The pitot tube shown below is placed at a point where the velocity is 3 m/s....

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The pitot tube shown below is placed at a point where the velocity is 3 m/s. The specific gravity of the fluid is 3, and the upper portion of the manometer contains air. The reading h (m) on the manometer is most nearly: 3 m/s -AIR If the standard density of water is 1,000 kg/m3, a fluid having a specific gravity of 1.85 and an absolute dynamic viscosity of 1.5 kg/(m-s) has a kinematic viscosity (m2/s) of most nearly? A 2-in-diameter jet of 50°F water is deflected 90° by an angled chute as shown. The water enters with a velocity of 25 ft/see and freely exits into the atmosphere with the same velocity. The forces (lb) in the x and y directions of the chute are most nearly: 45° 90° 45° The pitot tube shown below is placed at a point where the velocity is 3 m/s. The specific gravity of the fluid is 3, and the upper portion of the manometer contains air. The reading h (m) on the manometer is most nearly: 3 m/s -AIR If the standard density of water is 1,000 kg/m3, a fluid having a specific gravity of 1.85 and an absolute dynamic viscosity of 1.5 kg/(m-s) has a kinematic viscosity (m2/s) of most nearly? A 2-in-diameter jet of 50°F water is deflected 90° by an angled chute as shown. The water enters with a velocity of 25 ft/see and freely exits into the atmosphere with the same velocity. The forces (lb) in the x and y directions of the chute are most nearly: 45° 90° 45°

Answer rating: 100% (QA)

Here is an explanation of the steps involved in the solution We use the Bernoulli equation to relate the pressure at the stagnation point in the pitot tube to the pressure at the point where the veloc... View the full answer