Unconventional/complex reservoirs
The events will be co-located 3–5 May 2027 at Reliant Park in Houston, Texas.
This year’s selected papers showcase meaningful advances across condensate‑rich tight gas, tight sandstones, and coalbed methane reservoirs, each contributing new tools for improving predictability and field-development efficiency.
This paper presents a novel approach to predict reservoir porosity by conditioning seismic data, calibrating seismic impedance inversion, and tailoring rock-physics analysis.
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SponsoredQuickly identifing the right strategies for a well or pad can overcome operational challenges. These cost-effective and easy-to-use solutions help operators achieve improved production rates with less manpower.
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The US onshore business is looking flat at the moment, though these sorts of predictions are prone to sudden shifts.
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Dos Caminos joint venture additions will be capable of delivering 2.0 Bcf/D of natural gas.
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Private-equity producer adds over 160,000 acres in Wyoming’s Powder River Basin oil play.
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As the demand for energy continues to increase, so does the sociopolitical demand that these resources be produced in a sustainable way. This reflective thought has defined this month’s selection of technical papers, each speaking to a different facet of this feature’s theme: unconventional reservoir development for a sustainable energy transition.
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This paper describes natural fractures and their effect on hydrocarbon productivity in the Vaca Muerta shale formation.
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The authors of this paper describe a solution using machine-learning techniques to predict sandstone distribution and, to some extent, automate the process of optimizing well placement.
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This study catalogs global gas/oil ratio data to identify currently produced light crude oils that could be rendered carbon neutral through the direct-air-capture mechanism.
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The objective of this study was to establish an efficient optimization work flow to improve vertical and areal sweep in a sour-gas injection operation, thereby maximizing recovery under operation constraints.
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The objective of this paper is to present a fundamentals-based model of three-phase flow consistent with observation that avoids the pitfalls of conventional models such as Stone II or Baker’s three-phase permeability models.