Introduction to Oil & Gas Surface Facilities
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Introduction to Oil & Gas Surface Facilities - SF-IOGSF-PEA27
| Code | Date | Time | Duration | Location | Currency | Early Bird Fee Per Person |
|---|---|---|---|---|---|---|
| SF-IOGSF-PEA27 | 22 - 26 Mar 2027 | 10 AM CST | 5 Days - 4 Hours / Day |
Online |
USD |
4000 |
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Introduction to Oil & Gas Surface Facilities
This training explains how a surface production facility works, from the wellhead through separation, oil treating, gas conditioning, water handling and export metering. It covers the function and operating limits of the main equipment items, how the process is controlled and protected, and how facility performance changes over field life. It is built for engineers and technical staff who work with or around surface facilities but have not been trained in facilities engineering.
Description
Surface facilities convert an uncontrolled multiphase well stream into products that meet contractual specification. Between the wellhead and the export point, the produced fluid is depressurised, separated into oil, gas and water, treated to remove contaminants, measured for custody transfer, and disposed of or reinjected where it has no sales value. Every one of those steps depends on equipment with defined operating windows, and on control and protection systems that keep the plant inside them. This training builds a complete working picture of that system. It follows the fluid path in sequence, so each module explains what enters an equipment item, what physically happens inside it, what leaves, and what the operator can adjust when the output moves off specification.
The material is presented at a level that assumes petroleum, chemical, mechanical or operations background but no prior facilities engineering training. Separator sizing criteria, emulsion behaviour, glycol dehydration, amine sweetening, compression staging, produced water treatment trains, custody transfer metering and relief and blowdown philosophy are each covered in enough technical depth for participants to read a process flow diagram, follow a P&ID, understand why a piece of equipment is where it is, and take part in operational and design discussions with facilities engineers. The training also addresses how facilities behave as fields age, when water cut rises, gas-oil ratio changes and the original design basis no longer matches the fluid the plant actually receives.
Production is limited by the facility far more often than by the reservoir. A well that can flow is worth nothing if the separator cannot handle the liquid rate, the treater cannot break the emulsion to sales BS&W, the compressor is at its discharge pressure limit, or the produced water system cannot take the water cut the field now makes. Facility constraints set backpressure at the wellhead, which sets flowing bottomhole pressure, which sets deliverability. Any discussion of production optimisation that ignores the surface system is incomplete.
Surface facilities are also where most of the process safety exposure sits. The hydrocarbon inventory, the pressure differentials, the ignition sources and the hydrogen sulphide exposure are concentrated in the plant, not in the reservoir. Relief sizing, blowdown philosophy, shutdown hierarchy and fire and gas protection are engineering disciplines with direct consequences for personnel and asset integrity, and they are governed by codes and standards that require correct interpretation rather than routine compliance.
The commercial interface sits here as well. Sales specifications for crude BS&W, salt content and vapour pressure, and for gas water dew point, hydrocarbon dew point, hydrogen sulphide and carbon dioxide content, are met by process equipment operating correctly. Custody transfer metering determines what the operator is paid. Allocation metering determines how revenue is divided between partners and wells. Errors in this part of the plant are financial errors.
Across the industry, engineers move between subsurface, drilling, production and operations roles, and facilities knowledge is often picked up informally rather than taught. That gap shows up as poor design assumptions, avoidable operating problems, weak troubleshooting and slow decisions during upsets. This training closes that gap by teaching the surface system as an integrated whole rather than as a list of unrelated equipment.
By the end of this training, participants will be able to:
- Describe the complete surface production system from wellhead to export, and identify the function of each major process block within it
- Interpret process flow diagrams and piping and instrumentation diagrams, including equipment tagging, line numbering and instrument symbology
- Explain the principles of gravity separation and evaluate the operating parameters that govern separator performance, capacity and carryover
- Analyse crude oil treating and stabilisation processes, including emulsion breaking, dehydration, desalting and vapour pressure control against sales specification
- Describe gas conditioning operations, covering dehydration, acid gas removal, dew point control and compression, and relate each to gas sales requirements
- Assess produced water treatment and disposal options against discharge and reinjection quality targets
- Explain measurement and control systems used across the facility, including custody transfer metering, allocation and shutdown hierarchy
- Apply process safety principles to surface facilities, including pressure relief, blowdown, emergency shutdown levels and fire and gas protection
- Diagnose common facility operating problems and identify debottlenecking options as production profiles and fluid properties change over field life
The training is delivered through structured technical instruction that follows the produced fluid through the facility in process order, supported by worked examples, equipment schematics, process flow diagrams and P&ID walkthroughs drawn from operating oil and gas facilities. Each equipment group is presented with its operating principle, design basis, control philosophy, normal operating envelope and typical failure modes, followed by discussion of field cases where the equipment underperformed and how the cause was identified. Participants are encouraged to bring facility configurations and operating problems from their own assets for group discussion, so the material is applied directly to the systems they work with.
