Well Completion Design Training Course
Comprehensive Well Completion Design training aligned with API RP 19G and ISO 14310 standards.

Main Service Location
Course Title
Well Completion Design
Course Duration
5 Days
Training Delivery Method
Classroom (Instructor-Led) or Online (Instructor-Led)
Assessment Criteria
Knowledge Assessment
Service Category
Training, Assessment, and Certification Services
Service Coverage
In Tamkene Training Center or On-Site: Covering Saudi Arabia (Dammam - Khobar - Dhahran - Jubail - Riyadh - Jeddah - Tabuk - Madinah - NEOM - Qassim - Makkah - Any City in Saudi Arabia) - MENA Region
Course Average Passing Rate
98%
Post Training Reporting
Post Training Report + Candidate(s) Training Evaluation Forms
Certificate of Successful Completion
Certification is provided upon successful completion. The certificate can be verified through a QR-Code system.
Certification Provider
Tamkene Saudi Training Center - Approved by TVTC (Technical and Vocational Training Corporation)
Certificate Validity
2 Years (Extendable with additional training hours)
Instructors Languages
English / Arabic
Interactive Learning Methods
2 Years (Extendable with additional training hours)
Training Services Design Methodology
ADDIE Training Design Methodology
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Course Outline
1. Introduction to Well Completion Engineering
1.1 Completion Engineering Fundamentals
Definition and objectives of well completions including (production optimization, well integrity)
Types of well completions including (open hole, cased hole, horizontal, multilateral)
Completion selection criteria including (reservoir characteristics, production targets, well lifecycle)
Completion engineering workflow including (data gathering, design, implementation, evaluation)
Introduction to API RP 19G and ISO 14310 standards for completion equipment
1.2 Well Architecture Considerations
Casing and tubing design principles including (size selection, material grade)
Wellbore stability factors including (stress analysis, hole cleaning requirements)
Deviation and trajectory effects including (dogleg severity, accessibility considerations)
Formation evaluation inputs including (logs, core data, reservoir properties)
Completion fluid selection including (compatibility testing, damage prevention)
2. Cased Hole Completions
2.1 Perforation Design
Perforation fundamentals including (shaped charge technology, gun systems)
Shot density and phasing optimization including (flow efficiency, structural integrity)
Underbalanced versus overbalanced perforating including (pressure differential effects)
Perforation tunnel quality factors including (penetration depth, entrance hole diameter)
Performance prediction models including (productivity index calculations, skin estimation)
2.2 Tubing Design and Selection
Tubing size optimization including (flow rate considerations, artificial lift compatibility)
Material selection including (corrosion resistance, H₂S/CO₂ service ratings)
Connection types including (API connections, premium connections)
Mechanical properties consideration including (collapse, burst, tensile ratings)
Tubing movement analysis including (thermal effects, pressure effects)
3. Open Hole Completions
3.1 Open Hole Considerations
Formation stability assessment including (stress analysis, breakout potential)
Fluid compatibility issues including (clay swelling, formation damage)
Wellbore quality requirements including (gauge hole, minimal washouts)
Completion equipment limitations including (packer sealing, tool running)
Risk assessment methodology including (stuck pipe potential, remediation options)
3.2 Horizontal and Extended Reach Completions
Horizontal well completion challenges including (heel-toe effect, accessibility)
Running tools in high-angle wells including (torque and drag considerations)
Cleanout and displacement strategies including (rotation techniques, fluid rheology)
Completion equipment selection including (swellable packers, sliding sleeves)
Production profile optimization including (inflow control devices, segmentation)
4. Sand Control Completions
4.1 Sand Production Mechanisms
Sand production prediction including (mechanical properties, drawdown effects)
Sand control screening criteria including (particle size analysis, production rates)
Laboratory testing methods including (sand retention tests, permeability testing)
Economic impact analysis including (production loss, equipment damage)
Monitoring techniques including (acoustic detection, surface sampling)
4.2 Stand-Alone Sand Control
Slotted liners including (slot design, open area considerations)
Wire-wrapped screens including (wire profile, base pipe configuration)
Premium screens including (mesh pack, sintered metal, metal mesh)
Screen selection methodology including (formation characteristics, production goals)
Installation best practices including (running procedures, centralization)
4.3 Gravel Pack Completions
Conventional gravel packing including (slurry design, placement techniques)
High-rate water pack including (rate calculations, pressure monitoring)
Frac pack design including (fracture geometry, conductivity optimization)
Gravel sizing principles including (particle size distribution, uniformity coefficient)
Alpha/beta wave concepts including (pack mechanisms, velocity control)
5. Multi-Zone Completions
5.1 Zonal Isolation Techniques
Packer types and selection including (mechanical, hydraulic, swellable)
Cement isolation including (cement properties, placement techniques)
External casing packers including (inflation methods, reliability factors)
Isolation verification methods including (pressure testing, bond logs)
Remedial isolation techniques including (squeeze cementing, straddle packers)
5.2 Selective Production and Injection
Sliding sleeve systems including (operating mechanisms, control methods)
Interval control valves including (hydraulic, electric, autonomous systems)
Multi-position chokes including (flow control, erosion resistance)
Remotely operated equipment including (actuation systems, control lines)
Selective stimulation options including (diversion methods, sequential treatments)
6. Intelligent Well Completions
6.1 Intelligent Completion Technologies
Downhole monitoring systems including (pressure/temperature gauges, flow meters)
Fiber optic sensing including (distributed temperature sensing, distributed acoustic sensing)
Interval control valve applications including (water/gas control, production optimization)
Data acquisition and transmission including (telemetry methods, surface systems)
Real-time monitoring considerations including (data interpretation, decision-making)
6.2 Intelligent Well Architecture
Control line design including (material selection, protection methods)
Equipment integration including (compatibility, space-out requirements)
