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Advanced materials for energy and environmental applications (such as rapid heating, anti-fouling/anti-virus surface, chemical sensor, textile/stretchable sensor, fuel cell, and lithium-ion batteries) have been extensively investigated in the academic and industrial fields. The advent of cabon-based nano-materials (carbon nanotubes, graphene, and carbon black) and inonganic nano-materials (Ag wire/particles, Cu mesh, and transition metal dichalcogenide) has accelerated research interest in energy and environmental applications. This book is focused on the emerging concept and improvement of energy and environmental basic research, as well as in the characterization and analysis of novel energy and environmental base materials. The contents of the book are as below: - Theoretical and experimental studies on advanced conducting nanocomposites; - Electrical properties of nanocomposites under various conditions (dynamic mode, aspect ratio, alignment, and contents) and its applications; - Advanced material for energy applications; - Analysis and materials for environmental applications.
History of engineering & technology --- carbon nanotubes --- circumferential shearing --- alignment --- electrical conductivity --- carbon nanotube --- composite --- three-roll milling --- CNT dispersion --- filler length variation --- maize straw --- corn stover --- methane production --- biogas --- substrate --- direct methanol fuel cells --- sputter --- sandpaper --- roughness --- electrochemical impedance spectroscopy --- polarization --- lithium corrosion --- calibration-free laser-induced breakdown spectroscopy --- quantitative analysis --- depth profile analysis --- residual CaSO4 --- solid wastes --- high belite sulfoaluminate cement --- petroleum coke desulfurization slag --- CaSO4 type --- CaSO4 content --- cement properties --- biofouling --- iron bacteria --- nickel-phosphorus-reduced graphene oxide (Ni-P-rGO) --- induction period --- fouling resistance --- nano-composites --- Monte Carlo simulation --- percolation networks --- aspect ratio --- polymer composite --- strain sensor --- hysteresis --- aligned MWCNT --- piezo-resistive characteristics
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Advanced materials for energy and environmental applications (such as rapid heating, anti-fouling/anti-virus surface, chemical sensor, textile/stretchable sensor, fuel cell, and lithium-ion batteries) have been extensively investigated in the academic and industrial fields. The advent of cabon-based nano-materials (carbon nanotubes, graphene, and carbon black) and inonganic nano-materials (Ag wire/particles, Cu mesh, and transition metal dichalcogenide) has accelerated research interest in energy and environmental applications. This book is focused on the emerging concept and improvement of energy and environmental basic research, as well as in the characterization and analysis of novel energy and environmental base materials. The contents of the book are as below: - Theoretical and experimental studies on advanced conducting nanocomposites; - Electrical properties of nanocomposites under various conditions (dynamic mode, aspect ratio, alignment, and contents) and its applications; - Advanced material for energy applications; - Analysis and materials for environmental applications.
carbon nanotubes --- circumferential shearing --- alignment --- electrical conductivity --- carbon nanotube --- composite --- three-roll milling --- CNT dispersion --- filler length variation --- maize straw --- corn stover --- methane production --- biogas --- substrate --- direct methanol fuel cells --- sputter --- sandpaper --- roughness --- electrochemical impedance spectroscopy --- polarization --- lithium corrosion --- calibration-free laser-induced breakdown spectroscopy --- quantitative analysis --- depth profile analysis --- residual CaSO4 --- solid wastes --- high belite sulfoaluminate cement --- petroleum coke desulfurization slag --- CaSO4 type --- CaSO4 content --- cement properties --- biofouling --- iron bacteria --- nickel-phosphorus-reduced graphene oxide (Ni-P-rGO) --- induction period --- fouling resistance --- nano-composites --- Monte Carlo simulation --- percolation networks --- aspect ratio --- polymer composite --- strain sensor --- hysteresis --- aligned MWCNT --- piezo-resistive characteristics
Choose an application
Advanced materials for energy and environmental applications (such as rapid heating, anti-fouling/anti-virus surface, chemical sensor, textile/stretchable sensor, fuel cell, and lithium-ion batteries) have been extensively investigated in the academic and industrial fields. The advent of cabon-based nano-materials (carbon nanotubes, graphene, and carbon black) and inonganic nano-materials (Ag wire/particles, Cu mesh, and transition metal dichalcogenide) has accelerated research interest in energy and environmental applications. This book is focused on the emerging concept and improvement of energy and environmental basic research, as well as in the characterization and analysis of novel energy and environmental base materials. The contents of the book are as below: - Theoretical and experimental studies on advanced conducting nanocomposites; - Electrical properties of nanocomposites under various conditions (dynamic mode, aspect ratio, alignment, and contents) and its applications; - Advanced material for energy applications; - Analysis and materials for environmental applications.
