Exercises in Drilling Fluid Engineering

These exercises have been developed to fit the content of the text book Drilling Fluid Engineering. The understanding of the physics and mathematics of the processes has been in focus of both the textbook and the exercises book. Many practical applications have also been created and entered into the collection of exercises. Most of the exercises have been solved and corrected by students in the corresponding course at the Department of Petroleum Engineering and Applied Geophysics at NTNU in Trondheim. 

1. Fluid Properties
   1. Rheology control
   2. Rheology control
   3. Flocculation
   4. Mud contamination
   5. Flocculation
   6. Fluid additives
   7. Fluid additives
   8. Rheological models
      1. Bingham/Power law.
      2. Bingham/Power-law
      3. Bingham/Power-law. Regression
      4. Effective viscosity
      5. All models
      6. All models. Regression
      7. All models
2. Drilling fluid dynamics
   1. Velocity profile. Continuity equation
   2. Velocity profile. Momentum flux
   3. Velocity profile
   4. Pressure loss vs. rheology
   5. Pressure loss vs. rheology
   6. Pressure loss vs. rheology
   7. Pressure loss. Power-law
   8. Pressure loss. Turbulent. Energy equation
   9. Pressure loss vs. flow rate
   10. Pressure loss. Use field data to evaluate model
   11. Pressure loss. Effect of rotation
   12. Pressure loss. Nozzles. OFU
   13. Swab pressure. Cling factor
   14. Swab pressure model
3. Hydraulic program
   1. Mud pump issues
   2. Optimal nozzles? Section wise
   3. Liner selection. Section wise
   4. Hydraulic program. Section wise (i.e. all liners are treated as if in range I)
   5. Optimal parameters for BHHP. OFU. Section wise
   6. Liner selection. Complete well
   7. Liner selection. Complete well
4. Well challenges
   1. Filtration control
   2. Filtration control
   3. Cuttings concentration
   4. Cuttings concentration
   5. Density control
   6. Density control
   7. ECD. Barite
   8. ECD. Fluid and flow
   9. Water activity
   10. Shale stability
   11. Shale stability
   12. Wellbore problem
5. Supportive Information
   1. Pump (National 12-P-160) and hydraulic program data
   2. Pressure loss equations
   3. Conversion factors and formulas
6. Solutions to exercises in drilling fluid engineering
   1. Rheology control
   2. Rheology control
   3. Flocculation
   4. Mud contamination
   5. Flocculation
   6. Fluid additives
   7. Fluid additives
7. Rheological models
   1. Bingham / Power-law
   2. Bingham/Power-law
   3. Bingham/Power-law. Regression
   4. Effective viscosity
   5. All models
   6. All models. Regression
   7. All models.
8. Drilling fluid dynamics
   1. Velocity profile. Continuity equation
   2. Velocity profile. Momentum flux
   3. Flow profile
   4. Pressure loss vs. rheology
   5. Pressure loss vs. Rheology
   6. Pressure loss. Power law
   7. Pressure loss. Turbulent flow. Energy equation
   8. Pressure loss vs. flow rate
   9. Pressure loss. Field data
   10. Pressure loss. Effects of rotation
   11. Pressure loss. Bit nozzle. OFU
   12. Swab pressure. Clinging factor
9. Hydraulic program
   1. Mud pump issues
   2. Nozzle selection. Section wise
   3. Liner selection. Section wise
   4. Hydraulic program. Section wise
   5. Optimal parameters with BHHP. OFU. Section wise
   6. Liner selection. Complete well
   7. Liner selection. Complete well
10. Wellbore challenges
    1. Filtration control
    2. Filtration control
    3. Cuttings concentration
    4. Cuttings
    5. Density control
    6. Density control
    7. ECD. Barite
    8. ECD. Flow rate & fluid consistency
    9. Water activity
    10. Shale stability
    11. Shale stability
    12. Wellbore problems