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Graphene is a two-dimensional, one-atom-thick material made entirely of carbon atoms, arranged in a honeycomb lattice. Because of its distinctive mechanical (e.g., high strength and flexibility) and electronic (great electrical and thermal conductivities) properties, graphene is an ideal candidate in myriad applications. Thus, it has just begun to be engineered in electronics, photonics, biomedicine, and polymer-based composites, to name a few. The broad family of graphene nanomaterials (including graphene nanoplatelets, graphene oxide, graphene quantum dots, and many more) go beyond and aim higher than mere single-layer (‘pristine’) graphene, and thus, their potential has sparked the current Special Issue. In it, 18 contributions (comprising 14 research articles and 4 reviews) have portrayed probably the most interesting lines as regards future and tangible uses of graphene derivatives. Ultimately, understanding the properties of the graphene family of nanomaterials is crucial for developing advanced applications to solve important challenges in critical areas such as energy and health.
Research & information: general --- Earth sciences, geography, environment, planning --- graphene oxide --- electrochemical synthesis --- oxidation level --- exfoliation degree --- morphology --- interlayer spacing --- surface defects --- electrical resistance --- graphene --- mass production --- shear exfoliation --- physical exfoliation --- superlattice --- 2d materials --- electrocatalytic --- modified graphene nanoplates --- graphene additives --- antifriction --- engine lubricant oil additives --- antiwear --- carbon nanofibers --- reduced graphene oxide nanofibers --- hydrothermal reduction --- capacitance --- amine --- cryogel --- CO2 capture --- sol-gel --- silico-phosphate composite films --- optical limiting functionality --- ultrashort laser pulses --- carbon nanotubes --- hot-filament CVD --- field electron emission --- laser machining --- nanotechnology --- graphene-derived materials --- mud cake --- rheology --- effect of nanocomposites --- fluid loss --- water-based drilling fluids --- cement composite --- characterization --- rheological --- application --- energy harvesting --- α-lipoic acid --- UV-VIS spectroscopy --- SERS spectroscopy --- thermal properties --- electrical properties --- strain sensing --- joule heating --- reduced graphene oxide --- tissue regeneration --- 2D-scaffolds --- hydrogels --- fibers --- stem cell differentiation --- cadmium sulphide --- PVK --- hybrid light-emitting device --- electroluminescence --- nanocrystals --- graphite --- few-layer graphene --- Raman --- TEM --- UV-vis --- Lorentzian fitting --- nanocellulose --- conductive inks --- liquid-phase processing --- film fabrication --- sustainability --- metal-free electrodes --- graphyne-like materials --- synthesis and doping --- electronic and magnetic properties --- electronic transport --- photodetectors --- reduce graphene oxide --- dyes --- heavy metals --- pollutant removal --- graphene oxide --- electrochemical synthesis --- oxidation level --- exfoliation degree --- morphology --- interlayer spacing --- surface defects --- electrical resistance --- graphene --- mass production --- shear exfoliation --- physical exfoliation --- superlattice --- 2d materials --- electrocatalytic --- modified graphene nanoplates --- graphene additives --- antifriction --- engine lubricant oil additives --- antiwear --- carbon nanofibers --- reduced graphene oxide nanofibers --- hydrothermal reduction --- capacitance --- amine --- cryogel --- CO2 capture --- sol-gel --- silico-phosphate composite films --- optical limiting functionality --- ultrashort laser pulses --- carbon nanotubes --- hot-filament CVD --- field electron emission --- laser machining --- nanotechnology --- graphene-derived materials --- mud cake --- rheology --- effect of nanocomposites --- fluid loss --- water-based drilling fluids --- cement composite --- characterization --- rheological --- application --- energy harvesting --- α-lipoic acid --- UV-VIS spectroscopy --- SERS spectroscopy --- thermal properties --- electrical properties --- strain sensing --- joule heating --- reduced graphene oxide --- tissue regeneration --- 2D-scaffolds --- hydrogels --- fibers --- stem cell differentiation --- cadmium sulphide --- PVK --- hybrid light-emitting device --- electroluminescence --- nanocrystals --- graphite --- few-layer graphene --- Raman --- TEM --- UV-vis --- Lorentzian fitting --- nanocellulose --- conductive inks --- liquid-phase processing --- film fabrication --- sustainability --- metal-free electrodes --- graphyne-like materials --- synthesis and doping --- electronic and magnetic properties --- electronic transport --- photodetectors --- reduce graphene oxide --- dyes --- heavy metals --- pollutant removal