History of engineering & technology --- carbon nanotubes --- circumferential shearing --- alignment --- electrical conductivity --- carbon nanotube --- composite --- three-roll milling --- CNT dispersion --- filler length variation --- maize straw --- corn stover --- methane production --- biogas --- substrate --- direct methanol fuel cells --- sputter --- sandpaper --- roughness --- electrochemical impedance spectroscopy --- polarization --- lithium corrosion --- calibration-free laser-induced breakdown spectroscopy --- quantitative analysis --- depth profile analysis --- residual CaSO4 --- solid wastes --- high belite sulfoaluminate cement --- petroleum coke desulfurization slag --- CaSO4 type --- CaSO4 content --- cement properties --- biofouling --- iron bacteria --- nickel-phosphorus-reduced graphene oxide (Ni-P-rGO) --- induction period --- fouling resistance --- nano-composites --- Monte Carlo simulation --- percolation networks --- aspect ratio --- polymer composite --- strain sensor --- hysteresis --- aligned MWCNT --- piezo-resistive characteristics --- carbon nanotubes --- circumferential shearing --- alignment --- electrical conductivity --- carbon nanotube --- composite --- three-roll milling --- CNT dispersion --- filler length variation --- maize straw --- corn stover --- methane production --- biogas --- substrate --- direct methanol fuel cells --- sputter --- sandpaper --- roughness --- electrochemical impedance spectroscopy --- polarization --- lithium corrosion --- calibration-free laser-induced breakdown spectroscopy --- quantitative analysis --- depth profile analysis --- residual CaSO4 --- solid wastes --- high belite sulfoaluminate cement --- petroleum coke desulfurization slag --- CaSO4 type --- CaSO4 content --- cement properties --- biofouling --- iron bacteria --- nickel-phosphorus-reduced graphene oxide (Ni-P-rGO) --- induction period --- fouling resistance --- nano-composites --- Monte Carlo simulation --- percolation networks --- aspect ratio --- polymer composite --- strain sensor --- hysteresis --- aligned MWCNT --- piezo-resistive characteristics
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The focus of this Special Issue was on biomass ash valorization with respect to their potential for various material applications. Most of the publications in this Special Issue focused on the production of biogenic silica with different properties. Additionally, some of the publications considered application of biomass ashes and biochar as a fertilizer, for soil amendment and recovery of ash forming elements such as N and P, as well as the application of biomass feedstocks in biofuel production.Accordingly, ashes produced from the thermochemical conversion of agricultural residues have high potential to be utilized for different material applications. However, local availability, as well as scaling up the process and life-cycle assessment should be considered prior to the utilization of these materials. Furthermore, densification as a mechanical pre-treatment can be crucial to improve the fuel properties, while purification of some of the ash forming elements, such as calcium, potassium, and prosperous should also not be disregarded in future investigations.
