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Capillary rise of water is
Capillary rise or capillarity is a phenomenon in which liquid spontaneously rises or falls in a narrow space such as a thin tube or in the voids of a porous material.
Capillary rise or capillarity is a phenomenon in which liquid spontaneously rises or falls in a narrow space such as a thin tube or in the voids of a porous material.
See lessThe velocity of flow (v) at the outlet of a syphon of length l, is given by
The formula for the standard contracted rectangular weir is the Francis equation. In U.S. Customary units, this equation is: Q = 3.33 (L - 0.2H) H3/2. [1] in which Q = discharge, in cfs, L = length of the weir crest, in ft, and H = head on the weir crest, in ft.
The formula for the standard contracted rectangular weir is the Francis equation. In U.S. Customary units, this equation is: Q = 3.33 (L – 0.2H) H3/2. [1] in which Q = discharge, in cfs, L = length of the weir crest, in ft, and H = head on the weir crest, in ft.
See lessFor maximum velocity of flow, the depth of water in the circular channel must
It is calculated using the Manning's equation or the Chezy's equation. In this case, we are given the diameter of the circular channel section as 1.5 m. Therefore, the depth of flow for maximum velocity in a circular channel section with a diameter of 1.5 m is 1.215 m. Hence, the correct answer is oRead more
It is calculated using the Manning’s equation or the Chezy’s equation. In this case, we are given the diameter of the circular channel section as 1.5 m. Therefore, the depth of flow for maximum velocity in a circular channel section with a diameter of 1.5 m is 1.215 m. Hence, the correct answer is option C) 1.215 m.
See lessFor uniform flow in canals
The flow in channel is said to be uniform if the depth, slope, cross-section and velocity remain constant over a given length of the channel. The flow in uniform flow is uniform through out the cross section without change of velocity. A uniform flows are possible only in prismatic channel only.
The flow in channel is said to be uniform if the depth, slope, cross-section and velocity remain constant over a given length of the channel. The flow in uniform flow is uniform through out the cross section without change of velocity. A uniform flows are possible only in prismatic channel only.
See lessIf H is height of the liquid above the sill, the effect of end contractions, according to Francis formula, is
The formula for the standard contracted rectangular weir is the Francis equation. In U.S. Customary units, this equation is: Q = 3.33 (L - 0.2H) H3/2. [1] in which Q = discharge, in cfs, L = length of the weir crest, in ft, and H = head on the weir crest, in ft.
The formula for the standard contracted rectangular weir is the Francis equation. In U.S. Customary units, this equation is: Q = 3.33 (L – 0.2H) H3/2. [1] in which Q = discharge, in cfs, L = length of the weir crest, in ft, and H = head on the weir crest, in ft.
See lessAn open container filled with water is moved vertically downward with a uniform linear acceleration. The pressure at its bottom will be
open container filled with water is moved vertically upward with a uniform linear acceleration. The pressure at its bottom will be. greater than static pressure.
open container filled with water is moved vertically upward with a uniform linear acceleration. The pressure at its bottom will be. greater than static pressure.
See lessThe differential equation dp/ρ + gdz + vdv = 0 for a fluid motion is suggested by
Euler's equation in the differential form for the motion of liquids is given by. A. dpρ+gdz+vdv=0.
Euler’s equation in the differential form for the motion of liquids is given by. A. dpρ+gdz+vdv=0.
See lessThe depth of the centre of pressure on a vertical rectangular gate (4 m wide, 3 m high) with water upto top surface, is
Depth of centre of pressure, hp=2d3=2×33=2m. Q. The upper edge of a gate in a dam runs along the water surface.
Depth of centre of pressure, hp=2d3=2×33=2m. Q. The upper edge of a gate in a dam runs along the water surface.
See lessThe shape of fire hose nozzle is generally kept
The hose nozzle is cylindrical in shape with the continuous decrease in its size, i.e. the convergent shape. The general purpose of a hose nozzle is to supply the flow of water at high velocity and reduced pressure so a convergent nozzle is used for a fire hose nozzle.
The hose nozzle is cylindrical in shape with the continuous decrease in its size, i.e. the convergent shape. The general purpose of a hose nozzle is to supply the flow of water at high velocity and reduced pressure so a convergent nozzle is used for a fire hose nozzle.
See lessPractical fluids possess
Fluids are classified into four types depending on their flow, they are: Steady or unsteady. Compressible or incompressible. Viscous or non-viscous. Rotational or irrotational.
Fluids are classified into four types depending on their flow, they are:
See lessSteady or unsteady.
Compressible or incompressible.
Viscous or non-viscous.
Rotational or irrotational.