π Natural Gas vs. Hydrogen Pipeline Design: Comparing European Design Standards β‘οΈ
π Fueling Tomorrow: Decoding the Pipeline Design Challenge π
π Welcome! 1/14
Europe is rapidly moving towards substituting hydrogen π§ for natural gas π₯ as part of its ambitious clean energy transition π±.
In this thread, we'll explore the differences between:
Natural gas pipeline design using EN 1594 π
Hydrogen pipeline design using EN 16726 πΏ 2/14
As the energy landscape evolves, understanding these distinctions is crucial for engineers, designers, and industry professionals. 3/14
Both EN 1594 and EN 16726 are European standards πͺπΊ, which provide guidance for the design, construction, and operation of pipeline systems. 4/14
π EN 1594: Guidelines and requirements for design, fabrication, installation, testing, commissioning, operation, and maintenance of natural gas supply systems, specifically high-pressure pipelines with a maximum operating pressure above 16 bar. 5/14
π EN 16726: Focuses on the design, construction, and operation of hydrogen systems, including pipeline systems, ensuring their safe and reliable operation. 6/14
Now, let's explore key differences in criteria when designing pipelines for natural gas (EN 1594) and hydrogen (EN 16726): 7/14
1οΈβ£ Material selection: Hydrogen can cause embrittlement in some materials, while natural gas pipelines may have different material requirements due to the different chemical properties of natural gas. 8/14
2οΈβ£ Leak detection and prevention: Hydrogen has a smaller molecular size and a wider flammability range compared to natural gas, requiring specific consideration for leak detection and prevention systems in hydrogen pipelines. 9/14
3οΈβ£ Pressure and temperature: Hydrogen systems may operate at different pressures and temperatures compared to natural gas systems, affecting pipeline design, material selection, and safety features. 10/14
4οΈβ£ Purity and contamination: Hydrogen systems may require additional measures to maintain purity and prevent contamination, while natural gas pipelines may have different considerations regarding the composition of the transported gas and associated impurities. 11/14
5οΈβ£ Safety and risk assessment: Due to the unique properties of hydrogen, safety measures and risk assessments for hydrogen systems may differ from those for natural gas systems. 12/14
π In conclusion, as Europe accelerates its clean energy transition π, understanding the differences between natural gas and hydrogen pipeline design becomes increasingly important. 13/14
Hope this thread serves as a valuable educational resource, and I encourage everyone to share their thoughts, experiences, & questions related to natural gas and hydrogen pipeline design! ππ
ππ Know Your Key LNG Players: Baker Hughes π
Baker Hughes is a global leader in the LNG industry, providing reliable and efficient gas turbine solutions to power LNG facilities worldwide. π¨π 1/8
Their range of gas turbines includes both aeroderivative and frame turbines, as well as power generation turbine packages. ππ #BakerHughes#LNG#GasTurbines 2/8
In 2017, Baker Hughes acquired GE's turbine business, including both aeroderivative and frame turbines.
This acquisition has enabled Baker Hughes to provide even more comprehensive solutions to their LNG customers. π€π #Acquisition#GE#TurbineBusiness 3/8
1/ πLNG Spotlight: Egyptπ
Egypt has a growing presence in the global #LNG market, with its strategic facilities contributing to the nation's gas exports. Dive into this thread to learn about Egypt's major LNG plants and their capacities! πͺπ¬π
2/ Egyptian LNG (ELNG): Located inΒ Idku, the Egyptian LNG plant is operated by a consortium of international energy companies, including Shell, Petronas, and Engie. ELNG has two LNG trains, with a combined capacity of 7.2 MTPA. πΒ #EgyptianLNGΒ #EgyptLNG
3/ Damietta LNG: Situated in Damietta, this LNG plant is operated by a joint venture comprising Eni, Naturgy, and the Egyptian General Petroleum Corporation. The facility has one LNG train, with a capacity of 5 MTPA. πΒ #DamiettaLNG
1/ π Prelude FLNG: Challenges & Lessons Learned π
Shell's Prelude FLNG is the world's largest floating LNG facility, but its journey hasn't been without obstacles. Discover the key challenges faced by the project & what the industry can learn from them. π #PreludeFLNG#LNG
2/ π§Technical Complexities: The sheer scale & complexity of Prelude FLNG posed numerous engineering and construction challenges. Managing the integration of various components, such as subsea infrastructure, the floating facility, & offloading systems, was a massive undertaking.
3/ πExtreme Weather Conditions: Operating in the remote Browse Basin off the coast of Australia exposed Prelude FLNG to harsh weather, including cyclones. Ensuring the safety of the facility and its crew required robust design and contingency plans.Β #WeatherChallenges
1/8 "LNG Plant Explained: A Deep Dive into Key Processing Units ππ
Spotlight Power Generation - The powerhouse of LNG plants!"
2/8 β‘π Power Generation Focus: Let's explore Power Generation in LNG plants.
Their goal?
Provide the electricity needed to run various processes and maintain safe, efficient operations. #LNG#PowerGeneration
3/8 Energizing LNG plants! Power Generation Units generate electricity from various sources like gas turbines, steam turbines, or a combination of both.
It's all about providing the juice to keep things running! #Electricity π‘π