rice husk --- rice husk ash --- silica --- engineered particle --- bottom-up process --- silica extraction --- valorization --- agricultural byproduct --- sustainable material --- biomass --- renewable material --- biogenic amorphous silica --- green chemistry --- maize leaves --- sugarcane fiber --- sugarcane leaves --- sugarcane pith --- biorefinery --- multi-objectives RSM --- nano-silica --- de-ashing --- cellulose crystals --- carbon nanotubes --- cellulose --- sugarcane bagasse --- capacitance --- maize straw --- acid leaching --- ash --- pyrolysis --- nitrogen conversion --- wood ash --- fertilizer --- heat and power plants --- heavy metals --- nutrients --- German fertilizer legislation --- alkaline leaching --- continuous process --- bio-based material --- waste --- exhausted grape marc --- biochar --- soil amendment --- biogas --- lifecycle assessment --- greenhouse gas emissions --- mitigation potential --- GHG mitigation costs --- manure --- biomethane --- RED II --- EU ETS --- smoldering --- high moisture content --- specific surface area --- rice straw --- nanosilica --- methylene blue --- zero waste generation --- decolorization --- SDGs --- municipal sewage sludge --- energy recovery --- phosphorus recovery --- techno-economic analysis --- mono-combustion --- co-combustion --- n/a
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The focus of this Special Issue was on biomass ash valorization with respect to their potential for various material applications. Most of the publications in this Special Issue focused on the production of biogenic silica with different properties. Additionally, some of the publications considered application of biomass ashes and biochar as a fertilizer, for soil amendment and recovery of ash forming elements such as N and P, as well as the application of biomass feedstocks in biofuel production.Accordingly, ashes produced from the thermochemical conversion of agricultural residues have high potential to be utilized for different material applications. However, local availability, as well as scaling up the process and life-cycle assessment should be considered prior to the utilization of these materials. Furthermore, densification as a mechanical pre-treatment can be crucial to improve the fuel properties, while purification of some of the ash forming elements, such as calcium, potassium, and prosperous should also not be disregarded in future investigations.
Technology: general issues --- rice husk --- rice husk ash --- silica --- engineered particle --- bottom-up process --- silica extraction --- valorization --- agricultural byproduct --- sustainable material --- biomass --- renewable material --- biogenic amorphous silica --- green chemistry --- maize leaves --- sugarcane fiber --- sugarcane leaves --- sugarcane pith --- biorefinery --- multi-objectives RSM --- nano-silica --- de-ashing --- cellulose crystals --- carbon nanotubes --- cellulose --- sugarcane bagasse --- capacitance --- maize straw --- acid leaching --- ash --- pyrolysis --- nitrogen conversion --- wood ash --- fertilizer --- heat and power plants --- heavy metals --- nutrients --- German fertilizer legislation --- alkaline leaching --- continuous process --- bio-based material --- waste --- exhausted grape marc --- biochar --- soil amendment --- biogas --- lifecycle assessment --- greenhouse gas emissions --- mitigation potential --- GHG mitigation costs --- manure --- biomethane --- RED II --- EU ETS --- smoldering --- high moisture content --- specific surface area --- rice straw --- nanosilica --- methylene blue --- zero waste generation --- decolorization --- SDGs --- municipal sewage sludge --- energy recovery --- phosphorus recovery --- techno-economic analysis --- mono-combustion --- co-combustion --- rice husk --- rice husk ash --- silica --- engineered particle --- bottom-up process --- silica extraction --- valorization --- agricultural byproduct --- sustainable material --- biomass --- renewable material --- biogenic amorphous silica --- green chemistry --- maize leaves --- sugarcane fiber --- sugarcane leaves --- sugarcane pith --- biorefinery --- multi-objectives RSM --- nano-silica --- de-ashing --- cellulose crystals --- carbon nanotubes --- cellulose --- sugarcane bagasse --- capacitance --- maize straw --- acid leaching --- ash --- pyrolysis --- nitrogen conversion --- wood ash --- fertilizer --- heat and power plants --- heavy metals --- nutrients --- German fertilizer legislation --- alkaline leaching --- continuous process --- bio-based material --- waste --- exhausted grape marc --- biochar --- soil amendment --- biogas --- lifecycle assessment --- greenhouse gas emissions --- mitigation potential --- GHG mitigation costs --- manure --- biomethane --- RED II --- EU ETS --- smoldering --- high moisture content --- specific surface area --- rice straw --- nanosilica --- methylene blue --- zero waste generation --- decolorization --- SDGs --- municipal sewage sludge --- energy recovery --- phosphorus recovery --- techno-economic analysis --- mono-combustion --- co-combustion
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