Choose an application
For many years, the trend of increasing energy demand has been visible. Despite the search for alternative energy sources, it is estimated that oil and natural gas will be the main source of energy in transport for the next several dozen years. However, the reserves of renewable raw materials are limited in volume. Along with the degree of depletion, oil recovery becomes more and more difficult, even though the deposits are not yet completely empty. Therefore, it is essential to find new methods to increase oil and gas recovery. Actions aimed at intensifying oil recovery are very rational use of energy that has not yet been fully used. Usually, an increase in oil recovery can be achieved by using extraction intensification methods. However, measures to increase oil recovery can be implemented and carried out at any stage of the borehole implementation. Starting from the well design stage, through drilling and ending with the exploitation of oil and gas. Therefore, in order to further disseminate technologies and methods related to increasing oil recovery, a special edition has been developed, entitled "Fundamentals of Enhanced Oil Recovery". This Special Issue mainly covers original research and studies on the above-mentioned topics, including, but not limited to, improving the efficiency of oil recovery, improving the correct selection of drilling fluids, secondary methods of intensifying production and appropriate energy management in the oil industry.
Technology: general issues --- History of engineering & technology --- gas migration --- well cementing --- cement slurry --- cement sheath --- corrosion resistance --- gas outflows --- oil-based mud --- invert drilling fluid --- water phase --- oil phase --- emulsion stability --- emulsifier --- drilling mud --- oxidants --- enzymes --- filter cake --- improving the sealing of the borehole --- rational selection of drilling fluids --- cleaning the borehole --- adhesion --- spacer fluid --- CO2 and H2S geological sequestration --- acid gas reinjection --- acid gas migration --- bottomhole sampling --- isotopic composition --- gas and water chemical analysis --- soil gas analysis --- leakage risk analysis --- improved borehole sealing --- nanosilica --- cement stone --- mechanical parameters --- drilling fluids --- wash --- mud cake --- annular space --- borehole cleaning --- cementing --- wash contact time --- high temperature on corrosion of mining pipes --- water --- aggressive natural gas components --- L80-1 steel --- water shut-off treatment --- gas production --- water-gas ratio (WGR) --- formation permeability --- well logging data quality and quantity interpretation --- gas well ranking --- water flooding --- pore scale --- enhanced oil recovery --- viscosity --- capillarity --- jet pump --- oil --- well --- sucker-rod pump --- gas-water-oil mixture --- chrome coating --- unconventional resources --- shale gas --- oil gas --- total organic carbon (TOC) --- cluster analysis --- genetic type of kerogen --- WAG --- carbonate reservoir --- CO2 --- acid gas --- high-nitrogen natural gas --- water alternating gas --- EOR --- recovery factor --- genetic programming --- fine-grained material --- borehole sealing efficiency --- technological parameters --- gas migration --- well cementing --- cement slurry --- cement sheath --- corrosion resistance --- gas outflows --- oil-based mud --- invert drilling fluid --- water phase --- oil phase --- emulsion stability --- emulsifier --- drilling mud --- oxidants --- enzymes --- filter cake --- improving the sealing of the borehole --- rational selection of drilling fluids --- cleaning the borehole --- adhesion --- spacer fluid --- CO2 and H2S geological sequestration --- acid gas reinjection --- acid gas migration --- bottomhole sampling --- isotopic composition --- gas and water chemical analysis --- soil gas analysis --- leakage risk analysis --- improved borehole sealing --- nanosilica --- cement stone --- mechanical parameters --- drilling fluids --- wash --- mud cake --- annular space --- borehole cleaning --- cementing --- wash contact time --- high temperature on corrosion of mining pipes --- water --- aggressive natural gas components --- L80-1 steel --- water shut-off treatment --- gas production --- water-gas ratio (WGR) --- formation permeability --- well logging data quality and quantity interpretation --- gas well ranking --- water flooding --- pore scale --- enhanced oil recovery --- viscosity --- capillarity --- jet pump --- oil --- well --- sucker-rod pump --- gas-water-oil mixture --- chrome coating --- unconventional resources --- shale gas --- oil gas --- total organic carbon (TOC) --- cluster analysis --- genetic type of kerogen --- WAG --- carbonate reservoir --- CO2 --- acid gas --- high-nitrogen natural gas --- water alternating gas --- EOR --- recovery factor --- genetic programming --- fine-grained material --- borehole sealing efficiency --- technological parameters