Hydraulic/electric control systems including (surface units, downhole components)
Redundancy planning including (backup systems, contingency controls)
Installation and testing procedures including (function testing, system integrity)
7. Completion Equipment Selection
7.1 Downhole Equipment
Subsurface safety valves including (flapper valves, ball valves)
Packer selection and spacing including (setting mechanisms, differential pressure ratings)
Flow control devices including (chokes, orifices, autonomous devices)
Landing nipples and lock mandrels including (profile types, running tools)
Gas lift equipment including (mandrels, valves, bumper springs)
7.2 Wellhead and Christmas Tree Systems
Wellhead configuration including (casing head, tubing head, adapter spools)
Christmas tree design including (vertical, horizontal, conventional, compact)
Valve selection including (gate valves, check valves, choke valves)
Material selection including (pressure rating, temperature rating, fluid composition)
Seal design including (metal-to-metal, elastomeric, environmental considerations)
8. Well Integrity Management
8.1 Barrier Philosophy
Primary and secondary barrier concepts including (envelope definition, independence)
Barrier verification methods including (pressure testing and monitoring techniques)
Barrier element identification including (critical components, failure modes)
Well barrier schematic including (barrier diagram, status tracking)
NORSOK D-010 standard application including (barrier acceptance criteria)
8.2 Integrity Monitoring and Maintenance
Annular pressure monitoring including (sustained casing pressure, thermal effects)
Corrosion monitoring including (coupons, electrical resistance probes)
Preventive maintenance programs including (valve maintenance, seal replacement)
Workover considerations including (barrier maintenance, equipment replacement)
Abandonment planning including (barrier requirements, verification methods)
9. HSE in Completion Operations
Risk assessment methodology including (hazard identification, consequence evaluation)
Pressure control during operations including (well control equipment, procedures)
Chemical handling safety including (completion fluids, treatment chemicals)
Environmental protection including (spill prevention, waste management)
Emergency response planning including (contingency procedures, response drills)
10. Completion Optimization
10.1 Technical Optimization
Production performance enhancement including (inflow profile, artificial lift integration)
Completion efficiency evaluation including (productivity index, skin factor)
Reliability improvement including (failure analysis, design modifications)
Accessibility for future interventions including (re-entry provisions, contingency planning)
Technology selection methodology including (qualification process, field-proven solutions)
10.2 Economic Optimization
Completion cost analysis including (equipment costs, installation costs)
Risk versus reward evaluation including (completion complexity, production benefit)
Life-cycle cost considerations including (initial cost, workover frequency)
Value of information assessment including (monitoring benefits, decision quality)
Performance metrics including (return on investment, payback period)
11. Case Studies & Group Discussions
Regional case studies from Middle East operations including (high-temperature wells, high-pressure wells)
Completion optimization successes including (production enhancement
Targeted Audience
Completion Engineers working in oil and gas operations
Drilling Engineers transitioning to completion roles
Production Engineers involved in completion design and optimization
Reservoir Engineers interfacing with completion systems
Well Integrity Engineers responsible for barrier management
Field Supervisors overseeing completion operations
Technical Professionals involved in well construction
Project Engineers managing well delivery
Knowledge Assessment
Technical quizzes on completion engineering principles including (multiple-choice questions on sand control, matching exercises for packers and completion equipment)
Problem-solving exercises on well design including (tubing size optimization, perforation design)
Scenario-based assessments including (completion selection for challenging wells)
Equipment selection exercises including (Christmas tree configuration, downhole tool selection)
Key Learning Objectives
Master fundamental well completion concepts and design methodologies
Select appropriate completion equipment based on reservoir and operational requirements
Design effective sand control strategies for various formation types
Implement proper zonal isolation techniques for multi-zone completions
Evaluate and optimize perforation designs for maximum productivity
Apply intelligent completion technologies for enhanced reservoir management
Develop robust well integrity assurance protocols
Implement HSE considerations in completion operations
Course Overview
This Well Completion Design training course equips participants with the essential knowledge and technical skills required to design, implement, and optimize well completions across various reservoir environments. The course addresses critical aspects of completion engineering including wellbore preparation, completion equipment selection, and performance evaluation.
Participants will learn how to apply industry best practices and international standards to make informed decisions throughout the completion design process. The training emphasizes a holistic approach to completion engineering that balances production optimization, well integrity, and economic considerations while ensuring long-term well performance and safety.
Practical Assessment
Completion design exercise including (tubing size calculations, equipment selection)
Sand control design including (screen selection, gravel sizing)
Well barrier diagram creation including (primary and secondary barrier identification)
Completion program development including (procedure writing, equipment specifications)
Why Choose This Course?
Comprehensive coverage of completion engineering from fundamentals to advanced concepts
Integration of theoretical principles with practical applications from real-world scenarios
Focus on industry best practices and international standards including API RP 19G and ISO 14310
Hands-on exercises with actual field data and case studies
Exposure to state-of-the-art completion technologies and methodologies
Emphasis on integrated well construction approach
Opportunity to learn from case studies based on regional challenges
Development of critical problem-solving skills for completion operations
Note: This course outline, including specific topics, modules, and duration, can be customized based on the specific needs and requirements of the client.