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Subject: Understanding Hot Tapping Machines: Components and Applications Dear LinkedIn Community, Today, we will delve into the topic of hot tapping machines. These crucial devices allow for modifications on live pipelines without the need for shutdowns, thereby ensuring continuous operations. Definition: A hot tapping machine is a specialized tool used to make a connection to an existing pipeline while it remains in service. It is designed to drill into a pressurized pipeline and attach new branches or make repairs without disrupting the flow of the contents. Components: Tapping Machine Body: The primary structure housing the operational parts. Drilling Unit: Equipped with a drill bit for cutting through the pipeline. Valve System: Manages the sealing and control of the new connection. Cutting Tools: Precision tools for accurate pipeline cutting. Control Panel: Oversees and adjusts the tapping process. Support Structure: Ensures machine stability during operation. Applications: Pipeline Maintenance: Repairs can be made without halting operations. New Connections: Facilitates adding new branches to existing pipelines. System Upgrades: Allows for upgrades without affecting ongoing processes. Emergency Repairs: Enables quick response to urgent situations. Understanding these aspects of hot tapping machines helps in maintaining operational efficiency and safety in pipeline management. #HotTapping #PipelineMaintenance #IndustrialEngineering #Manufacturing #EngineeringSolutions #TechInnovation #PipelineRepair #Construction #EnergyIndustry #ProcessEngineering #MechanicalEngineering #Infrastructure #OilAndGas #Utilities #MaintenanceEngineering #Saudia #Dubai #Gulf #MEP

Steel Structure Erection 1st Tier for Gas Stack

Vertical guide bearings are essential components fitted on vertical shafts, commonly found in pumps and motors. At SHAHEEN, we specialize in comprehensive refurbishments of all types of vertical bearings. Our refurbishment process includes meticulous steps: Dismantling and Inspection: Thoroughly disassemble and inspect each component. Replacement of Damaged Parts: Replace any worn or damaged parts. Rebabbiting of Thrust and Journal Pads: Expert rebabbiting to ensure optimal performance. Pressure Testing of the Cooler: Conduct pressure tests to verify cooling system integrity. Non-Destructive Testing (NDT): Employ NDT techniques to detect any flaws or defects. Final Dimensional Inspection: Ensure precise adherence to specifications. Reassembly and Axial/Radial Clearance Inspection: Careful reassembly and thorough clearance inspections. Repainting and Dispatch: Fresh coat of paint and timely dispatch. Quality Control (QC) Documents: Provide comprehensive QC documentation for transparency and compliance. We at SHAHEEN are committed to delivering refurbished vertical bearings of the highest quality, meeting stringent industry standards. Contact us to learn more about how we can support your operational needs. ##Whitemetal #Babbitt #Bearings #HydroDynamic #ReverseEngineering #ThrustPads #JournalPads #OilandGas #PowerPlants #Generators #Pumps #SteamTurbines #GasTurbines #Quality#Energy#Oil and Gas# Mining# # Kingdom Of Saudi Arabia #

A forged tee is a type of pipe fitting used to connect three sections of pipe at a 90-degree angle, forming a T-shaped intersection. It is made through the forging process, which involves shaping metal using localized compressive forces, typically with a hammer or die. Forged tees are known for their superior strength, durability, and resistance to high pressure and temperature compared to cast or welded fittings. They are commonly used in industries such as oil and gas, petrochemical, power generation, and other applications where high performance and reliability are critical. Forged tees are available in various sizes, materials, and specifications to meet different operational #PipeFittings #Plumbing #PipingSystems #IndustrialFittings #ForgedFitting #TeeFittings #PipelineEngineering #HVA #OilAndGas #constructionmaterials #Engineering #Manufacturing #ProcessPiping #PipeLineFittings #FlowControl #Welding #MechanicalEngineering #Hydraulics #FluidSystems. #IndustrialSupplies

Fire water piping for offshore platform as per SAES(saudi aramco engineering standard)-B-009 clause 4.8.6.1 .plastic pipes are prohibited in offshore exposed piping in saudi aramco knowing that in all the world they use FRP(fiber reinforced plastic) in all offshore platform. For sure FRP pipes are much cheaper than Stainless steel pipes especially 254 SMO stainless steel piping

