Created
Acceleration Due to Gravity(g) when Discharge (Q) if the Velocity Considered is given

Created
Acceleration Due to Gravity(g) when Discharge (Q) if the Velocity not Considered is given

Created
Acceleration due to Gravity(g) when Discharge Over the Weir(Q) is given

Created
Bazins Formula for Discharge if the Velocity is Considered

Created
Bazins Formula for Discharge if the Velocity is not Considered

Created
Coefficient (m) for Bazins Formula

Created
Coefficient (m1) for Bazins Formula if velocity is considered

Created
Coefficient (M1) when Bazins Formula for Discharge if the Velocity is Considered is given

Created
Coefficient of Discharge (Cd) when Discharge (Q) Passing Over the Weir is given

Created
Coefficient of Discharge(Cd) when Discharge (Q) if the Velocity Considered is given

Created
Coefficient of Discharge(Cd) when Discharge (Q) if the Velocity not Considered is given

Created
Coefficient of Discharge(Cd) when Discharge Over the Weir(Q) is given

Created
Depth of Flow of Water in the Channel (H+Z) when Velocity Approach (Va) is given

Created
Discharge (Q) if the Velocity of Approach is Considered

Created
Discharge (Q) if the Velocity of Approach is not Considered

Created
Discharge (Q) Passing Over the Weir

Created
Discharge (Q) when the End Contractions is Suppressed and Velocity is Considered

Created
Discharge (Q) when the End Contractions is Suppressed and Velocity is not Considered

Created
Discharge (Q) when Velocity Approach (Va) is given

Created
Discharge Over the Weir(Q)

Created
Discharge(Q) for the Notch which is to be Caliberated

Created
Francis Formula for the Discharge (Q) for Rectangular Notch if the Velocity is Considered

Created
Francis Formula for the Discharge (Q) for rectangular notch if the Velocity not Considered

Created
Head (H) Over the Crest when Discharge (Q) if the Velocity not Considered is given

Created
Head (H) Over the Crest when Discharge (Q) Passing Over the Weir is given

Created
Head (H) Over the Crest when Discharge Over the Weir(Q) is given

Created
Head (H) when Bazins Formula for Discharge if the Velocity is not Considered is given

Created
Head (H) when Coefficient for Bazins Formula is given

Created
Head (H1) when Bazins Formula for Discharge if the Velocity is Considered is given

Created
Head (H1) when Coefficient (m1) for Bazins Formula if velocity is considered

Created
Head when Discharge(Q) for the Notch which is to be Caliberated is given

Created
Length of the Crest when Discharge (Q) if the Velocity Considered is given

Created
Length of the Crest when Discharge (Q) if the Velocity not Considered is given

Created
Length of the Crest when Discharge (Q) Passing Over the Weir is given

Created
Length of the Crest when Discharge (Q), Contractions is Suppressed, Velocity is Considered is given

Created
Length of the Crest when Discharge Over the Weir(Q) is given

Created
Length of the Crest when Discharge, Contractions is Suppressed, Velocity is not Considered is given

Created
Length of the Crest when Francis Formula Discharge (Q) if the Velocity is Considered is given

Created
Length of the Crest when Francis Formula Discharge (Q) if the Velocity not Considered is given

Created
Length when Bazins Formula for Discharge if the Velocity is Considered is given

Created
Length when Bazins Formula for Discharge if the Velocity is not Considered is given

Created
Velocity Approach (Va)

Created
Width of the Channel (B) when Velocity Approach (Va) is given

5 More Flow Over a Rectangular Sharp-Crested Weir or Notch Calculators

Created
Angular Momentum at Inlet

Created
Angular Momentum at Outlet

Created
Angular Velocity when Work Done on the Wheel per Second is given

Created
Efficiency of the System

Created
Final Velocity(u1) when Power Delivered to the Wheel is given

Created
Final Velocity(u1) when when Work Done if the Jet Leaves in the Motion of the Wheel is given

Created
Initial Velocity (u) when Work Done at Vane angle is 90 and velocity (Vw) is 0 is given

Created
Initial Velocity (u) when Work Done if the Jet Leaves in the Motion of the Wheel is given

Created
Initial Velocity(u) when Power Delivered to the Wheel is given

Created
Mass of Fluid Striking Vane per Second

Created
Power Delivered to the Wheel

Created
Radius at Inlet(R) when Torque(T) Exerted by the Fluid is given

Created
Radius at Inlet(R) when Work Done on the Wheel per Second is given

Created
Radius at Outlet(R1) when Torque(T) Exerted by the Fluid is given

Created
Radius at Outlet(R1) when Work Done on the Wheel per Second is given

Created
Radius of the Wheel when Angular Momentum at Inlet is given

Created
Radius of the Wheel when Angular Momentum at Outlet is given

Created
Radius of the Wheel(R1) when Tangential Velocity(u) at the Inlet Tip of the Vane is given

