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Unconventional reservoirs are usually complex and highly heterogeneous, such as shale, coal, and tight sandstone reservoirs. The strong physical and chemical interactions between fluids and pore surfaces lead to the inapplicability of conventional approaches for characterizing fluid flow in these low-porosity and ultralow-permeability reservoir systems. Therefore, new theories and techniques are urgently needed to characterize petrophysical properties, fluid transport, and their relationships at multiple scales for improving production efficiency from unconventional reservoirs. This book presents fundamental innovations gathered from 21 recent works on novel applications of new techniques and theories in unconventional reservoirs, covering the fields of petrophysical characterization, hydraulic fracturing, fluid transport physics, enhanced oil recovery, and geothermal energy. Clearly, the research covered in this book is helpful to understand and master the latest techniques and theories for unconventional reservoirs, which have important practical significance for the economic and effective development of unconventional oil and gas resources.
shale gas --- permeability --- prediction by NMR logs --- matrix–fracture interaction --- faults --- remaining oil distributions --- unconventional reservoirs --- coal deformation --- reservoir depletion --- carbonate reservoir --- nanopore --- fracturing fluid --- pseudo-potential model --- shale reservoirs --- matrix-fracture interactions --- multi-scale fracture --- succession pseudo-steady state (SPSS) method --- fluid transport physics --- integrated methods --- chelating agent --- dissolved gas --- non-equilibrium permeability --- effective stress --- fractal --- fracture network --- spontaneous imbibition --- tight oil --- porous media --- 0-1 programming --- the average flow velocity --- geothermal water --- micro-fracture --- pore types --- pore network model --- petrophysical characterization --- nitrogen adsorption --- analysis of influencing factors --- mudstone --- rheology --- velocity profile --- shale permeability --- flow resistance --- global effect --- tight sandstones --- fractal dimension --- contact angle --- temperature-resistance --- fractured well transient productivity --- reservoir classifications --- deep circulation groundwater --- viscosity --- NMR --- fractional diffusion --- lattice Boltzmann method --- multiporosity and multiscale --- fractal geometry --- imbibition front --- productivity contribution degree of multimedium --- wetting angle --- pH of formation water --- enhanced oil recovery --- isotopes --- tight sandstone --- fracture diversion --- shale --- SRV-fractured horizontal well --- low-salinity water flooding --- shale gas reservoir --- tight reservoirs --- fracture continuum method --- tight oil reservoir --- Lucaogou Formation --- hydraulic fracturing --- clean fracturing fluid --- recovery factor --- flow regimes --- local effect --- complex fracture network --- pore structure --- gas adsorption capacity --- polymer --- non-linear flow --- conformable derivative --- production simulation --- analytical model --- enhanced geothermal system --- multi-scale flow --- experimental evaluation --- extended finite element method --- fluid-solid interaction --- groundwater flow --- well-placement optimization --- thickener --- imbibition recovery --- equilibrium permeability --- slip length --- large density ratio --- clay mineral composition --- finite volume method --- volume fracturing --- influential factors --- sulfonate gemini surfactant
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The MEET Special Issue aims at showing the gains in geothermal energy that can be achieved using a variety of techniques, depending on the geological setting of the underground. Among the list of exploitation concepts, enhanced geothermal systems (EGS) are particularly interesting, as their application is much less dependent of the underground setting, allowing, in turn, a large geographical deployment and market penetration in Europe. The challenges of EGS are multiple in terms of investment costs, the testing of novel reservoir exploitation approaches with an inherent risk of induced seismicity, and the presence of aggressive geothermal brines, damaging infrastructures. The conversion of oil wells or coproduction of heat or electricity together with oil is also addressed. This Special Issue summarizes the output of the H2020 MEET project based on laboratory experiments, geological field works on high-quality analogues, advanced reservoir modeling, the development of a decision-maker tool for investors and specific demonstration activities, such as chemical stimulation or the innovative monitoring of deep geothermal wells, and the production of electrical power via small-scale binary technology tested in various geological contexts in Europe.
Research & information: general --- Soultz-Sous-Forêts --- geothermal site --- heat exchanger --- scales --- sulfates --- sulfides --- As and Sb-bearing galena --- crystal growth --- crystal shapes --- fracture network --- Death Valley --- Noble Hills --- power law distribution --- multiscale analysis --- geothermal reservoir characterization --- Noble Hills granite --- Owlshead Mountains granite --- metamorphic grade --- fluid/rock interactions --- newly formed minerals --- element variations --- geothermal reservoir --- deep geothermal energy --- EGS --- Variscan fold-and-thrust belt --- district heating and cooling --- economic indicators --- CO2 abatement cost --- sensitivity analysis --- fracturing processes --- fluid circulation --- granite alteration --- low to moderate regional strain --- blind geothermal system --- compositional anomalies --- hierarchical clustering --- self-organizing maps --- unconventional reservoirs --- geothermal --- OVSP --- well seismic data --- fault --- fracture --- geothermal derisking --- FWI --- numerical modelling --- inversion --- imaging --- permeability --- fluid–rock interactions --- slate --- temperature --- time-dependent --- pressure solution --- dissolution --- Soultz-sous-Forêts --- hydro-thermal modeling --- conversion --- clustering --- upscaling --- heat --- electricity --- scenarios --- LCOE --- LCOH --- NPV --- CO2 emissions --- Upper Rhine Graben --- geothermal brine --- scaling --- metal sulfides --- thermodynamic --- kinetics --- oil --- corrosion --- geology --- stress --- fluid pressure --- Mohr diagrams --- fracturing --- greywackes --- slates --- deep geothermal reservoir --- structural model --- thermo-hydraulic simulations --- MEET H2020 project --- fracture network variability --- granite --- spacing distribution --- fracture intensity P10 --- well placement --- CO2-EGS --- water-EGS --- discrete fracture networks --- THM modeling --- enhanced geothermal systems (EGS) --- fractured granite --- core flooding experiments --- autoclave experiments --- Cornubian Batholith --- Enhanced Geothermal Systems (EGS) --- Variscan rocks --- quartzite --- claystone --- graywacke --- gouge --- fracture transmissivity --- effective stress --- United Downs --- hydraulic stimulation --- equivalent permeability field --- exposed analogue --- enhanced geothermal system --- fractures --- n/a --- Soultz-Sous-Forêts --- fluid-rock interactions --- Soultz-sous-Forêts --- Iwantja / Indulkana / Granite Downs (SA Central Australia SG53-09)
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