ENTEGRA’s Post

🌿💧 Embracing the Evolution: Hydrocarbons and Hydrogen 🌿💧 🔍When we envision hydrogen, we often overlook its potential in traditional sectors like gas processing, LNG, and petrochemicals. Yet, at Atlas Copco Gas and Process, we recognize the profound technological synergy between these domains. With decades of mastery in LNG, natural gas processing, chemical/petrochemical industries, fuel gas boosters, and air separation, we stand at the forefront of the evolving hydrogen landscape. 🚀Imagine this: crafting a high-performance boil-off gas compressor capable of handling hydrogen, akin to our extensive portfolio in LNG compression solutions. Through meticulous material innovation and cutting-edge manufacturing techniques, we seamlessly leverage our expertise to pioneer breakthroughs in hydrogen applications. 💡Join us in reshaping the energy paradigm, where passion meets precision. Discover how Atlas Copco Gas and Process leads with dedication and expertise, driving sustainable solutions for a brighter tomorrow.  🌍⚡️ https://lnkd.in/g46M2F8s #AtlasCopco #Turboexpanders #HydrogenTechnology #EnergyInnovation #SustainableFuture #GasProcessing #LNG #Petrochemicals #HydrogenMarket #CleanEnergy #RenewableEnergy #EngineeringExcellence

Exploring the Role of Hydrogen Sulfide in the Dynamic Energy Sector

Quote from the article: “Globally, most of the 5,000km of hydrogen pipelines are operated by industrial gases companies Air Liquide, Air Products and Linde.” What do you think those H2 pipeline are used? For energy/fuel/power distribution or for raw material or product distribution? #hydrogen #pipeline

Exploring the Role of Hydrogen Sulfide in the Dynamic Energy Sector

Furthermore, for low-carbon electrolytic #hydrogen to take off in the next five years, planning bottlenecks will have to be removed. This chart shows the typical lead times in Europe for planning for #wind power (offshore and onshore) and for #solar power. These are significantly longer than the lead times either for electrolysis projects or for the construction of large electrolysis manufacturing facilities. The contrast is striking, and the main bottleneck is clear. Read our latest research: https://ow.ly/fZq050QFrsM

At Samuel Engineering, Inc. we harness advanced technologies to optimize #hydrogen #syngas production, enhancing its efficiency and sustainability. But what is syngas? Why should we care? Did you know? Syngas, or synthesis gas, is a versatile and valuable fuel gas mixture primarily composed of hydrogen, carbon monoxide, and some carbon dioxide. It's produced through the gasification of a carbon-containing fuel to a gaseous product with a heating value. Key Uses of Syngas: 1) Energy Production: Syngas can be burned directly in turbines or engines. 2) Chemical Feedstock: It serves as an intermediate in producing synthetic petroleum for use as fuel, and is also used to produce ammonia, methanol, and other chemicals. At Samuel, our experience has made us a leader in the energy industry, especially in facilitating the production of modern fuels, like syngas/hydrogen. #HydrogenProduction #SteamMethaneReformers #EnergyInnovation #EngineeringExcellence #IndustrialConstruction #epc #hydrogenplant #hydrogenepc #syngas #syngasepc

Learn about the hydrogen and syngas markets/industry through Samuel Engineering, Inc.!

State regulators and potential project investors need to scrutinize assertions that #hydrogen will be widely used in methane-fired turbines, as our new report concludes that these assertions are designed to obscure the myriad shortcomings and unanswered questions associated with using hydrogen in methane-fired turbines. In the report, Dennis Wamsted asserts that lack of supply, lack of pipeline infrastructure, and lack of storage capacity will slow and perhaps entirely halt the widespread use of hydrogen as a replacement for methane in turbine generators. Key findings: Lack of supply - The U.S. produces about 10 million tons of hydrogen every year, virtually all of which is consumed in the petrochemical and fertilizer sectors. Any hydrogen blending in the power sector would require new production, and a lot of it. Lack of pipeline infrastructure - Getting hydrogen to power plants would require the construction of thousands of miles of new pipelines. The time and money required for this buildout would slow the transition from #fossilfuels. Lack of storage capacity - The U.S. #gas network is reliable because of the system's significant amount of storage capacity; there is no comparable hydrogen storage infrastructure. Building that infrastructure would be costly and time-consuming, with many questions still unanswered regarding the safety of storing hydrogen. For more, read the full report: https://hubs.li/Q02JCCKg0 #energytransition

Exploring the Role of Hydrogen Sulfide in the Dynamic Energy Sector