Equipment availability sets facility availability, and facility availability sets production. In most operating assets, a small number of equipment items account for the majority of unplanned downtime, usually rotating machines, fired equipment and package units. Reducing that downtime is not primarily a maintenance scheduling problem. It requires people who understand what the equipment is doing thermodynamically and mechanically, and who can recognise degradation before it becomes failure.

Equipment is also where capital cost concentrates. Vessel wall thickness, exchanger surface area, compressor power and pump duty are set at design stage against assumptions about flow rate, fluid properties, pressure and temperature. When the actual production profile diverges from those assumptions, as it always does, the equipment ends up operating away from its design point. Understanding how far a machine can be pushed, and what breaks first when it is, is central to debottlenecking, life extension and brownfield modification work.

Codes and standards govern most of this equipment. Pressure vessels are designed to ASME Section VIII or equivalent, heat exchangers to TEMA, pumps to API 610 and 674, compressors to API 617 and 618, tanks to API 650 and 620, and relief devices to API 520 and 521. These documents define what is acceptable, what must be verified, and what the equipment is certified to withstand. Staff who cannot read them are dependent on vendors for judgements they should be able to make themselves.

Finally, equipment knowledge is what makes process safety practical. Overpressure protection, containment, high-integrity trips and inspection programmes all exist because specific equipment items fail in specific ways. Understanding those mechanisms turns a compliance activity into engineering judgement.

By the end of this training, participants will be able to:

• Identify the major process equipment groups used in oil and gas facilities and describe the function of each within the process
• Explain the operating principle, design basis and capacity limits of pressure vessels, separators and internals
• Evaluate heat transfer equipment performance, including shell and tube exchangers, air coolers and fired heaters, and recognise fouling and degradation
• Analyse pump performance using head-capacity curves, system curves, efficiency, NPSH and cavitation behaviour
• Compare reciprocating and centrifugal compressors on operating envelope, control method, capacity limits and failure mode
• Select appropriate valve, relief device and piping component types for a defined process duty and pressure rating
• Interpret equipment datasheets, specifications and vendor documentation against the relevant codes and standards
• Diagnose common equipment problems from operating parameters such as differential pressure, discharge temperature, vibration and current draw
• Apply inspection, monitoring and maintenance principles to protect equipment integrity and extend run life

The training is organised by equipment group, with each group presented through its operating principle, construction, design basis and governing standard, control and monitoring parameters, performance curves where applicable, and documented failure mechanisms. Equipment schematics, cutaway drawings, datasheets and performance curves are used throughout, together with field case histories showing how specific failures developed and what operating data would have identified them earlier. Each module concludes with the practical monitoring checks and troubleshooting logic for that equipment group, and participants are invited to bring equipment problems from their own facilities for discussion.

Organisations sending participants to this training will:

• Reduce unplanned equipment downtime through earlier recognition of degradation in rotating, fired and pressure equipment
• Improve the technical quality of equipment selection, specification and vendor evaluation carried out in house
• Strengthen the link between operations and maintenance teams by building a shared technical understanding of equipment behaviour
• Improve the effectiveness of inspection and integrity programmes by targeting known failure mechanisms rather than fixed intervals alone
• Support debottlenecking and life extension work with sound judgement on how far installed equipment can be operated beyond its original duty
• Reduce dependence on vendors and contractors for routine technical decisions about installed equipment

Participants will:

• Understand how each major equipment item in a process facility works and what governs its capacity
• Read pump and compressor performance curves, exchanger data and equipment datasheets with confidence
• Recognise the early operating signatures of fouling, wear, cavitation, surge, tube leakage and other common failures
• Discuss equipment specification, repair and replacement decisions credibly with engineers, inspectors and vendors
• Understand the codes and standards that define equipment design and inspection requirements
• Build technical depth that supports movement into facilities engineering, maintenance engineering or integrity roles

• Facilities, process and production engineers working with installed equipment
• Maintenance, reliability and rotating equipment engineers
• Inspection and integrity engineers responsible for pressure equipment
• Operations supervisors, panel operators and senior field technicians
• Project and commissioning engineers specifying or accepting process equipment
• Graduate mechanical, chemical and petroleum engineers entering upstream facilities roles
• Technical procurement and contracts staff evaluating equipment packages

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.