Organisations sending participants to this training will:
- Improve the technical quality of discussions between subsurface, drilling, production and facilities teams by establishing shared terminology and a shared understanding of the process
- Reduce off-specification product events and associated deferment through better operator and engineer understanding of treating, dehydration and stabilisation control
- Strengthen process safety awareness at the working level, particularly around relief, blowdown, shutdown logic and hydrocarbon containment
- Shorten troubleshooting time during facility upsets by building structured diagnostic thinking rather than reliance on trial-and-error adjustment
- Improve the quality of internal review of facility designs, modification proposals and debottlenecking studies submitted by contractors
- Support succession planning by transferring facilities knowledge that is normally held informally by a small number of experienced staff
Participants will:
- Gain a complete and technically correct understanding of how surface production facilities operate as an integrated system
- Read and interpret PFDs and P&IDs with confidence and use them in operational and design discussions
- Understand the design and operating limits of separators, treaters, dehydration units, compressors and water treatment equipment
- Recognise the cause of common process upsets such as carryover, gas blowby, foaming, emulsion tightening, hydrate formation and compressor surge
- Communicate effectively with facilities and process engineers, vendors and contractors using correct process terminology
- Build a technical foundation that supports movement into production operations, facilities engineering or asset management roles
- Production engineers and production technologists
- Petroleum, reservoir and drilling engineers requiring surface facilities knowledge
- Facility, process and operations engineers new to upstream oil and gas
- Field supervisors, operations superintendents and senior production operators
- Maintenance, integrity and inspection engineers supporting production facilities
- Project engineers, commissioning staff and technical support personnel working on facility projects
- Technical professionals in HSE, planning, economics and asset management roles who interface with surface operations
Module 1 - The Surface Production System
- Position of surface facilities within the upstream production chain
- Produced fluid streams: oil, gas, water and solids
- Facility configurations: wellsite, gathering station, central processing facility, offshore platform, FPSO
- Design basis: production profiles, fluid characterisation, export specifications, design life
- Process flow diagrams, piping and instrumentation diagrams, equipment tagging and line numbering
- Plot layout, battery limits and utility systems
- Onshore and offshore design drivers: weight, space, manning and evacuation
Module 2 - Wellheads, Flowlines and Gathering Systems
- Wellhead and Christmas tree components and functions
- Surface and subsurface safety valves
- Chokes: fixed and adjustable, critical and subcritical flow
- Flowline and gathering network configurations, satellite and trunk systems
- Production and test manifolds
- Multiphase flow regimes, liquid holdup, terrain and severe slugging
- Flow assurance in gathering systems: hydrates, wax, asphaltenes, scale
- Pigging, launchers and receivers, and line cleaning practice
Module 3 - Phase Separation
- Principles of gravity separation: momentum, settling and coalescence
- Retention time, droplet settling velocity and separation efficiency
- Two-phase and three-phase separators, horizontal and vertical configurations
- Separator internals: inlet devices, flow straighteners, weirs, mist extractors, vortex breakers
- Operating pressure and temperature selection and stage separation optimisation
- Separator sizing criteria and common design rules
- Level, interface and pressure control loops
- Separation problems: liquid carryover, gas blowby, foaming, emulsion band build-up, sand accumulation
- Test separators and well test measurement
Module 4 - Crude Oil Treating and Stabilisation
- Water-in-oil emulsions: formation, stability and the role of natural surfactants
- Demulsifier selection, bottle testing and chemical injection practice
- Free water knockouts, gunbarrels and wash tanks
- Heater treaters and heat input requirements
- Electrostatic coalescers and dehydration to sales BS&W
- Desalting principles and salt content specification
- Crude stabilisation, flash stages and true and Reid vapour pressure control
- Storage tanks: fixed and floating roof, blanketing, breathing losses and vapour recovery
- Export pumping, LACT units and crude sales specifications
Module 5 - Gas Conditioning and Compression
- Sales gas specifications and contaminant limits
- Inlet scrubbing, filtration and liquid removal
- Gas dehydration by triethylene glycol: contactor, regenerator, still column and reboiler
- Solid desiccant dehydration and molecular sieve units
- Water dew point control and hydrate prevention
- Acid gas removal: amine systems, hydrogen sulphide and carbon dioxide chemistry, sweetening operating problems
- Sulphur recovery and acid gas handling options
- Hydrocarbon dew point control and NGL recovery concepts
- Gas compression: reciprocating and centrifugal machines, staging, interstage cooling and scrubbing
- Compressor performance, surge, recycle control and capacity limits
- Fuel gas, gas lift supply and gas reinjection systems
Module 6 - Produced Water Treatment and Disposal
- Produced water composition, oil-in-water content and total suspended solids
- Discharge specifications and reinjection water quality requirements
- Primary treatment: skim tanks, API separators, plate and corrugated plate coalescers
- Secondary treatment: hydrocyclones, induced and dissolved gas flotation
- Polishing: nutshell filters, cartridge filters and membrane options
- Water injection systems: booster and injection pumps, filtration, deaeration
- Chemical treatment programmes: scale inhibitor, corrosion inhibitor, biocide, oxygen scavenger
- Sand and solids handling, jetting and disposal
- Reinjection well performance and injectivity decline