Created
Radius of the Wheel(R1) when Tangential Velocity(u1) at the Outlet Tip of the Vane is given

Created
Specific Gravity when Angular Momentum at Inlet is given

Created
Specific Gravity when Angular Momentum at Outlet is given

Created
Specific Gravity when Mass of Fluid Striking Vane per Second is given

Created
Specific Gravity when Power Delivered to the Wheel is given

Created
Specific Gravity when Tangential Momentum of the Fluid Striking the Vanes at the Inlet is given

Created
Specific Gravity when Tangential Momentum of the Fluid Striking the Vanes at the Outlet is given

Created
Specific Gravity when Torque(T) Exerted by the Fluid is given

Created
Specific Gravity when Work Done at Vane angle is 90 and velocity (Vw) is 0 is given

Created
Specific Gravity when Work Done if the Jet Leaves in the Motion of the Wheel is given

Created
Specific Gravity when Work Done if there is no Loss of Energy is given

Created
Specific Gravity when Work Done on the Wheel per Second is given

Created
Specific Weight when Torque(T) Exerted by the Fluid is given

Created
Speed of the Wheel when Tangential Velocity(u) at the Inlet Tip of the Vane is given

Created
Speed of the Wheel(N) when Tangential Velocity(u1) at the Outlet Tip of the Vane is given

Created
Tangential Momentum of the Fluid Striking the Vanes at the Inlet

Created
Tangential Momentum of the Fluid Striking the Vanes at the outlet

Created
Tangential Velocity(u) at the Inlet Tip of the Vane

Created
Tangential Velocity(u1) at the Outlet Tip of the Vane

Created
Torque(T) Exerted by the Fluid

Created
Velocity (V) when Efficiency of the System is given

Created
Velocity at a Point (V1) when Efficiency of the System is given is given

Created
Velocity at a Point (V1) when Work Done if there is no Loss of Energy is given

Created
Velocity at Inlet (Vw) when Work Done at Vane angle is 90 and velocity (Vw) is 0 is given

Created
Velocity at Inlet (Vw) when Work Done if the Jet Leaves in the Motion of the Wheel is given

Created
Velocity at Inlet(Vw) when Power Delivered to the Wheel is given

Created
Velocity at Inlet(Vw) when Torque(T) Exerted by the Fluid is given

Created
Velocity at Inlet(Vw) when Work Done on the Wheel per Second is given

Created
Velocity at Outlet(Vw1) when Power Delivered to the Wheel is given

Created
Velocity at Outlet(Vw1) when Torque(T) Exerted by the Fluid is given

Created
Velocity at Outlet(Vw1) when Work Done if the Jet Leaves in the Motion of the Wheel is given

Created
Velocity at Outlet(Vw1) when Work Done on the Wheel per Second is given

Created
Velocity when Angular Momentum at Inlet is given

Created
Velocity when Angular Momentum at Outlet is given

Created
Velocity when Tangential Momentum of the Fluid Striking the Vanes at the Inlet is given

Created
Velocity when Tangential Momentum of the Fluid Striking the Vanes at the Outlet is given

Created
Velocity when Work Done if there is no Loss of Energy is given

Created
Weight of the Fluid when Angular Momentum at Inlet is given

Created
Weight of the Fluid when Angular Momentum at Outlet is given

Created
Weight of the Fluid when Mass of Fluid Striking Vane per Second is given

Created
Weight of the Fluid when Power Delivered to the Wheel is given

Created
Weight of the Fluid when Tangential Momentum of the Fluid Striking the Vanes at the Inlet is given

Created
Weight of the Fluid when Tangential Momentum of the Fluid Striking the Vanes at the Outet is given

Created
Weight of the Fluid when Work Done at Vane angle is 90 and velocity(Vw) is 0 is given

Created
Weight of the Fluid when Work Done if the Jet Leaves in the Motion of the Wheel is given

Created
Weight of the Fluid when Work Done if there is no Loss of Energy is given

Created
Weight of the Fluid when Work Done on the Wheel per Second is given

Created
Work Done for Radial Discharge at Vane angle is 90 and velocity(Vw) is 0

Created
Work Done if the Jet Leaves in the Direction as that of the Motion of the Wheel

Created
Work Done if there is no Loss of Energy

Created
Work Done on the Wheel per Second