Pipe Reducers play a vital role in piping systems, bridging gaps between pipes and fittings of varying sizes. From Carbon Steel to Nickel Alloys, these reducers come in a diverse range of materials, ensuring versatility across all pressure ranges. Whether it's Concentric or Eccentric, sizes from 1/2" to 72" cater to every need. Learn more about optimizing your piping setup with TECS today. #WeAreTecs #TECS #Pipeline #OilandGas #Engineering #Oman #Muscat

slip-on flange vs weld neck flange! Slip-on flanges and weld neck flanges are both used in piping systems, but they serve different purposes and have distinct differences: 1.Slip-on Flange: - Slips over the pipe and is welded in place - Has a flat face and a hole for the pipe - Less expensive than weld neck flanges - Easier to install and remove - Suitable for low-pressure and low-temperature applications 2.Weld Neck Flange: - Welded directly to the pipe - Has a tapered hub and a neck for welding - Provides a strong and leak-tight connection - Suitable for high-pressure and high-temperature applications Where to use each: - Slip-on flanges: - Low-pressure piping systems - Water treatment plants - HVAC systems - Non-critical applications - Weld neck flanges: - High-pressure piping systems - High-temperature applications - Chemical plants - Oil and gas refineries - Critical applications where safety is paramount In summary, slip-on flanges are suitable for low-pressure and low-temperature applications, while weld neck flanges are used in high-pressure and high-temperature applications where a strong and leak-tight connection is crucial. #refinery #oilandgas #powergeneration #watertreatment #oilfield #flange #construction #powerplant #dbottleneck #engineering #piping #pipeline #offshore #onshore #oilwell #petrochemical #mechanical

Coil Tubing Calculations Coil tubing calculations are important for the proper operation and planning of coil tubing jobs. Here are some key calculations that supervisors and field hands should be familiar with: Calculate Area of Tubing Wall: ( OD2 – ID2 ) * p / 4 NOTE: (p/4 =.7854) ( 1.752 – 1.4382 ) * .7854 = .781 in2 Calculate Tubing Weight Per Foot (Wall Thickness Unknown) ((((OD2 – ID2) * .7854) * 12)/ 231) * 65.5 ((((2.8752 – 2.4412) * .7854) * 12) / 231) * 65.5 = Calculate Tubing Weight per foot: p * ( OD – Wall ) * Wall * 12 * .2833 p * ( 1.75 – .156 ) * .156 * 12 * .2833 = 2.656 lbs/ft Calculate Buoyancy Factor: ( 65.447 – Fluid Weight, lbs/gal ) / 65.447 ( 65.447 – 8.33 ) / 65.447 = .873 Calculate Weight of Tubing in Fluid: Weight in Air * Buoyancy Factor 2.656 * .873 = 2.319 lbs/ft Calculate Load Capacity @ Minimum Yield: ( OD2 – ID2 ) * .7854 * Yield * SF ( 1.752 – 1.4382 ) * .7854 * 80,000 * .8 = 49,997 psi Calculate Pressure Capacity: 2 * ( Wall – .005 )* Yield / OD 2 * (.156 – .005 ) * 80,000 / 1.75 = 13,806 psi Calculate Pipe Capacity in Barrels per Linear Foot: ID2 * .0009714 1.4382 .0009714 = .002009 bbls/ft Multiply by Total Length for Total Capacity in Barrels Calculate Annular Volume in Barrels per Linear Foot: (IDprod2 – ODcoil2 ) * .0009714 ( 2.4412 – 1.752 ) * .0009714 = .00281316 bbls/ft Multiply by Total Length for Total Capacity in Barrels Calculate Annular Velocity, Ft/Min: GPM * 24.51 / (IDprod2 – ODcoil2 ) 84 * 24.51 / ( 4.8922 – 1.752 ) = 98.7 ft/min Time to Displace: Total Volume ,bbls / Pump Rate, bbl/min = Minutes or Total Volume ,gal / Pump Rate, gal/min = Minutes Calculate Fluid Pressure Gradient: Down Hole Pressure / Depth = psi/ft or Fluid Weight, lbs/gal * .05195 = psi/ft Calculate Hydrostatic Pressure: Weight, lbs/gal * .05195 * Depth 9.6 * .05195 * 11,200 = 5591 psi Calculate Bottom Hole Pressure: Well Head Pressure + Hydrostatic Pressure 2200 + ((9.6 * .05195 * 11,200)) = 7785.664 psi Calculate Kill Fluid Weight: Weight, lbs/gal + [ Well Head Pressure / ( .05195 * Depth ) ] 9.6 + ( 2200 / ( .05195 * 11,200 ) ) = 13.4 lbs/gal