Problem-4 A liquid (S.G. = 0.9) flows downward through a vertical pipe as shown. Determine a) the pressure drop, Ap= p1-p2 and b) the volume flowrate (Q). Given: h = 100 mm. Assume steady, incompressible, frictionless flow. (S.G.)Mercury = 13.6 300 mm Section – 1 0.6 m Section – 2

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**Problem-4**

A liquid (Specific Gravity, S.G. = 0.9) flows downward through a vertical pipe as shown. Determine:
a) the pressure drop, Δp = p₁ - p₂ 
b) the volume flowrate (Q).

**Given:**
- h = 100 mm.
- Assume steady, incompressible, frictionless flow. 
- (S.G.) Mercury = 13.6

**Diagram Explanation:**

- The diagram shows a vertical pipe with two sections: Section-1 and Section-2.
- Section-1 is at the top, where the liquid begins to flow downward.
- Section-2 is at the bottom, where the pipe expands, possibly affecting the flow characteristics.
- The vertical distance between the two sections is 0.6 meters.
- At the lower part of the diagram, there is a manometer containing mercury, used to measure the pressure difference between the two sections.
- The height difference in the mercury column is denoted as 'h' (100 mm) and is used to determine the pressure difference.
- Dimensions of the pipe sections are indicated: the width of Section-1 is 300 mm, while the width at Section-2 is 100 mm.

This setup can be used to calculate the pressure loss due to gravitational and flow effects using manometer principles.
Transcribed Image Text:**Problem-4** A liquid (Specific Gravity, S.G. = 0.9) flows downward through a vertical pipe as shown. Determine: a) the pressure drop, Δp = p₁ - p₂ b) the volume flowrate (Q). **Given:** - h = 100 mm. - Assume steady, incompressible, frictionless flow. - (S.G.) Mercury = 13.6 **Diagram Explanation:** - The diagram shows a vertical pipe with two sections: Section-1 and Section-2. - Section-1 is at the top, where the liquid begins to flow downward. - Section-2 is at the bottom, where the pipe expands, possibly affecting the flow characteristics. - The vertical distance between the two sections is 0.6 meters. - At the lower part of the diagram, there is a manometer containing mercury, used to measure the pressure difference between the two sections. - The height difference in the mercury column is denoted as 'h' (100 mm) and is used to determine the pressure difference. - Dimensions of the pipe sections are indicated: the width of Section-1 is 300 mm, while the width at Section-2 is 100 mm. This setup can be used to calculate the pressure loss due to gravitational and flow effects using manometer principles.
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