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To help the industry understand offshore-facility weight predictability, IPA recently conducted a comprehensive study that sheds new light on facility weight performance and identifies the root causes of weight growth, providing guidelines for improving predictability.

Many oil and gas companies are pursuing fracture-flowback-water and produced-water recycling for subsequent drilling and fracturing operations. Removal of metals is important to success of these processes.

The global subsea vessels market is expected to reach more than USD 100 billion in the next five years, with demand up by 23%.

A simple, practical, and reliable method to detect a gas leak under the conditions of unknown inlet or outlet gas rate, or unknown inlet or outlet pressure, is highly desirable. This paper discusses such a method.

The ubiquitous nature of separations in facilities led to the development of the Separations Technology Technical Section (STTS) in 2011. In it's 3rd year, more activities are planned. Should you be a member?

The time for the annual selection of SPE’s Distinguished Lecturers (DLs) is coming soon. If you are unfamiliar with the DL program or have not explored it in depth, consider learning more as the selection process for the 2015–2016 lecture season begins on 1 February 2014.

A rigorous SHE&S program on the Barzan Onshore Project tracked 211 deliverables on a monthly basis and led to 131 million man-hours worked without a lost-time incident from July 2012 to March 2014.

After severe damage in a typhoon, the Huizhou oil field in the South China Sea was back on production in 5.5 months. This paper reviews how this feat was accomplished.

Natural-gas-actuated pneumatic-control equipment has recently become a focus area for regulators trying to reduce the quantity of actual pollutants and greenhouse gases released to the atmosphere.

This is the fourth article of a series covering water management in hydraulic fracturing (HF) in unconventional resources. This article discusses the use of mechanical vapor compression (MVC) as a desalination technology.