Booking options
$1,695
+ BTW
$1,695
+ BTWDelivered In-Person
5 days
All levels
The level 3 course has been designed for anyone expected to shut-in a well, such as drillers and assistant drillers. This course reinforces and improves the candidate’s existing knowledge and appreciation of well control.
The level 4 course is for those working in wellsite supervisory roles and for office-based personnel that are primarily involved in the operational decision-making process and focuses on more complex aspects of well control and well kill methodology.
Level 3 and 4 training is a combined class.
The course is delivered through interactive lecturing supported by animations, group discussions, desktop exercises and alternated with simulator exercises.
Candidates can undertake either surface BOP operations or combined surface and subsea BOP operations.
Impact of well control incidents on personnel, employment, assets, environment, operations, and reputation
Importance of well control training, competency, and regulatory requirements
Hydrostatic pressure factors and advanced calculations
Formation pore pressure (normal, subnormal, abnormal)
Mechanisms causing formation pressure changes (depletion, injection, diagenesis)
Fracture pressure and mud weight window limits
Primary and secondary well control principles
Pore and fracture pressure estimation impacts
Secondary well control equipment selection
Well barrier elements in drilling, completion, workover, and abandonment
Mechanical vs. hydrostatic barriers comparison
Primary and secondary barrier element identification
Barrier verification processes and continuous monitoring
Barrier management and testing criteria
Documentation requirements for barrier tests
Actions when barrier elements fail
Monitoring methods for barrier envelope integrity
Risk management to reduce kick probability and minimize influx volume
Management of Change (MOC) process implementation
Checklists for operations with well control implications
Well control drill purposes, frequency, and documentation
Management of non-shearable and non-sealable tubulars through BOP
Situations causing hydrostatic pressure less than formation pressure
Loss of hydrostatic pressure and calculations
Fluid density reduction factors and verification
Operations reducing hydrostatic head (cement setting, temperature effects, barite settling)
Subsea considerations: riser, booster, choke, and kill line fluids
Riser margin calculations
Gas cutting causes (background, connection, trip gas) and actions
Lost circulation recognition, causes, prevention, and well control implications
Riser integrity concerns and collapse prevention (subsea)
Swabbing and surging causes, consequences, and mitigation
Vessel motion effects on swabbing/surging (subsea)
Tripping procedures and operational elements
Trip tank and trip sheet usage
Actions for deviations from predicted trip volumes
Influx identification and response during tripping
Slug pumping and trip margin calculations
Pumping out of hole procedures
Influx in tubulars (factors and causes)
Swabbed influx in horizontal wells
Warning signs during drilling, circulating, and tripping
Flow checking procedures
Communication protocols with supervisors
Kick indicators and early detection importance
Well flow-back interpretation (finger-printing and trend analysis)
Rig motion effects on kick detection (floating rigs)
Shallow gas characteristics and consequences
Prevention of shallow gas kicks
Operational requirements in shallow gas zones
Managing shallow gas flow procedures
Drilling top hole with or without riser (subsea)
Methods to identify and minimize shallow gas kick impact
Barite usage and potential problems (sag, solid removal)
Barite weight calculations
Bottom hole circulating pressure and Equivalent Circulating Density (ECD)
Pump pressure and speed relationships
Pump pressure and drilling fluid density relationships
Slow Circulation Rates (SCRs) procedures and timing
Factors influencing SCR selection
Choke line friction establishment (subsea)
Leak Off Test (LOT) vs. Formation Integrity Test (FIT)
LOT/FIT performance requirements
Pressure vs. volume graph analysis
MAASP selection and recalculation triggers
Kick margin/tolerance/intensity principles
Types of influx fluids and associated hazards
Influx changes during circulation
Gas law applications and calculations (including temperature)
Influx migration in open and shut-in wells
Migration rate, pressure, and volume calculations
Influx effects on primary fluid barrier properties
Hydrocarbon gas influx behavior in water-based and oil-based fluids
Gas solubility (hydrocarbon, CO₂, H₂S) in drilling fluids
Dissolved gas behavior and break-out conditions
Hydrocarbon gas state changes (gas or liquid influx)
Gas break-out mitigation actions
Gas influx behavior in horizontal wells
Gas expansion effects in subsea riser
Actions for gas expansion in riser (subsea)
Primary barrier failure recognition
Hard shut-in procedures for various operations
Equipment line-up for drilling and tripping
Procedures to prevent gas reaching rotary table
Well monitoring after shut-in
Gas in riser above BOPs - actions (subsea)
Well closure confirmation and unsuccessful closure response
Hang-off procedures for drill string (subsea)
Wireline operations effects on BHP
Shut-in procedures during wireline operations
Conventional equipment limitations during wireline operations
Recording and interpreting shut-in pressures (SIDPP and SICP)
Stabilized pressure determination
Differences between SIDPP and SICP interpretation
Trapped pressure identification
SIDPP measurement with float valve
Pressure gauge limitations and calibration
Dedicated gauge usage for SIDPP and SICP
Influx migration in closed wells
BHP control during influx migration