Choose an application
Graphene is a two-dimensional, one-atom-thick material made entirely of carbon atoms, arranged in a honeycomb lattice. Because of its distinctive mechanical (e.g., high strength and flexibility) and electronic (great electrical and thermal conductivities) properties, graphene is an ideal candidate in myriad applications. Thus, it has just begun to be engineered in electronics, photonics, biomedicine, and polymer-based composites, to name a few. The broad family of graphene nanomaterials (including graphene nanoplatelets, graphene oxide, graphene quantum dots, and many more) go beyond and aim higher than mere single-layer (‘pristine’) graphene, and thus, their potential has sparked the current Special Issue. In it, 18 contributions (comprising 14 research articles and 4 reviews) have portrayed probably the most interesting lines as regards future and tangible uses of graphene derivatives. Ultimately, understanding the properties of the graphene family of nanomaterials is crucial for developing advanced applications to solve important challenges in critical areas such as energy and health.
Research & information: general --- Earth sciences, geography, environment, planning --- graphene oxide --- electrochemical synthesis --- oxidation level --- exfoliation degree --- morphology --- interlayer spacing --- surface defects --- electrical resistance --- graphene --- mass production --- shear exfoliation --- physical exfoliation --- superlattice --- 2d materials --- electrocatalytic --- modified graphene nanoplates --- graphene additives --- antifriction --- engine lubricant oil additives --- antiwear --- carbon nanofibers --- reduced graphene oxide nanofibers --- hydrothermal reduction --- capacitance --- amine --- cryogel --- CO2 capture --- sol-gel --- silico-phosphate composite films --- optical limiting functionality --- ultrashort laser pulses --- carbon nanotubes --- hot-filament CVD --- field electron emission --- laser machining --- nanotechnology --- graphene-derived materials --- mud cake --- rheology --- effect of nanocomposites --- fluid loss --- water-based drilling fluids --- cement composite --- characterization --- rheological --- application --- energy harvesting --- α-lipoic acid --- UV-VIS spectroscopy --- SERS spectroscopy --- thermal properties --- electrical properties --- strain sensing --- joule heating --- reduced graphene oxide --- tissue regeneration --- 2D-scaffolds --- hydrogels --- fibers --- stem cell differentiation --- cadmium sulphide --- PVK --- hybrid light-emitting device --- electroluminescence --- nanocrystals --- graphite --- few-layer graphene --- Raman --- TEM --- UV-vis --- Lorentzian fitting --- nanocellulose --- conductive inks --- liquid-phase processing --- film fabrication --- sustainability --- metal-free electrodes --- graphyne-like materials --- synthesis and doping --- electronic and magnetic properties --- electronic transport --- photodetectors --- reduce graphene oxide --- dyes --- heavy metals --- pollutant removal --- n/a
Choose an application
For many years, the trend of increasing energy demand has been visible. Despite the search for alternative energy sources, it is estimated that oil and natural gas will be the main source of energy in transport for the next several dozen years. However, the reserves of renewable raw materials are limited in volume. Along with the degree of depletion, oil recovery becomes more and more difficult, even though the deposits are not yet completely empty. Therefore, it is essential to find new methods to increase oil and gas recovery. Actions aimed at intensifying oil recovery are very rational use of energy that has not yet been fully used. Usually, an increase in oil recovery can be achieved by using extraction intensification methods. However, measures to increase oil recovery can be implemented and carried out at any stage of the borehole implementation. Starting from the well design stage, through drilling and ending with the exploitation of oil and gas. Therefore, in order to further disseminate technologies and methods related to increasing oil recovery, a special edition has been developed, entitled "Fundamentals of Enhanced Oil Recovery". This Special Issue mainly covers original research and studies on the above-mentioned topics, including, but not limited to, improving the efficiency of oil recovery, improving the correct selection of drilling fluids, secondary methods of intensifying production and appropriate energy management in the oil industry.
