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This paper introduces a new carbon dioxide (CO2) -hybrid fracturing-fluid design that intends to improve production from ultratight reservoirs and reduces freshwater usage.

The objective of this paper is to develop and demonstrate an efficient work flow that will help stakeholders make better decisions in the area of completion planning.

The combination of technology advances and world politics results in oil supply-and-demand cycles that have occurred repeatedly over the past 100 years and that have affected and will continue to affect our careers.

Unconventional resources include coalbed methane, tight gas, and source-rock-based (often shale-based) reservoirs.

This paper will discuss the hydraulic-fracturing-stimulation design, execution, and evaluation for the first successful proppant-fracturing treatment in an unconventional carbonate source rock in Saudi Arabia.

A production-optimization strategy of an artificial-lift system resulted in the mitigation of challenges related to reservoir heterogeneities and completion design.

History shows that technology adapts to the economic conditions. What is the optimum technology in a high-price environment is not optimum for a low-price scenario.

For years, the oil and gas industry has used autonomous underwater vehicles (AUVs) for simple tasks such as underwater surveys and inspection.

Researchers at the University of Texas at Austin (UT) have set an audacious goal to halve the time, cost, and number of rig personnel required for drilling every type of well, from unconventional shale to ultradeepwater.

There is a school of thought that the dramatic collapse in prices and oversupply of oil that has affected our industry, and has added to the challenges facing deep­water and mature developments, is a relatively recent phenomenon.