Chinki Tyagi’s Post

𝗪𝗵𝘆 𝗮𝗿𝗲 𝗪𝗜𝗞𝗔 𝗽𝗿𝗼𝗱𝘂𝗰𝘁𝘀 𝘂𝘀𝗲𝗱 𝗶𝗻 𝗺𝗲𝘁𝗵𝗮𝗻𝗼𝗹 𝗽𝗹𝗮𝗻𝘁𝘀? 💡 Today, natural gas is mainly used as the input raw material for methanol production. Unwanted natural gas components such as sulphur are bound through targeted hydrogenation and then removed in the desulphurisation reactor. 🎯 In order to monitor the activity of the catalyst in the hydrogenation reactor constantly over the entire bed, specially adapted multipoint thermometers are used to monitor multiple points. ⚠️ Correct functioning must be permanently guaranteed to prevent sulphur components from slipping through. 🌐 Read more about our methanol solutions: https://lnkd.in/eqvfAU4P #WIKAgroup #WIKAsmartinsensing #Chemical #ChemicalIndustry #ProcessSafety #ProcessAutomation #ProcessControl #Methanol

🌟 Optimizing Hydrocarbon Treatment with Advanced Amine and Glycol Units 🌟 In the ever-evolving energy sector, efficient hydrocarbon treatment is crucial for ensuring high-quality output and environmental compliance. At the heart of this process lie two key technologies: Amine Units and Glycol Units. 🔶 Amine Units: These units are essential for removing acidic gases like hydrogen sulfide (H₂S) and carbon dioxide (CO₂) from natural gas streams. By employing selective amines, we can achieve superior gas sweetening, ensuring the gas is safe for transportation and meets stringent regulatory standards. 🔶 Glycol Units: These units play a pivotal role in the dehydration process, removing water vapor from natural gas to prevent pipeline corrosion and hydrate formation. Triethylene glycol (TEG) is commonly used due to its high efficiency and regenerative properties. Benefits of Integrated Amine and Glycol Treatment: Enhanced Safety: Reduces the presence of corrosive and hazardous substances. Improved Efficiency: Ensures optimal performance of downstream processes. Regulatory Compliance: Meets environmental standards and reduces emissions. Cost-Effective: Minimizes operational costs through efficient contaminant removal. By leveraging cutting-edge technology and expert knowledge, we can optimize these processes to ensure cleaner, safer, and more efficient hydrocarbon treatment. #EnergySector #HydrocarbonTreatment #AmineUnit #GlycolUnit #GasProcessing #EnvironmentalCompliance #EnergyEfficiency

LEL and UEL values for some gases commonly found in oil and gas operations: 1. Methane: LEL 5%, UEL 15% 2. Ethane: LEL 3%, UEL 12.5% 3. Propane: LEL 2.1%, UEL 9.5% 4. Butane: LEL 1.8%, UEL 8.4% 5. Hydrogen sulfide: LEL 4.3%, UEL 45% 6. Carbon monoxide: LEL 12.5%, UEL 74% 7. Ethylene: LEL 2.7%, UEL 36% 8. Propylene: LEL 2.1%, UEL 10.1% 9. Acetylene: LEL 2.5%, UEL 100% 10. Isobutane: LEL 1.8%, UEL 8.4% 11. Benzene: LEL 1.2%, UEL 7.8% #copied

To prevent hydrate formation, methanol is frequently added to well-head gas before it enters pipelines for transport. However, the practice of adding excessive amounts—sometimes totaling several tons per day—can lead to significant issues. Much of the methanol is removed in the amine unit, where it can accumulate, particularly in the amine regenerator. This absorbed methanol eventually enters the sulfur plant with the acid gas, where it acts as a diluent, reducing furnace flame temperatures and adversely affecting Claus catalyst performance. For more information about the behaviour of methanol in amine treatment, read this article by Optimized Gas Treating, Inc. #ProTreat

This month's PIN - Solutions for the Petrochemical, Chemical and Energy Industries eBulletin explores significant advancements in the #energy and #petrochemical industries. It highlights the advantages of the D445 method for viscosity analysis compared to D7042, as well as innovative solutions for real-time sulphur monitoring in #crudeoil and new #hydrogen components for precise #gasanalysis. The edition also introduces the H1 range of rate-compensated heat detectors for hazardous areas and discusses how UK councils are adopting vegetable oil for greener waste collection. It also addresses the #oilandgas sector's shifting focus back to #fossilfuels 👉 https://ilmt.co/TL/dnxZ Join our community and discover these topics and much more 👉 https://ilmt.co/TL/epzR #renewableenergy #sustainability #chemicalindustry #decarbonisation #gasdetection #energyindustry #petroleum

