課程大綱 Syllabus |
學生學習目標 Learning Objectives |
單元學習活動 Learning Activities |
學習成效評量 Evaluation |
備註 Notes |
序 No. | 單元主題 Unit topic |
內容綱要 Content summary |
1 | Introduction to Momentum Transfer |
1. FLUIDS AND THE CONTINUUM
2. PROPERTIES AT A POINT
3. POINT-TO-POINT VARIATION OF PROPERTIES IN A FLUID
4. COMPRESSIBILITY
5. SURFACE TENSION |
1. To understand what is transport phenomena and unit operation
2. To know some fluid properties |
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2 | Fluid Statics |
1. PRESSURE VARIATION IN A STATIC FLUID
2. UNIFORM RECTILINEAR ACCELERATION
3. FORCES ON SUBMERGED SURFACES |
To understand the application of fluid statics |
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3 | Fluid Statics and Fluid in motion |
1. BUOYANCY
2. FUNDAMENTAL PHYSICAL LAWS
3. FLUID-FLOW FIELDS: LAGRANGIAN AND EULERIAN REPRESENTATIONS
4. STEADY AND UNSTEADY FLOWS
5. STREAMLINES
6. SYSTEMS AND CONTROL VOLUMES |
To learn the transition from flow statics to fluid flow. |
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4 | Conservation of mass |
1. INTEGRAL RELATION
2. SPECIFIC FORMS OF THE INTEGRAL EXPRESSION |
To learn how to establish the mass balance balance and solve it. |
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5 | Newton's 2nd law of motion |
1. INTEGRAL RELATION FOR LINEAR MOMENTUM
2. APPLICATIONS OF THE INTEGRAL EXPRESSION
FOR LINEAR MOMENTUM
3. INTEGRAL RELATION FOR MOMENT OF MOMENTUM |
To learn how to establish the momentum balance and solve it. |
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6 | Newton's 2nd law of motion |
1. APPLICATIONS TO PUMPS AND TURBINES |
To learn momentum balance. |
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7 | Conservation of energy |
1. INTEGRAL RELATION FOR THE CONSERVATION OF ENERGY
2. APPLICATIONS OF THE INTEGRAL EXPRESSION |
Use energy balance to solve transport phenomena problems. |
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8 | Conservation of energy |
1. THE BERNOULLI EQUATION |
Use BERNOULLI EQUATION to solve fluid mechanics problems. |
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9 | 期中考 |
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10 | Shear stress in laminar flow |
1. NEWTON’S VISCOSITY RELATION
2. NON-NEWTONIAN FLUIDS
3. VISCOSITY
4. SHEAR STRESS IN MULTIDIMENSIONAL LAMINAR FLOWS OF A NEWTONIAN FLUID |
To learn shear stress for newtionian fluids |
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11 | Shear stress in laminar flow |
1. NEWTON’S VISCOSITY RELATION
2. NON-NEWTONIAN FLUIDS
3. VISCOSITY
4. SHEAR STRESS IN MULTIDIMENSIONAL LAMINAR FLOWS OF A NEWTONIAN FLUID |
To learn shear stress for newtionian fluids |
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12 | Analysis of differential fluid element in laminar flow |
1. FULLY DEVELOPED LAMINAR FLOW IN A CIRCULAR
CONDUIT OF CONSTANT CROSS SECTION
2. LAMINAR FLOW OF A NEWTONIAN FLUID DOWN AN INCLINED-PLANE SURFACE |
To learn how to analyze fluid flow |
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13 | Differential equations of fluid flow |
1. THE DIFFERENTIAL CONTINUITY EQUATION
2. NAVIER–STOKES EQUATIONS
3. BERNOULLI’S EQUATION |
To learn how to solve fluid flow problems with Navier-Stokes equation. |
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14 | Inviscid fluid flow |
1. FLUID ROTATION AT A POINT
2. THE STREAM FUNCTION
3. INVISCID, IRROTATIONAL FLOWABOUT AN INFINITE CYLINDER
4. IRROTATIONAL FLOW, THE VELOCITY POTENTIAL |
To learn fluid flow with negligible viscosity |
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15 | Inviscid fluid flow |
1. UTILIZATION OF POTENTIAL FLOW
2. POTENTIAL FLOWANALYSIS—SIMPLE PLANE FLOW CASES
3. POTENTIAL FLOWANALYSIS—SUPERPOSITION |
To learn fluid flow with negligible viscosity |
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16 | Dimensional analysis |
1. DIMENSIONS
2. DIMENSIONAL ANALYSIS OF GOVERNING DIFFERENTIAL EQUATIONS
3. THE BUCKINGHAM METHOD
4. GEOMETRIC, KINEMATIC, AND DYNAMIC SIMILARITY
5. MODEL THEORY |
To learn how to use dimensional analysis to develop engineering correlation |
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17 | Flow in closed conduits |
1. DIMENSIONAL ANALYSIS OF CONDUIT FLOW
2. FRICTION FACTORS FOR FULLY DEVELOPED LAMINAR, TURBULENT, AND TRANSITION FLOW IN CIRCULAR CONDUITS
3. FRICTION FACTOR AND HEAD-LOSS DETERMINATION FOR PIPE FLOW
4. PIPE-FLOW ANALYSIS
5. FRICTION FACTORS FOR FLOW IN THE ENTRANCE TO A CIRCULAR CONDUIT |
To learn how to calculate flow friction. |
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18 | 期末考 |
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