Technology: general issues --- History of engineering & technology --- gas migration --- well cementing --- cement slurry --- cement sheath --- corrosion resistance --- gas outflows --- oil-based mud --- invert drilling fluid --- water phase --- oil phase --- emulsion stability --- emulsifier --- drilling mud --- oxidants --- enzymes --- filter cake --- improving the sealing of the borehole --- rational selection of drilling fluids --- cleaning the borehole --- adhesion --- spacer fluid --- CO2 and H2S geological sequestration --- acid gas reinjection --- acid gas migration --- bottomhole sampling --- isotopic composition --- gas and water chemical analysis --- soil gas analysis --- leakage risk analysis --- improved borehole sealing --- nanosilica --- cement stone --- mechanical parameters --- drilling fluids --- wash --- mud cake --- annular space --- borehole cleaning --- cementing --- wash contact time --- high temperature on corrosion of mining pipes --- water --- aggressive natural gas components --- L80-1 steel --- water shut-off treatment --- gas production --- water-gas ratio (WGR) --- formation permeability --- well logging data quality and quantity interpretation --- gas well ranking --- water flooding --- pore scale --- enhanced oil recovery --- viscosity --- capillarity --- jet pump --- oil --- well --- sucker-rod pump --- gas-water-oil mixture --- chrome coating --- unconventional resources --- shale gas --- oil gas --- total organic carbon (TOC) --- cluster analysis --- genetic type of kerogen --- WAG --- carbonate reservoir --- CO2 --- acid gas --- high-nitrogen natural gas --- water alternating gas --- EOR --- recovery factor --- genetic programming --- fine-grained material --- borehole sealing efficiency --- technological parameters --- n/a
Choose an application
Graphene is a two-dimensional, one-atom-thick material made entirely of carbon atoms, arranged in a honeycomb lattice. Because of its distinctive mechanical (e.g., high strength and flexibility) and electronic (great electrical and thermal conductivities) properties, graphene is an ideal candidate in myriad applications. Thus, it has just begun to be engineered in electronics, photonics, biomedicine, and polymer-based composites, to name a few. The broad family of graphene nanomaterials (including graphene nanoplatelets, graphene oxide, graphene quantum dots, and many more) go beyond and aim higher than mere single-layer (‘pristine’) graphene, and thus, their potential has sparked the current Special Issue. In it, 18 contributions (comprising 14 research articles and 4 reviews) have portrayed probably the most interesting lines as regards future and tangible uses of graphene derivatives. Ultimately, understanding the properties of the graphene family of nanomaterials is crucial for developing advanced applications to solve important challenges in critical areas such as energy and health.
