Stonebridge said:Could you explain what d is in your equation.
As the pipe is horizontal there is no potential energy consideration.
I also note that there is no information given about the change in the cross section area.
Maybe you could clarify the question?
Stonebridge said:Could you explain what d is in your equation.
As the pipe is horizontal there is no potential energy consideration.
I also note that there is no information given about the change in the cross section area.
Maybe you could clarify the question?
The pressure at the narrow end of a segment is inversely proportional to the cross-sectional area of the segment. This means that as the cross-sectional area decreases, the pressure at the narrow end increases.
To find the pressure at the narrow end of a segment, you can use the equation P = F/A, where P is pressure, F is the force applied to the segment, and A is the cross-sectional area of the segment. You will need to know the force and the cross-sectional area to calculate the pressure.
The pressure at the narrow end of a segment can be affected by several factors including the force applied, the cross-sectional area, the material of the segment, and the velocity of the fluid or gas passing through the segment.
The pressure at the narrow end of a segment can affect the flow of fluid or gas by creating a pressure gradient, which causes the fluid or gas to move from an area of high pressure to an area of low pressure. This can result in increased flow rate or turbulence depending on the specific conditions.
Yes, the pressure at the narrow end of a segment can be controlled or changed by adjusting the factors that affect it, such as the force, cross-sectional area, or velocity. Additionally, devices such as valves or pumps can be used to manipulate the pressure at the narrow end of a segment.