Environmentally friendly energy
Innovation and Excellence in LNG Production
The Bayelsa LNG Export Facility is more than just an energy project—it is a symbol of innovation, sustainability, and economic opportunity for Nigeria and the global energy market. By employing cutting-edge technologies and focusing on environmental responsibility, we are setting new standards for LNG production, transportation, and export. As we move forward with this groundbreaking project, Bayelsa LNG will continue to be a driving force in the transformation of Nigeria’s energy sector, providing cleaner, more reliable energy solutions for the world.
Infrastructure & Operations
From Local Roots to Global Reach
The Bayelsa LNG project marks a transformative leap in Nigeria’s energy sector. The facility’s development begins with the strategic acquisition of a prime site of over 500 acres in the Niger Delta, where the project is poised to become a global leader in LNG production. This state-of-the-art liquefaction facility is designed to meet growing global demand for cleaner energy, with an initial production capacity of 6 million tonnes per annum (MTPA) of LNG once fully operational.
TWD Energy is actively securing financial backing to advance the Bayelsa LNG project, with significant investments from our partners, targeting a total investment of over $7 billion. These funds will support gas development, the construction of the export terminal and storage tanks, and the installation of four pre-commissioned liquefaction trains, each with a production capacity of 1.5 MTPA of LNG. The facility’s advanced modular design, combined with cutting-edge technology, will streamline construction, allowing for a faster, more efficient timeline. We anticipate making the Final Investment Decision (FID) in 2026, with commercial operations expected to commence by 2030.
The Bayelsa LNG Export Facility plays a pivotal role in addressing the increasing global energy demand while advancing environmental sustainability. Utilizing advanced de-flaring technologies, the Bayelsa LNG facility will significantly reduce gas flaring in the region by capturing and processing associated gas that would otherwise be wasted. Additionally, our cutting-edge liquefaction technology is optimized for the production of low-carbon LNG, helping to lower the overall carbon footprint of the project. Designed to meet industry-leading safety standards, the project is committed to achieving zero lost-time incidents during construction, underscoring our dedication to maintaining the highest safety and operational performance levels.
Beyond our operational capacity, the Bayelsa LNG Export Facility is a major investment in Nigeria’s energy infrastructure. The project is creating thousands of jobs, fostering local business growth, and driving economic development in the region. Additionally, the export of LNG will enhance Nigeria’s position as a key energy supplier to global markets, strengthening trade relationships and contributing to the global energy transition.
As part of our long-term strategy, TWD Energy is positioned to pursue future expansions and technological innovations, including the addition of liquefaction trains to enhance production capacity in response to growing global LNG demand.
Modular LNG Solutions for Faster, More Efficient Construction
The Bayelsa LNG Export Facility will implement a modular construction methodology, a key design feature that enhances project efficiency. In partnership with leading technology providers, we will deploy pre-fabricated, fully tested liquefaction modules and power-generation units—all assembled, integrated, and commissioned offsite before transport to the site.
This plug-and-play approach reduces the construction timeline by up to two years, cutting on-site labor and capital costs while minimizing risks. Pre-commissioning and rigorous testing of all systems ensure consistent quality, optimized performance, and increased safety. The modular process also reduces site non-conformities, ensures replicable precision across units, and enables a predictable schedule, allowing for seamless scalability and future expansion.
Sustainability in Reducing Carbon Emissions
Environmental sustainability is central to the Bayelsa LNG project. The facility will employ modular LNG technology to reduce CO2 emissions by 20-30% compared to traditional plants through energy-efficient liquefaction, optimized heat integration, and advanced low-carbon technologies.
By capturing and processing flared gas, the project will also help to cut methane emissions, a potent greenhouse gas. Additionally, sulfur recovery units and advanced filtration minimize emissions of sulfur compounds, reducing the risk of acid rain and air pollution.
Aligned with international environmental standards and Nigeria’s commitments under the Paris Agreement, Bayelsa LNG is dedicated to contributing to a sustainable energy future.
Core Features of the Bayelsa LNG Facility
High Production Capacity: The facility is designed to produce 6 million tons of LNG annually, split across four liquefaction trains, each with a capacity of 1.5 MTPA. These trains will use advanced multistage refrigeration systems to cool the natural gas to cryogenic temperatures of around -162°C, turning it into LNG for efficient storage and transport.
Storage and Shipping: The Bayelsa LNG facility will have a series of cryogenic storage tanks with the capacity to hold large quantities of LNG at extremely low temperatures. The facility will be able to accommodate LNG carriers up to 216,000 cubic meters in capacity. These specialized LNG tankers will transport the liquefied gas across long distances to global markets, maintaining the integrity of the product during transport.
Gas Supply and Gathering Pipeline System: The LNG production process begins with the gathering of natural gas from various offshore platforms and flare sites across the region. A dedicated gas gathering pipeline system will transport this associated gas to the Bayelsa LNG facility. Once at the plant, the gas will undergo gas purification and processing to remove contaminants such as sulfur compounds, carbon dioxide (CO2), water, and other impurities that can hinder the liquefaction process.
Key processing units at the plant include:
- Inlet Reception Unit: To receive and condition the gas before further processing.
- Gas Sweetening Unit: To remove CO2 and hydrogen sulfide (H2S), ensuring the gas meets quality standards for liquefaction.
- Dehydration Unit: To eliminate moisture, preventing the formation of ice during the liquefaction process.
- Compression Unit: To raise the pressure of the gas to appropriate levels for liquefaction.