graphene oxide --- electrochemical synthesis --- oxidation level --- exfoliation degree --- morphology --- interlayer spacing --- surface defects --- electrical resistance --- graphene --- mass production --- shear exfoliation --- physical exfoliation --- superlattice --- 2d materials --- electrocatalytic --- modified graphene nanoplates --- graphene additives --- antifriction --- engine lubricant oil additives --- antiwear --- carbon nanofibers --- reduced graphene oxide nanofibers --- hydrothermal reduction --- capacitance --- amine --- cryogel --- CO2 capture --- sol-gel --- silico-phosphate composite films --- optical limiting functionality --- ultrashort laser pulses --- carbon nanotubes --- hot-filament CVD --- field electron emission --- laser machining --- nanotechnology --- graphene-derived materials --- mud cake --- rheology --- effect of nanocomposites --- fluid loss --- water-based drilling fluids --- cement composite --- characterization --- rheological --- application --- energy harvesting --- α-lipoic acid --- UV-VIS spectroscopy --- SERS spectroscopy --- thermal properties --- electrical properties --- strain sensing --- joule heating --- reduced graphene oxide --- tissue regeneration --- 2D-scaffolds --- hydrogels --- fibers --- stem cell differentiation --- cadmium sulphide --- PVK --- hybrid light-emitting device --- electroluminescence --- nanocrystals --- graphite --- few-layer graphene --- Raman --- TEM --- UV-vis --- Lorentzian fitting --- nanocellulose --- conductive inks --- liquid-phase processing --- film fabrication --- sustainability --- metal-free electrodes --- graphyne-like materials --- synthesis and doping --- electronic and magnetic properties --- electronic transport --- photodetectors --- reduce graphene oxide --- dyes --- heavy metals --- pollutant removal --- n/a
Choose an application
For many years, the trend of increasing energy demand has been visible. Despite the search for alternative energy sources, it is estimated that oil and natural gas will be the main source of energy in transport for the next several dozen years. However, the reserves of renewable raw materials are limited in volume. Along with the degree of depletion, oil recovery becomes more and more difficult, even though the deposits are not yet completely empty. Therefore, it is essential to find new methods to increase oil and gas recovery. Actions aimed at intensifying oil recovery are very rational use of energy that has not yet been fully used. Usually, an increase in oil recovery can be achieved by using extraction intensification methods. However, measures to increase oil recovery can be implemented and carried out at any stage of the borehole implementation. Starting from the well design stage, through drilling and ending with the exploitation of oil and gas. Therefore, in order to further disseminate technologies and methods related to increasing oil recovery, a special edition has been developed, entitled "Fundamentals of Enhanced Oil Recovery". This Special Issue mainly covers original research and studies on the above-mentioned topics, including, but not limited to, improving the efficiency of oil recovery, improving the correct selection of drilling fluids, secondary methods of intensifying production and appropriate energy management in the oil industry.
gas migration --- well cementing --- cement slurry --- cement sheath --- corrosion resistance --- gas outflows --- oil-based mud --- invert drilling fluid --- water phase --- oil phase --- emulsion stability --- emulsifier --- drilling mud --- oxidants --- enzymes --- filter cake --- improving the sealing of the borehole --- rational selection of drilling fluids --- cleaning the borehole --- adhesion --- spacer fluid --- CO2 and H2S geological sequestration --- acid gas reinjection --- acid gas migration --- bottomhole sampling --- isotopic composition --- gas and water chemical analysis --- soil gas analysis --- leakage risk analysis --- improved borehole sealing --- nanosilica --- cement stone --- mechanical parameters --- drilling fluids --- wash --- mud cake --- annular space --- borehole cleaning --- cementing --- wash contact time --- high temperature on corrosion of mining pipes --- water --- aggressive natural gas components --- L80-1 steel --- water shut-off treatment --- gas production --- water-gas ratio (WGR) --- formation permeability --- well logging data quality and quantity interpretation --- gas well ranking --- water flooding --- pore scale --- enhanced oil recovery --- viscosity --- capillarity --- jet pump --- oil --- well --- sucker-rod pump --- gas-water-oil mixture --- chrome coating --- unconventional resources --- shale gas --- oil gas --- total organic carbon (TOC) --- cluster analysis --- genetic type of kerogen --- WAG --- carbonate reservoir --- CO2 --- acid gas --- high-nitrogen natural gas --- water alternating gas --- EOR --- recovery factor --- genetic programming --- fine-grained material --- borehole sealing efficiency --- technological parameters --- n/a
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