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Q3) Discharge through the pipe shown below is 0.01 m3/s. Calculate the velocity at sections 1,...
3) In the following pipe system, water discharge in pipe 1 is given as Qi=1.2 m3/s. The upstream and downstream reservoir water surface elevations are known, and they are Za=100 m, and ZB=80 m, respectively. Relevant pipe data are provided in the table below. Determine the diameter in pipe 3. Velocity head at the junction and minor losses in the system will be neglected. (v = 1 x 10-6 m2/s) | Pipe (mm) 3.6 ZA=100 m L (m) 5000 6000...
Water flows in a pipe as shown in Figure Q3. At section 1, height to the centre line of pipe in relation to some datum is Zi (=3m). At section 2, the respective height is Z2 = 5m) as shown. The pipe diameters in section 1 and 2 are 500mm and 440mm respectively. Water velocity at section 1 is 5.6 m/s and the pressure is 45 kPa. Assuming ideal flow conditions and taking water density as 1000 kg/m. 1. Calculate...
4) A pumping system with different pipe fittings is shown in the following figüre. Calculate pressure head at points 1-2 if the pump is generating an input head of 50 m at 0.1 m3/s discharge. The Cl pipe diameter D is 0.3 m. -Contraction transition +Abrupt contraction transition Abrupt expansion transition Confusor outet Expansion transition Rotary valve 2 3 4 7 5 6 PUMP
4) A pumping system with different pipe fittings is shown in the following figüre. Calculate pressure...
4) A pumping system with different pipe fittings is shown in the following figüre. Calculate pressure head at points 1-2 if the pump is generating an input head of 50 m at 0.1 m3/s discharge. The Cl pipe diameter D is 0.3 m. -Contraction transition +Abrupt contraction transition Abrupt expansion transition Confusor outet Expansion transition Rotary valve 2 3 4 7 5 6 PUMP
4) A pumping system with different pipe fittings is shown in the following figüre. Calculate pressure...
Water (ρ =1000 kg/m3 and ν =10-6
m2/s) flows through a conduit with a velocity of 4.72
m/s at section 2 shown in figure. If the diameters D1, D2 and D3,
are 50 mm, 60 mm and 100 mm respectively, the Reynolds number at
section 3 is:
The Reynolds number =___________________
Water flow steady through a pipe with Dia= 0.75 m at point 1 and Dia= 1.5 m at point 2 as shown below. Find the velocity and the volume flow rate at the exit point.( Xwater = 9800 N/m3) D = 1.5 m D = 0.75 m (1) water in (2) V D = 2 m im . 7m. SG=0.88 T 0.5 m 0.3 in 0.2m 0-5 m 0.5m SG=13.5S SG:13.55
Water flow steady through a pipe with Dia= 0.75 m at point 1 and Dia= 1.5 m at point 2 as shown below. Find the velocity and the volume flow rate at the exit point.( xwater = 9800 N/m3) D = 1.5 m D = 0.75 m (1) BS water in (2) D = 2 m im o 7m. SG=0.88 T 0.3 in 0.5 m 0.2 in 0.5m SG=13.5S SG:13.55
Answer Questions 1&2
Question -1 Inside diameters of a pipe at sections 1 and 2 are 50 mm and 100 mm, respectively. Water is flowing with an average velocity of 8 m/s at section 1. Calculate: (a) Velocity at section 2 (b) Discharge Q (C) Weight flow rate. Flow Reference level Question - 2 In Fig. (Given in Question -1) water is flowing from section 1 to section 2. At section 1, which is 25 mm in diameter, the gage...
Q4) Water (y 9810 N/m3) flows steadily with negligible viscous effects through a pipe as shown below, pressure and velocity at point (1) are 110 kPa and 1m/s respectively. Find the pressure at point (2) in kPa if velocity at that point is 5 m/s. 2 m Answer (round to 1 decimal place):
A brine solution with a density of 1230 kg/m3 moves through a constricted pipe in steady, ideal flow. At the lower point shown in the figure below, the pressure is P1 = 1.95 × 104 Pa, and the pipe diameter is 5.00 cm. At another point y = 0.35 m higher, the pressure is P2 1.00 104 Pa and the pipe diameter is 2.50 cm. P2 (a) Find the speed of flow (in m/s) in the lower section m/s (b)...