- Fractionation Unit: To separate lighter hydrocarbons from heavier components, ensuring the purity of the LNG.
- Sulfur Recovery Unit (SRU): To recover sulfur and convert it into elemental sulfur, minimizing environmental impacts.
- Utility Systems: Including power generation and cooling systems that support continuous plant operations.
These units are part of a highly integrated process that ensures the natural gas is purified, treated, and transformed into LNG that meets rigorous international safety, environmental, and quality standards.
CCUS: Advanced Equipment Produces the Cleanest LNG
Advanced performance, and increased safety
Protocols that meet the highest global standards.
Moderating Environmental Impact and Compliance
Long-term cost optimization strategies
Energy-efficient liquefaction systems, automation, AI, and remote monitoring.
Financial Sustainability and Competitiveness
For the Bayelsa LNG project, the implementation of robust cost optimization strategies will not only help reduce operational expenses but also enhance the project’s overall financial performance over its lifecycle. These strategies can be grouped into several key areas:
Advanced Maintenance Strategies and Asset Management
Predictive and Preventive Maintenance: Implementing predictive maintenance strategies will allow the Bayelsa LNG facility to avoid costly unplanned shutdowns. By using sensor-based monitoring and data analytics, the plant can identify potential issues before they lead to equipment failure, minimizing repair costs and reducing downtime. Additionally, preventive maintenance schedules based on real-time performance data ensure that critical assets are serviced before problems arise, increasing their lifespan and reducing long-term capital expenditure on replacements.
Leveraging Digital Technologies and Data Analytics
Real-Time Data for Operational Optimization: By implementing digital twin technology, IoT sensors, and real-time data analytics, the Bayelsa LNG facility can monitor operational efficiency and performance across all areas of production. This data can be used to optimize key variables such as liquefaction efficiency, energy use, and maintenance schedules, allowing for continuous process improvements and cost reductions.
Carbon Management and Emissions Trading
Carbon Capture, Utilization, and Storage (CCUS): The facility’s CCUS technology will help reduce CO2 emissions and enhance environmental compliance. By capturing and storing CO2, Bayelsa LNG will avoid penalties related to emissions while creating an opportunity to participate in carbon credit markets. This could provide an additional revenue stream by selling excess credits generated from its carbon capture efforts.
Revenue from Carbon Credits: The Bayelsa LNG project could generate revenue through carbon offset programs or by participating in carbon credit trading schemes under global emissions reduction programs. The additional revenue stream from carbon credits can help offset costs associated with maintaining environmental sustainability.
Next-Generation Nigeria
Next-Generation Nigeria
TWD Energy is leading Africa’s resource development with the Bayelsa LNG project, which integrates advanced technology, modular design, and carbon capture, utilization, and storage (CCUS) to support Nigeria’s clean energy transition. This initiative transforms Nigeria’s natural assets into sustainable investment opportunities, positioning Africa as a key player in the next-generation energy market.
The LNG industry is a major economic driver, creating jobs and supporting infrastructure development globally. As demand for LNG grows, the market is expected to reach $75 billion by 2030, with global LNG export capacity surpassing 500 million tonnes per year (MTPA) in 2023. These trends reflect LNG’s increasing role as a cleaner, more efficient energy source.
METHANE
Methane is found abundantly in nature and is formed by the decay of natural materials. Methane is the primary component of natural gas, which is widely used for heating, electricity production, automotive fuel (CNG) and rocket fuel. Methane is a highly efficient energy source, producing more heat and light per mass compared to other fossil fuels like coal and gasoline, while emitting significantly less carbon dioxide and pollutants that contribute to smog and poor air quality. Methane is used to manufacture organic chemicals and is a common ingredient in fertilizer and anti-freeze.
ETHANE
Ethane is a colorless, odorless gaseous hydrocarbon and the second most significant component of natural gas. It is primarily used to produce ethylene, a key feedstock in the production of plastics. One notable application is in the manufacture of polyvinyl chloride (PVC), which is utilized in construction, insulation, plumbing, siding, and flooring, particularly in sterile environments. Ethane is also used in the preparation of ethanol, acetaldehyde and acetic acid which find use in paints, varnishes, adhesive and plastic. Additionally, ethane is used as a refrigerant in cryogenic systems and is found in products such as antifreeze and detergents. It also plays a role in the production of welding gas.
METHANE
Methane is found abundantly in nature and is formed by the decay of natural materials. Methane is the primary component of natural gas, which is widely used for heating, electricity production, automotive fuel (CNG) and rocket fuel. Methane is a highly efficient energy source, producing more heat and light per mass compared to other fossil fuels like coal and gasoline, while emitting significantly less carbon dioxide and pollutants that contribute to smog and poor air quality. Methane is used to manufacture organic chemicals and is a common ingredient in fertilizer and anti-freeze.
ETHANE
Ethane is a colorless, odorless gaseous hydrocarbon and the second most significant component of natural gas. It is primarily used to produce ethylene, a key feedstock in the production of plastics. One notable application is in the manufacture of polyvinyl chloride (PVC), which is utilized in construction, insulation, plumbing, siding, and flooring, particularly in sterile environments. Ethane is also used in the preparation of ethanol, acetaldehyde and acetic acid which find use in paints, varnishes, adhesive and plastic. Additionally, ethane is used as a refrigerant in cryogenic systems and is found in products such as antifreeze and detergents. It also plays a role in the production of welding gas.