauge Pressure at the pump's outlet (at D) (10)(c) input power to motor (5)
Determine the location in m of the total hydrostatic force from the bottom of the gate acting on the 1m x 5m gate shown in the figure. Pressure of air = 32 kPa Fluids: fluid a (s=3.93) fluid b (s=0.23) fluid c (s=1.19) h1= 0.7 m h2= 1.6 m h3= 3.7 m Round your answer to 3 decimal places.
The flow rate of water flowing out of an 80mm diameter nozzle shown in Figure 1 is60 litre/s. The volume of the water in the pipe bend is 50 litres and the pipe bend isinstalled in a vertical plane. The head loss from point 1 to 2 is 0.44m. Calculate the xand y for components of the thrust block to hold the pipe bend.
In Fig.2, A Pelton wheel has a mean bucket speed (U) of 89 m/s with a jet of water flowing at the rate of 1 m3/s under a head of 270 m. The buckets deflect the jet through an angle of 170º. Calculate the power delivered to the runner and hydraulic efficiency of the turbine. Take Cv = 0.98 , V= Cv root of 2gH , workdone per second by the jet on the runner = ρaV1 (Vw1 + Vw2) x U and Hydraulic efficiency ηh = 2 U (Vw1 + Vw2)/V12
An open tank contains 4.7 m of water covered with 3.1 m of kerosene (spec. weight = 8.4 (kN/m3). Find the pressure at bottom of the tank in kPa. Round your answer to 2 decimal places
A cylindrical tank having a diameter of 1.5 m and a height of 4 m is open at one end and close at the other end. It is placed below the water surface with its open end down. How deep below the water surface should the tank be placed if the depth of the water inside the tank is 1.8 m? a.6.0 cm b.5.90cm c.6.25cm d.7.0cm show your complete solution
Water flows from the ground floor to the third floor in a 4-storey building through a pipe 50 mm in diameter at a rate of 2 L/s and according to the diagram below. The water flows out from the system through a tap with an opening diameter of 15 mm. Q1. Calculate the energy loss due to friction as the water flows through the pipe (J/Kg) Q2. Calculate the total energy loss due to friction through the system (J/Kg) Q3. Calcualte the pressure at point 1 (kN/m2)
Determine the diameter of an orifice that permits a tank of horizontal crosssection 1.5m2 to have its liquid surface draw down at the rate of 160 mm/sfor a 3.35-m head on the orifice. Use C=0.63.
SHOW COMPLETE SOLUTION AND FINAL ANSWER INTO 3 DECIMAL PLACES 3. A large pipe called penstock in hydraulic work is 1.5 m in diameter. Here it is composedof wooden staves bound together by steel hoops each 300 mm2in cross sectional area, and is used to conduct water from a reservoir to a powerhouse. If the maximumtensilestress permitted in the hoops is 130 MPa, what is the maximum spacing between hoops under a head of water of 30m? Use density of water equal to 1000 kg/m3
Plss help ASAP A)resulting acceleration in (m/s^2) B)estimate resulting pressure at the bottom of the tank in kilopascal
Water with kinematic viscosity equal to 1.02x10^-6 m^2/s flows in a 1000m long. 150mm diameter pipe (E=0.00005) at a rate of 30L/s. solve for the head loss in the pipe. use 3 decimal places.