The angle of the tilt of the pipe. Angle of the tilt is as follows: O = 24.99°=0.4362 rad. L = 2.13m SG of oil = 0.8 SG of water = 1.0 Height of the oil, = 50cm Height of the Water, = 50CM Lets assume, The bottom line as reference line, Point 1 lies at bottom line in the tank, °Cw = density of water = 997 kg/m 3 °Co = density of oil, H = vertical height of water level in the tube = Lsin θ g = acceleration due to gravity. So, the total pressure at point 1 will be as follows: P 1 = o * g * h o + w * g * h w P 1 = S o * w * g * h o + w * g * h w Putting the values: P 1 = 0.8 × 997 × 9.8 × 0.5 + 997 × 9.8 × 0.5 P 1 = 8793.54 N / m 2 …………. (1) Total pressure at bottom of the tank is the cause for the rise of the water level in the tube as shown in the given diagram: So, we have: - P 1 = w * g * H = w * g * Lsin θ = 997 ∗ 9.8 * 2.13 * sin θ …………. (2), From Eq n (1) & (2), we have: sin θ = 0.4225 θ = sin − 1 ( 0.4225 ) O = 24.99 degree=0.4362 rad.
The angle of the tilt of the pipe. Angle of the tilt is as follows: O = 24.99°=0.4362 rad. L = 2.13m SG of oil = 0.8 SG of water = 1.0 Height of the oil, = 50cm Height of the Water, = 50CM Lets assume, The bottom line as reference line, Point 1 lies at bottom line in the tank, °Cw = density of water = 997 kg/m 3 °Co = density of oil, H = vertical height of water level in the tube = Lsin θ g = acceleration due to gravity. So, the total pressure at point 1 will be as follows: P 1 = o * g * h o + w * g * h w P 1 = S o * w * g * h o + w * g * h w Putting the values: P 1 = 0.8 × 997 × 9.8 × 0.5 + 997 × 9.8 × 0.5 P 1 = 8793.54 N / m 2 …………. (1) Total pressure at bottom of the tank is the cause for the rise of the water level in the tube as shown in the given diagram: So, we have: - P 1 = w * g * H = w * g * Lsin θ = 997 ∗ 9.8 * 2.13 * sin θ …………. (2), From Eq n (1) & (2), we have: sin θ = 0.4225 θ = sin − 1 ( 0.4225 ) O = 24.99 degree=0.4362 rad.
Find the Hertzian stresses and the maximum shear stress for the wheel.
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During some actual expansion and compression processes in piston–cylinder devices, the gases have been observed to satisfy the relationship PVn = C, where n and C are constants. Calculate the work done when a gas expands from 350 kPa and 0.03 m3 to a final volume of 0.2 m3 for the case of n = 1.5.
The work done in this case is kJ.
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