Module 7 - Rotating Equipment, Piping, Valves and Utilities
- Centrifugal, reciprocating and progressive cavity pumps: curves, duty points, NPSH
- Drivers: electric motors, gas engines and gas turbines
- Piping classes, specifications, ratings and material selection
- Valve types, functions and selection: gate, globe, ball, check, control and relief
- Corrosion mechanisms and control: inhibition, coatings, cathodic protection, corrosion resistant alloys
- Erosion, sand management and velocity limits
- Utility systems: power generation and distribution, instrument and plant air, cooling and heating medium, chemical injection, nitrogen
- Heat exchangers, air coolers and process heating equipment
- Insulation, heat tracing and winterisation
Module 8 - Measurement, Control and Custody Transfer
- Field instrumentation: pressure, temperature, level and flow measurement principles
- Flow meter types: differential pressure, turbine, positive displacement, ultrasonic, Coriolis
- Multiphase and wet gas metering
- Custody transfer systems, proving, calibration and uncertainty
- Allocation metering and well test measurement
- Control philosophy, control loops, cascade and split range control
- Process control systems: PLC, DCS and SCADA architecture
- Alarm management and operator interface
- Safety instrumented systems and shutdown hierarchy
Module 9 - Process Safety and Facility Integrity
- Major hazards in surface facilities: loss of containment, overpressure, fire, explosion, hydrogen sulphide exposure
- Pressure relief philosophy, relief scenarios and relief valve sizing principles
- Flare and vent systems, knockout drums, flare tips and radiation limits
- Blowdown and depressurisation requirements
- Emergency shutdown levels, cause and effect matrices and isolation philosophy
- Fire and gas detection, active and passive fire protection
- Hazard identification and risk assessment: HAZID, HAZOP, LOPA and SIL concepts
- Hazardous area classification and ignition control
- Asset integrity management, inspection strategy and corrosion monitoring
- Permit to work, isolation and safe operating procedures
Module 10 - Operations, Troubleshooting and Field Life Management
- Facility startup, normal operation and planned shutdown sequences
- Establishing and monitoring the operating envelope
- Structured troubleshooting method: symptom, measurement, cause, corrective action
- Common upsets and their diagnosis across separation, treating, gas conditioning and water handling
- Facility bottleneck identification and debottlenecking options
- Impact of rising water cut, changing gas-oil ratio and declining pressure on facility performance
- Production accounting, uptime, availability and deferment analysis
- Facility modification, brownfield projects and management of change
- Emissions, flaring reduction and environmental performance
- Decommissioning and end of field life considerations
Upon successful completion of this training course, delegates will be awarded an official Certificate of Completion issued by the Petroleum Engineers Association (PEA), an ISO 9001:2015 certified training organization. The certificate carries 10 Credits and formally records the total learning hours completed.
Each certificate is signed by the Course Facilitator and the CEO of the Petroleum Engineers Association, and serves as verifiable proof of professional training that delegates can present to employers and professional bodies worldwide.
This course is led by a surface facilities engineering specialist with more than 20 years in the oil and gas industry, built on understanding how produced fluids are separated, treated, measured and delivered to sales.
He currently holds process engineering leadership responsibility with a major operator managing surface production facilities, covering oil treating, gas conditioning and produced water handling — the disciplines that connect the wellhead to the export point. Earlier in his career he served as a process engineer on major field developments, leading facility design and operations support across separation, treating and measurement systems on some of the industry's most complete surface processing trains. Across two decades he has trained numerous engineers and technical staff new to surface facilities on how the equipment, process flow and operating principles fit together.
That operating background shapes how he teaches. Delegates learn not only how surface facilities are designed to work, but how they behave in practice — where equipment function and operating limits are commonly misunderstood, why oil treating and gas conditioning steps are sequenced the way they are, what drives produced water handling and measurement requirements, how facility performance changes over field life, and how process control and process safety fit into daily operations. Every module is anchored in real facility data, equipment behaviour and operating principles drawn from producing assets.
His subject coverage spans the full surface facilities chain: oil treating, gas conditioning, produced water handling, measurement and process safety, giving a structured technical grounding for those new to the discipline.
He has delivered introductory surface facilities training for many years across the Middle East, North Africa and Southeast Asia, working with mixed groups of engineers, technical staff and non-technical professionals moving into oil and gas facilities roles. He is an active contributor to industry forums on technical training and facilities engineering fundamentals.
His approach is practical, discussion-led and grounded in real facility operations — not the textbook.
Frequently Asked Questions
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PEA reserves the right to make reasonable adjustments to course content, trainers, or schedules where necessary, without entitling delegates to a refund. Comprehensive details of each course — including objectives, target audience, and content — are clearly outlined before enrolment, and it is the responsibility of the delegate to ensure the course's suitability prior to booking.
For any inquiries related to cancellations or bookings, please contact our support team, who will be happy to assist you.