| Ch 1. Basics | Multimedia Engineering Fluids | ||||||
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Mass Density |
Ideal Gas Law |
Viscosity |
Surface Tension |
Vapor Pressure |
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| Surface Tension | Case Intro | Theory | Case Solution |
| Chapter |
| 1. Basics |
| 2. Fluid Statics |
| 3. Kinematics |
| 4. Laws (Integral) |
| 5. Laws (Diff.) |
| 6. Modeling/Similitude |
| 7. Inviscid |
| 8. Viscous |
| 9. External Flow |
| 10. Open-Channel |
| Appendix |
| Basic Math |
| Units |
| Basic Equations |
| Water/Air Tables |
| Sections |
| Search |
| eBooks |
| Dynamics |
| Fluids |
| Math |
| Mechanics |
| Statics |
| Thermodynamics |
| Author(s): |
| Chean Chin Ngo |
| Kurt Gramoll |
©Kurt Gramoll
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| Introduction |
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Peter has joined the Sandia
National Laboratory as an undergraduate research assistant through a
summer intership program. To let his interns better understand the
property of surface tension, the laboratory director decides to demonstrate
surface tension effects through capillary action. However, before starting,
he asks each intern what the height will be for two different radii. |
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| Questions |
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Determine the height of the water column
(h) for two different tube radii: R = 1 mm and 10 mm. |
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| Approach |
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