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51318-10818-COMPLIANCE TO ASME PCC-2 STANDARD FOR ENGINEERED COMPOSITE REPAIR SYSTEMS

Picture for COMPLIANCE TO ASME PCC-2 STANDARD FOR ENGINEERED COMPOSITE REPAIR SYSTEMS
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Key qualification and testing requirements, as well as a full implementation process as outlined within the ASME PCC-22, Article 4.1, Nonmetallic Composite Repair Systems: High Risk Applications.

Product Number: 51318-10818-SG
Author: Matthew Green
Publication Date: 2018
Industry: Corrosion Monitoring and Control
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$20.00
$20.00

Engineered Composite Repair (ECR) systems are a beneficial and efficient choice as a rehabilitation option for the oil and gas pipelines and piping networks. However, to successfully implement a process and utilize these systems, a greater understanding of the full range of requirements set forth in the ASME Post Construction Code

2 (PCC-2)1, Article 4.1 Nonmetallic Composite Repair Systems: High Risk Applications, is crucial for successful design, installation, and long-term service. Understanding the full range of requirements found within this document can provide a high level of confidence in using this proven and qualified technology to maintain pipeline integrity in areas of corrosion or mechanical damage. Alternatively, as with any repair method and option, without a solid understanding of the needs and requirements, as well as proper training and skill of the installation and implementation, the chance of disappointment is higher. This paper will discuss key qualification and testing requirements, as well as a full implementation process as outlined within the ASME PCC-22, Article 4.1, including qualifying repair systems for use through physical and long-term testing, design of repairs, installation quality control, training, and documentation requirements.

Key words: Engineered, Composite, Nonmetallic, Repair, ASME, Pipe Repair, Corrosion, Mechanical Damage, Compliance

Engineered Composite Repair (ECR) systems are a beneficial and efficient choice as a rehabilitation option for the oil and gas pipelines and piping networks. However, to successfully implement a process and utilize these systems, a greater understanding of the full range of requirements set forth in the ASME Post Construction Code

2 (PCC-2)1, Article 4.1 Nonmetallic Composite Repair Systems: High Risk Applications, is crucial for successful design, installation, and long-term service. Understanding the full range of requirements found within this document can provide a high level of confidence in using this proven and qualified technology to maintain pipeline integrity in areas of corrosion or mechanical damage. Alternatively, as with any repair method and option, without a solid understanding of the needs and requirements, as well as proper training and skill of the installation and implementation, the chance of disappointment is higher. This paper will discuss key qualification and testing requirements, as well as a full implementation process as outlined within the ASME PCC-22, Article 4.1, including qualifying repair systems for use through physical and long-term testing, design of repairs, installation quality control, training, and documentation requirements.

Key words: Engineered, Composite, Nonmetallic, Repair, ASME, Pipe Repair, Corrosion, Mechanical Damage, Compliance

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Picture for Testing and Design of Nonmetallic Composite Repair Systems for Pipeline Intergity
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51317--9506-Testing and Design of Nonmetallic Composite Repair Systems for Pipeline Intergity

Product Number: 51317--9506-SG
ISBN: 9506 2017 CP
Author: Davie Peguero
Publication Date: 2017
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Pressure cycling and ultimate failure pressure testing was conducted on various pipe samples to verify the design formulas meet the specifications and are correct for use in design of field repairs. Results show that use of strain-based design methodologies for composite repair systems is suitable and effective.
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51317--9494-Considerations for Repairing Live Piping Using Engineered Composite Repair Systems

Product Number: 51317--9494-SG
ISBN: 9494 2017 CP
Author: Matt Green
Publication Date: 2017
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Composite materials are being widely implemented for repair scenarios within refineries – domestically and around the world. This paper will discuss concerns, considerations, and needs typically encountered when using Engineered Composite Repair systems to repair live, operating piping systems in a plant environment.
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51318-10821-Technical evaluation of cold end-sizing and stress-relieving mill operations while preserving the SSC resistance of sour service OCTG pipes

Product Number: 51318-10821-SG
Author: John Fortaillier / Julien Millet / Florian Thébault
Publication Date: 2018
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How tensile properties behave after thermal stress-relieving with regards to the cold-forming history of the material and how this correlates to the SSC resistance of pipe-ends sampled.
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