This paper demonstrates the real-time assessment of perforation efficiency using acoustic friction analysis to evaluate the impact of perforation erosion and sand ramps during hydraulic fracturing stages.

This paper presents a method for constructing well- and fluid-specific pipe friction curves and monitoring perforation cluster efficiency using acoustic water hammer analysis during hydraulic fracturing.

This paper quantifies the economic value of improving fluid and proppant distribution uniformity across perforation clusters during hydraulic fracturing treatments.

This paper introduces a cost-effective, non-invasive method utilizing high-frequency surface pressure data to estimate the Uniformity Index (UI) during hydraulic fracturing treatments without the need for downhole tools.

This paper presents a methodology utilizing machine learning and real-time acoustic data to evaluate and optimize hydraulic fracturing effectiveness in the Bakken formation.

This paper presents a multi-well study that utilizes real-time acoustic measurements to optimize hydraulic fracturing completion designs in the Delaware Basin's 3rd Bone Springs formation.

This paper presents a multidisciplinary study employing geochemical analysis, acoustic imaging, and chemical tracers to optimize infill development, characterize the reservoir, and mitigate fault-induced hazards in the Arkoma Basin's Woodford Shale.

This paper discusses the use of active acoustic pulses during an Eagle Ford bullhead refrac treatment to evaluate the effectiveness of flow diverters in real-time.

This paper introduces a method to analyze water hammer responses to uniquely determine pipe and perforation friction, enabling the quantification of perforation cluster efficiency.

This paper outlines a real-time completion optimization workflow in the Eagle Ford shale that integrates mechanical specific energy (MSE) facies analysis with acoustic fracture diagnostics to maximize reservoir recovery.