Fitness For Service & Finite Element Analysis (FEA)
Brighton’s expertise in Fitness-For-Service assessments is supported by a team knowledgeable in FFS techniques. We investigate underlying damage mechanisms leading to a material’s fatigue and fracture. We have performed evaluations for reactors, vessels, tanks, truck frames, and pipelines using ASME FFS-1/API 579 methodology. Our team is up-to-date and involved with Fitness For Service research, such as our submission to ASME to support changes to Level 2 assessment methodology for thermal hot spots. With experience in a variety of assessments from simpler Level 1 to rigorous Level 3, Brighton’s ability to apply the right approach results in cost and time savings to clients.
Our knowledge goes well into field, as we often oversee the installation of the designs we engineer. Brighton has authored many procedures to safely and correctly install, replace or modify our designs including structural steel installations, storage tank erection, and piping support modifications and installations. We work closely with foremen, millwrights and welders to understand their challenges, all with safety as the primary objective.
OUR EXPERIENCE INCLUDES:
Forensic Engineering & Finite Element Analysis (FEA)
Brighton’s engineers combine expertise and extensive industry knowledge along with skills in a variety of Finite Element Analysis (FEA) platforms to quickly solve real world problems pertaining to new designs, existing maintenance issues, or in-service failures.
Our engineers can quickly mobilize to gather data from physical inspection and measurements or by reviewing as-built installation drawings of equipment to set up practical 2D & 3D models. These models accurately predict stresses, strains, displacement, fatigue, ratcheting, vibration, and thermal heat transfer in order to meet applicable codes and industry best practises.
Low Temperature Brittle Fracture Prevention
Carbon steel toughness and ductility degrades with decreases in temperature, so designing equipment and selecting materials properly in the design stage, can prevent severe safety and equipment failure leading to injury or loss of life, loss of product and production, and all the costly consequences.
Existing brownfield facilities can be analyzed by Brighton for Brittle Fracture potential under severe conditions, such as a blowdown event. Brighton can work with your engineers to help develop low temperature mitigation procedures, recommend mechanical stress-reduction installations, re-rate equipment to operate under more severe conditions utilizing Fitness for Service methodology, and in the worse-case provide material replacement recommendations in critical locations.
Oil Sands Wear Technology Solutions
Billions of dollars are spent annually by oil sands surface mining facilities on maintenance, replacement and repair of equipment and piping due to excessive wear and corrosion, in addition to the consequential production losses from premature failures. Oil sand is mainly composed of hard quartz, sand, silt, clay, water and bitumen. The presence of quartz and other hard solids in the oil sands has posed unique material challenges for oil sands operators.
Brighton engineers have assisted oil sand surface mining operations with developing and implementing material technology solutions to reduce the reliability impact caused by wear, erosion, and erosion-corrosion. Since 2014, Brighton has contributed an estimated operating (OPEX) cost savings of more than $13 million dollars to oil sand facilities.
OUR EXPERIENCE INCLUDES IMPLEMENTING MATERIAL TECHNOLOGY SOLUTIONS FOR THE FOLLOWING PIPING AND EQUIPMENT:
Water / Steam Hammer & Surge Analysis
Water hammer occurs when there is a pressure wave generated from a fluid that is forced to stop, start, or change direction suddenly. In the case of steam hammer, there is a mixture of steam and condensate instead of fluid. These situations are common when a valve within a piping system is shut-off or turned-on. The pressure wave induces vibration and reactionary forces on the pipe that can compromise safety potentially causing injury to nearby personnel and severely damaging the piping and equipment, which can otherwise cause preventable downtime.
Brighton’s engineers are able to investigate the mechanisms behind water hammer sources and piping failures in both liquid-filled and two-phase steam-condensate systems. We can analyze the fluid flow at all stages of operation, simulating the increased pressures, vibration, and forces during the event and the mechanical response due to the increased loads on the piping systems.
OUR EXPERIENCE INCLUDES:
Expansion, Swivel & Clamp Joints
From application to elimination, Brighton has the expertise to design and modify a piping system to work with or without specialized piping joints. Expansion joints are widely used when a ‘tight’ piping system does not permit the flexibility necessary to absorb axial and lateral movement, generally at the expense of robustness and longevity when compared to hard pipe. Brighton has a long history of providing sound alternatives to replace ineffective or leaking expansion joints.
Swivel joints are often used in two or three ‘knuckle’ combinations to absorb large differential movement. Incorrect design often leads to ineffective movement of the knuckle arrangement leading to possible damage or leaks.
Brighton has performed evaluations on hundreds of knuckle combinations and can provide the most effective design for any scenario.
Clamp Joints are often used in severe operating conditions where spool removal is necessary, however they can be susceptible to leakage if put under incorrect bending loads. Brighton can assess existing clamp joints for root cause failure, and modify piping to alleviate unnecessary loading to keep the joints fit and in service.
At Brighton, our process engineers focus on designing optimized systems through computer-based methods. We have experience with SAGD central processing facilities and wellpads, upgraders, and refineries. After the processes are refined, our designers are able to detail the process and create Process and Instrumentation Diagrams (P&IDs). These drawings will then be issued and approved under the designing engineer.
OUR EXPERIENCE INCLUDES: