Copyright © 2018 John Wiley & Sons, Inc. and primarily advanced by Prof. A. Iskandar.
14-1 Fluid Density and Pressure (1 of 6) Link to heading
Learning Objectives
- 14.01 Distinguish fluids from solids.
- 14.02 When mass is uniformly distributed, relate density to mass and volume.
- 14.03 Apply the relationship between hydrostatic pressure, force, and the surface area over which that force acts.
14-2 Fluids at Rest (1 of 6) Link to heading
Learning Objectives
- 14.04 Apply the relationship between the hydrostatic pressure, fluid density, and the height above or below a reference level.
- 14.05 Distinguish between total pressure (absolute pressure) and gauge pressure.
14-3 Measuring Pressure (1 of 5) Link to heading
Learning Objectives
- 14.06 Describe how a barometer can measure atmospheric pressure.
- 14.07 Describe how an open-tube manometer can measure the gauge pressure of a gas.
14-4 Pascal’s Principle (1 of 6) Link to heading
Learning Objectives
- 14.08 Identify Pascal’s principle.
- 14.09 For a hydraulic lift, apply the relationship between the input area and displacement and the output area and displacement.
14-5 Archimedes’ Principle (1 of 7) Link to heading
Learning Objectives
- 14.10 Describe Archimedes’ principle.
- 14.11 Apply the relationship between the buoyant force on a body and the mass of the fluid displaced by the body.
- 14.12 For a floating body, relate the buoyant force to the gravitational force.
- 14.13 For a floating body, relate the gravitational force to the mass of the fluid displaced by the body.
- 14.14 Distinguish between apparent weight and actual weight.
- 14.15 Calculate the apparent weight of a body that is fully or partially submerged.
14-6 The Equation of Continuity (1 of 7) Link to heading
Learning Objectives
- 14.16 Describe steady flow, incompressible flow, nonviscous flow, and irrotational flow.
- 14.17 Explain the term streamline.
- 14.18 Apply the equation of continuity to relate the crosssectional area and flow speed at one point in a tube to those quantities at a different point.
- 14.19 Identify and calculate volume flow rate.
- 14.20 Identify and calculate mass flow rate.
14-7 Bernoulli’s Equation (1 of 6) Link to heading
Learning Objectives
- 14.21 Calculate the kinetic energy density in terms of a fluid’s density and flow speed.
- 14.22 Identify the fluid pressure as being a type of energy density.
- 14.23 Calculate the gravitational potential energy density.
- 14.24 Apply Bernoulli’s equation to relate the total energy density at one point on a streamline to the value at another point.
- 14.25 Identify that Bernoulli’s equation is a statement of the conservation of energy.
Summary Link to heading
- Density
- Fluid Pressure
- Pressure Variation with Height and Depth
- Pascal’s Principle
- Archimedes’ Principle
- Flow of Ideal Fluids
- Bernoulli’s Equation
Copyright Link to heading
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