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Picture for Biofuel Tank Lining- From Lab to the Field Journey
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Biofuel Tank Lining- From Lab to the Field Journey

Product Number: 51324-20722-SG
Author: Steve Liebhart; Ravi Nagarajan; Pedro Escudero
Publication Date: 2024
$40.00
The unprecedented growth in the use of bio-based feedstocks in the Oil and Gas industry has led to several research efforts on the part of coating manufacturers to determine best options for the lining of feedstock storage tanks. While a few technologies have emerged as good, better, and best candidates to withstand the chemical exposure and storage temperature of the feedstocks, their application requirements for application conditions vary widely. Given the geographical locations of the facilities that are involved in the production of biofuels, the site environmental conditions make some of the lining options less practical than others for the application of the selected technologies. This paper will screen coatings with different physical properties to support the initial selection process. The results of the tested technologies discuss the preselection of linings for various feedstocks for short term storage. The R & D has been scaled up at different part of the world to mitigate corrosion in Biofuels markets. Due to significant growth in bio fuels the raw feed stock supply options keep growing from standard vegetable seed oils and animal fat to remaining agricultural waste, other animal wastes, municipal wastes etc. This increases the unknown variables in the process causing corrosion and solutions to mitigate. These waste to fuel category is attracting diversified feed stocks in offering from the new market. The findings to adopt the fit for purpose approach is aimed in tooling owners and operators in the journey.
Picture for Break Reduction/Life Extension for Municipal Water Pipelines
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Break Reduction/Life Extension for Municipal Water Pipelines

Product Number: 51324-20658-SG
Author: Erin Nelson; Ed Richey
Publication Date: 2024
$40.00
A 2018 study by Utah State University indicated that the condition of North America’s water infrastructure is in a state of steady decline. That research determined that the water main break rate increased 27% for the 6-year period between 2012-2018, with over 80% of the cast iron pipelines currently in service being over 50 years old. Referenced statistics indicate there has been an average of 14 leaks per 100 miles of operating pipeline, and that each mile of pipeline serves approximately 300 consumers. Further increases in the water main leak rate represent a major disruption in reliable water supply to a large population. Excluding third-party damage, metal loss because of corrosion is the most common cause of premature failure and leakage of buried pipelines. Corrosion is a predictable process, whereas third-party damage is random in nature. Methodologies have been developed over the past few decades to identify anomalies and areas susceptible to active corrosion on underground pipelines. Using the data from these analytics, it is possible to implement local corrosion control to rapidly decrease the water main break rate. A methodology has been developed and applied to drive this process in a systematic approach. Break Reduction/Life Extension (BRLE) is a proactive engineering program developed to: · Reduce the number of future breaks on water system piping · Extend the operational life of existing water system piping Using a combination of factors, such as pipeline age, materials type and break history, with the data gathered in the field, it is possible to identify activities to initiate measures to reduce the water main break rate. This paper will present details on the BRLE methodology and provide data from case studies to demonstrate the effectiveness of this approach.
Picture for Can Electrochemical Charging Replace Hydrogen Gas Charging During Hydrogen Embrittlement Testing?
Available for download