About this Training Course
This 4-day LNG Supply Chain, Regasification, and Terminal Operations course is designed to provide energy professionals with a comprehensive understanding of the LNG supply chain—from upstream supply and transportation, to regasification and downstream integration. As global demand for LNG continues to grow, fuelled by its role in energy transition and diversification, there is a critical need for technically competent professionals who can manage, operate, and optimize LNG infrastructure safely and efficiently.
Through an in-depth exploration of LNG carriers, floating and onshore regasification terminals, port and marine operations, and the transmission pipeline network, participants will develop a holistic understanding of the LNG ecosystem. The course also covers crucial commercial and contractual aspects, such as sourcing strategies, market mechanisms, and geopolitical considerations. Environmental regulations, risk management, and safety standards for terminal operations are emphasized to ensure compliance and resilience in high-risk LNG operations.
Regasification converts LNG back into natural gas so pipelines and end users can consume it. The terminal warms LNG from cryogenic temperature and controls outlet pressure and temperature. Operators then meter the gas at custody transfer and manage quality to meet pipeline specifications. Regasification links LNG shipping to downstream demand such as power plants, industrial customers, and city-gas networks.
An LNG receiving terminal supports LNG Supply Chain Regasification and Terminal Operations by managing the steps between LNG carrier arrival and pipeline send-out. The vessel berths and connects to loading arms or hoses. Operators cool down lines to prevent thermal shock and transfer LNG to storage tanks or an FSRU. Vaporizers then warm LNG and convert it into gas. The terminal measures flow, controls pressure, and manages gas quality before pipeline delivery.
Open Rack Vaporizers (ORV) use seawater and deliver high efficiency, but they can affect local seawater temperature and require reliable intake systems. Submerged Combustion Vaporizers (SCV) burn fuel gas and provide flexibility, but they increase emissions and operating cost. Intermediate Fluid Vaporizers (IFV) use a heat-transfer fluid to improve stability and reduce icing risk under some conditions. Site constraints and permits often drive selection.
BOG forms when heat enters LNG during storage, transfer, or tank operations. Terminals control BOG to avoid overpressure, reduce product loss, and limit methane emissions. They typically compress BOG for use as fuel gas or send it into the gas system. Some facilities add re-liquefaction or dedicated power generation options. Good BOG management improves reliability during cooldown, transfer, and low-demand periods.
Terminals use Emergency Shut Down (ESD) systems to stop transfer quickly and isolate equipment. Fire and gas detection systems identify leaks and ignition hazards early. Emergency release systems protect loading arms if vessel movement creates unsafe loads. Operators also enforce exclusion zones, marine procedures, and competency requirements. These layers reduce escalation risk during abnormal events and support rapid emergency response.
A QRA estimates both the likelihood and consequences of credible accident scenarios. It typically evaluates LNG releases, vapor dispersion, pool fires, jet fires, and explosions. Engineers use the findings to set safety distances, optimize layout, and specify protection systems. Regulators and stakeholders often rely on QRA outputs during permitting and safety case reviews. The process helps teams select controls that reduce risk to acceptable levels.
Regas terminals manage seawater intake and discharge impacts when they use ORV or IFV systems. They also control noise, lighting, and water treatment practices. Emissions can come from fuel gas use, flaring, and BOG handling. Operators reduce impacts through monitoring, optimized operations, and methane management programs. Permits often define limits for thermal discharge, chemical dosing, and air emissions.