This month's PIN - Solutions for the Petrochemical, Chemical and Energy Industries eBulletin explores significant advancements in the #energy and #petrochemical industries. It highlights the advantages of the D445 method for viscosity analysis compared to D7042, as well as innovative solutions for real-time sulphur monitoring in #crudeoil and new #hydrogen components for precise #gasanalysis. The edition also introduces the H1 range of rate-compensated heat detectors for hazardous areas and discusses how UK councils are adopting vegetable oil for greener waste collection. It also addresses the #oilandgas sector's shifting focus back to #fossilfuels 👉 https://ilmt.co/TL/dnxZ Join our community and discover these topics and much more 👉 https://ilmt.co/TL/epzR #renewableenergy #sustainability #chemicalindustry #decarbonisation #gasdetection #energyindustry #petroleum

Applied Analytics Hydrogen Sulfide in Hydrogen Recycle: In one part of the petroleum refining process, low-octane naphtha is converted to high-octane 'reformates,' which can then be used to increase the octane of fuel blends. This process occurs in the Catalytic Reforming Unit, where various reactions consume the naphtha feedstock and produce more complex hydrocarbons including aromatics. Use of the H2 recycle gas is complicated by the formation of H2S in the reformer if the naphtha feedstock is not completely desulfurized. Catalysts are poisoned by exposure to H2S, especially the platinum- and rhenium-containing catalysts commonly used in the Catalytic Reforming Unit. To protect the catalysts and reduce reforming inefficiency, a method of monitoring the H2S in the hydrogen recycle gas is required. The OMA H2S Analyzer uses a high-resolution UV-Vis spectrophotometer to measure real-time H2S concentration in the hydrogen recycle gas stream. This measurement is an ideal application for the OMA because the hydrogen background has no absorbance in the UV wavelength domain. For more information: https://lnkd.in/dszCWWJX #appliedanalyticsinc #oma300 #h2s #measurement #spectrophotometer #recyclegas #online #onlineprocess #processanalyzer #hydrogen #analyzer #wavelength #measure #refineries #concentration OMA-300 - H2S (0-10 ppm)

This month's PIN - Solutions for the Petrochemical, Chemical and Energy Industries eBulletin explores significant advancements in the #energy and #petrochemical industries. It highlights the advantages of the D445 method for viscosity analysis compared to D7042, as well as innovative solutions for real-time sulphur monitoring in #crudeoil and new #hydrogen components for precise #gasanalysis. The edition also introduces the H1 range of rate-compensated heat detectors for hazardous areas and discusses how UK councils are adopting vegetable oil for greener waste collection. It also addresses the #oilandgas sector's shifting focus back to #fossilfuels 👉 https://ilmt.co/TL/dnxZ Join our community and discover these topics and much more 👉 https://ilmt.co/TL/epzR #renewableenergy #sustainability #chemicalindustry #decarbonisation #gasdetection #energyindustry #petroleum

Hydrogen sulfide (H2S) is a toxic gas that can pose serious challenges in various industrial settings, including oil and gas extraction. H2S scavenger treatments are widely used to mitigate the gas’s harmful effects. However, the efficiency of these treatments can vary significantly depending on multiple factors. And Common H₂S removal technologies for H₂S removal from biogas fall into one of the following: 1.Absorption into a liquid either water or caustic solution, 2.Adsorption on a solid such as iron oxide based materials or activated carbon, and 3.Biological conversion by which sulfur compounds convert into elemental sulfur by sulfide oxidizing microorganisms with addition of air and oxygen.Find out the factors affecting the efficiency of H2S scavenger treatment... Never miss an opportunity to learn something new. 😀 😀 WhatsApp: +8615205695608 Email: lfy@aniec.com #sulfurremove #desulfurization #H2Sscrubber #acidgas #H2Spurifier #H2Sscavenger #H2Sadsorbent #FlueGasDesulfurization #shalegas

Sulphur in end-products from oil and gas processing is a natural result of its presence in raw materials. Without removal, Sulphur can lead to numerous practical and environmental challenges. The primary Sulphur contaminant is hydrogen sulfide, but mercaptans, COS, CS2, and ultimately SO2 in waste gases are also common. Traditionally, Sulphur Recovery Units (SRUs) have been simulated in two main ways: 1. Using curve fits based on plant data. 2. Relying on reaction equilibrium assumptions. While the curve fit approach reflects real-world observations, it has limitations, including random errors in plant data, challenges in forming reliable correlations from noisy data, and low predictability outside the fitting range. Curious on modelling your Sulphur Recovery Unit reliably? Read this contactor article by Optimized Gas Treating, Inc. #SulphurPro