Learn the LNG facility as one connected system.

Build the physical foundation needed to understand why LNG equipment, materials, operating limits and safeguards are different from conventional ambient-temperature hydrocarbon systems.

Understand how cryogenic temperature affects valve construction, materials, stem arrangements, sealing, thermal contraction and isolation strategy in LNG service.

Study the removal of carbon dioxide and hydrogen sulfide from feed gas to meet LNG process specifications and protect cryogenic equipment.

Understand why water must be removed to very low levels before cryogenic liquefaction and how adsorption-based dehydration systems are operated and regenerated.

Understand how refrigeration cycles progressively remove heat from treated natural gas until it becomes LNG, and how compressors, refrigerants and cryogenic heat exchangers interact.

Understand the operating principles, performance limits, major components, auxiliaries and protection philosophy of centrifugal compressors used in LNG and gas-processing facilities.

Understand why surge is damaging, how an anti-surge controller protects the compressor and why recycle-valve response, instrumentation quality and operating margin matter.

Study the purpose, arrangement and monitoring of dry gas seals used to limit process-gas leakage from centrifugal compressors.

Understand how operators and engineers use pressure, temperature, flow, vibration and map position to evaluate centrifugal-compressor performance and degradation.

Study the role of the MCHE in cooling and liquefying treated natural gas through close thermal integration with one or more refrigerant circuits.

Understand the major systems around LNG storage tanks, including containment, insulation, instrumentation, pressure management, pump columns and safeguards.

Understand the level, temperature, pressure and density-related measurements used to monitor LNG tank inventory and thermal condition.

Study submerged LNG pumps, pump columns, motor arrangement, hydraulic behavior and the operating considerations that arise from cryogenic service.

Study how LNG layers with different density and composition can form, evolve and potentially mix rapidly, producing increased boil-off gas generation.

Understand the sources, collection, compression, recovery and disposition of BOG across storage, unloading, loading and regasification operations.

Study the role of BOG compressors in controlling LNG tank and transfer-system vapor generation while maintaining a stable vapor-handling path.

Study how a recondenser uses subcooled LNG to absorb and condense BOG while supporting stable suction conditions for high-pressure sendout pumps.

Study how fuel gas is conditioned, pressure-controlled and distributed to fired equipment, vaporizers, turbines or other consumers.

Understand the mechanical, hydraulic and shutdown functions of LNG loading arms used for liquid and vapor transfer between terminal and vessel.

Study how vapor is returned between ship and shore during LNG transfer to manage displacement vapor and pressure.

Understand the technical and operational framework for transferring LNG as marine fuel, including transfer modes, interfaces, vapor management and emergency coordination.

Explore how LNG quantity and quality are measured for custody transfer, including tank gauging, temperature, composition and energy calculations.

Follow LNG from storage through pumping, BOG recovery, vaporization, metering and pipeline sendout.

Understand how high-pressure LNG pumps raise liquid pressure before vaporization and how their hydraulic operating envelope connects storage, recondenser and vaporizer systems.

Understand how ORVs transfer heat from seawater to pressurized LNG, and how seawater flow, icing, materials and outlet temperature affect operation.

Study the seawater intake, screening, pumping and distribution systems that support open rack vaporizer operation.

Study the operating principle of SCVs, where combustion heats a water bath that transfers heat to LNG flowing through submerged coils.

Understand the different roles of the distributed control system, safety instrumented system and emergency shutdown functions in an LNG facility.

Study how control valves convert controller output into process action and how sizing, trim, actuator behavior, positioners and process conditions affect controllability.

Learn how ESDVs isolate inventories or process sections during defined shutdown scenarios and how valve fail position, actuator design and shutdown logic fit into the protective architecture.

Understand how BDVs support controlled depressurization of process inventories during shutdown or emergency scenarios and why blowdown capacity, destination and timing are engineering decisions.

Understand the purpose, terminology and process-safety role of pressure safety valves protecting LNG equipment and piping against credible overpressure scenarios.

Study how relief, depressurization and vent streams are collected and routed to controlled disposal systems during normal, upset and emergency conditions.

Study the detection and response architecture used to identify flammable gas, fire or cryogenic release hazards and initiate alarms or protective actions.

Understand the physical behavior of released LNG, vapor cloud formation, dispersion influences and the principles behind spill containment and emergency planning.

Understand how structured process-hazard studies identify deviations, causes, consequences, safeguards and risk-reduction needs in LNG facilities.

Learn to read an LNG process at system level by following major equipment, streams, operating conditions and material or energy flows on a PFD.

Develop the ability to read the detailed relationship among process piping, valves, instruments, equipment, control loops and safeguards on LNG P&IDs.

Understand the use of nitrogen for purging, inerting, padding and maintenance support across LNG facilities.

Understand how clean, dry compressed air supports control valves, shutdown valves and pneumatic instrumentation throughout an LNG facility.

Study the staged preparation of LNG systems for hydrocarbon introduction, including cleanliness, leak testing, inerting, purging and controlled cooldown.

Understand the system dependencies, sequencing and stabilization concepts that shape startup, normal shutdown and emergency shutdown of LNG facilities.