Kill and control methods definition and selection
Difference between controlling and killing a well
Kill pump rate selection criteria
Kill methods minimizing casing shoe pressure
Appropriate actions when not on bottom
Maintaining constant BHP during pump start/stop
Actions to reduce pressure at well weak point
Maintaining constant BHP when changing pump speed
Choke Line Friction (CLF) effects and mitigation (subsea)
Driller's Method procedures and role
Wait and Weight Method procedures and role
Advantages and disadvantages comparison of kill methods
Riser and associated lines displacement to kill fluid (subsea)
Gas removal from BOP (subsea)
Kill sheet requirements and completion (pre-tour and post-kick)
All kill sheet calculations (BHP, formation pressure, kill fluid density, ICP, FCP, MAASP, circulation times/strokes)
Riser volume displacement calculations (subsea)
Dynamic casing pressure and dynamic MAASP (subsea)
Volumetric Method principles and procedures
When to apply Volumetric Method
Lubricate and Bleed Method principles and procedures
When to apply Lubricate and Bleed Method
Stripping principles, procedures, and limitations
Annular and ram-to-ram stripping
Swab and surge risk factors with large diameter tubulars
Mitigation actions to minimize swab and surge pressures
Self-filling float system capabilities and limitations
Returns monitoring when tripping casing/liner
Open and closed end displacement calculations
Actions if losses occur during casing operations
BHP changes during cementing operations
Successful cementing criteria and verification
Events allowing formation fluid entry during well life
Shut-in procedures during cementing operations
Shut-in procedures when running casing
Well control drill implementation (pit, BOP, on bottom, trip pipe, BHA, choke, hang-off, stripping, diverter, accumulator test)
MAASP limit identification
Indications that MAASP is exceeded
Recognition of downhole and surface problems
Deviations from expected gauge readings
Appropriate response actions
Pressure gauge malfunction detection
Mud Gas Separator (MGS) operating limit actions
Re-establishing safe MGS operating pressures
Well control equipment leak identification and responses
Hydrate formation conditions and prevention
Hydrate removal procedures
Lost circulation monitoring and management during well control events
BOP function, configuration, and operations identification
BOP stack pressure rating analysis
Subsea BOP configuration (marine riser, LMRP, subsea BOP components)
Ram type preventer operational limits
Ram equipment change requirements for operations
Ram locks function and usage
Blind/shear ram operating principles
Shearable diameter, weight, and metallurgy considerations
Shear ram operational procedures
Annular preventer capabilities and limitations
Annular deterioration/failure indicators
Annular closing pressure adjustment
Hydrostatic pressure effects on annular preventers (subsea)
Side outlet valve location and sizing
Gasket selection and make-up procedures
Diverter types (conventional annular vs. insert type)
Diverter principles, components, and operations
Diverter operating mechanisms and sequences
Safety valve types (DPSV, IBOP, drop-in back pressure valve, float/flapper valves)
IBOP application and impact
Float/flapper valve capabilities and limitations
DPSV installation during tubular running operations
Alternative circulating routes through choke manifold
Valve status identification for specific paths
Adjustable choke operating principles and limitations
Safety critical inspection requirements
Mud Gas Separator operational limitations
Gas blow-through pressure calculations
Critical operating limit interpretation
Vacuum degasser principles, considerations, and limitations
BOP and equipment pressure testing criteria
Successful pressure test validation
Monitoring non-pressured side during testing
Test frequency and values (before installation, on installation, during operations)
Inverted test ram usage in subsea BOP (subsea)
DPSV and IBOP pressure test requirements and procedures
BOP operating pressures and closing times
Equipment rating for test processes
Function test requirements for BOP, valves, and manifolds
Diverter system testing procedures
Diverter testing frequency and values
Inflow testing principles and purpose
Factors during inflow test (leak paths, thermal expansion)
Mitigations to minimize kick size if test fails
Inflow test procedures and line-up
Remote control panel operating sequence
Normal operating pressures and stored volumes
Diverter control system pressures and volumes
Accumulator drawdown test procedures and verification
Function operation confirmation
BOP/Diverter malfunction diagnosis and alternative actions
Subsea BOP control system operating principles (pods, SPMs, shuttle valves)
Subsea remote control panel operating sequence
Subsea BOP function operation confirmation
Subsea BOP malfunction diagnosis and responses
Accumulator bottles at subsea BOP (purpose and pre-charge calculations)
Secondary closure systems (ROV, acoustic) and emergency devices (dead man, auto-shear, EDS)
Level 3 training is recommended for any role that is expected to shut in a well.
Assistant drillers
Drillers
Level 4 training is recommended for all roles that oversee well control operations, either on site or office based. This includes personnel involved in both planning and execution of operations.
Well-site supervisor, superintendent or company man
Tool pusher
Rig manager
Offshore Installation Manager
Office-based operational staff
5 days
Candidates will take a practical assessment on the simulator and two written exams:
Principles & Procedures
Equipment
A minimum score of 70% is required in each exam to pass.
Level 3 and Level 4 certificates are valid for 2 years.